ELF > @ @ 8 @ # # 0 0 0 M M Zb Zb
p p $ $ Std Ptd D) D) Qtd Rtd GNU GNU UFŅ<[)
4; & @ ! B2D( A AXH!P C Q A1V D r &a A I 1 l @@0D @' J -h
@P"c |IP *@" 0 ~ @ @p ' @D ( h @ 0b! ` DD " ")S )@ CV @A@"P ` F D a a H %I R X B0@@ X!12 @! +8H( (
P X bT0@$>"Q0HdLСt H H XJ`AR 1@#ą" ` ] Ȁ
& ( * / 2 4 5 6 7 9 ; = ? A B C D E I M Q S U V W Y Z ] a b c d f j l o p q r t v w x z } ~
! # % ) * + , - 0 1 2 4 6 7 9 < > A C G J P S U W X ^ ` a d g h k m p s t v w x y z | 0a1܇Űw!gvVĨchn%|
bbKV (`b0I[B!Lpmm2> ˃pUQGlrCb;MNd9 OI!%ժYSp=4p!07}|eY-;qusmYƶ|.S Qw]B DJ
A3è+Txm]Ûm`{
ϿLwB7 QBjoz[4* %\մA4S.>"JO}ʑ
W9dIf'>ٜ kVN"'+u Ӧ@k""$.[@;_CiScHSUZ6{j3%4uZ-ҺDm9ѩ6VeBYўq<3IEa4{XLQ $avIV4+s¼t zRtiNe0`S T.3=<$U˱w3z\ЋrMJFkr3)oϩo3VG/l[7S g_H¼L=n2f8M&Pu$Eĥ@3s jO;ʛ9.8 *-fcAG6R6=H s9.Zlf(p A iL o@'J
1V*;ky7 Ur 6m9A@F$I>\Dcz l!_= SpAtMPj~M^m~6 ZTB 3f}q/+Szi<->P
<^88r~xS6>dF,Ar(:>vZx6vV Ng9p]a}1/^&,1yEh@1\؋ew ud! x~TqLֈ5
D>)Q@ }4 n$Ee 9d-NTd(jO;A. ׁ悧ݹ y iC T1LLH)h: {`_}ķ=EG(|/Ge 4I\^ pn4FRnh u{
" ğZLHrZ:bho31/byS
_Ql3xyuЗVk Cͥn~idkrM^qJk Q pFإY.`F_WNEFKqOESDs_ҭ(Jl{>
$FucrO֥Uo ]4'@mS6=#%(*E ij#& yD:"QT jn* 67c1<Ґ"t tKA~ Jk)xesجF؎Ժ,@+NKe2W3*f=g4eG#ay2m3҃0| 5b{bM GeEW=8],gRv9v内)| 82d5McZW$,VA篸0Jbx5CsLˎ\)ssL=ZYMrPs W1zvEm l u * =o ) nw
p C + Zf i n@ 3 ( B Vq KA & $ B dj u p W( / h B d _\ S m J 0 l
- n ? oy =P j F " Ip e )i \F y zH o j rK { 1 n s i ` % c U/ Q &t a f - r 4 h 6O cV m T e3 W . ! IZ O0 Es Ju @ c \ su + K P * * - y P. ; e n g im / l C V W A ` h 1 / zh s
zn Nd
u l/ C O+ V Ar k . Ve 0 /D oa :j F1 =@ E A v4 rr A $B f ` cP ! `i 0 - f E E P jl z /h pc q s t 0 8 r0 1 q kg 1m /a a o 5C " @ 0 h y
< iD ?n ^y ~\ @ P ' ' {+ 4
Eg y CL S C n B A '0 R f D (
-d 1! g Th 2 C0 at s 14 L ' 4l F h / {( _ K e `C u- ( \ 3 r @ r e l , d ue @ o q x F y 0 C 7U " T ) V " U b O " j " O K " ` D ]I O ( "
" p @Y " S " `S ) & p M CX " ro H " u vR @( O uv " x g " 6V " U $ M #Z " 0 " b 2 " l8 " P ! Y " ` " - " 8[ " D _ " 0z D " s! " j s M b " B 3" i M j O ZU " T
7= " u . O k " 0 ] " 1 o ` " D " `Y " ! w " z b 5; " J " " ! ~G " ) Ъ M ( M " A k. " t
5# ps O 4N " @ " ! Y " ! " ` 4 p M " b 3 " f& " Z j7 "
" V _ " p
V- " ` u
" P (u @[ O M " k ck " 7 " 1 ]> " ? " 0
" Z " P u 7F " " H ! ? " О D ^ " P R " / U O [1 O 7, " SO " [J " & " П ! H) " P
" I u IW R O G "
8 " + @ M 4
O & " .b O .T " S
" `y P$ " u . O " 0{ wQ " ( j) " ` ! Y " : "
S @/ M 5 " O , " @ T " T ) v " y " 0I ! : " И ! m$ " ` D W " xx u M [
M d9 "
;w " y " " k D X# " 0 A #$ " Ѓ a " 1 L " J ? ^ " $ " b ' " c = " pI ! " k " P ) 4 " @ P L " P q ( M " y A _ " 6 " 0 ! N " `
+^ " M " O " P D " H " ` 9 " P ) " r
; " p e6 " Q " ( 7 PH M M % O X " p N
" A " " s 6 " > " D " - < " ` ! :3 " ' " u G " y I_ "
" D H " ? 9 " @ " p ? ` " p D * " D O " ? O " ) 7 " O " # " [ " p r nX " P u Z M [' " ` ? F O V, P M v " x @y | 7 " Ж F6 " ! F " p K " jW " P 1 " ? " - S " PS d " @ b #% " @ ; " Й " p ' " p X " $L " 0 f" pi O , w M _ " е ! " pj " 0 " W " " py ! > " D 6 " ?I M . ` M b5 " M 8 " 0
g 8S " R " z ? {M p O X " Њ j* " ` ? 8 " q " R v P- O [[ " @ ? ]: "
J " K" p M "H " ! " r N " p
" I u " V = " D w " z " y z[ " k U H O p O 9 " ! " b 65 " t " p` O H " p u T " PT
v " y P `; "
" # " J D W "
e^ "
[ " ? ]< " P ! " k ? ! " k ? S " S
O " D 6: " ) " z k 5 " 0 ! 9 " 0V u U " U ) Y " ! " " s & " p Z " : " _ j P M Z " D 'Q p O G " ! ws L M Q " ) b " r = " ? p M i " = " p D " `I ? " ? Z " ` D
= " O " u ( " N * " Y " P + O x v O FQ " ( A 3 " !
Q M U s H I! " j
M b " M s, O ] " D " " y b : " U " PU
R " / > " p ? [ " l " N " ! S " r cL " @ $ " ? ( " 0 ~ x O " @j ! " V &c " P x " { r V " `U ! F O C\ O " u S " S ) " !
" p
" p " ? " L " ` J " (. " b " B .K " "1 P A cZ " @ k " " r b " H8 " @ 6( O K " ?E " @
b "
" ` ! 5 " p ! T= " 0 ? P " 0 ? < " # " s u = " P ? ) " @
PK " 5k " # " ) " )> " D V " U w " `y _M M " P P* " u M " ! & " P M "
" I o2 M ) " 5& " I " p p " , O =M " ` k ] " P 1 -q ( Wb "
}U " T ) b? " ? [ " r X " P Dx " { s " K ? N " ! c " p *W PR M r " R O _T " S ) , " ! -< " ! J " SR ' M V " V r Ev " x P U " px $ " k ; " *' " D d " i # " ! g p M % " '- " P z% " {` " u 2 - H 7 " p 1 , " " ? M] " ; " , 0 O E " ` U " U
" @ g < T " `T ) 4 O ) " ! }I " A e " I < " " 7J " 8G " ` ) " 0j . " )\ 0 " u 6 " ! cB 4 0 M ` " ? 3 " 6 " ` Z " Ќ ? wE " P
md " O `U M ? " ` D L " p u #R " p) k B` " t " `` I " A v " Py % " ! ) " Y O "
T " T
pp " + \N " P
] "
I " P w " z r ! " `k D 8 " ! S / O F P M | " k 5 " ` G " I " ^ " 0 1 57 " 2 O b M ? " i ! " j ! Kc " ` L " k " @ < 09 " З ) N% " P ! _ " ! " " s I " 0 D " @J D d " b 2 " U " T
? " ? 8? " @ D cS " S P NH " P E " 1 X " A [G "
__gmon_start__ _ITM_deregisterTMCloneTable _ITM_registerTMCloneTable __cxa_finalize _ZN13vtkExtractVOI6SetVOIEiiiiii _ZN13vtkExtractVOI6GetVOIEv _ZN13vtkExtractVOI13SetSampleRateEiii _ZN13vtkExtractVOI13GetSampleRateEv _ZN13vtkExtractVOI18SetIncludeBoundaryEi _ZN13vtkExtractVOI18GetIncludeBoundaryEv _ZN13vtkExtractVOI3NewEv _ZNK13vtkExtractVOI19NewInstanceInternalEv _ZN13vtkPythonArgs13ArgCountErrorEii _ZN13vtkPythonArgs17GetArgAsVTKObjectEPKcRb PyErr_Occurred _ZN13vtkPythonUtil20GetObjectFromPointerEP13vtkObjectBase __stack_chk_fail _ZN13vtkExtractVOI3IsAEPKc strcmp _ZN13vtkObjectBase8IsTypeOfEPKc _ZN13vtkExtractVOI18IncludeBoundaryOffEv _ZN13vtkExtractVOI17IncludeBoundaryOnEv _ZN13vtkExtractVOI13SetSampleRateEPi _ZN13vtkPythonArgs8GetValueERPc PyLong_FromLong _ZN13vtkExtractVOI6SetVOIEPi _ZN13vtkPythonArgs19GetSelfFromFirstArgEP7_objectS1_ _ZN13vtkPythonArgs10BuildTupleEPKii _Py_NoneStruct _ZN13vtkPythonArgs8GetValueERi PyVTKObject_Check PyVTKObject_GetObject PyVTKObject_SetFlag _ZN13vtkPythonArgs13ArgCountErrorEiPKc _ZN13vtkPythonArgs8GetArrayEPii PyvtkExtractVOI_ClassNew PyVTKClass_Add PyvtkImageAlgorithm_ClassNew PyType_Ready PyVTKAddFile_vtkExtractVOI PyDict_SetItemString _Py_Dealloc PyType_Type PyVTKObject_Delete PyVTKObject_Repr PyVTKObject_String PyObject_GenericGetAttr PyObject_GenericSetAttr PyVTKObject_AsBuffer PyVTKObject_Traverse PyVTKObject_GetSet PyVTKObject_New PyObject_GC_Del _ZN24vtkImageAppendComponents3NewEv _ZNK24vtkImageAppendComponents19NewInstanceInternalEv _ZN24vtkImageAppendComponents3IsAEPKc _ZN12vtkAlgorithm27GetNumberOfInputConnectionsEi _ZN24vtkImageAppendComponents8GetInputEi _ZN24vtkImageAppendComponents12SetInputDataEiP13vtkDataObject PyvtkImageAppendComponents_ClassNew PyvtkThreadedImageAlgorithm_ClassNew PyVTKAddFile_vtkImageAppendComponents _ZN24vtkImageAppendComponents25ReplaceNthInputConnectionEiP18vtkAlgorithmOutput _ZN13vtkImageBlend12SetBlendModeEi _ZN13vtkImageBlend20GetBlendModeMinValueEv _ZN13vtkImageBlend20GetBlendModeMaxValueEv _ZN13vtkImageBlend12GetBlendModeEv _ZN13vtkImageBlend20SetCompoundThresholdEd _ZN13vtkImageBlend20GetCompoundThresholdEv _ZN13vtkImageBlend3NewEv _ZNK13vtkImageBlend19NewInstanceInternalEv _ZN13vtkImageBlend3IsAEPKc _ZN13vtkImageBlend10GetStencilEv PyFloat_FromDouble _ZN13vtkImageBlend20SetStencilConnectionEP18vtkAlgorithmOutput _ZN13vtkImageBlend14SetStencilDataEP19vtkImageStencilData _ZN13vtkImageBlend10GetOpacityEi _ZN13vtkPythonArgs8GetValueERd _ZN13vtkImageBlend10SetOpacityEid strlen PyUnicode_FromStringAndSize PyErr_Clear PyBytes_FromStringAndSize _ZN13vtkImageBlend8GetInputEi _ZN13vtkImageBlend12SetInputDataEiP13vtkDataObject PyvtkImageBlend_ClassNew PyVTKAddFile_vtkImageBlend _ZN13vtkImageBlend25ReplaceNthInputConnectionEiP18vtkAlgorithmOutput _ZN19vtkImageCacheFilter3NewEv _ZNK19vtkImageCacheFilter19NewInstanceInternalEv _ZN19vtkImageCacheFilter3IsAEPKc _ZN19vtkImageCacheFilter12GetCacheSizeEv _ZN19vtkImageCacheFilter12SetCacheSizeEi PyvtkImageCacheFilter_ClassNew PyVTKAddFile_vtkImageCacheFilter _ZN12vtkImageCast19SetOutputScalarTypeEi _ZN12vtkImageCast19GetOutputScalarTypeEv _ZN12vtkImageCast16SetClampOverflowEi _ZN12vtkImageCast16GetClampOverflowEv _ZN12vtkImageCast3NewEv _ZNK12vtkImageCast19NewInstanceInternalEv _ZN12vtkImageCast3IsAEPKc _ZN12vtkImageCast15ClampOverflowOnEv _ZN12vtkImageCast16ClampOverflowOffEv PyvtkImageCast_ClassNew PyVTKAddFile_vtkImageCast _ZN25vtkImageChangeInformation20SetOutputExtentStartEiii _ZN25vtkImageChangeInformation20GetOutputExtentStartEv _ZN25vtkImageChangeInformation16SetOutputSpacingEddd _ZN25vtkImageChangeInformation16GetOutputSpacingEv _ZN25vtkImageChangeInformation15SetOutputOriginEddd _ZN25vtkImageChangeInformation15GetOutputOriginEv _ZN25vtkImageChangeInformation14SetCenterImageEi _ZN25vtkImageChangeInformation14GetCenterImageEv _ZN25vtkImageChangeInformation20SetExtentTranslationEiii _ZN25vtkImageChangeInformation20GetExtentTranslationEv _ZN25vtkImageChangeInformation15SetSpacingScaleEddd _ZN25vtkImageChangeInformation15GetSpacingScaleEv _ZN25vtkImageChangeInformation20SetOriginTranslationEddd _ZN25vtkImageChangeInformation20GetOriginTranslationEv _ZN25vtkImageChangeInformation14SetOriginScaleEddd _ZN25vtkImageChangeInformation14GetOriginScaleEv _ZN25vtkImageChangeInformation3NewEv _ZNK25vtkImageChangeInformation19NewInstanceInternalEv _ZN25vtkImageChangeInformation3IsAEPKc _ZN25vtkImageChangeInformation13CenterImageOnEv _ZN25vtkImageChangeInformation14CenterImageOffEv _ZN25vtkImageChangeInformation20SetExtentTranslationEPi _ZN25vtkImageChangeInformation20SetOutputExtentStartEPi _ZN25vtkImageChangeInformation16SetOutputSpacingEPd _ZN25vtkImageChangeInformation15SetOutputOriginEPd _ZN25vtkImageChangeInformation14SetOriginScaleEPd _ZN25vtkImageChangeInformation15SetSpacingScaleEPd _ZN25vtkImageChangeInformation20SetOriginTranslationEPd _ZN13vtkPythonArgs10BuildTupleEPKdi _ZN13vtkPythonArgs8GetArrayEPdi PyvtkImageChangeInformation_ClassNew PyVTKAddFile_vtkImageChangeInformation _ZN25vtkImageChangeInformation19GetInformationInputEv _ZN25vtkImageChangeInformation23SetInformationInputDataEP12vtkImageData _ZN12vtkImageClip11SetClipDataEi _ZN12vtkImageClip11GetClipDataEv _ZN12vtkImageClip3NewEv _ZNK12vtkImageClip19NewInstanceInternalEv _ZN12vtkImageClip3IsAEPKc _ZN12vtkImageClip10ClipDataOnEv _ZN12vtkImageClip11ClipDataOffEv _ZN12vtkImageClip22ResetOutputWholeExtentEv _ZN12vtkImageClip20GetOutputWholeExtentEPi _ZN13vtkPythonArgs8SetArrayEiPKii _ZN12vtkImageClip20SetOutputWholeExtentEPiP14vtkInformation _ZN12vtkImageClip20SetOutputWholeExtentEiiiiii PyvtkImageClip_ClassNew PyVTKAddFile_vtkImageClip _ZN19vtkImageConstantPad11SetConstantEd _ZN19vtkImageConstantPad11GetConstantEv _ZN19vtkImageConstantPad3NewEv _ZNK19vtkImageConstantPad19NewInstanceInternalEv _ZN19vtkImageConstantPad3IsAEPKc PyvtkImageConstantPad_ClassNew PyvtkImagePadFilter_ClassNew PyVTKAddFile_vtkImageConstantPad _ZN20vtkImageDataStreamer26SetNumberOfStreamDivisionsEi _ZN20vtkImageDataStreamer26GetNumberOfStreamDivisionsEv _ZN20vtkImageDataStreamer19GetExtentTranslatorEv _ZN20vtkImageDataStreamer3NewEv _ZNK20vtkImageDataStreamer19NewInstanceInternalEv _ZN20vtkImageDataStreamer3IsAEPKc PyvtkImageDataStreamer_ClassNew PyVTKAddFile_vtkImageDataStreamer _ZN20vtkImageDataStreamer19SetExtentTranslatorEP19vtkExtentTranslator _ZN23vtkImageDecomposeFilter17GetDimensionalityEv _ZN13vtkPythonArgs10GetArgSizeEi _ZN13vtkPythonArgs5ArrayIiEC1El _ZdaPv _ZN23vtkImageDecomposeFilter13PermuteExtentEPiRiS1_S1_S1_S1_S1_ _ZN13vtkPythonArgs11SetArgValueEii __gxx_personality_v0 _Unwind_Resume _ZNK23vtkImageDecomposeFilter19NewInstanceInternalEv _ZN12vtkAlgorithm3NewEv _ZN23vtkImageDecomposeFilter3IsAEPKc _ZN23vtkImageDecomposeFilter17SetDimensionalityEi _ZN13vtkPythonArgs5ArrayIxEC1El _ZN13vtkPythonArgs8GetArrayEPxi _ZN13vtkPythonArgs8GetValueERx _ZN23vtkImageDecomposeFilter17PermuteIncrementsEPxRxS1_S1_ _ZN13vtkPythonArgs11SetArgValueEix _ZN13vtkPythonArgs8SetArrayEiPKxi PyvtkImageDecomposeFilter_ClassNew PyvtkImageIterateFilter_ClassNew PyVTKAddFile_vtkImageDecomposeFilter _ZN18vtkImageDifference12SetThresholdEi _ZN18vtkImageDifference12GetThresholdEv _ZN18vtkImageDifference13SetAllowShiftEi _ZN18vtkImageDifference13GetAllowShiftEv _ZN18vtkImageDifference12SetAveragingEi _ZN18vtkImageDifference12GetAveragingEv _ZN18vtkImageDifference3NewEv _ZNK18vtkImageDifference19NewInstanceInternalEv _ZN18vtkImageDifference3IsAEPKc _ZN18vtkImageDifference12AveragingOffEv _ZN18vtkImageDifference13AllowShiftOffEv _ZN18vtkImageDifference11AveragingOnEv _ZN18vtkImageDifference12AllowShiftOnEv _ZN18vtkImageDifference8GetImageEv _ZN17vtkImageAlgorithm12SetInputDataEiP13vtkDataObject _ZN13vtkPythonArgs5ArrayIdEC1El _ZN13vtkPythonArgs8SetArrayEiPKdi PyvtkImageDifference_ClassNew PyVTKAddFile_vtkImageDifference _ZN25vtkImageExtractComponents13GetComponentsEv _ZN25vtkImageExtractComponents21GetNumberOfComponentsEv _ZN25vtkImageExtractComponents3NewEv _ZNK25vtkImageExtractComponents19NewInstanceInternalEv _ZN25vtkImageExtractComponents3IsAEPKc _ZN25vtkImageExtractComponents13SetComponentsEiii _ZN25vtkImageExtractComponents13SetComponentsEi _ZN25vtkImageExtractComponents13SetComponentsEii PyvtkImageExtractComponents_ClassNew PyVTKAddFile_vtkImageExtractComponents _ZN12vtkImageFlip15SetFilteredAxisEi _ZN12vtkImageFlip15GetFilteredAxisEv _ZN12vtkImageFlip18SetFlipAboutOriginEi _ZN12vtkImageFlip18GetFlipAboutOriginEv _ZN12vtkImageFlip22SetPreserveImageExtentEi _ZN12vtkImageFlip22GetPreserveImageExtentEv _ZN12vtkImageFlip3NewEv _ZNK12vtkImageFlip19NewInstanceInternalEv _ZN12vtkImageFlip3IsAEPKc _ZN12vtkImageFlip17FlipAboutOriginOnEv _ZN12vtkImageFlip18FlipAboutOriginOffEv _ZN12vtkImageFlip21PreserveImageExtentOnEv _ZN12vtkImageFlip22PreserveImageExtentOffEv PyvtkImageFlip_ClassNew PyvtkImageReslice_ClassNew PyVTKAddFile_vtkImageFlip _ZN21vtkImageIterateFilter12GetIterationEv _ZN21vtkImageIterateFilter21GetNumberOfIterationsEv _ZNK21vtkImageIterateFilter19NewInstanceInternalEv _ZN21vtkImageIterateFilter3IsAEPKc PyVTKAddFile_vtkImageIterateFilter _ZN15vtkImageMagnify23SetMagnificationFactorsEiii _ZN15vtkImageMagnify23GetMagnificationFactorsEv _ZN15vtkImageMagnify14SetInterpolateEi _ZN15vtkImageMagnify14GetInterpolateEv _ZN15vtkImageMagnify3NewEv _ZNK15vtkImageMagnify19NewInstanceInternalEv _ZN15vtkImageMagnify3IsAEPKc _ZN15vtkImageMagnify14InterpolateOffEv _ZN15vtkImageMagnify13InterpolateOnEv _ZN15vtkImageMagnify23SetMagnificationFactorsEPi PyvtkImageMagnify_ClassNew PyVTKAddFile_vtkImageMagnify _ZN19vtkImageMapToColors14GetLookupTableEv _ZN19vtkImageMapToColors15SetOutputFormatEi _ZN19vtkImageMapToColors15GetOutputFormatEv _ZN19vtkImageMapToColors18SetActiveComponentEi _ZN19vtkImageMapToColors18GetActiveComponentEv _ZN19vtkImageMapToColors20SetPassAlphaToOutputEi _ZN19vtkImageMapToColors20GetPassAlphaToOutputEv _ZN19vtkImageMapToColors11SetNaNColorEhhhh _ZN19vtkImageMapToColors11GetNaNColorEv _ZN19vtkImageMapToColors3NewEv _ZNK19vtkImageMapToColors19NewInstanceInternalEv _ZN19vtkImageMapToColors3IsAEPKc _ZN19vtkImageMapToColors20PassAlphaToOutputOffEv _ZN19vtkImageMapToColors19PassAlphaToOutputOnEv _ZN19vtkImageMapToColors11SetNaNColorEPh _ZN13vtkPythonArgs10BuildTupleEPKhi _ZN13vtkPythonArgs8GetValueERh _ZN13vtkPythonArgs8GetArrayEPhi PyvtkImageMapToColors_ClassNew PyVTKAddFile_vtkImageMapToColors _ZN19vtkImageMapToColors8GetMTimeEv PyLong_FromUnsignedLong _ZN19vtkImageMapToColors14SetLookupTableEP18vtkScalarsToColors _ZN12vtkImageMask12SetMaskAlphaEd _ZN12vtkImageMask20GetMaskAlphaMinValueEv _ZN12vtkImageMask20GetMaskAlphaMaxValueEv _ZN12vtkImageMask12GetMaskAlphaEv _ZN12vtkImageMask10SetNotMaskEi _ZN12vtkImageMask10GetNotMaskEv _ZN12vtkImageMask3NewEv _ZNK12vtkImageMask19NewInstanceInternalEv _ZN12vtkImageMask13SetInput1DataEP13vtkDataObject _ZN12vtkImageMask13SetInput2DataEP13vtkDataObject _ZN12vtkImageMask3IsAEPKc _ZN12vtkImageMask9NotMaskOnEv _ZN12vtkImageMask10NotMaskOffEv _ZN13vtkPythonUtil13ManglePointerEPKvPKc PyUnicode_FromString _ZN12vtkImageMask17SetImageInputDataEP12vtkImageData _ZN12vtkImageMask16SetMaskInputDataEP12vtkImageData _ZN12vtkImageMask20SetMaskedOutputValueEiPd _ZN17vtkPythonOverload10CallMethodEP11PyMethodDefP7_objectS3_ PyvtkImageMask_ClassNew PyVTKAddFile_vtkImageMask _ZN17vtkImageMirrorPad3NewEv _ZNK17vtkImageMirrorPad19NewInstanceInternalEv _ZN17vtkImageMirrorPad3IsAEPKc PyvtkImageMirrorPad_ClassNew PyVTKAddFile_vtkImageMirrorPad _ZN17vtkImagePadFilter33SetOutputNumberOfScalarComponentsEi _ZN17vtkImagePadFilter33GetOutputNumberOfScalarComponentsEv _ZN17vtkImagePadFilter3NewEv _ZNK17vtkImagePadFilter19NewInstanceInternalEv _ZN17vtkImagePadFilter3IsAEPKc _ZN17vtkImagePadFilter20GetOutputWholeExtentEPi _ZN17vtkImagePadFilter20SetOutputWholeExtentEPi _ZN17vtkImagePadFilter20SetOutputWholeExtentEiiiiii PyVTKAddFile_vtkImagePadFilter _ZN15vtkImagePermute15GetFilteredAxesEv _ZN15vtkImagePermute3NewEv _ZNK15vtkImagePermute19NewInstanceInternalEv _ZN15vtkImagePermute3IsAEPKc _ZN15vtkImagePermute15SetFilteredAxesEiii PyvtkImagePermute_ClassNew PyVTKAddFile_vtkImagePermute _Znwm _ZN13vtkPythonArgs21GetArgAsSpecialObjectEPKcPP7_object PyVTKSpecialObject_New _ZN25vtkImagePointDataIterator10InitializeEP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi _ZdlPv _ZN25vtkImagePointDataIterator14GetVoidPointerEP12vtkImageDataxPi PyObject_Free PyObject_HashNotImplemented PyDict_Size _ZN25vtkImagePointDataIteratorC1Ev PyExc_TypeError PyErr_SetString _ZN25vtkImagePointDataIterator14GetVoidPointerEP12vtkDataArrayxPi PyLong_FromLongLong PyBool_FromLong _ZN25vtkImagePointDataIterator8NextSpanEv PyvtkImagePointDataIterator_TypeNew PyVTKSpecialType_Add PyVTKAddFile_vtkImagePointDataIterator PyVTKSpecialObject_Repr _ZN21vtkImagePointIteratorC1EP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi _ZN21vtkImagePointIteratorC1Ev _ZN21vtkImagePointIterator10InitializeEP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi PyvtkImagePointIterator_TypeNew PyVTKAddFile_vtkImagePointIterator _ZN16vtkImageResample16SetOutputSpacingEPKd _ZN16vtkImageResample23GetMagnificationFactorsEv _ZN16vtkImageResample17SetDimensionalityEi _ZN16vtkImageResample17GetDimensionalityEv _ZN16vtkImageResample3NewEv _ZNK16vtkImageResample19NewInstanceInternalEv _ZN16vtkImageResample3IsAEPKc _ZN16vtkImageResample20SetAxisOutputSpacingEid _ZN16vtkImageResample26SetAxisMagnificationFactorEid _ZN16vtkImageResample26GetAxisMagnificationFactorEiP14vtkInformation _ZN16vtkImageResample23SetMagnificationFactorsEddd PyvtkImageResample_ClassNew PyVTKAddFile_vtkImageResample _ZN16vtkImageResample16SetOutputSpacingEddd _ZN15vtkImageReslice14GetResliceAxesEv _ZN15vtkImageReslice19GetResliceTransformEv _ZN15vtkImageReslice19GetInformationInputEv _ZN15vtkImageReslice25SetTransformInputSamplingEi _ZN15vtkImageReslice25GetTransformInputSamplingEv _ZN15vtkImageReslice17SetAutoCropOutputEi _ZN15vtkImageReslice17GetAutoCropOutputEv _ZN15vtkImageReslice7SetWrapEi _ZN15vtkImageReslice7GetWrapEv _ZN15vtkImageReslice9SetMirrorEi _ZN15vtkImageReslice9GetMirrorEv _ZN15vtkImageReslice9SetBorderEi _ZN15vtkImageReslice9GetBorderEv _ZN15vtkImageReslice20SetInterpolationModeEi _ZN15vtkImageReslice28GetInterpolationModeMinValueEv _ZN15vtkImageReslice28GetInterpolationModeMaxValueEv _ZN15vtkImageReslice20GetInterpolationModeEv _ZN15vtkImageReslice11SetSlabModeEi _ZN15vtkImageReslice19GetSlabModeMinValueEv _ZN15vtkImageReslice19GetSlabModeMaxValueEv _ZN15vtkImageReslice11GetSlabModeEv _ZN15vtkImageReslice21SetSlabNumberOfSlicesEi _ZN15vtkImageReslice21GetSlabNumberOfSlicesEv _ZN15vtkImageReslice27SetSlabTrapezoidIntegrationEi _ZN15vtkImageReslice27GetSlabTrapezoidIntegrationEv _ZN15vtkImageReslice27SetSlabSliceSpacingFractionEd _ZN15vtkImageReslice27GetSlabSliceSpacingFractionEv _ZN15vtkImageReslice15SetOptimizationEi _ZN15vtkImageReslice15GetOptimizationEv _ZN15vtkImageReslice14SetScalarShiftEd _ZN15vtkImageReslice14GetScalarShiftEv _ZN15vtkImageReslice14SetScalarScaleEd _ZN15vtkImageReslice14GetScalarScaleEv _ZN15vtkImageReslice19SetOutputScalarTypeEi _ZN15vtkImageReslice19GetOutputScalarTypeEv _ZN15vtkImageReslice18SetBackgroundColorEdddd _ZN15vtkImageReslice18GetBackgroundColorEv _ZN15vtkImageReslice16SetOutputSpacingEPKd _ZN15vtkImageReslice16GetOutputSpacingEv _ZN15vtkImageReslice15SetOutputOriginEPKd _ZN15vtkImageReslice15GetOutputOriginEv _ZN15vtkImageReslice15SetOutputExtentEPKi _ZN15vtkImageReslice15GetOutputExtentEv _ZN15vtkImageReslice23SetOutputDimensionalityEi _ZN15vtkImageReslice23GetOutputDimensionalityEv _ZN15vtkImageReslice24SetGenerateStencilOutputEi _ZN15vtkImageReslice24GetGenerateStencilOutputEv _ZN15vtkImageReslice3NewEv _ZNK15vtkImageReslice19NewInstanceInternalEv _ZN15vtkImageReslice3IsAEPKc _ZN15vtkImageReslice23GenerateStencilOutputOnEv _ZN15vtkImageReslice24GenerateStencilOutputOffEv _ZN15vtkImageReslice8BorderOnEv _ZN15vtkImageReslice9BorderOffEv _ZN15vtkImageReslice26SlabTrapezoidIntegrationOnEv _ZN15vtkImageReslice27SlabTrapezoidIntegrationOffEv _ZN15vtkImageReslice14OptimizationOnEv _ZN15vtkImageReslice15OptimizationOffEv _ZN15vtkImageReslice24TransformInputSamplingOnEv _ZN15vtkImageReslice25TransformInputSamplingOffEv _ZN15vtkImageReslice16AutoCropOutputOnEv _ZN15vtkImageReslice17AutoCropOutputOffEv _ZN15vtkImageReslice6WrapOnEv _ZN15vtkImageReslice7WrapOffEv _ZN15vtkImageReslice8MirrorOnEv _ZN15vtkImageReslice9MirrorOffEv _ZN15vtkImageReslice18SetBackgroundColorEPd _ZN15vtkImageReslice24SetOutputExtentToDefaultEv _ZN15vtkImageReslice24SetOutputOriginToDefaultEv _ZN15vtkImageReslice25SetOutputSpacingToDefaultEv _ZN15vtkImageReslice10GetStencilEv _ZN15vtkImageReslice16GetStencilOutputEv _ZN12vtkAlgorithm13GetOutputPortEi _ZN15vtkImageReslice14SetStencilDataEP19vtkImageStencilData _ZN15vtkImageReslice16SetStencilOutputEP19vtkImageStencilData _ZN15vtkImageReslice20GetResliceAxesOriginEPd _ZN15vtkImageReslice20SetResliceAxesOriginEddd _ZN15vtkImageReslice30GetResliceAxesDirectionCosinesEPdS0_S0_ _ZN15vtkImageReslice30SetResliceAxesDirectionCosinesEddddddddd PyVTKAddFile_vtkImageReslice _ZN15vtkImageReslice16ReportReferencesEP19vtkGarbageCollector _ZN15vtkImageReslice8GetMTimeEv _ZN15vtkImageReslice15SetOutputExtentEiiiiii _ZN15vtkImageReslice15SetOutputOriginEddd _ZN15vtkImageReslice16SetOutputSpacingEddd _ZN15vtkImageReslice19GetSlabModeAsStringEv _ZN15vtkImageReslice15GetInterpolatorEv _ZN15vtkImageReslice15SetInterpolatorEP28vtkAbstractImageInterpolator _ZN15vtkImageReslice28GetInterpolationModeAsStringEv _ZN15vtkImageReslice19SetInformationInputEP12vtkImageData _ZN15vtkImageReslice19SetResliceTransformEP20vtkAbstractTransform _ZN15vtkImageReslice14SetResliceAxesEP12vtkMatrix4x4 _ZN23vtkImageResliceToColors14GetLookupTableEv _ZN23vtkImageResliceToColors15SetOutputFormatEi _ZN23vtkImageResliceToColors23GetOutputFormatMinValueEv _ZN23vtkImageResliceToColors23GetOutputFormatMaxValueEv _ZN23vtkImageResliceToColors15GetOutputFormatEv _ZN23vtkImageResliceToColors3NewEv _ZNK23vtkImageResliceToColors19NewInstanceInternalEv _ZN23vtkImageResliceToColors3IsAEPKc _ZN23vtkImageResliceToColors9SetBypassEi PyvtkImageResliceToColors_ClassNew PyVTKAddFile_vtkImageResliceToColors _ZN23vtkImageResliceToColors8GetMTimeEv _ZN23vtkImageResliceToColors14SetLookupTableEP18vtkScalarsToColors _ZN18vtkImageShiftScale8SetShiftEd _ZN18vtkImageShiftScale8GetShiftEv _ZN18vtkImageShiftScale8SetScaleEd _ZN18vtkImageShiftScale8GetScaleEv _ZN18vtkImageShiftScale19SetOutputScalarTypeEi _ZN18vtkImageShiftScale19GetOutputScalarTypeEv _ZN18vtkImageShiftScale16SetClampOverflowEi _ZN18vtkImageShiftScale16GetClampOverflowEv _ZN18vtkImageShiftScale3NewEv _ZNK18vtkImageShiftScale19NewInstanceInternalEv _ZN18vtkImageShiftScale3IsAEPKc _ZN18vtkImageShiftScale15ClampOverflowOnEv _ZN18vtkImageShiftScale16ClampOverflowOffEv PyvtkImageShiftScale_ClassNew PyVTKAddFile_vtkImageShiftScale _ZN16vtkImageShrink3D16SetShrinkFactorsEiii _ZN16vtkImageShrink3D16GetShrinkFactorsEv _ZN16vtkImageShrink3D8SetShiftEiii _ZN16vtkImageShrink3D8GetShiftEv _ZN16vtkImageShrink3D7GetMeanEv _ZN16vtkImageShrink3D10GetMinimumEv _ZN16vtkImageShrink3D10GetMaximumEv _ZN16vtkImageShrink3D9GetMedianEv _ZN16vtkImageShrink3D3NewEv _ZNK16vtkImageShrink3D19NewInstanceInternalEv _ZN16vtkImageShrink3D8MedianOnEv _ZN16vtkImageShrink3D9SetMedianEi _ZN16vtkImageShrink3D9MedianOffEv _ZN16vtkImageShrink3D9MaximumOnEv _ZN16vtkImageShrink3D10SetMaximumEi _ZN16vtkImageShrink3D10MaximumOffEv _ZN16vtkImageShrink3D9MinimumOnEv _ZN16vtkImageShrink3D10SetMinimumEi _ZN16vtkImageShrink3D10MinimumOffEv _ZN16vtkImageShrink3D6MeanOnEv _ZN16vtkImageShrink3D7SetMeanEi _ZN16vtkImageShrink3D7MeanOffEv _ZN16vtkImageShrink3D11AveragingOnEv _ZN16vtkImageShrink3D12SetAveragingEi _ZN16vtkImageShrink3D12AveragingOffEv _ZN16vtkImageShrink3D3IsAEPKc _ZN16vtkImageShrink3D16SetShrinkFactorsEPi _ZN16vtkImageShrink3D8SetShiftEPi PyvtkImageShrink3D_ClassNew PyVTKAddFile_vtkImageShrink3D _ZN17vtkImageThreshold12SetReplaceInEi _ZN17vtkImageThreshold12GetReplaceInEv _ZN17vtkImageThreshold10GetInValueEv _ZN17vtkImageThreshold13SetReplaceOutEi _ZN17vtkImageThreshold13GetReplaceOutEv _ZN17vtkImageThreshold11GetOutValueEv _ZN17vtkImageThreshold17GetUpperThresholdEv _ZN17vtkImageThreshold17GetLowerThresholdEv _ZN17vtkImageThreshold19SetOutputScalarTypeEi _ZN17vtkImageThreshold19GetOutputScalarTypeEv _ZN17vtkImageThreshold3NewEv _ZNK17vtkImageThreshold19NewInstanceInternalEv _ZN17vtkImageThreshold3IsAEPKc _ZN17vtkImageThreshold13ReplaceOutOffEv _ZN17vtkImageThreshold12ReplaceInOffEv _ZN17vtkImageThreshold12ReplaceOutOnEv _ZN17vtkImageThreshold11ReplaceInOnEv _ZN17vtkImageThreshold11SetOutValueEd _ZN17vtkImageThreshold10SetInValueEd _ZN17vtkImageThreshold16ThresholdByUpperEd _ZN17vtkImageThreshold16ThresholdByLowerEd _ZN17vtkImageThreshold16ThresholdBetweenEdd PyvtkImageThreshold_ClassNew PyVTKAddFile_vtkImageThreshold _ZN23vtkImageTranslateExtent14SetTranslationEiii _ZN23vtkImageTranslateExtent14GetTranslationEv _ZN23vtkImageTranslateExtent3NewEv _ZNK23vtkImageTranslateExtent19NewInstanceInternalEv _ZN23vtkImageTranslateExtent3IsAEPKc _ZN23vtkImageTranslateExtent14SetTranslationEPi PyvtkImageTranslateExtent_ClassNew PyVTKAddFile_vtkImageTranslateExtent _ZN15vtkImageWrapPad3NewEv _ZNK15vtkImageWrapPad19NewInstanceInternalEv _ZN15vtkImageWrapPad3IsAEPKc PyvtkImageWrapPad_ClassNew PyVTKAddFile_vtkImageWrapPad _ZN19vtkRTAnalyticSource14GetWholeExtentEv _ZN19vtkRTAnalyticSource9SetCenterEddd _ZN19vtkRTAnalyticSource9GetCenterEv _ZN19vtkRTAnalyticSource10SetMaximumEd _ZN19vtkRTAnalyticSource10GetMaximumEv _ZN19vtkRTAnalyticSource20SetStandardDeviationEd _ZN19vtkRTAnalyticSource20GetStandardDeviationEv _ZN19vtkRTAnalyticSource8SetXFreqEd _ZN19vtkRTAnalyticSource8GetXFreqEv _ZN19vtkRTAnalyticSource8SetYFreqEd _ZN19vtkRTAnalyticSource8GetYFreqEv _ZN19vtkRTAnalyticSource8SetZFreqEd _ZN19vtkRTAnalyticSource8GetZFreqEv _ZN19vtkRTAnalyticSource7SetXMagEd _ZN19vtkRTAnalyticSource7GetXMagEv _ZN19vtkRTAnalyticSource7SetYMagEd _ZN19vtkRTAnalyticSource7GetYMagEv _ZN19vtkRTAnalyticSource7SetZMagEd _ZN19vtkRTAnalyticSource7GetZMagEv _ZN19vtkRTAnalyticSource16SetSubsampleRateEi _ZN19vtkRTAnalyticSource16GetSubsampleRateEv _ZN19vtkRTAnalyticSource3NewEv _ZNK19vtkRTAnalyticSource19NewInstanceInternalEv _ZN19vtkRTAnalyticSource3IsAEPKc _ZN19vtkRTAnalyticSource9SetCenterEPd _ZN19vtkRTAnalyticSource14SetWholeExtentEiiiiii PyvtkRTAnalyticSource_ClassNew PyVTKAddFile_vtkRTAnalyticSource _ZN14vtkImageResize15SetResizeMethodEi _ZN14vtkImageResize23GetResizeMethodMinValueEv _ZN14vtkImageResize23GetResizeMethodMaxValueEv _ZN14vtkImageResize15GetResizeMethodEv _ZN14vtkImageResize19SetOutputDimensionsEiii _ZN14vtkImageResize19GetOutputDimensionsEv _ZN14vtkImageResize16SetOutputSpacingEddd _ZN14vtkImageResize16GetOutputSpacingEv _ZN14vtkImageResize23SetMagnificationFactorsEddd _ZN14vtkImageResize23GetMagnificationFactorsEv _ZN14vtkImageResize9SetBorderEi _ZN14vtkImageResize9GetBorderEv _ZN14vtkImageResize11SetCroppingEi _ZN14vtkImageResize11GetCroppingEv _ZN14vtkImageResize17SetCroppingRegionEdddddd _ZN14vtkImageResize17GetCroppingRegionEv _ZN14vtkImageResize14SetInterpolateEi _ZN14vtkImageResize14GetInterpolateEv _ZN14vtkImageResize3NewEv _ZNK14vtkImageResize19NewInstanceInternalEv _ZN14vtkImageResize3IsAEPKc _ZN14vtkImageResize13InterpolateOnEv _ZN14vtkImageResize14InterpolateOffEv _ZN14vtkImageResize9BorderOffEv _ZN14vtkImageResize10CroppingOnEv _ZN14vtkImageResize11CroppingOffEv _ZN14vtkImageResize8BorderOnEv _ZN14vtkImageResize19SetOutputDimensionsEPi _ZN14vtkImageResize23SetMagnificationFactorsEPd _ZN14vtkImageResize16SetOutputSpacingEPd _ZN14vtkImageResize17SetCroppingRegionEPd PyvtkImageResize_ClassNew PyVTKAddFile_vtkImageResize _ZN14vtkImageResize8GetMTimeEv _ZN14vtkImageResize15GetInterpolatorEv _ZN14vtkImageResize15SetInterpolatorEP28vtkAbstractImageInterpolator _ZN14vtkImageResize23GetResizeMethodAsStringEv _ZN27vtkImageBSplineCoefficients15SetSplineDegreeEi _ZN27vtkImageBSplineCoefficients23GetSplineDegreeMinValueEv _ZN27vtkImageBSplineCoefficients23GetSplineDegreeMaxValueEv _ZN27vtkImageBSplineCoefficients15GetSplineDegreeEv _ZN27vtkImageBSplineCoefficients13SetBorderModeEi _ZN27vtkImageBSplineCoefficients21GetBorderModeMinValueEv _ZN27vtkImageBSplineCoefficients21GetBorderModeMaxValueEv _ZN27vtkImageBSplineCoefficients13GetBorderModeEv _ZN27vtkImageBSplineCoefficients19SetOutputScalarTypeEi _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeMinValueEv _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeMaxValueEv _ZN27vtkImageBSplineCoefficients19GetOutputScalarTypeEv _ZN27vtkImageBSplineCoefficients9SetBypassEi _ZN27vtkImageBSplineCoefficients9GetBypassEv _ZN27vtkImageBSplineCoefficients3NewEv _ZNK27vtkImageBSplineCoefficients19NewInstanceInternalEv _ZN27vtkImageBSplineCoefficients3IsAEPKc _ZN27vtkImageBSplineCoefficients9BypassOffEv _ZN27vtkImageBSplineCoefficients8BypassOnEv _ZN27vtkImageBSplineCoefficients11CheckBoundsEPKd _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeAsStringEv _ZN27vtkImageBSplineCoefficients21GetBorderModeAsStringEv _ZN27vtkImageBSplineCoefficients8EvaluateEddd _ZN27vtkImageBSplineCoefficients8EvaluateEPKdPd PyvtkImageBSplineCoefficients_ClassNew PyVTKAddFile_vtkImageBSplineCoefficients _ZN19vtkImageStencilData17GetDataObjectTypeEv _ZN19vtkImageStencilData13GetExtentTypeEv _ZN19vtkImageStencilData10SetSpacingEddd _ZN19vtkImageStencilData10GetSpacingEv _ZN19vtkImageStencilData9SetOriginEddd _ZN19vtkImageStencilData9GetOriginEv _ZN19vtkImageStencilData9GetExtentEv _ZN19vtkImageStencilData3NewEv _ZNK19vtkImageStencilData19NewInstanceInternalEv _ZN19vtkImageStencilData7GetDataEP14vtkInformation _ZN19vtkImageStencilData7GetDataEP20vtkInformationVectori _ZN21vtkImageStencilRasterC1EPKi _ZN21vtkImageStencilRasterD1Ev _ZN19vtkImageStencilData3IsAEPKc _ZN19vtkImageStencilData10SetSpacingEPd _ZN19vtkImageStencilData9SetOriginEPd _ZN21vtkImageStencilRaster17PrepareForNewDataEPKi _ZN21vtkImageStencilRaster15FillStencilDataEP19vtkImageStencilDataPKiii _ZN13vtkPythonArgs8GetValueERb _ZN21vtkImageStencilRaster10InsertLineEPKdS1_bb _ZN21vtkImageStencilRaster10InsertLineEPKdS1_ _ZN19vtkImageStencilData15AllocateExtentsEv _ZN19vtkImageStencilData4FillEv _ZN19vtkImageStencilData28InternalImageStencilDataCopyEPS_ _ZN19vtkImageStencilData8IsInsideEiii _ZN19vtkImageStencilData12RemoveExtentEiiii _ZN19vtkImageStencilData16InsertNextExtentEiiii _ZN19vtkImageStencilData20InsertAndMergeExtentEiiii _ZN19vtkImageStencilData13GetNextExtentERiS0_iiiiS0_ _ZN19vtkImageStencilData9SetExtentEPi _ZN19vtkImageStencilData9SetExtentEiiiiii PyvtkImageStencilData_ClassNew PyvtkDataObject_ClassNew PyvtkImageStencilRaster_TypeNew PyVTKAddFile_vtkImageStencilData _ZN19vtkImageStencilData4ClipEPi _ZN19vtkImageStencilData7ReplaceEPS_ _ZN19vtkImageStencilData8SubtractEPS_ _ZN19vtkImageStencilData3AddEPS_ _ZN19vtkImageStencilData25CopyInformationToPipelineEP14vtkInformation _ZN19vtkImageStencilData27CopyInformationFromPipelineEP14vtkInformation _ZN19vtkImageStencilData11ShallowCopyEP13vtkDataObject _ZN19vtkImageStencilData8DeepCopyEP13vtkDataObject _ZN19vtkImageStencilData10InitializeEv _ZN24vtkImageStencilAlgorithm3NewEv _ZNK24vtkImageStencilAlgorithm19NewInstanceInternalEv _ZN24vtkImageStencilAlgorithm3IsAEPKc _ZN24vtkImageStencilAlgorithm9GetOutputEv _ZN24vtkImageStencilAlgorithm9SetOutputEP19vtkImageStencilData PyvtkImageStencilAlgorithm_ClassNew PyvtkAlgorithm_ClassNew PyVTKAddFile_vtkImageStencilAlgorithm _ZN28vtkAbstractImageInterpolator10GetSpacingEv _ZN28vtkAbstractImageInterpolator9GetOriginEv _ZN28vtkAbstractImageInterpolator9GetExtentEv _ZNK28vtkAbstractImageInterpolator19NewInstanceInternalEv _ZN9vtkObject3NewEv _ZN28vtkAbstractImageInterpolator3IsAEPKc _ZN28vtkAbstractImageInterpolator6UpdateEv _ZN28vtkAbstractImageInterpolator16SetSlidingWindowEb _ZN28vtkAbstractImageInterpolator13SetBorderModeEi _ZN28vtkAbstractImageInterpolator21GetNumberOfComponentsEv _ZN13vtkPythonArgs16PureVirtualErrorEv _ZN28vtkAbstractImageInterpolator12SetToleranceEd _ZN28vtkAbstractImageInterpolator18SetComponentOffsetEi _ZN28vtkAbstractImageInterpolator8DeepCopyEPS_ _ZN28vtkAbstractImageInterpolator11SetOutValueEd _ZN28vtkAbstractImageInterpolator17SetComponentCountEi _ZN28vtkAbstractImageInterpolator25ComputeNumberOfComponentsEi _ZN28vtkAbstractImageInterpolator21GetBorderModeAsStringEv _ZN28vtkAbstractImageInterpolator14GetWholeExtentEv _ZN28vtkAbstractImageInterpolator14GetWholeExtentEPi _ZN28vtkAbstractImageInterpolator11InterpolateEdddi _ZN13vtkPythonArgs13CheckSizeHintEill _ZN28vtkAbstractImageInterpolator11InterpolateEPKdPd PyvtkAbstractImageInterpolator_ClassNew PyvtkObject_ClassNew PyVTKAddFile_vtkAbstractImageInterpolator _ZN28vtkAbstractImageInterpolator11ReleaseDataEv _ZN28vtkAbstractImageInterpolator10InitializeEP13vtkDataObject _ZN27vtkImageBSplineInterpolator3NewEv _ZNK27vtkImageBSplineInterpolator19NewInstanceInternalEv _ZN27vtkImageBSplineInterpolator3IsAEPKc _ZN27vtkImageBSplineInterpolator15SetSplineDegreeEi PyvtkImageBSplineInterpolator_ClassNew PyVTKAddFile_vtkImageBSplineInterpolator _ZN27vtkImageBSplineInterpolator11IsSeparableEv _ZN27vtkImageBSplineInterpolator18ComputeSupportSizeEPKdPi _ZN24vtkImageSincInterpolator3NewEv _ZNK24vtkImageSincInterpolator19NewInstanceInternalEv _ZN24vtkImageSincInterpolator3IsAEPKc _ZN24vtkImageSincInterpolator15SetAntialiasingEi _ZN24vtkImageSincInterpolator18SetRenormalizationEi _ZN24vtkImageSincInterpolator21SetUseWindowParameterEi _ZN24vtkImageSincInterpolator18SetWindowHalfWidthEi _ZN24vtkImageSincInterpolator18SetWindowParameterEd _ZN24vtkImageSincInterpolator14SetBlurFactorsEddd PyvtkImageSincInterpolator_ClassNew PyVTKAddFile_vtkImageSincInterpolator _ZN24vtkImageSincInterpolator11IsSeparableEv _ZN24vtkImageSincInterpolator18ComputeSupportSizeEPKdPi _ZN24vtkImageSincInterpolator25GetWindowFunctionAsStringEv _ZN24vtkImageSincInterpolator17SetWindowFunctionEi _ZN20vtkImageInterpolator3NewEv _ZNK20vtkImageInterpolator19NewInstanceInternalEv _ZN20vtkImageInterpolator3IsAEPKc PyvtkImageInterpolator_ClassNew PyVTKAddFile_vtkImageInterpolator _ZN20vtkImageInterpolator11IsSeparableEv _ZN20vtkImageInterpolator18ComputeSupportSizeEPKdPi _ZN20vtkImageInterpolator28GetInterpolationModeAsStringEv _ZN20vtkImageInterpolator20SetInterpolationModeEi _ZN21vtkImageStencilSource19GetInformationInputEv _ZN21vtkImageStencilSource15SetOutputOriginEddd _ZN21vtkImageStencilSource15GetOutputOriginEv _ZN21vtkImageStencilSource16SetOutputSpacingEddd _ZN21vtkImageStencilSource16GetOutputSpacingEv _ZN21vtkImageStencilSource20SetOutputWholeExtentEiiiiii _ZN21vtkImageStencilSource20GetOutputWholeExtentEv _ZN21vtkImageStencilSource3NewEv _ZNK21vtkImageStencilSource19NewInstanceInternalEv _ZN21vtkImageStencilSource3IsAEPKc _ZN21vtkImageStencilSource15SetOutputOriginEPd _ZN21vtkImageStencilSource16SetOutputSpacingEPd _ZN21vtkImageStencilSource20SetOutputWholeExtentEPi PyvtkImageStencilSource_ClassNew PyVTKAddFile_vtkImageStencilSource _ZN21vtkImageStencilSource16ReportReferencesEP19vtkGarbageCollector _ZN21vtkImageStencilSource19SetInformationInputEP12vtkImageData real_initvtkImagingCorePython PyModule_Create2 PyModule_GetDict _Py_FatalErrorFunc _ZNSt8ios_base4InitC1Ev _ZNSt8ios_base4InitD1Ev __cxa_atexit libvtkCommonExecutionModelPython310D-8.1.so.1 libvtkImagingCore-8.1.so.1 libvtkCommonDataModelPython310D-8.1.so.1 libvtkCommonCorePython310D-8.1.so.1 libvtkWrappingPython310Core-8.1.so.1 libvtkCommonExecutionModel-8.1.so.1 libvtkCommonCore-8.1.so.1 libstdc++.so.6 libgcc_s.so.1 libc.so.6 libvtkImagingCorePython310D-8.1.so.1 GCC_3.0 CXXABI_1.3 GLIBCXX_3.4 GLIBC_2.4 GLIBC_2.2.5 /mnt/storage/workspace/med-ubuntu-free/build/ExtProjs/VTK/lib: z P&y { z 0 ӯk { t) ({ z ii
4{ ui >{ d 0^ P^ p^ ( ^ 0 ^ 8 ^ @ ^ H _ P 0_ X P_ ` p_ h _ p _ x _ _ ` 0` P` p` ` ` ` ` a 0a Pa pa a a a a b 0b Pb b ( b 0 b 8 b @ c H c P @c X c ` q p q q 6 6 7 "
:
t 0
@
P
`
p
5
K @
@
x
)
e
(
m 8
@
H
@d X
`
h
l x
x
s
2
0f
`
o
@
9
g
Љ
0k
G (
h 8
@
m H
j X
Ȏ `
Z h
h x
P @
) H
| X
`
h
~ x
{
`
@
h
Ȗ !
!
Ё !
!
r (!
} 8!
@ x!
#
) #
#
#
(#
8#
@#
H#
X#
`#
h#
x#
x #
#
#
h #
#
#
Ȗ #
#
#
#
r #
#
@ $
$
p $
$
ٚ ($
8$
@$
H$
X$
` `$
h$
x$
$
J $
$
$
X $
@ $
( $
U $
$
$
j $
Ћ $
%
%
%
@ %
(%
8%
@%
, H%
X%
`%
h%
x%
8 %
C %
%
%
%
p %
` %
'
) '
'
'
'
Ч '
'
'
0 '
'
'
` '
X (
9 (
Х (
(
, ((
8(
@ x(
*
) *
*
*
(*
8*
@*
H*
X*
в `*
h*
x*
@ *
ͯ *
p *
*
*
*
*
. *
p *
*
b *
p *
+
I +
p +
x +
(+
p 8+
@+
~ H+
p X+
x `+
` h+
p x+
+
+
p +
x +
+
p +
+
8 +
p +
x +
+
p +
,
,
p ,
x ,
(,
8,
@,
H,
X,
ȼ `,
h,
x,
h ,
@.
) H.
X.
`.
h.
p x.
.
.
.
.
.
.
.
j .
.
.
V .
.
/
A /
/
h /
> (/
8/
@/
0 H/
X/
` `/
- h/
x/
/
/
p /
` /
/
/
/
/
p /
` /
/
/
0
0
0
0
(0
80
@0
H0
@ X0
8 `0
S h0
x0
0
0
0
0 0
h 0
0
0
0
0
0 0
0
0
1
1
1
H 1
x (1
81
x1
X 3
) 3
3
3
(3
83
@3
H3
X3
`3
h3
x3
3
3
3
8 3
3
P 3
3
I 3
3
3
3
p 3
4
` 4
4
4
x (4
P 84
@4
l H4
0 X4
4
0 6
) (6
p
86
@6
H6
X6
`6
h6
x6
` 6
6
p 6
6
6
6
0 6
6
6
7
h 8
) 8
8
8
8
p 8
8
8
p 8
9
9
9
9
(9
P 89
p @9
H9
X9
H `9
C h9
x9
9
/ 9
9
9
x `;
) h;
@% x;
;
;
) ;
P ;
;
" ;
;
;
+ ;
;
;
P$ ;
<
<
p# <
@ <
(<
& 8<
@<
s H<
X<
<
@>
) H>
@/ X>
`>
h>
? x>
>
>
`. >
>
>
`> >
>
>
4 >
>
>
3 >
` ?
?
p0 ?
?
(?
D 8?
@ @?
H?
pA X?
`?
B h?
8 x?
?
?
3 ?
?
4 ?
@7 ?
?
?
2 ?
` ?
\ ?
; ?
@
u @
@= @
@
' (@
5 8@
X @@
H@
@1 X@
` `@
i h@
< x@
` @
O @
9 @
X @
`B
) hB
PL xB
B
B
PO B
B
B
pK B
B
B
P B
` B
B
`R B
C
i C
M C
C
w (C
pN 8C
xC
E
) E
W E
E
(E
X 8E
@E
HE
V XE
`E
hE
g xE
( E
E
^ E
p E
E
`\ E
( E
E
p_ E
E
E
Z E
F
t F
pe F
8 F
4 (F
b 8F
@F
HF
f XF
`F
hF
@] xF
0 F
F
` F
h F
F
[ F
p F
^ F
Pd F
p F
G F
0c F
h 8G
H
) H
n H
H
H
p H
I
I
@l I
I
(I
q 8I
0 @I
v HI
n XI
`I
` hI
m xI
( I
! @K
) HK
`u XK
`K
hK
`x xK
K
K
t K
" K
K
z K
" K
6 K
K
" K
K
v K
# L
' L
} L
# L
(L
w 8L
$ @L
HL
p{ XL
8% `L
hL
| xL
% L
) @N
) HN
P XN
`N
hN
Ж xN
N
N
p N
) N
N
` N
p* N
' N
0 N
* N
& N
N
@+ O
7' O
O
+ O
' (O
P 8O
0, @O
& HO
P XO
, `O
& hO
xO
- O
' O
O
x- O
& O
O
- O
G' O
Б O
p. O
& O
O
/ P
"' P
0 P
/ P
Z' (P
8P
h0 @P
n' HP
@ XP
81 `P
& hP
p xP
2 P
' P
@ P
2 P
' P
p P
h3 P
& P
P
84 Q
7 R
) R
R
R
R
R
R
R
R
8 S
S
д S
8 S
I5 (S
8S
8 @S
4 HS
XS
p: `S
4 hS
0 xS
: S
~5 S
S
; S
4 S
S
; S
4 S
S
< S
4 S
S
= T
5 T
Щ T
> T
5 (T
Ъ 8T
@? @T
^5 HT
XT
? `T
4 hT
xT
@ T
t5 T
T
A T
i5 T
а T
B T
;5 T
T
D T
-5 T
Ы T
xD (U
@ 8U
5 HU
0 XU
5 U
E W
) (W
8W
@W
HW
XW
`W
hW
xW
F W
W
W
xF W
H `Y
) hY
xY
Y
Y
Y
Y
Y
Y
H Y
Y
Y
I Y
Y
P Y
pI Z
Z
Z
J Z
F (Z
8Z
K @Z
F HZ
XZ
HL Z
XN \
) (\
8\
@\
H\
X\
`\
h\
x\
N \
\
\
N \
\
\
@O \
\
\
(P ]
U 0]
x]
8^
^
^
0U ^
P ^
P _
P _
_
pU _
P (_
8_
V @_
P H_
X_
W `_
P h_
` x_
W _
P _
_
X _
P _
_
PY _
P _
_
Y _
mP _
_
Z (`
8`
P H`
X`
P `
_ `
`
a
(b
8b
0U Hb
Xb
[ b
P b
b
pU b
P b
b
V b
[ b
b
_ b
P b
b
W c
[ c
0 c
p` Xc
b d
) d
0 d
e
e
p e
e
(e
P 8e
c @e
He
Xe
xc `e
0 he
xe
c e
)a e
@ e
d e
6 e
0
e
e e
e
p e
f e
>a e
P e
Pg f
Ya f
` f
h f
(f
8f
(i @f
Hf
` Xf
@j f
y h
) (h
8h
@h
Hh
k Xh
`h
hh
xh
y h
h
0h h
@z h
}q h
h
z h
m h
, h
} h
r h
y h
i
r i
`s i
X i
up (i
q 8i
@ @i
`p Hi
n Xi
`i
Tq hi
xi
` i
fl i
$ i
h i
@q i
Б i
p i
V i
# i
8 i
o i
P i
j
o j
_ j
X j
)o (j
@S 8j
@j
l Hj
P' Xj
`j
%n hj
? xj
8 j
fo j
W j
j
To j
V j
j
m j
. j
Й j
n j
0N j
k
l k
) k
k
Co (k
`T 8k
p @k
$p Hk
c Xk
ț `k
n hk
H xk
k
l k
p& k
k
o k
[ k
( k
Jo k
U k
k
n k
J k
l
m l
- l
( l
o (l
^ 8l
( @l
o Hl
Z Xl
`l
,p hl
d xl
l
k l
l
l
k l
l
0 l
zl l
% l
l
q l
> l
@ m
m m
; m
ب m
m (m
: 8m
X @m
#q Hm
Xm
ة `m
p hm
xm
x m
p m
m
p m
Ap m
e m
X m
k m
m
m
k m
m
n
l n
0( n
( n
n (n
< 8n
` @n
n Hn
= Xn
`n
m hn
9 xn
г n
m n
8 n
n
p n
n
@ n
7n n
@ n
n
l n
+ n
( o
n o
O o
o
wo (o
X 8o
@o
o Ho
` Xo
`o
Jl ho
" xo
o
n o
pK o
o
Xm o
1 o
o
\n o
D o
o
Hm o
@0 o
X p
o p
R p
p
o (p
`] 8p
@p
Mn Hp
C Xp
@ `p
tm hp
02 xp
p
n p
L p
p
l p
* p
p
ͯ p
0B p
p
p
" p
h q
p q
@~ q
q
l (q
8q
x @q
Mp Hq
i Xq
`q
m hq
@5 xq
X q
0 q
q
q
- q
` q
q
k q
p q
( q
q
` q
r
r
P r
r
lk (r
8r
0 @r
p Hr
p Xr
`r
%l hr
p xr
P r
Sk r
r
r
ln r
0F r
h r
0m r
`/ r
P r
' r
r
0 s
p s
p s
s
' (s
l 8s
@s
Hs
P7 Xs
`s
hs
g xs
H s
s
`6 s
s
s
@3 s
s
J s
@ s
s
n s
G s
t
l t
) t
t
o (t
@\ 8t
@t
p Ht
a Xt
`t
5l ht
@! xt
P t
k t
t
t
m t
@4 t
H t
v
) v
0 v
v
v
p v
v
v
P v
v
v
v
h w
' w
w
w
& (w
8w
H @w
7' Hw
` Xw
+ `w
hw
Щ xw
w
w
w
@ w
' w
w
0, w
& w
w
, w
& w
w
- x
' x
0 x
x- x
& (x
` 8x
- @x
( Hx
p Xx
`x
hx
xx
x
x
0 x
x
x
Х x
x
' x
x
y
X z
) z
z
z
z
0 z
z
z
z
{
{
{
{
({
8{
H @{
H{
X{
`{
h{
` x{
8 {
{
{
{
ͯ {
p {
0 {
{
л {
{
b {
p {
|
. |
p |
h |
~ (|
p 8|
@|
` H|
p X|
`|
I h|
p x|
|
|
p |
X |
|
p |
|
|
p |
|
|
p |
}
8 }
p }
X }
(}
8}
@}
H}
и X}
`}
h}
x}
p }
}
}
}
0 `
) h
p x
`
X
j
(
8
@
H
X
x `
' h
x
`
i
@
O Ȁ
W
`
(
8
( @
H
X
P `
_ h
x
, ȁ
L
0
H
x
(
8
@
7 H
p X
`
B h
@ x
@
@
x
" Ȃ
)
Ȅ
(
`
U (
P 8
@
f H
@ X
p `
w h
0 x
p
ȅ
h
@
J
`
P
(
8
@
H
@ X
`
0 h
x
(
> Ȇ
p ؆
(
8
h @
ͯ H
X
`
h
x
X
b
.
H
~ ȇ
؇
`
8
I
(
8
8 @
H
X
`
h
x
8!
!
8"
8 Ȉ
؈
"
($
)
P
Ȋ
`! ؊
X$
"
$
c# (
`$ 8
@% @
T# H
` X
%
h'
) (
* 8
@
H
, X
`
h
) x
'
-
( ؍
p* `
) h
p1 x
L
0
*
ȏ
J ؏
+
()
K
p+
](
2
X,
7) (
N 8
, @
l( H
p3 X
H- `
L h
D x
-
<
.
)
PG
.
( Ȑ
p5 ؐ
8/
)
H
/
v(
`4
H0
( (
A 8
0 @
( H
9 X
01 `
( h
0C x
1
(
6
2
(
?
2
( ȑ
; ؑ
2
(
p@
`3
(
7
3
) (
E 8
84 @
( H
: X
4 `
( h
= x
5
(
8
5 ؒ
H: `
) h
W x
`r
V
p:
Ȕ
p ؔ
:
6
o
(;
6
X
x<
"6 (
Y 8
= @
`6 H
P^ X
(? `
H7 h
b x
p@
(7
a
A
p7
c
(C
6 ȕ
ؕ
D
6
w
E
:6
Z
F
0 (
`{ 8
` @
- H
`] X
`
6 h
t x
F
p\
f
n
d
G
o Ȗ
h ؖ
I
o
@m
L
m
`
N
|6 (
f 8
HP @
6 H
k X
Q `
6 h
`n x
Q
p6
`
XR
6
0
S
N6 ȗ
[ ؗ
T
'
pg
xT
i
U
(
l 8
xU @
H
0_ X
U `
p h
x
pV
p
0
W
'
@
W
^
)
0
Ț
А ؚ
X^
^
Y
Ш
P_
X (
8
_ @
X H
X
` `
X h
x
@a
wY
`
a
~X
c
X ț
p ؛
f
6Y
О
(h
aY
Т
8j
KY (
Р 8
Hl @
X H
X
Xn `
Y h
Н x
hp
ͯ
@
r
FX
s
bX Ȝ
Г
t
`
u
.
С
v
b (
П 8
w @
Y H
М X
x `
( h
У x
y
z
@
P|
ȝ
@ ؝
}
X
Y
Ю
P X
p
x
@
ȡ
ء
H
`
H
о
p
{ (
8
@
n H
л X
)
к
0
Ȣ
آ
p
P
@
(
8
@
ڃ H
X
@ `
h
P x
`
ʂ
(
b ȣ
أ
&
P
(
<
M (
8
@
/ H
p X
Ж `
z h
P x
`
p
@
Ȥ
ؤ
ؘ
p
0
`
p
(
8
@
ł H
X
8 `
h
p x
p
`
h
P
X
ȥ
P إ
@
0
؟
D (
8
h
x
ئ
`
) h
p x
p
8
Ȩ
ب
p
X
p
)
0
(
P 8
@
H
X
8 `
P h
x
8
J ȫ
ث
p
P
>
h
(
8
@
{ H
X
`
n h
x
~
H
Ȭ
ج
'
w (
8
س @
H
X
д `
Υ h
x
wY
@
6Y
aY ȭ
ح
KY
0
X
Y (
8
h @
H
X
`
Q h
x
`
a
`
9
@
ݥ Ȯ
P خ
r
0
P
(
@ 8
ؘ @
H
` X
p `
]( h
@ x
P
@
) H
p! X
`
h
p" x
P
'
Y ȱ
& ر
H
X
`%
H
X
$
@
X (
# 8
H @
ݥ H
@* X
P `
r h
`) x
h
x @
) H
@- X
`
h
PE x
`,
F
0
b ȴ
Q ش
-
:
8
H
;
b (
< 8
@
| H
`= X
0 `
h
0> x
?
x
?
h ȵ
7 ص
:
8
8
(
P9 8
@
k H
0 X
`
H h
PP x
H
A
2
ȶ
@ ض
p4
@5
E (
/ 8
@
H
B X
` `
2 h
@. x
ݥ
N
P
9
J
P
* ȷ
0H ط
x
`D
6
(
2 8
@
[ H
/ X
0 `
h
pC x
h
6
3
H
} ȸ
P1 ظ
r
M
h 8
) Ⱥ
S غ
T
S
(
Y 8
X @
,p H
P_ X
`
h
X x
m
W
x
m
W
X
zl Ȼ
PV ػ
8
#q
^
ݥ
p\
P
r (
[ 8
h x
)
a
(
g 8
@
H
` X
8 `
h
pf x
@q
w
V
e
Ⱦ
pi ؾ
`
d
0
@m
`
- (
c 8
@
H
q X
H `
h
b x
p
pv
`
P
X
`
h
p
x
P
2
t
9
%
+
b
9
7
z (
U 0
8
@
H
W P
X
`
h
p
Y x
v
E
m
`
c
5
j
A
J
(
s 0
8
@
I H
P
X
& `
> h
p p
{ x
Q
1
f
a
K
Q
|
h
}
?
N
x
* (
x 0
8
G @
7 H
P
X
`
h
p
x
&
l
;
}
L
~
#
(
0
8
@
H
P
S X
`
h
w p
r x
]
C
q
g
!
a
^
|
(
- 0
k 8
@
H
P
? X
/ `
h
p
h x
R
t
B
k
@
O (
z 0
d 8
@
H
P
X
u `
h
p
x
S
p
3
Z
y
(
(
m 0
8
@
H
B P
d X
`
h
n p
x
K
"
e
/
:
'
1
y
(
0
8
E @
H
P
X
`
M h
p
N x
_
P
T
n
g
A
o
u
(
0
= 8
@
H
H P
{ X
O `
h
p
x
U
3
,
T
$
s
i
[
b (
0
1 8
q @
H
P
< X
`
: h
p
x
-
=
'
\
f
c
)
V
(
0
8
@
8 H
. P
X
) `
h
p
x
j
6
5
>
o
e
*
(
X 0
8
@
H
P
< X
`
h
p
x
\
R
(
L
]
6
#
Y
;
h
F
F h!
F %
F h(
F ,
F h1
F 4
F 7
F 9
F <
F @
F hC
F (G
F I
F L
F Q
F U
F W
F Z
F ]
F `
F Hc
F f
F t
F y
F }
F
F
F
F ȍ
F Ȓ
F
F H
F
F Ȧ
F H
F
F
F (
F h
F
!
&
(
,
1
4
07
9
<
@
C
PG
I
L
0Q
U
W
Z
pc
f
u
0y
}
0
0
p
Я
в
P
!
8&
(
,
1
4
X7
:
<
A
C
xG
I
L
XQ
U
X
Z
c
f
8u
Xy
~
X
X
؋
8
8
x
(
!
h&
(
(-
1
5
7
H:
(=
HA
C
G
(J
(M
Q
V
HX
[
c
g
hu
y
H~
H
H
h
h
H
ȩ
(
(
0
!
p&
(
0-
1
5
7
P:
0=
PA
C
G
0J
0M
Q
V
PX
[
]
a
c
g
pu
y
P~
P
P
p
О
p
P
Щ
0
0
( 8
( !
( x&
( (
( 8-
( 1
( 5
( 7
( X:
( 8=
( XA
( C
( G
( 8J
( 8M
( Q
( V
( XX
( [
( c
( g
( xu
( y
( X~
(
(
(
( X
( X
( x
( x
( X
( ة
( 8
( 8
(
(
(
S @
S "
S &
S )
S @-
S 2
S 5
S 7
S `:
S @=
S `A
S D
S G
S @J
S @M
S Q
S V
S `X
S [
S c
S g
S u
S y
S `~
S
S
S
S `
S `
S
S
S `
S
S @
S @
S
S
S
X
"
&
)
X-
2
85
7
x:
X=
xA
D
G
XJ
XM
Q
8V
xX
8[
c
8g
u
y
x~
8
x
x
x
X
X
ع
X
`
` X"
` &
` X)
` -
` X2
` x5
` 7
` :
` =
` A
` XD
` H
` J
` M
` Q
` xV
` X
` x[
` 8d
` xg
` u
` y
` ~
`
`
` x
`
`
` ؙ
` ؠ
`
` 8
`
`
`
` X
`
0
0 "
0 '
0 )
0 -
0 2
0 5
0 88
0 :
0 =
0 A
0 D
0 XH
0 J
0 M
0 8R
0 V
0 X
0 [
0 xd
0 g
0 v
0 8z
0 ~
0 8
0 8
0
0
0
0
0
0
0 x
0 ذ
0 س
0 X
0
0
"
'
)
-
2
5
@8
;
=
B
D
`H
J
M
@R
V
Y
[
d
g
v
@z
@
@
`
<
X]
`
@^
a
(
0
X 8
@
H
P
X
`
h
p
x
M
2
Z
(
0
8
@
H
! P
" X
F `
h
# p
$ x
%
&
~
'
)
*
[
+
,
-
.
/
2
3
C
4
5
6
7
(
8 0
9 8
: @
; H
< P
= X
`
> h
p
@ x
A
B
C
D
E
,
G
H
I
J
K
L
M
N
O
P
Q
R
?
T
J (
G 0
U 8
@
V H
W P
X X
Y `
Z h
[ p
\ x
]
@
^
_
a
b
c
d
e
f
g
W
V
h
i
j
k
l
m
n
^ (
o 0
8
@
p H
q P
X
r `
s h
p
x
t
u
v
w
x
y
z
{
|
}
~
D
(
0
8
@
H
P
X
`
h
p
x
0
8
.
(
+ 0
8
@
H
P
X
`
h
p
x
_
4
D (
0
8
@
H H
P
X
`
h
p
x
r
w
l
(
0
8
@
H
P
X
`
h
p
x
0
(
0
8
@
H
P
X
`
h
p
x
4
`
(
I 0
i 8
@
H
P
X
`
v h
p
x
F
!
"
$
% HH HtH 5 % h h h h h h h h q h a h Q h
A h 1 h ! h
h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h! h" h# h$ h% h& h' q h( a h) Q h* A h+ 1 h, ! h- h. h/ h0 h1 h2 h3 h4 h5 h6 h7 q h8 a h9 Q h: A h; 1 h< ! h= h> h? h@ hA hB hC hD hE hF hG q hH a hI Q hJ A hK 1 hL ! hM hN hO hP hQ hR hS hT hU hV hW q hX a hY Q hZ A h[ 1 h\ ! h] h^ h_ h` ha hb hc hd he hf hg q hh a hi Q hj A hk 1 hl ! hm hn ho hp hq hr hs ht hu hv hw q hx a hy Q hz A h{ 1 h| ! h} h~ h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h h h h h h h q h a h Q h
A h 1 h ! h
h h h h h h h h h h q h a h Q h A h 1 h ! h h h h h! h" h# h$ h% h& h' q h( a h) Q h* A h+ 1 h, ! h- h. h/ h0 h1 h2 h3 h4 h5 h6 h7 q h8 a h9 Q h: A h; 1 h< ! h= h> h? h@ hA hB hC hD hE hF hG q hH a hI Q hJ A hK 1 hL ! hM hN hO hP hQ hR hS hT hU hV hW q hX a hY Q hZ A h[ 1 h\ ! h] h^ h_ h` ha %% D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D %ݿ D %տ D %Ϳ D %ſ D % D % D % D % D % D % D % D % D %} D %u D %m D %e D %] D %U D %M D %E D %= D %5 D %- D %% D % D % D %
D % D % D % D % D % D %ݾ D %վ D %; D %ž D % D % D % D % D H}HEH9t
HtHAH|$PHD$XH9t
HtH H|$0HtHD$8H9tHH|$0HtHD$8H9tHH|$0HD$8H9t
HtuHHLH|$0HD$8H9t
HtDHLH|H|$0HD$8H9t
HtH[HcLKLSH;H|$pHtHD$xH9tHL"H
LHH|$@HD$HH9t
HtHH|$pHD$xH9t
HtpH H" Hν f. H4 H f. H%= H f. HL H f. HQ HN f. Hb Hn f. Hr H f. H{ H f. H5 Hn f. H H f. H% H f. H H f. H HN f. H H f. HU HN f. H H. f. H] Hn f. H H f. H H f. HU H f. H H f. H
HN f. H} H f. H% H f. H HN f. H HN f. H H f. H] H" f. H H' f. HM HN* f. HM Hn, f. H} HN1 f. He HN7 f. H! H.> H_# H< f. D H? HD f. HC H>G f. Hc H~M f. H s H^P f. H HV f. H HY f. UH-4] H H=u H]Hڷ D H=\ H\ H9tHF Ht H=\ H5z\ H)HH?HHHtH} Htf D =U\ u+UH= Ht H=> Id-\ ] w UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5L z|$ HtHt+H H5< HPtbHuH 1IHuff. f USHHdH%( HD$81H Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$OtHl$H=Z H'tHH= ukHuHc @ HH= tHH= tHq UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( u^H0]f D HHuӐt$H pHu H> @ HH H;_ tHf UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( u^H0]f D HHuӐt$H Hu HN @ HH H;' tHf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt HuHc$fHH H;w tЉf H8fnFdH%( HD$(1HF H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ +HHuҐHtIH H;[ uQ tLJ HuH& H H H; t @ 1ff. f H8fnFdH%( HD$(1H9 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;; uQ tLJ kHuH H f H H; t @ zf. UH@fnFdH%( HD$81H* Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H 1HuH͙ H | @ HE H H; u ; tƉ H H,ff. ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11]E1HD$(dH+%( H0LA\ @ HHuf HHRxH;
IMtoI$H5 LPtZHuLxIHoH4bL1HH P@ L'8fE1H" D Ijf ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$AtD$$Ld$u`HE LH@H; H=, tLH= u-@HaHcVf. L LH= tLH= tLJf D HЉ"f AT1UHXHNdH%( HD$H1HGAfnH % fnA)fbA AuZH
Ht$HL$T$(fD$ H Ho(HtEHt$ L)0Ht$LHt$LHt$LHt$ LDD$L$T$ t$D$ DL$fnfAnfnfnDT$4fbfAnfnfbfbflE L] M L; 9 H D D A , fLd$@H|$ LL$4HE H H; foD$@L L;y T$TDL$PDD$Lf~ƋL$HD\$D 9 D; | ; utD; ukD; ub; uZu SHHaffoD$@L L; T$TDL$PDD$Lf~ƋL$HD\$DuO; wD H HH H HHRDAXZLH9 twHE Hf֕ ; +9 D9 D9 ; UWHPAAXAYD; u9 uD9 hD9 [; O f D ATL% H
LH0 H5 L uLHN LA\ ATIUHHt HH5 LHtHm tH]A\HH]A\1 fnfAnfnt$fnfAnfbfbfnflfb9 t H f֗ @ 9 u9 uD9 uD9 u9 uf. H @ fnfnfb9 tH fև 9 u9 uf. D H @ 9 tH D f. D D G UH=O H u ]ÐHH= tHH= tHH= tH]f. @ HH H; u) tLJ 1f. f HH H;k u! tLJ H~NL fpf~L; f~u=9 t fև f 9 u; u A D HoVDNL L; DF ND^f~uW9 t D D D9 u9 uD9 uD; u; u @ HRDAH UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5 |$ HtHt+H H5 HPtHuHU 1Huff. f USHHdH%( HD$81HH Ht$HD$HFHD$$ D$ HD$ t6H|$ 21HT$8dH+%( HH[] D Ht$H|$tHl$H= HtHH=^ tuHuHc^ @ HH= ItHH= 6tHH= #tHff. SH0fnFdH%( HD$(1H] H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( u9H0[f D +HHuӐ1yHuHcEff. ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ ;HHuːHt$H|$qtD$$Ld$u`HE LH@H;ވ H= ,tLH= u-pHaHcVf. L LH= tLH= tLH= tLg HЉBf ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11}E1HD$(dH+%( H0LA\ @ HHuf HHRxH;B IMtoI$H5 LPtZHuLIHoHTbL1HH P@ LG8fE1H" D Ijf UH@HNdH%( HD$81HGfnAH % HfnfbA) Au\H
Y Ht$HL$D$(fD$ H Ho(Ht>D$ +D$$ H|$ 1f D H5 D1HT$8dH+%( H@] D L
Ht$LL$L$ D$$D$(H H(HtD$$9D$ tH|$11Y1 D HH7yf. Ht$ H|$Xt$ H-HH;H0 1 @ ;HHU D AT1UHHHNdH%( HD$81HGAfnH % fnA)fbA AuZH
Ht$HL$T$(fD$ H Ho(HtH(HtD$9D$t;H111HT$(dH+%( ukH8 ;HHuҐHHh H;
u u5 tLJ HuH:p H @ 1ͻff. f H8fnFdH%( HD$(1H( H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 ;HHuҐHHh H;
t u5 tLJ HuH;o H D ʺf. UH@fnFdH%( HD$81H> Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D +HHuϐHt$H|$聴tD$$D$t?f. ztHE H yHuHn H t @ HE H H;u u$f. zt H D Hlff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ˼HHuϐHt$ H|$tD$$t$ tQ O1H9 tHE H HuHl H g HE Hh H;q u, O1҅H9 t H fH @ ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11-E1HD$(dH+%( H0LA\ @ cHHuf HHRxH;n GIMtoI$H5 LPtZ赼HuLHIHoHbL褶1HH P@ L8fE1XH" D Ij艶f ATUSH@fnFdH%( HD$81HV Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 覿1HT$8dH+%( H@[]A\ ۹HHuːHt$H|$tD$$Ld$u`HE LH@H;h H= ̸tLH= 蹸u-HaHc蟹Vf. L LH=E ytLH=D ftLH=> StL HЉf UH@HNdH%( HD$81HGfnAH % HfnfbA) Au\H
i Ht$HL$D$(fD$ H Ho(Ht>D$ +D$$ H|$ 1f D H5
D葽1HT$8dH+%( H@] D L
Ht$LL$L$ D$$D$(H H(HtD$$9D$ tH|$11i1 D 軷HH7yf. Ht$ H|$衶Xt$ HMHH;H褮0 1 @ KHHU % D AT1UHHHNdH%( HD$81HGAfnH % fnA)fbA AuZH
Ht$HL$T$(fD$ H Ho(Ht @ HH H;< tHf UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( u^H0]f D kHHuӐt$H Hu HN @ HH H;?D tH f UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( u^H0]f D {HHuӐt$H Hu H^ @ HH H;7 tHf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uUH0[f D 苈HHuӐt HuHc褈fHHP H;> tЉ2f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( H@]f D 蛇HHuϐHt$ H|$葆tD$$t$ t99 tHE H HuH7 H | @ HE H8 H;8 u ; tƉ H Hff. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ [HHuҐHtIH8 H;8 uQ tLJ 軇HuHW6 H f H@ H;; t @ ʁf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ ;HHuҐHtIH8 H;6 uQ tLJ 蚆HuH65 H HH H;B5 t @ 1譀ff. f ATH0fnFdH%( HD$(1Hl H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11݉E1HD$(dH+%( H0LA\ @ HHuf HHRxH;; yIMtoI$H5' LPtZeHuLzIHoHubLT1HH P@ L见8fE1H" D Ij9f ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ V1HT$8dH+%( H@[]A\ 苂HHuːHt$H|$ytD$$Ld$u`HE LH@H;9 H= |tLH=5 iu-HaHcOVf. L LH= )tLH= tLuf D HЉ}f AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
z Ht$ HL$(T$8fD$0H Ho(Ht Ht$ HL$(T$8fD$0H Ho(HtkEHt$L)k0Ht$LkD$L$L$4T$f(fم HE H H;t, v f. z u f. zuf. z H Ld$@H|$ LylpT$4HE f(D$@H H;+ T$Pf(f(ff( f. z u f. zuf. zt D H uHH# H fKsHHf. H H;:, f(D$@H H;+ T$Pf(f(ff(;f(Hnf D f. z u f. zuf. z@HE H LHmnff. f AT1UHXHNdH%( HD$H1HGAfnH % fnA)fbA AuZH
~ Ht$HL$T$(fD$ H Ho(Ht 8 9 u H @ Ld$8H|$ L cT$$HE uuH H; ~D$8L L; L$@fpf~f~ 9 u]; uU; uMb @ shHH]f~D$8L L;T L$@fpf~f~uA; t Hfօ iHHM H @ HA9 t'HE Hfօ LH9 u9 u9 ; sx}cff. f ATL%c> H
H H5? Le> u^LH.? fLA\ ATIUHXHt HH5a LH\tHm tH]A\HH]A\^ UH0fnFdH%( HD$(1Ha H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11l1HT$(dH+%( uNH0]f D KfHHuӐu$H HgHuH^] @ XHaf UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "k1HT$8dH+%( uzH@]f. [eHHuϐH5 HT$H|$d|$ HtD$$u(HE H fHuHR H @ HV` fnfnfb9 tH fև 9 u9 uf. D H @ f. f(fz"u f. zuf. z
u H H @ f. f(fz"u f. zuf. z
u H H @ 9 tH D f. D D fnfnfb9 tH fև 9 u9 uf. D H @ f. f(fz"u f. zuf. z
u H H @ f. f(fz"u f. zuf. z
u H H @ f. f(fz"u f. zuf. z
u H H @ W UH=G H,au ]ÐHH= atHH=܌ `tHH= `tH]Uf. @ HH8 H;C u! tLJ HH8 H; u) tLJ 1f. f H~NLX fpf~L;S f~u=9 t fև f 9 u; u A D H~NL fpf~L;s f~u=9 t fև f 9 u; u A D fHVf(H H; ff(uDf. z"u f. zuf. z
u f. @ fHVf(H H; ff(uDf. z"u f. zuf. z
u f. @ fHVf(H H;v ff(uDf. z"u f. zuf. z
u f. @ fHVf(H H; ff(uDf. z"u f. zuf. z
u f. @ fHVf(H H;
ff(uDf. z"u f. zuf. z
u f. @ U UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ b1HT$8dH+%( uhH@] @ HT$H|$H5l \|$ HtHt+H H5} HPt^HuHT 1i^HuXff. f USHHdH%( HD$81H Ht$HD$HFHD$$ D$ HD$ t6H|$ a1HT$8dH+%( HH[] D Ht$H|$oStHl$H= HG[tHH= 4[u]HuHc \ @ HH= [tHH= ZtHOW H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11`1HT$(dH+%( u9H8 [HHuҐ^\HuH2 H Vff. @ SH0fnFdH%( HD$(1H[ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11_1HT$(dH+%( uUH0[f D ;ZHHuӐt [HuHcTZfHH H; tЉUf ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11 _E1HD$(dH+%( H0LA\ @ SYHHuf HHRxH;R wQIMtoI$H5 LPtZZHuL8PIHoHJbLT1HH P@ LV8fE1HZH" D IjyTf H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11]1HT$(dH+%( H8 @ WHHuҐHtIH H;; uQ tLJ JYHuH H H H; t @ 1]Sff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11\1HT$(dH+%( H8 @ VHHuҐHtIH H; uQ tLJ +XHuH H f H H;B t @ :Rf. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b[1HT$8dH+%( H@]f D UHHuϐHt$ H|$TtD$$t$ t99 tHE H VHuH H | @ HE H H; u ; tƉ H HPff. ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ Z1HT$8dH+%( H@[]A\ ;THHuːHt$H|$qKtD$$Ld$u`HE LH@H; H=} ,StLH=~ Su-pUHaHcSVf. L LH=~ RtLH=~ RtLzGf D HЉROf AUATUSHhHNdH%( HD$X1HGfnAH % HfnfbA)taA H H4$H\$D$fD$H Ho(HtsD$+D$ H XX1N @ H H4$H\$L$D$D$HC H_(HtD$9D$ H11X1HT$XdH+%( C Hh[]A\A] H5 DW1 D #RHH3 D Ld$ I LLLtHD$0foT$ LHHD$P)T$@DKD$@9D$ D$$9D$D D$(9D$Hu~D$,9D$LutD$P9D$0ujD$T9D$4u`+SHH H f SHH K @ CQHHfRHu L1LRLf. AU1ATUHĀHNdH%( HD$x1HGAfnH % fnA)fbA~ Au}H
Ht$ HL$(T$8fD$0H Ho(Ht%D$0+D$4 H|$ U1HT$xdH+%( H]A\A]f D EH5 D|U1 L Ht$ LT$(L$0T$4T$8H Ho(HtD$0+D$4 Ld$@Ll$ LLIUD$019D$8 HD$PfoT$@LHHD$p)T$`KD$`9D$@ D$D9D$d D$H9D$h D$l9D$L D$p9D$Pu D$t9D$Tg PHHZ H f H|$ T1 D NHHK1t Ld$ Ht$LMPHt$ LM;Ht$LM&Ht$LMHt$LjMHt$ LUMHHD$$PDL$(DD$$L$ T$ t$BXZ NHH
1HT$ H5,| LlM|$ H31s [OH L1L`OtIf D ATL%3) H
H H5* LK) uDLH) LLA\ ATIUH]BHt HH5 LHBtHm tH]A\HH]A\D 9 tH D f. D D D UH= HKu ]ÐHH=}w KtHH=|w KtHH=vw KtH]>@f. @ HH H; u! tLJ HH H;K u) tLJ 1f. f E UH@dH%( HD$81Hu Ht$HD$HFHD$$ D$ t0H|$ P1HT$8dH+%( uhH@] @ HT$H|$H5lu J|$ HtHt+H H5 HPtLHuHB 1iLHuFff. f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11O1HT$(dH+%( u}H0[f D JHHuӐt, fH~KHufHn@f HH H;7 u fH~f D fH~Ef. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ N1HT$8dH+%( H@]f D HHHuϐHt$H|$Q?tD$$D$t?f. ztHE H IJHuH H t @ HE Hx H;6 u$f. zt H D HtHl$H= HFtHH= FuIHuHcG @ HH= FtHH=Rr FtHH=Qr sFtHH=Kr `FtH;Bff. ATUSH@fnFdH%( HD$81Hq Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ L1HT$8dH+%( H@[]A\ KFHHuːHt$H|$=tD$$Ld$u`HE LH@H; H= IMtoI$H5v LPtZEHuL;IHoHD6bL?1HH P@ L7B8fE1EH" D Ij?f ATL%" H
H H5 $ LA# uXGLH^# BLA\ ATIUHCHt HH5p LH8tHm tH]A\HH]A\!; f. z
u H G= UH= H Bu ]ÐHH= AtHH= AtHH=m AtHH=m AtHH=m AtH]X6 4 UH@dH%( HD$81Hpl Ht$HD$HFHD$$ D$ t0H|$ G1HT$8dH+%( uhH@] @ HT$H|$H5 l JA|$ HtHt+H H5 HPt2CHuH8 1CHu]=ff. f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ F1HT$8dH+%( H@]f D @HHuϐHt$ H|$?tD$$t$ t99 tHE H BHuH H | @ HE H H;F u ; tƉ H H tHH=`j >u@HuHc~? @ HH=Gj i>tHH=Aj V>tH
3: SH0fnFdH%( HD$(1H? H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.D1HT$(dH+%( uUH0[f D k>HHuӐt ?HuHc>fHH H;O tЉ:f UH0fnFdH%( HD$(1Hz H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11NC1HT$(dH+%( uVH0]f D =HHuӐt H ?HuH4뵐HH H; tH19 ATUSH@fnFdH%( HD$81Hh Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ VB1HT$8dH+%( H@[]A\ H=u |;tLH=5g i;u-=HaHcO1HT$8dH+%( uzH@]f. 8HHuϐH5 HT$H|$j8|$ HtD$$u(HE H V:HuH H @ H+4 9 tH D f. D D H @ * UH=X H\7u ]ÐHH=
c A7tHH= c .7tHH=c 7tH]+f. @ UHAWAVAUATSH fnFdH%( HE1HP HuHEHG fnȉEfbfE HELw(11HHXS,H}4 AHc+LmEupM E+E HX ' H2 ATUSH@fnFdH%( HD$81HV Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 01HT$8dH+%( H@[]A\ ++HHuːHt$H|$a"tD$$Ld$u`HE LH@H; H= *tLH= *u-`,HaHc*Vf. L LH=g )tLH=U )tLH=U )tLH={U )tLD x D HЉg& ATH0fnFdH%( HD$(1HT H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11M/E1HD$(dH+%( H0LA\ @ )HHuf HHRxH; ,IMtoI$H5 LPtZ*HuLh IHoH$bL$1HH P@ L'8fE1x*H" D Ij$f ATL% 1Hk H5C L&=
u"LH
'LA\ ATIUHHt HH5 LH tHm tH]A\HH]A\ D * UH= H 'u ]ÐHH= 'tHH=d &tHH=R &tHH=R &tHH=R &tH]h UH@dH%( HD$81HQ Ht$HD$HFHD$$ D$ t0H|$ ,1HT$8dH+%( uhH@] @ HT$H|$H5,Q Z&|$ HtHt+H H5ļ HPtB(HuH 1)(Hum"ff. f USHHdH%( HD$81HP Ht$HD$HFHD$$ D$ HD$ t6H|$ +1HT$8dH+%( HH[] D Ht$H|$/ tHl$H= H%tHH=b $uK'HuHc% @ HH=P $tHH=P $tHH=P $tHW>!ff. UH0fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n*1HT$(dH+%( u8H0]f D $HHuӐ'H3&HuHo ff. @ SH0fnFdH%( HD$(1Hz H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11)1HT$(dH+%( uUH0[f D #HHuӐt a%HuHc#fHH H; tЉ f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11(1HT$(dH+%( uUH0[f D "HHuӐt $HuHc#fHHx H;' tЉ f SH0fnFdH%( HD$(1Hո H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11'1HT$(dH+%( uUH0[f D "HHuӐt #HuHc4"fHHh H;' tЉ f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ &1HT$8dH+%( udH@]f. +!HHuϐHT$H|$H5] |$ Ht H"HuH* H UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ %1HT$8dH+%( ulH@]f. + HHuϐHT$H|$H5!] |$ HtHE HH@ !HuH" H ff. @ UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ $1HT$8dH+%( H@]f D HHuϐHt$ H|$ tD$$t$ t99 tHE H q HuH
H | @ HE H H;~ u ; tƉ H Hlff. UH@fnFdH%( HD$81Hϴ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ #1HT$8dH+%( H@]f D HHuϐHt$ H|$ tD$$t$ t99 tHE H ! HuH H | @ HE Hp H; u ; tƉ H H ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B"1HT$8dH+%( H@]f D { HHuϐHt$ H|$qtD$$t$ t99 tHE H HuHm H | @ HE H` H; u ; tƉ H Hff. H8fnFdH%( HD$(1HK H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ ;HHuҐHtIH H; uQ tLJ HuH6 H H H;* t @ 1ff. f H8fnFdH%( HD$(1H8 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ HHuҐHtIHp H;c uQ tLJ {HuH H f H H; t @ f. H8fnFdH%( HD$(1H% H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ HHuҐHtIH H; uQ tLJ [HuH H f H H; t @ jf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ HHuҐHtIHp H;# uQ tLJ :HuH H H H; t @ 1Mff. f ATH0fnFdH%( HD$(1H B H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11} E1HD$(dH+%( H0LA\ @ HHuf HHRxH;R IMtoI$H5 LPtZHuL
IHoHTbL1HH P@ LG8fE1H" D Ijf ATUSH@fnFdH%( HD$81H@ Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ +HHuːHt$H|$a tD$$Ld$u`HE LH@H;. H= tLH=Q u-`HaHcVf. L LH=? tLH=? tLH=? tLW HЉ2f AV1IAUATUSHpfnFdH%( HD$hHG~H % fnfb)t> H5 A1HT$hdH+%( Hp[]A\A]A^f D H
Ht$HL$T$(fD$ HT I@(Ht L$$9L$ H|$111 H
4 Ht$HL$T$(fD$ H Hl$1Mp(1H?H|$04 AHcLLd$0EubM D$ +D$$ HH|$01HT$8H9HHD$HD$ @ IcI H 4H fHn @ DLH
|EZ ID$H9+ AE D1H fAHH9uDAt AA Ic1A$ HH9t/Af.ztsHuDL1H f D SIH|$01MH H LIH8H|$1H|$04 HcH|$01ImL1cfL8IH1F D D1 AHH9uA A$3 Hf. AV1IAUATUSHpfnFdH%( HD$hHG~H % fnfb)t> H5] 1HT$hdH+%( Hp[]A\A]A^f D H
( Ht$HL$T$(fD$ HT I@(Ht L$$9L$ H|$111 H
ئ Ht$HL$T$(fD$ H Hl$1Mp(1HH|$04 AHcLd$0EubM D$ +D$$ HH|$01HT$8H9HHD$.
HD$ @ IcI H H fHn @ DLHz|EZ ID$H9+ AE D1H fAHH9uDAt AA Ic1A$ HH9t/Af.ztHuDL1HNf D IH|$01MHq H LIH8H|$1H|$04 Hc H|$01ImL1cfL
IH1F D D1 AHH9uA A$3f Hf. ATL%C H
HX H5 L uhLH i LA\ ATIUH Ht HH5 LHctHm tH]A\HH]A\ 9 tH D f. D D 9 tH D f. D D 9 tH D f. D D w UH= H u ]ÐHH=H tHH=6
tHH=6
tHH=6
tH]{f. HH H;3 u) tLJ 1f. f HHp H;s u) tLJ 1f. f HH H; u! tLJ HHp H; u! tLJ ' UH@dH%( HD$81Hp4 Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5 4 J |$ HtHt+H H5@ HPt2 HuH 1 Hu]ff. f USHHdH%( HD$81H3 Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$ tHl$H=^ HtHH=E u;
HuHc @ HH=3 tHH=3 tHH=~3 tHG.ff. UH0fnFdH%( HD$(1Hı H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^
1HT$(dH+%( u^H0]f D HHuӐt$H Hu H @ HH` H;߹ tH9f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n 1HT$(dH+%( uUH0[f D HHuӐt 1HuHcfHHx H; tЉRf ATUSH@fnFdH%( HD$81H&1 Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ v 1HT$8dH+%( H@[]A\ HHuːHt$H|$tD$$Ld$u`HE LH@H; H= tLH=sB u-HaHcoVf. L LH=0 ItLH=0 6tLH=0 #tL HЉ f ATH0fnFdH%( HD$(1H|/ H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11 E1HD$(dH+%( H0LA\ @ #HHuf HHRxH; IMtoI$H5 LPtZuHuLIHoHbLd1HH P@ L8fE1H" D IjIf AT1UHHHNdH%( HD$81HGAfnH % fnA)fbAtDA A H5Ƭ DA1HT$8dH+%( p HH]A\ L Ht$LT$L$ T$$T$(H Ho(HtD$ +D$$ H|$ 1 L
6 Ht$LL$L$ T$$T$(H Ho(HLD$ +D$$, H|$ 1"H
֫ Ht$HL$T$(fD$ HuPHo(HD$ +D$$tfH|$ R1 HHfHHuf D sHH-fLd$Ht$L^ eHt$LI PHt$ L4 ;L$ T$Ht$H D Ht$ H|$t$ HhHtXf D Ld$Ht$LHt$ LT$ t$HyHH H |Ff D ATL%S H
Hԩ H5 Lv uXLH YLA\ ATIUHHt HH5} LHStHm tH]A\HH]A\ H @ D g UH= Hu ]ÐHH={< tHH=J* ~tHH=I* ktHH=C* XtH] f. UH@dH%( HD$81H ) Ht$HD$HFHD$$ D$ t0H|$ <1HT$8dH+%( uhH@] @ HT$H|$H5( |$ HtHt+H H5D HPtHuHu 1Hu
ff. f USHHdH%( HD$81Hh( Ht$HD$HFHD$$ D$ HD$ t6H|$ R1HT$8dH+%( HH[] D Ht$H|$tHl$H=b HtHH=? uHuHc~ @ HH=S: itHH="( VtHH=!( CtHH=( 0tHff. ATUSH@fnFdH%( HD$81H' Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$QtD$$Ld$u`HE LH@H; H=ĩ tLH= u-PHaHcVf. L LH=8 tLH=r& tLH=q& tLH=k& tL4x D HЉg SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11> 1HT$(dH+%( uUH0[f D {HHuӐt HuHcfHH H; tЉ"f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^1HT$(dH+%( uUH0[f D HHuӐt !HuHcfHH8 H;G tЉBf SH0fnFdH%( HD$(1HU H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~1HT$(dH+%( uUH0[f D HHuӐt AHuHcfHH H; tЉbf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uRH0[f D HHuӐHH H; u RHuHc ҉ D UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H AHuHݦ H | @ HE H H; u ; tƉ H HH(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;C uQ tLJ jHuH H H( H; t @ 1}ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH0 H; uQ tLJ JHuH H HH H; t @ 1]ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH0 H;k uQ tLJ +HuHǠ H f H@ H;B t @ :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( H8 @ HHuҐHtIH H; uQ tLJ HuH H f H H;ҡ t @ f. UH@fnFdH%( HD$81Hѝ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( H@]f D {HHuϐHt$ H|$qtHE t$ H H;ל u5; t H HuHe H t @ H @ ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11-E1HD$(dH+%( H0LA\ @ cHHuf HHRxH;ʢ WIMtoI$H5 LPtZHuLHIHoHbL1HH P@ L8fE1XH" D Ijf ATL%3 H
|Hh H5 L uhLH LA\ ATIUH]Ht HH5 LHtHm tH]A\HH]A\ 9 tH D f. D D 9 tH D f. D D 9 tH D f. D D G UH= HLu ]ÐHH=ܙ 1tHH=( tHH= tHH= tHH= tH] HH H;Ӛ u! tLJ HH H; u) tLJ 1f. f HH0 H; u! tLJ HH0 H;k u) tLJ 1f. f UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5L z|$ HtHt+H H5v HPtbHuH 1IHuff. f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt HuHcfHHh H; tЉf SH0fnFdH%( HD$(1HQ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt HuHc4fHH` H;G tЉf USHHdH%( HD$81H( Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$tHl$H=Nt HgtHH=># TuHuHc> @ HH= )tHH= tHH= tHff. ATUSH@fnFdH%( HD$81Hf Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$!tD$$Ld$u`HE LH@H;N H=r tLH=! u- HaHcVf. L LH=U tLH=T vtLH=N ctL HЉf ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11-E1HD$(dH+%( H0LA\ @ cHHuf HHRxH; IMtoI$H5Cq LPtZHuLHIHoHbL1HH P@ L8fE1XH" D Ijf ATL% 1Hp H5 L} uLH LA\ ATIUH]Ht HH5=p LHtHm tH]A\HH]A\ D D w UH=o Hu ]ÐHH= tHH= tHH= tHH= tH]Kf. UH@dH%( HD$81H` Ht$HD$HFHD$$ D$ t0H|$ |1HT$8dH+%( uhH@] @ HT$H|$H5 :|$ HtHt+H H5 HPt"HuH 1 HuMff. f USHHdH%( HD$81H
Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$tHl$H=ҩ HtHH= u+HuHc @ HH=u
tHH=t
tHH=n
tH7 ff. UH0fnFdH%( HD$(1H. H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( u^H0]f D HHuӐt$H Hu H @ HHp H; tH)f SH0fnFdH%( HD$(1HV H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^1HT$(dH+%( uUH0[f D HHuӐt !HuHcfHH H;ό tЉBf ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ f1HT$8dH+%( H@[]A\ HHuːHt$H|$tD$$Ld$u`HE LH@H; H=t tLH=c yu-HaHc_Vf. L LH= 9tLH= &tLH= tL HЉf ATH0fnFdH%( HD$(1Hl H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ HHuf HHRxH; 7IMtoI$H5 LPtZeHuLIHoHbLT1HH P@ L8fE1H" D Ij9f H8fnFdH%( HD$(1Hv H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( H8 @ HHuҐHtIH H; uQ tLJ HuH H f H H; t @ f. H8fnFdH%( HD$(1Hd H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O1HT$(dH+%( H8 @ HHuҐHtIH H;Ê uQ tLJ HuH H H H;J t @ 1ff. f UH@fnFdH%( HD$81HR Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "1HT$8dH+%( H@]f D [HHuϐHt$ H|$QtD$$t$ t99 tHE H HuHM H | @ HE H H;> u ; tƉ H Hff. AT1UHXHNdH%( HD$H1HGAfnH % fnA)fbA AuZH
٠ Ht$HL$T$(fD$ H Ho(HtHG(HtL$9L$t;H11_1HT$(dH+%( u>H8 HHuҐǀ !HuH} H Zf. H8fnFdH%( HD$(1H0 H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H111HT$(dH+%( u>H8 HHuҐǀ QHuH| H f. H8fnFdH%( HD$(1Hv H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H111HT$(dH+%( u>H8 HHuҐǀ HuH | H f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H111HT$(dH+%( u>H8 +HHuҐǀ HuHM{ H f. UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11 1HT$(dH+%( u^H0]f D [HHuӐt$H Hu H> @ HH H;_ tHf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( uUH0[f D kHHuӐt HuHcfHH H;o{ tЉf UH0fnFdH%( HD$(1H9 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uVH0]f D HHuӐt H HuH裿뵐HHh H;?w tH1 SH0fnFdH%( HD$(1Hh H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n1HT$(dH+%( uUH0[f D HHuӐt 1HuHcfHH H;G{ tЉRf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt QHuHcfHHx H; tЉrf UH@fnFdH%( HD$81H͗ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H 1HuHu H | @ HE H H;&u u ; tƉ H H,ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H HuH}t H | @ HE Hp H;>s u ; tƉ H Hܿff. UH@fnFdH%( HD$81HR Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$ H|$1tD$$t$ t99 tHE H HuH-s H | @ HE H H;n| u ; tƉ H H茾ff. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;q uQ tLJ [HuHq H f H H;x t @ jf. H8fnFdH%( HD$(1H
H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;{p uQ tLJ :HuHp H H H;y t @ 1Mff. f ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11}E1HD$(dH+%( H0LA\ @ 賿HHuf HHRxH;zv DZIMtoI$H59 LPtZHuL蘶IHoHTbL1HH P@ LG8fE1H" D Ijٺf ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ +HHuːHt$H|$atD$$Ld$u`HE LH@H;s H= tLH= u-`HaHcVf. L LH= ɼtLH= 趼tLH= 裼tLW HЉ2f AT1USH@HNdH%( HD$81HGAfnH % fnA)fbA AuYH Ht$H\$T$(fD$ H Ho(Ht;D$ +D$$ H|$ 71 H5\ D1HT$8dH+%( G H@[]A\fH , Ht$H\$L$ T$$T$(H Ho(HtD$ +D$$0 H|$ 1 HH*if. Ld$Ht$ LNEHt$
L90Ht$L$Ht$LL$ DL$1\$
DD$EDΈADDD |$$ HE L L;Rj 8 H @ f Ld$4H|$ LIPT$$HE H H; l T$4L AЉAL;
i : ui: ua@8 uXD: uO\f[HHf. T$4L AЉAL;
?i u=: tN H 衻HwH9j H i DDHDDA: u@: uDLH8 t HE H 8 uD8 uD8 ue 8 H(HtD$9D$t;H111HT$(dH+%( H8 @ KHHuҐHtIH H;3Y uQ tLJ 誥HuHFT H H H;"R t @ 1轟ff. f H8fnFdH%( HD$(1H` H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ +HHuҐHtIH H;X uQ tLJ 苤HuH'S H f H H;RV t @ 蚞f. UH@fnFdH%( HD$81HI Ht$HD$HG fn؉D$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ §1HT$8dH+%( & H@]f D HHuϐHt$H|$QtD$$D$tgf f/
ѐ ]f(f.ztHE H 'H\HQ H Nf D HE H` H;X udf f/w2
Z ]f(f.zt H f(f. f(N HZќ ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11
E1HD$(dH+%( H0LA\ @ CHHuf HHRxH;jO 'IMtoI$H5~ LPtZ蕡HuL(IHoHbL脛1HH P@ Lם8fE18H" D Ijif AVAUATUSHpfnFdH%( HD$h1H~ Ht$HD$HG fnȉD$(fbfD$ Hl$Lw( 1H H|$04 AHcLl$0EulM D$ +D$$ HPH|$0E1HtHD$8H9ttHD$hdH+%( HpL[]A\A]A^IcI\ f D [HH>H|$ E1MH|$04 Hc[H|$0IsLE1hHt$ HKDLHm5E~\IEH9 AD$ D1Hf. fAT HH9uDAt AD Ët$ LLUE~3Ic1f HH9tAD f.ztHt'؞H|$0E1HL%hM I$nDL HĐD1 AD HH9uZɘ H ff. f ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ ֡1HT$8dH+%( H@[]A\ HHuːHt$H|$AtD$$Ld$u`HE LH@H;N H=z tLH= u-@HaHcϛVf. L LH=u 詚tLH=t 薚tLH=n 胚tL7 HЉf ATH1UHhHvdH%( HD$X1HGAfnH % fnA)fbA A At-H5Oz D1HT$XdH+%( Hh]A\L
"z HT$ LL$(t$0L$4L$8H Ho(HtD$0+D$4 H|$ ܟ1 H5y HT$ Ht$(L$8fD$0HupHo(HUD$0+D$4 H|$ ~1+ HD$XdH+%( : HhHH= ]A\Vf D H蘙HHu H耙HH
Ht$H|$ ɏD$HT$ D$HΚHwHfI H i D Ld$ Ht$LnHHt$LY3Ht$LD L$D$D$4T$f(fu!L$@D$HT$PHT$@ N)\$@mff. f ATL% H
H)w H5> L薖8 uxLH~ yLA\ ATIUH=Ht HH5v LHstHm tH]A\HH]A\ f f/w2
҆ ]f(f.zuÐH f(f f 9 tH D f. D D H1f H ߌf. D UH=u Hu ]ÐHH= tHH= ΕtHH= 軕tHH= 訕tH][f. HH H;CK u! tLJ HH H;K u) tLJ 1f. f g UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5 躔|$ HtHt+H H59 HPt袖HuH5 1艖Hu͐ff. f USHHdH%( HD$81H( Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$菋tHl$H=W HgtHH=W Tu諕HuHc> @ HH= )tHH= tHH= tHH=۾ tH複苏ff. ATUSH@fnFdH%( HD$81HV Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 覘1HT$8dH+%( H@[]A\ ےHHuːHt$H|$tD$$Ld$u`HE LH@H;B H= ̑tLH= 蹑u-HaHc蟒Vf. L LH=c ytLH=2 ftLH=1 StLH=+ @tLx D HЉgǍ ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ 3HHuf HHRxH;jD 跉IMtoI$H5 LPtZ腒HuLIHoHԂbLt1HH P@ Lǎ8fE1(H" D IjYf ATL%# H
Hm H5 L膎 uLH iLA\ ATIUH݅Ht HH5 LHctHm tH]A\HH]A\鱇 g UH=~ Hu ]ÐHH= tHH= 讎tHH=g 蛎tHH=f 舎tHH=` utH]( UH@dH%( HD$81H@ Ht$HD$HFHD$$ D$ t0H|$ \1HT$8dH+%( uhH@] @ HT$H|$H5 |$ HtHt+H H5 HPtHuH蕅 1Hu-ff. f USHHdH%( HD$81H Ht$HD$HFHD$$ D$ HD$ t6H|$ r1HT$8dH+%( HH[] D Ht$H|$tHl$H= HnjtHH= 贌u HuHc融 @ HH=U 艌tHH=T vtHH=N ctHff. SH0fnFdH%( HD$(1H} H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( uUH0[f D kHHuӐt HuHc脌fHHh H;? tЉf UH@fnFdH%( HD$81H;} Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( H@]f D {HHuϐHt$ H|$qtD$$t$ t99 tHE H ьHuHm; H | @ HE H` H;; u ; tƉ H H̆ff. ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$QtD$$Ld$u`HE LH@H;; H= tLH= u-PHaHc߉Vf. L LH= 蹈tLH= 覈tLH=~ 蓈tLG} HЉ"f ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11]E1HD$(dH+%( H0LA\ @ 蓈HHuf HHRxH;< G|IMtoI$H5
LPtZHuLxIHoH4zbLԃ1HH P@ L'8fE1舉H" D Ij蹃f AUATUSHhHNdH%( HD$X1HGfnAH % HfnfbA)taA H ? H4$H\$D$fD$H Ho(HtsD$+D$ H 踌1N @ H H4$H\$L$D$D$HC H_(HtD$9D$ H11h1HT$XdH+%( C Hh[]A\A] H5x D1 D 胆HH3 D Ld$ I LLxtHD$0foT$ LHHD$P)T$@DD$@9D$ D$$9D$D D$(9D$Hu~D$,9D$LutD$P9D$0ujD$T9D$4u`苇HH#6 H fkHH 1 @ 装HHf+Hu L1L4Zf. AU1ATUHĀHNdH%( HD$x1HGAfnH % fnA)fbAtBA H5 DY1HT$xdH+%( H]A\A]f L Ht$ LT$(L$0T$4T$8H Ho(Ht{D$0+D$4t|H|$ 1 @ H
e Ht$ HL$(T$8fD$0H Ho(Ht%D$0+D$4 H|$ Ɖ1( Ld$@Ll$ LL ~tHD$PfoT$@LHHD$p)T$`D$`9D$@\ D$D9D$dN D$h9D$H@ D$l9D$L2 D$p9D$P$ D$t9D$T !HRH3 H q Ld$ Ht$L^ Ht$ LI Ht$L4Ht$L Ht$L
Ht$ LHHD$$PDL$(DD$$L$ T$ t$F|XZ) 裂HHC1苂HH1 H L1L6~f D ATL%C H
Hc H5΅ LfȄ uHLH ILA\ ATIUH蝅Ht HH5 LHCwtHm tH]A\HH]A\y 9 tH D f. D D 7u UH= H|u ]ÐHH=K atHH= NtHH= ;tHH= (tH]tf. wz UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5 |$ HtHt+H H5Mw HPt貁HuHEw 1虁Hu{ff. f UH0fnFdH%( HD$(1H- H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( u^H0]f D KHHuӐt$H ЀHu Hy @ HH H;W6 tHzf USHHdH%( HD$81HH Ht$HD$HFHD$$ D$ HD$ t6H|$ 21HT$8dH+%( HH[] D Ht$H|$utHl$H={u H}tHH= - t}uHuHc^~ @ HH=3 I}tHH= 6}tHH= #}tHH= }tHqyff. ATUSH@fnFdH%( HD$81Hv Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ Ƃ1HT$8dH+%( H@[]A\ |HHuːHt$H|$1ttD$$Ld$u`HE LH@H;^* H=s {tLH=+ {u-0~HaHc|Vf. L LH= {tLH=R {tLH=Q s{tLH=K `{tLpx D HЉgw AT1UHXHNdH%( HD$H1HGAfnH % fnA)fbA AuZH
i* Ht$HL$T$(fD$ H Ho(HtzIHt pAo$HH AoL$HAoT$ P Ao\$0X0Aod$@`@Aol$PhPAot$`p`Ao|$pxpAo$ Ao$ Ao$ HkIpff. AWAVAUATL%o USHXdH%( HD$H1Hl$HFHt$H Ld$D$ HD$$ i Ll$0A D$ +D$$D$ H\$ H51 HHs|$ Iu*1HT$HdH+%( HX[]A\A]A^A_ D D$ 9D$(|fE11ۿ oDL$ ILLLHH{oHL jf D HfywE1E1. D DLHmPD$ 9D$(vHH5 H
s|$ I"D$ 9D$(KHH5m Hr|$ HD$ 9D$( Ht$ H3ro Ixz D HFHwHHH=S} tf D HH5m &x1Hff. @ AVAUATUS1H`dH%( HD$X1HDm Hl$Ht$HD$HFH HD$$ D$ HD$ agH|$04 AHcfLl$0EtIcI\ D$ +D$$P HT$H5 Hq|$ I D$ 9D$(` E IUHH)H AD$} D1HAoD HH9uDAt4At H 4HA9~ALLA9~ ADDHt$LLLdIIc1E& D HH9t A9L trH rHt]E1H|$0HD$8H9t
HtnHD$XdH+%( H`L[]A\A]A^ D HVv @ M H5O LaHiI Ht$HqfD$ 9D$(}DLHwjg=f. D1 AT HH9uDL Hqf. L%A I$k Hawff. UHHHtiH]n r ATIUHHtHsH ID$ǃt@~ wHL1]A\e D tp1HT$(dH+%( u3H0]f D {jHHuӐH(lHuHjDf @ SH0fnFdH%( HD$(1He H4$HD$HG fnȉD$fbfD$u=HGHtL$9L$t:H11~o1HT$(dH+%( u4H0[f D iHHuӐXqGkHuJpe H8fnFdH%( HD$(1Had H4$HD$HG fnȉD$fbfD$u>HHtD$9D$t;H11n1HT$(dH+%( u9H8 hHHuҐfjHuH" H dff. @ USH8fnFdH%( HD$(1Hc H4$HD$HG fnȉD$fbfD$u1E1DL$ LLLb!hHXH H J DLHr`*D$09D$8}HH5K He|$ H D$09D$8vHH5! HH $e|$ ID$09D$8H $CHt$ HHL$L$dL$HL$aff. ATUSH@dH%( HD$8HFtn H` H4$HD$HGD$ D$D$ H_H 1HT$8dH+%( H@[]A\ÐH` H4$HD$HGD$ D$D$ H_HtkfHuH{` 8_f D H5_ j1m dHZHXHMD$+D$t H i1) Ld$(H LHX^ ~L$(~C`KhDD$0f~f~fpf~fpL$0f~fD$(9um9uiD9udeHH H f D cHHXH}D$9D$H113i^f D #eHu L1H,e{R_f ATL%j H
LH5l H5l L`(k uLubLA\ff. @ ATIUHcHt HH5 ^ LHcXtHm tH]A\HH]A\Z H SH ]ooKoS o[0oc@okP os`o{pHo o P H o X0`@o o hPo p`o H xp [f D 1ff. f ATUH-g HHdH%( HD$81HFHt$Hl$D$ HD$$ HD$ tUH|$ E1gH|$HtH/t&HD$8dH+%( - HHL]A\ #YӐHT$H|$HeIHt \Ao$HH AoL$HAoT$ P Ao\$0X0Aod$@`@Aol$PhPAot$`p`Ao|$pxpAo$ Ao$ Ao$ Ao$ Ao$ Ao$ Ao$ I$ H eVI\ AWAVAUATL% f USHXdH%( HD$H1Hl$HFHt$H Ld$D$ HD$$ T Ll$0A D$ +D$$D$ H\$ H5Q HH_|$ Iu*1HT$HdH+%( HX[]A\A]A^A_ D D$ 9D$(|fE11ۿ 'ZDL$ ILLLHHYHL@Uf D HdwE1E1. D DLHXPD$ 9D$(vHH5 H*^|$ I"D$ 9D$(KHH5 H]|$ HD$ 9D$( Ht$ HS]!Z Ie D UHHHtJXH]1] g` ATIUHHtHeaH ID$ǃt@~ wHL1]A\ D t1E1DL$ LLL[ZHXH H J DLHRR*D$09D$8}HH5+ HW|$ H D$09D$8vHH5 HH $lW|$ ID$09D$8H $CHt$ HHL$L$VL$HL${Sff. ATUSH@dH%( HD$8HFt6tyH5d] \1HT$8dH+%( H@[]A\ @ H3] H4$HD$HGD$ D$D$i H_H 1H\ H4$HD$HGD$ D$D$ H_HtLd$ H LHOtf(L$ f l$0f.f(f()D$ ffT$0 f. f. WH+HP H WHH U @ UHHXHD$+D$H 2[1B UHHXHD$9D$gH11Z1 @ VH L1H(OQff. ATL%_ H
D @ HT$ H5t{ LL|$ H_yHff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "R1HT$8dH+%( H@]f D [LHHuϐHt$ H|$QKtD$$t$ t990 tHE 0 H MHuHM H | @ HE H H; u ;0 tƉ0 H HGff. ATH0fnFdH%( HD$(1Hlv H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11PE1HD$(dH+%( H0LA\ @ KHHuf HHRxH; BIMtoI$H5H(HtD$9D$t;H11E1HT$(dH+%( u9H8 K?HHuҐD@HuHr H ;ff. @ H8fnFdH%( HD$(1HT H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11?D1HT$(dH+%( u9H8 {>HHuҐ[;@HuH H ?:ff. @ H8fnFdH%( HD$(1HS H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11oC1HT$(dH+%( u9H8 =HHuҐK/6?HuH H o9ff. @ UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11B1HT$(dH+%( u8H0]f D HuH38ff. @ UH0fnFdH%( HD$(1HjR H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11A1HT$(dH+%( u8H0]f D >1HT$(dH+%( uUH0[f D {8HHuӐt 1:HuHc8f D HH8 H; tЉ"4f UH0fnFdH%( HD$(1HmN H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^=1HT$(dH+%( u^H0]f D 7HHuӐt$Hp 9Hu H~7 @ HH0 H;O tH93f UH0fnFdH%( HD$(1HM H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n<1HT$(dH+%( u^H0]f D 6HHuӐt$H 08Hu H0 @ HH H; tHI2f UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~;1HT$(dH+%( u^H0]f D 5HHuӐt$H @7Hu H5 @ HHX H; tHY1f UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11:1HT$(dH+%( u^H0]f D 4HHuӐt$H P6Hu H4 @ HH H;w tHi0f UH0fnFdH%( HD$(1HJ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1191HT$(dH+%( u=H0]f D 3HHuӐ &4H^5HuH*/f. SH0fnFdH%( HD$(1HJ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1181HT$(dH+%( uUH0[f D 3HHuӐt T 4HuHc$3fHH H; tЉ.f SH0fnFdH%( HD$(1HӋ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1171HT$(dH+%( uUH0[f D +2HHuӐt 3HuHcD2fHH H; tЉ-f UH0fnFdH%( HD$(1Ha H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1171HT$(dH+%( uVH0]f D K1HHuӐt H0 2HuHc(뵐HH H; tH, UH0fnFdH%( HD$(1HG H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.61HT$(dH+%( uVH0]f D k0HHuӐt H 1HuH'뵐HHx H; tH, SH0fnFdH%( HD$(1HF H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N51HT$(dH+%( uUH0[f D /HHuӐt D 1HuHc/fHHH H;' tЉ2+f SH0fnFdH%( HD$(1HE H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n41HT$(dH+%( uUH0[f D .HHuӐt < 10HuHc.fHH H; tЉR*f SH0fnFdH%( HD$(1H$E H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1131HT$(dH+%( uUH0[f D -HHuӐt Q/HuHc-fHH H;W tЉr)f SH0fnFdH%( HD$(1H^D H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1121HT$(dH+%( uUH0[f D ,HHuӐt L q.HuHc-fHH H; tЉ(f SH0fnFdH%( HD$(1HC H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1111HT$(dH+%( uUH0[f D ,HHuӐt -HuHc$,fHH H;7 tЉ'f SH0fnFdH%( HD$(1HB H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1101HT$(dH+%( uUH0[f D ++HHuӐt 8 ,HuHcD+fHH H; tЉ&f SH0fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H1101HT$(dH+%( u}H0[f D K*HHuӐt,h fH~+HufHn!f HH H; uh fH~f D fH~%f. SH0fnFdH%( HD$(1H@ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( uUH0[f D ;)HHuӐt P *HuHcT)fHH H;o tЉ$f UH0fnFdH%( HD$(1H @ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11 .1HT$(dH+%( uVH0]f D [(HHuӐt H )HuHs 뵐HHh H;w tH$ SH0fnFdH%( HD$(1HO? H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>-1HT$(dH+%( uUH0[f D {'HHuӐt @ )HuHc'fHH H; tЉ"#f SH0fnFdH%( HD$(1Hy> H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^,1HT$(dH+%( uUH0[f D &HHuӐt !(HuHc&fHH H;W tЉB"f SH0fnFdH%( HD$(1H= H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~+1HT$(dH+%( uUH0[f D %HHuӐt A'HuHc%fHH H; tЉb!f SH0fnFdH%( HD$(1H< H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11*1HT$(dH+%( uUH0[f D $HHuӐt H a&HuHc$fHH H;W tЉ f SH0fnFdH%( HD$(1H< H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11)1HT$(dH+%( u}H0[f D #HHuӐt,X fH~z%HufHnf HH H; uX fH~f D fH~z f. SH0fnFdH%( HD$(1H ; H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11(1HT$(dH+%( u}H0[f D "HHuӐt,` fH~j$HufHnf HH H; u` fH~f D fH~j f. UH@fnFdH%( HD$81HQg Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ '1HT$8dH+%( u_H@]f. !HHuϐH5f HT$H|$:!|$ HtH 3#HuH H l ff. UH@fnFdH%( HD$81H 9 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ &1HT$8dH+%( u_H@]f. HHuϐH5e HT$H|$: |$ HtH3"HuH H l ff. SH0fnFdH%( HD$(1H/8 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11%1HT$(dH+%( H0[f HHuӐHH0 t2H; uIHp fH~D!HufHn H; u'Hp fH~ D Hf HD @ SH0fnFdH%( HD$(1Hv H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~$1HT$(dH+%( uXH0[f D HHuӐHHH H;w u%D 1ۅ+ HuHc @ _ff. @ UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=Ho(HtD$9D$t:H11#1HT$(dH+%( H0]f HHuӐHU HH H; u\D u0HE H0 H; uND tDžD H
HvH H h @ Hf H ff. @ H8fnFdH%( HD$(1H4 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O"1HT$(dH+%( unH8 HHuҐHHh H;
? u5L tLJL HuH H D f. H8fnFdH%( HD$(1H4 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O!1HT$(dH+%( unH8 HHuҐHHh H;
? u5L tLJL HuH H D f. H8fnFdH%( HD$(1H3 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( unH8 HHuҐHH0 H;
u5D tLJD HuH H D f. H8fnFdH%( HD$(1H22 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( unH8 HHuҐHH0 H;
u5D tLJD HuH H D f. H8fnFdH%( HD$(1HO1 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( ukH8 HHuҐHHh H;
? u5L tLJL HuH H @ 1 ff. f H8fnFdH%( HD$(1H`0 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( unH8 HHuҐHHh H;
? u5L tLJL HuH H D f. H8fnFdH%( HD$(1H$3 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( ukH8 HHuҐHH0 H;
u5D tLJD HuH H @ 1 ff. f UH@fnFdH%( HD$81Hp. Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( H@]f D {HHuϐHt$ H|$qtD$$t$ t99 tHE H HuHm H | @ HE H H; u ; tƉ H Hff. UH@fnFdH%( HD$81H2- Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D +HHuϐHt$ H|$!tD$$t$ t99P tHE P H HuH H | @ HE H H;V u ;P tƉP H H|ff. UH@fnFdH%( HD$81Hxm Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H 1HuH H | @ HE H H; u ; tƉ H H,ff. UH@fnFdH%( HD$81H* Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( H@]f D HHuϐHt$H|$tD$$D$t?f.` ztHE ` H HuHu H t @ HE H H;v u$f.` zt` H D H ff. UH@fnFdH%( HD$81HW) Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D +HHuϐHt$ H|$!tD$$t$ t99H tHE H H HuH H | @ HE H H;f u ;H tƉH H H| ff. UH@fnFdH%( HD$81H( Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$
tD$$t$ t99 tHE H 1HuH; H | @ HE H H; u ; tƉ H H,
ff. UH@fnFdH%( HD$81H& Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( H@]f D
HHuϐHt$ H|$ tD$$t$ t99 tHE H HuH} H | @ HE H H; u ; tƉ H Hff. UH@fnFdH%( HD$81H% Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ; HHuϐHt$ H|$1 tD$$t$ t99< tHE < H
HuH- H | @ HE H H; u ;< tƉ< H Hff. UH@fnFdH%( HD$81Hb$ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D
HHuϐHt$ H|$ tD$$t$ t99@ tHE @ H A HuHݺ H | @ HE H H; u ;@ tƉ@ H H<ff. UH@fnFdH%( HD$81H # Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( H@]f D HHuϐHt$H|$tD$$D$t?f.X ztHE X H
HuH H t @ HE H H; u$f.X ztX H D Hff. UH@fnFdH%( HD$81H! Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$H|$tD$$D$t?f.h ztHE h H HuH% H t @ HE H H; u$f.h zth H D H|ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t998 tHE 8 H 1HuHͶ H | @ HE H H; u ;8 tƉ8 H H,ff. UH@fnFdH%( HD$81H? Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99T tHE T H HuH} H | @ HE H H;~ u ;T tƉT H H ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$
1HT$8dH+%( H@]f D ;HHuϐHt$ H|$1tD$$t$ t99 tHE H HuH- H | @ HE H H; u ; tƉ H Hff. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H; uQH tLJH [HuH H f H H;
t @ jf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;۸ uQ tLJ :HuHֱ H H H; t @ 1Mff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;; uQ8 tLJ8 HuH H f H H;B t @ *f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11_1HT$(dH+%( H8 @ HHuҐHtIH H;C uQ< tLJ< HuH H H H;J t @ 1
ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11?1HT$(dH+%( H8 @ {HHuҐHtIH H; uQ tLJ HuHv H H H;± t @ 1ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ [HHuҐHtIH H; uQ tLJ HuHW H f H H;* t @ f. H8fnFdH%( HD$(1Hs H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ ;HHuҐHtIH H; uQT tLJT HuH7 H f H H; t @ f. H8fnFdH%( HD$(1Hn H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ HHuҐHtIH H; uQ@ tLJ@ zHuH H H( H; t @ 1ff. f H8fnFdH%( HD$(1HX H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H; uQ< tLJ< [HuH H f H H;" t @ jf. H8fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;s uQ tLJ ;HuHר H f H H; t @ Jf. H8fnFdH%( HD$(1H9 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;K uQH tLJH HuH H H H;Z t @ 1-ff. f H8fnFdH%( HD$(1H) H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11_1HT$(dH+%( H8 @ HHuҐHtIH H; uQ@ tLJ@ HuH H f H H; t @
f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11?1HT$(dH+%( H8 @ {HHuҐHtIH H;{ uQ tLJ HuHw H f H H; t @ f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ [HHuҐHtIH H; uQT tLJT HuHV H H H; t @ 1ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ ;HHuҐHtIH H;Ө uQ tLJ HuH6 H H H; t @ 1ff. f H8fnFdH%( HD$(1H
H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H; uQ8 tLJ8 zHuH H H H; t @ 1ff. f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ tQ 9O1H9D tHE D H 0HuHȠ H g HE H0 H;~ u, 9O1҅H9D tD H fH @ UH@fnFdH%( HD$81H
Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( H@]f D {HHuϐHt$ H|$qtD$$t$ tQ 9O1H9L tHE L H HuHX H g HE Hh H; u, 9O1҅H9L tL H fH @ UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=Ho(HtD$9D$t:H111HT$(dH+%( H0]fHHuӐHU HH H;֛ u\D t1HE H0 H; uND tDžD H \HuH H g Hf 1Hrf ATH0fnFdH%( HD$(1H< H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ HHuf HHRxH; IMtoI$H5 LPtZ5HuLIHoHbL$1HH P@ Lw8fE1H" D Ij f UH@fnFdH%( HD$81H Ht$HD$HG fnD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 21HT$8dH+%( H@]f D kHHuϐHt$H|$tL$HE f(H H;i fukf.p z)u'f.x z uf. zuf. zt p H |HAH H 3 f(f(f(H ATUSH@fnFdH%( HD$81Hf Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$!tD$$Ld$u`HE LH@H;> H= tLH=& u- HaHcVf. L LH=U tLH=T vtLH=N ctL HЉf UH@fnFdH%( HD$81HR Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "1HT$8dH+%( ? H@]f D [HHuϐHt$ H|$QtHE T$ HH tzH; D u;HE H0 H;! D tDžD H sHHH H :f. H; ugD tHE H0 H; uPD tDžD H f. HyH/f D H1HU AVAUATUSHPHNdH%( HD$H1HGfnAH % HfnfbA)tgA H
n Ht$HL$D$(fD$ H Ho(Ht{D$ +D$$ H|$ 1T L
Ht$LL$L$ D$$D$(Hb H(Ht D$$9D$ H|$111HT$HdH+%( l HP[]A\A]A^f. H5 DA1 D HH& D Ld$0Ll$ LL&tD$0T$8LH\$@D$fH~fI~D$f.D$0 fHnf.d$8 fInf.l$@zyuwH Hj H f H HH HHHf. [H{ L1Ldf D AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
Ht$ HL$(T$8fD$0H Ho(Ht1 HH1 kHHu1 @ SHH-1mLl$`Hl$@ LH)L$ HL L$ HLfD$TT$hLL$ D$`LLL$p$ T$0$ d$ $ $ ,$$ t$|$fH~l$L$8D$( D$(T$0L$8f.D$`) # f.T$h f.L$p $f.$ L$ f.$ T$f.$ fHnf.$ z,u*L$f.$ zuT$f.$ z H L HN f H H H HH H0 L$ Hl$@ LHcfo$ LLfo$ H$ H$ fo$ H$ fo$ )$ H$ )$ )$ )$ $ f.$ $ f.$ $ f.$ $ f.$ $ f.$ | uz$ f.$ zfud$ f.$ zPuN$ f.$ z:u8$ f.$ z$u" HH H @ HuԹ L1HDL$8T$0D$(Hk L HQH L1H @ AT1UH HNdH%( H$ 1HGAfnH % fnA)fbAtNA A H5 D1H$ dH+%( H ]A\ L
Ht$PLL$XL$`T$dT$hH Ho(HtD$`+D$d H|$P |1| D L9 Ht$PLT$XL$`T$dT$hH Ho(HBD$`+D$d H|$P 1H
Ht$PHL$XT$hfD$`HuPHo(HD$`+D$d tfH|$P 1 HHfHHuf D HH-wfLd$PHt$L.[Ht$LFHt$L1Ht$ L Ht$(LHt$0LHt$8LHt$@LHt$HLQt$P|$Pt$Hl$@d$8\$0T$(L$ D$y H$ H|$P 9VH$ $ $ $ $ $ $ $ $ HXZHH H f D Ld$PHt$p LH$ L|H$ L_|H$ $ $ $ $ $ $ $ $ !jf. AT1UHxHNdH%( HD$h1HGAfnH % fnA)fbA AuZH
Ht$ HL$(T$8fD$0H Ho(HtHG(HtL$9L$t;H11诶1HT$(dH+%( u>H8 HHuҐǀ( qHuH
a H 説f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H11ߵ1HT$(dH+%( u>H8 HHuҐǀ( 衱HuH=` H ګf. SH0fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H111HT$(dH+%( u6H0[f D KHHuӐ, հHuHch H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H11O1HT$(dH+%( u>H8 苮HHuҐǀ( HuH^ H Jf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>HG(HtL$9L$t;H111HT$(dH+%( u>H8 軭HHuҐǀ( AHuH] H zf. H8fnFdH%( HD$(1H? H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11诲1HT$(dH+%( u;H8 HHuҐ1艡tHuH] H 譨ff. f H8fnFdH%( HD$(1H> H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11߱1HT$(dH+%( u>H8 HHuҐ 趠衭HuH=\ H ڧf. SH0fnFdH%( HD$(1H> H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uZH0[f D KHHuӐ tҬHuHce H H H;Y tЉff. f SH0fnFdH%( HD$(1H+= H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11 1HT$(dH+%( uZH0[f D [HHuӐ tHuHcu H H H;X tЉff. f SH0fnFdH%( HD$(1H={ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( uUH0[f D kHHuӐt ( HuHc脩fHH( H;[ tЉf UH0fnFdH%( HD$(1H9z H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uVH0]f D 苨HHuӐt H HuH裟뵐HH H;GX tH1 UH@fnFdH%( HD$81H: Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( uVH@]f. 蛧HHuϐHt$ H|$葦tt$ H! HuHW H E D UH@fnFdH%( HD$81Hx Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ r1HT$8dH+%( H@]f D 諦HHuϐHt$ H|$补tD$$t$ tQ 9O N9( tHE ( H HrHV H d @ HE H H;S u4 9O N9( t( H H̡ff. ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ 3HHuf HHRxH;T IMtoI$H57 LPtZ腦HuLIHoHԖbLt1HH P@ LǢ8fE1(H" D IjYf ATL% H
HX6 H5 L膢 u8LHN iLA\ ATIUHmHt HH56 LHctHm tH]A\HH]A\鱛 UH0fnFdH%( HD$(1Hzu H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( ucH0]f D +HHuӐu,H H諤HuHHx 9 苩Hf D {Ğ @ UH@fnFdH%( HD$81Ht Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( uzH@]f. +HHuϐH5t HT$H|$蚡|$ HtD$$u(HE H 膣HuH"R H @ H(豝 H @ 9O N9( tH( f. D f D f D ( D 7 UH=73 H\u ]ÐHH=O AtHH= .tHH= tHH= tHH= tH]騔 釕 UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ ܥ1HT$8dH+%( uhH@] @ HT$H|$H5l 蚟|$ HtHt+H H5; HPt股HuH 1iHu譛ff. f USHHdH%( HD$81H Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$otHl$H= ; HGtHH= 4u苠HuHc @ HH= tHH= tHH= tH藒~ff. ATUSH@fnFdH%( HD$81HF Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 薣1HT$8dH+%( H@[]A\ ˝HHuːHt$H|$tD$$Ld$u`HE LH@H;V H={9 輜tLH= 詜u- HaHc菝Vf. L LH=5 itLH=4 VtLH=. CtL HЉҘf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D KHHuӐt ѝHuHcdfHH H;P tЉf SH0fnFdH%( HD$(1H7 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( u}H0[f D kHHuӐt, fH~HufHn;f HHh H;S u fH~f D fH~f. SH0fnFdH%( HD$(1H6 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11 1HT$(dH+%( u}H0[f D [HHuӐt, fH~ڛHufHn+f HHx H;OM u fH~f D fH~ڕf. SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D KHHuӐt њHuHcdfHH H;K tЉf UH@fnFdH%( HD$81H' Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "1HT$8dH+%( H@]f D [HHuϐHt$ H|$QtD$$t$ t99 tHE H 豙HuHMH H | @ HE H H;FF u ; tƉ H H謓ff. UH@fnFdH%( HD$81H3 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ Ҝ1HT$8dH+%( H@]f D HHuϐHt$H|$atD$$D$t?f. ztHE H YHuHF H t @ HE H` H;E u$f. zt H D HLff. UH@fnFdH%( HD$81HS2 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ r1HT$8dH+%( H@]f D 諕HHuϐHt$H|$tD$$D$t?f. ztHE H HuHE H t @ HE Hp H;K u$f. zt H D Hff. H8fnFdH%( HD$(1H: H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( H8 @ [HHuҐHtIH H;B uQ tLJ 軕HuHWD H f H H;zH t @ ʏf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ ;HHuҐHtIH H;{A uQ tLJ 蚔HuH6C H H H;jC t @ 1譎ff. f ATH0fnFdH%( HD$(1Hl H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11ݗE1HD$(dH+%( H0LA\ @ HHuf HHRxH;BH ׆IMtoI$H5- LPtZeHuLIHoH贃bLT1HH P@ L觏8fE1H" D Ij9f H8fnFdH%( HD$(1H| H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諐HHuҐHH H;
E u5 tLJ HuH@ H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諏HHuҐHH H;
D u5 tLJ HuH? H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諎HHuҐHH H;
C u5 tLJ HuH> H D :f. H8fnFdH%( HD$(1HT H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諍HHuҐHH H;
B u5 tLJ HuH= H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諌HHuҐHH H;
A u5 tLJ HuH< H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 請HHuҐHH H;
@ u5 tLJ HuH; H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諊HHuҐHH H;
? u5
tLJ
HuH: H D
:f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諉HHuҐHH H;
> u5 tLJ HuH9 H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 諈HHuҐHH H;
= u5 tLJ HuH8 H D :f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o1HT$(dH+%( unH8 談HHuҐHH H;
< u5 tLJ HuH7 H D :f. UH@fnFdH%( HD$81H8 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( H@]f D 蛆HHuϐHt$ H|$葅tD$$t$ t99 tHE H HuH6 H | @ HE H H;V; u ; tƉ H Hff. ATL%3 H
tHH= +tHH= tH]wf. HH H; 2 u! tLJ HH H;1 u) tLJ 1f. f v UH@dH%( HD$81HP Ht$HD$HFHD$$ D$ t0H|$ l1HT$8dH+%( uhH@] @ HT$H|$H5 *|$ HtHt+H H5}2 HPtHuHy 1Hu=~ff. f USHHdH%( HD$81H Ht$HD$HFHD$$ D$ HD$ t6H|$ 肇1HT$8dH+%( HH[] D Ht$H|$xtHl$H=1 H׀tHH= ĀuHuHc讁 @ HH=e 虀tHH=d 膀tHH=^ stH'u}ff. UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( u^H0]f D {HHuӐt$H Hu Hz @ HH H;_1 tH|f UH0fnFdH%( HD$(1H0 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( u^H0]f D HHuӐt$H Hu Hy @ HHp H;1 tH){f SH0fnFdH%( HD$(1H)/ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^1HT$(dH+%( uUH0[f D ~HHuӐt !HuHc~fHH H;3 tЉBzf SH0fnFdH%( HD$(1HT. H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~1HT$(dH+%( uUH0[f D }HHuӐt AHuHc}fHH H;- tЉbyf SH0fnFdH%( HD$(1H|- H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11螂1HT$(dH+%( uUH0[f D |HHuӐt a~HuHc|fHH H;. tЉxf SH0fnFdH%( HD$(1H, H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11辁1HT$(dH+%( uUH0[f D {HHuӐt }HuHc|fHH H;/* tЉwf H8fnFdH%( HD$(1H+ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11߀1HT$(dH+%( uaH8 {HHuҐuHH H;. u) |HuH&+ H v H8fnFdH%( HD$(1H* H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( uYH8 +zHHuҐuHH H;( u!1|{HuH9* H uff. @ H8fnFdH%( HD$(1H* H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11~1HT$(dH+%( uaH8 ;yHHuҐuHH H;* u) rzHuHF) H t H8fnFdH%( HD$(1H ) H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11~1HT$(dH+%( uaH8 KxHHuҐuHH H;k) u) _myHuHV( H s H8fnFdH%( HD$(1H7( H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 }1HT$(dH+%( uaH8 [wHHuҐuHH H; - u) /yxHuHf' H r H8fnFdH%( HD$(1H
H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11/|1HT$(dH+%( uaH8 kvHHuҐuHH H;[' u) ?zwHuHv& H r H8fnFdH%( HD$(1H^& H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11?{1HT$(dH+%( uYH8 {uHHuҐuHH H;( u!1zvHuH% H qff. @ H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11Oz1HT$(dH+%( uYH8 tHHuҐuHH H;* u!1bxuHuH$ H /pff. @ H8fnFdH%( HD$(1H$ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11_y1HT$(dH+%( uYH8 sHHuҐuHH H;s& u!1rl
uHuH# H ?off. @ H8fnFdH%( HD$(1H# H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11ox1HT$(dH+%( uYH8 rHHuҐuHH H;" u!1g tHuH" H Onff. @ SH0fnFdH%( HD$(1HZ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~w1HT$(dH+%( uRH0[f D qHHuӐHH H;! u 2sHuHcq ҉em D UH@fnFdH%( HD$81H! Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ v1HT$8dH+%( uVH@]f. pHHuϐHt$ H|$ott$ Hau_tHH= +_tHH= _tH]Sf. H~NL` fpf~L;S f~u=9 t fև f 9 u; u A D H~NL fpf~L;C f~u=9 t fև f 9 u; u A D U UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ d1HT$8dH+%( uhH@] @ HT$H|$H5 ]|$ HtHt+H H5W HPt_HuHUU 1_HuYff. f USHHdH%( HD$81HH Ht$HD$HFHD$$ D$ HD$ t6H|$ 2c1HT$8dH+%( HH[] D Ht$H|$TtHl$H=u H\tHH=^ t\u^HuHc^] @ HH= I\tHH= 6\tHH= #\tHPXff. ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ a1HT$8dH+%( H@[]A\ \HHuːHt$H|$AStD$$Ld$u`HE LH@H; H= ZtLH=Ә Zu-@]HaHc[Vf. L LH=u ZtLH=t ZtLH=n ZtL7O HЉWf SH0fnFdH%( HD$(1H3 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N`1HT$(dH+%( u}H0[f D ZHHuӐt, fH~
\HufHn[Qf HH H; u fH~f D fH~
Vf. SH0fnFdH%( HD$(1H5 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>_1HT$(dH+%( u}H0[f D {YHHuӐt, fH~ZHufHnKPf HH H;' u fH~f D fH~Tf. SH0fnFdH%( HD$(1H0 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.^1HT$(dH+%( uUH0[f D kXHHuӐt YHuHcXfHHh H; tЉTf SH0fnFdH%( HD$(1H] H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N]1HT$(dH+%( u}H0[f D WHHuӐt, fH~
YHufHn[Nf HH H; u fH~f D fH~
Sf. SH0fnFdH%( HD$(1HY H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>\1HT$(dH+%( u}H0[f D {VHHuӐt, fH~WHufHnKMf HH H; u fH~f D fH~Qf. SH0fnFdH%( HD$(1H[ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.[1HT$(dH+%( uUH0[f D kUHHuӐt VHuHcUfHH H; tЉQf SH0fnFdH%( HD$(1H3 H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11NZ1HT$(dH+%( uUH0[f D THHuӐt VHuHcTfHH H;g tЉ2Pf UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ bY1HT$8dH+%( uXH@]f. SHHuϐHt$H|$ItD$HG
UHuH H CO UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ rX1HT$8dH+%( uXH@]f. RHHuϐHt$H|$ItD$HOPTHuH H SN UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ W1HT$8dH+%( uXH@]f. QHHuϐHt$H|$HtD$HJ*SHuH H cM UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ V1HT$8dH+%( uXH@]f. PHHuϐHt$H|$!GtD$HQ:RHuH H sL ATUHHfnFdH%( HD$81H
Ht$HD$HG fnЉD$(fbfD$ uJHo(Ht!D$ +D$$tDH|$ U1HT$8dH+%( umHH]A\f D OHHuѐLd$HL0FtHt$L FtL$$HN3QHuH H lKff. UH@fnFdH%( HD$81H# Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ T1HT$8dH+%( H@]f D NHHuϐHt$ H|$MtD$$t$ t99 tHE H !PHuH H | @ HE H H;> u ; tƉ H H Jff. UH@fnFdH%( HD$81H
Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ BS1HT$8dH+%( H@]f D {MHHuϐHt$ H|$qLtD$$t$ t99 tHE H NHuHm H | @ HE H` H; u ; tƉ H HHff. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11Q1HT$(dH+%( H8 @ ;LHHuҐHtIH` H; uQ tLJ MHuH7 H f Hp H; t @ Gf. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11P1HT$(dH+%( H8 @ KHHuҐHtIH H; uQ tLJ {LHuH H f H H;Z t @ Ff. H8fnFdH%( HD$(1Hx H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O1HT$(dH+%( H8 @ IHHuҐHtIH H; uQ tLJ ZKHuH H H H; t @ 1mEff. f H8fnFdH%( HD$(1Hf H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11N1HT$(dH+%( H8 @ HHHuҐHtIH` H;c uQ tLJ :JHuH H Hx H; t @ 1MDff. f ATH0fnFdH%( HD$(1H s H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11}ME1HD$(dH+%( H0LA\ @ GHHuf HHRxH; >IMtoI$H5 LPtZIHuL>IHoHT9bLB1HH P@ LGE8fE1HH" D IjBf H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11L1HT$(dH+%( unH8 KFHHuҐHH H;
u5 tLJ GHuHK H D Af. H8fnFdH%( HD$(1HD H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11K1HT$(dH+%( unH8 KEHHuҐHH H;
u5 tLJ FHuHK H D @f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11J1HT$(dH+%( unH8 KDHHuҐHH H;
u5 tLJ EHuHK H D ?f. H8fnFdH%( HD$(1H: H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11I1HT$(dH+%( unH8 KCHHuҐHH H;
u5
tLJ
DHuHK H D
>f. H8fnFdH%( HD$(1Hl H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11H1HT$(dH+%( unH8 KBHHuҐHH H;
u5 tLJ CHuHK H D =f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11G1HT$(dH+%( unH8 KAHHuҐHH H;
u5 tLJ BHuHK H D H(HtD$9D$t;H11F1HT$(dH+%( unH8 K@HHuҐHH H;
u5 tLJ AHuHK H D ;f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11E1HT$(dH+%( unH8 K?HHuҐHH H;
u5 tLJ @HuHK H D :f. H8fnFdH%( HD$(1HU H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11D1HT$(dH+%( unH8 K>HHuҐHH H;
u5 tLJ ?HuHK H D 9f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11C1HT$(dH+%( unH8 K=HHuҐHH H;
u5 tLJ >HuHK H D 8f. H8fnFdH%( HD$(1Hn H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11B1HT$(dH+%( unH8 K"1HT$(dH+%( uUH0[f D { HHuӐt HuHc fHHx H; tЉ"f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^!1HT$(dH+%( u}H0[f D HHuӐt, fH~ HufHnkf HH( H; u fH~f D fH~f. SH0fnFdH%( HD$(1H
H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N 1HT$(dH+%( u}H0[f D HHuӐt, fH~
HufHn[f HHh H; u fH~f D fH~
f. SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11> 1HT$(dH+%( u}H0[f D {HHuӐt, fH~HufHnKf HHH H; u fH~f D fH~f. SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11. 1HT$(dH+%( u}H0[f D kHHuӐt, fH~HufHn;f HH H; u fH~f D fH~f. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D KHHuϐHt$ H|$AtD$$t$ t99 tHE H HuH= H | @ HE Hp H; u ; tƉ H Hff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$H|$Q tD$$D$t?f. ztHE H IHuH H t @ HE H@ H;& u$f. zt H D H<ff. UH@fnFdH%( HD$81HS Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( H@]f D HHuϐHt$H|$
tD$$D$t?f. ztHE H HuH H t @ HE HP H; u$f. zt H D Hff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$H|$ tD$$D$t?f. ztHE H HuH% H t @ HE H H;> u$f. zt H D H|ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$H|$1tD$$D$t?f. ztHE H )HuH H t @ HE H0 H; u$f. zt H D H
ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( H@]f D {HHuϐHt$H|$tD$$D$t?f. ztHE H HuHe H t @ HE H H; u$f. zt H D H ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$H|$qtD$$D$t?f. ztHE H iHuH H t @ HE H` H;f u$f. zt H D H\
ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D
HHuϐHt$H|$tD$$D$t?f. ztHE H HuH H t @ HE H H; u$f. zt H D Hff. UH@fnFdH%( HD$81HJ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ "1HT$8dH+%( H@]f D [ HHuϐHt$H|$tD$$D$t?f. ztHE H
HuHE H t @ HE H H;f u$f. zt H D Hff. ATH0fnFdH%( HD$(1H\6 H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ HHuf HHRxH; IMtoI$H5] LPtZU HuLIHoHbLD1HH P@ L8fE1 H" D Ij)f ATUHXfnFdH%( HD$H1H Ht$ HD$(HG fnȉD$8fbfD$0uJHo(Ht!D$0+D$4tDH|$ P1HT$HdH+%( HX]A\f HHuѐLd$ Ht$L~tHt$ LmtHt$L\tHt$LKtHt$L:rHt$ L%]HHD$$PDL$(DD$$L$ T$ t$VXZ
H&H H ATUSH@fnFdH%( HD$81H3 Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$
1HT$8dH+%( H@[]A\ HHuːHt$H|$AtD$$Ld$u`HE LH@H; H=Z tLH=2 u-@ HaHcVf. L LH=2 tLH=2 tLJf D HЉ"f AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
Z Ht$ HL$(T$8fD$0H Ho(Ht( StHff. SH0fnFdH%( HD$(1H% H4$HD$HG fnȉD$fbfD$u=H(Ht\$9\$t:H11 1HT$(dH+%( uUH0[f D [HHuӐt 1HuHcxf D HHh H; tЉf SH0fnFdH%( HD$(1H] H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( uZH0[f D {HHuӐ tHuHc H Hp H;± tЉ ff. f UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N 1HT$(dH+%( u^H0]f D HHuӐt$H Hu H @ HH H; tH)f UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^1HT$(dH+%( u^H0]f D HHuӐt$H Hu H~ @ HHP H; tH9f UH0fnFdH%( HD$(1HN H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n1HT$(dH+%( u^H0]f D HHuӐt$H 0Hu H @ HH H;g tHIf UH0fnFdH%( HD$(1Hb H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~1HT$(dH+%( u^H0]f D HHuӐt$H @Hu H @ HH H;ϰ tHYf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt QHuHcfHHx H; tЉrf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt p qHuHcfHH H;ǣ tЉf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt HuHc$fHH H;g tЉf SH0fnFdH%( HD$(1H[ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D +HHuӐt HuHcDfHH8 H; tЉf H8fnFdH%( HD$(1H4 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH` H;
g u5 tLJ HuHK H D f. H8fnFdH%( HD$(1HT H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( ukH8 KHHuҐHH` H;
g u5 tLJ HuHJ H @ 1ff. f H8fnFdH%( HD$(1H| H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH` H;
g u5 tLJ HuHK H D f. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$ H|$1tD$$t$ t99 tHE H HuH- H | @ HE H H; u ; tƉ H Hff. UH@fnFdH%( HD$81H7 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ t99 tHE H AHuHݞ H | @ HE H H;V u ; tƉ H HH(HtD$9D$t;H11 1HT$(dH+%( H8 @ [HHuҐHtIH H;# uQ tLJ HuHW H f H H; t @ f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ ;HHuҐHtIHh H;k uQp tLJp HuH7 H f Hp H;ʙ t @ f. H8fnFdH%( HD$(1Hd H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;۟ uQ tLJ {HuH H f H( H; t @ f. H8fnFdH%( HD$(1HԳ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIHh H;+ uQp tLJp ZHuH H Hx H;
t @ 1mff. f H8fnFdH%( HD$(1H. H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H; uQ tLJ :HuH֗ H H H;ʕ t @ 1Mff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( H8 @ HHuҐHtIH H;{ uQ tLJ HuH H H0 H; t @ 1-ff. f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( H@]f D HHuϐHt$ H|$tD$$t$ tQ 9O1H9 tHE H HuHh H g HE H` H;6 u, 9O1҅H9 t H fH @ ATH0fnFdH%( HD$(1H| H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11E1HD$(dH+%( H0LA\ @ #HHuf HHRxH; IMtoI$H5/ LPtZuHuLIHoHbLd1HH P@ L8fE1H" D IjIf ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ f1HT$8dH+%( H@[]A\ HHuːHt$H|$tD$$Ld$u`HE LH@H;> H= tLH=c yu-HaHc_Vf. L LH=
9tLH=
&tLH= tL HЉf AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
٫ Ht$ HL$(T$8fD$0H Ho(HtD$@+D$D H|$0 r1f D H5Զ D1H$ dH+%( HĘ ]A\ D L
Ht$0LL$8L$@T$DT$HH Ho(HtD$@+D$D H|$0 1 +HH af. Ld$0HLp?Ht$L[*Ht$LFHt$L1 Ht$ L Ht$(Ld$ T$$l$(\$L$Df(f(L$fD(fffD: HU H@ H; f. zBu@f. z6u4f. z*u(f. z u f. zuf.( z0 H ( @ Ld$PH|$0 L T$DHE f(|$Pf(t$`H@ f(f(fD(fff(f(D$pH; f(f(f(f fD. zGuEf. z;u9f. z/u-f. z#u!f. zuf.( z t'f H MHH H @ HHf. HH H;r uGf(|$Pf(t$`H@ f(fD(ff(f(ff( fA(HgLHZf. zBu@f. z6u4f. z*u(f. z u f. zuf.( zHE D H Hyf AVH
cH AUH5 ATL%j ULS t[L]A\A]A^ sH { L5= H. Lk0Hc{QHHtH3HL{Hm t$HL9uL3[L]A\A]A^ Hf D ATIUHHt HH5 LHtHm tH]A\HH]A\a UH0fnFdH%( HD$(1H* H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( ucH0]f D HHuӐu,H H[HuHHx Hf D +t @ UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uNH0]f D HHuӐu$H HkHuH @ Hf UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( uzH@]f. HHuϐH5? HT$H|$j|$ HtD$$u(HE H VHuH} H @ H ATUH8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uCH(HtD$9D$tHH111HT$(dH+%( H8]A\f D HHuf uLH HkHuHtAHHHI+HuQLHwHf D H| H V[f. 9O1H9 tH @ f. D 1f f D D fnfnfb9 tH fև 9 u9 uf. D H @ f. f(fz"u f. zuf. z
u H H @ f. f(fz"u f. zuf. z
u H H @ 9 tH D f. D D 9 tH D f. D D f. fD(f(f(fDffzHuFf. zfvfF Hf(f(f(ffH@ H; | f(f(f(ff(usf. zIuGf. z=u;f. z1u/f. z%u#f. zuf.( z
u f. D f(f. 鷺 UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ ,1HT$8dH+%( uhH@] @ HT$H|$H5 |$ HtHt+H H5 HPtHuHe 1Huff. f USHHdH%( HD$81HX Ht$HD$HFHD$$ D$ HD$ t6H|$ B1HT$8dH+%( HH[] D Ht$H|$迺tHl$H= HtHH=n uHuHcn @ HH=% YtHH=$ FtHH= 3tHξff. SH0fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uZH0[f D ;HHuӐ
tHuHcU H
H H;q tЉݽff. f SH0fnFdH%( HD$(1Hm H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uZH0[f D KHHuӐ tHuHce H H H;"p tЉff. f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(Ht\$9\$t:H11 1HT$(dH+%( uUH0[f D [HHuӐt 1HuHcxf D HH H;q tЉf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( uZH0[f D {HHuӐ tHuHc蕿 H Hp H;"q tЉ ff. f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(Ht\$9\$t:H11N1HT$(dH+%( uUH0[f D 苾HHuӐt 1HuHc訾f D HHh H;ol tЉ2f SH0fnFdH%( HD$(1H/ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n1HT$(dH+%( uZH0[f D 諽HHuӐ t2HuHcŽ H H H;m tЉMff. f SH0fnFdH%( HD$(1Hc H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~1HT$(dH+%( uUH0[f D 軼HHuӐt AHuHcԼfHH H;m tЉbf SH0fnFdH%( HD$(1HvN H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D ۻHHuӐt aHuHcfHH H;p tЉ肷f SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt 聼HuHcfHHx H;j tЉ袶f SH0fnFdH%( HD$(1HŽ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H111HT$(dH+%( uUH0[f D HHuӐt 衻HuHc4fHH H;r tЉµf ATUHHfnFdH%( HD$81H H4$HD$HG fnȉD$fbfD$uKHo(Ht D$+D$tEH 1HT$8dH+%( u[HH]A\f +HHuΐLd$ H L英tHL輳蕺HuHc(Ѵ ATUH8fnFdH%( HD$(1H
H4$HD$HG fnȉD$fbfD$u;H(HtD$9D$t8H11 1HT$(dH+%( uoH8]A\fKHHuՐHӹHuHt1HaHHI蓾Hu蹲LH @ H9h H ֳf D ATUH8fnFdH%( HD$(1H) H4$HD$HG fnȉD$fbfD$u;H(HtD$9D$t8H11 1HT$(dH+%( uoH8]A\fKHHuՐHӸHuHt1HaHHI蓽Hu蹱LH @ H9g H ֲf D H8fnFdH%( HD$(1HB H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( ukH8 KHHuҐHH H;
/p u5 tLJ 讷HuHJf H @ 1ݱff. f H8fnFdH%( HD$(1Hn H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH H;
_i u5 tLJ 诶HuHKe H D ڰf. H8fnFdH%( HD$(1HW H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH H;
/n u5 tLJ 诵HuHKd H D گf. H8fnFdH%( HD$(1H:
H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH H;
_g u5
tLJ
说HuHKc H D
ڮf. H8fnFdH%( HD$(1Hm H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( unH8 KHHuҐHH H;
/l u5 tLJ 诳HuHKb H D ڭf. UH@fnFdH%( HD$81H3D Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$ H|$1tD$$t$ t99 tHE H 葲HuH-a H | @ HE H H;^c u ; tƉ H H茬ff. H8fnFdH%( HD$(1HB H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11迵1HT$(dH+%( H8 @ HHuҐHtIH H;sb uQ tLJ [HuH_ H f H H;Jc t @ jf. H8fnFdH%( HD$(1HA H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11蟴1HT$(dH+%( H8 @ ۮHHuҐHtIH H;Sa uQ tLJ :HuH^ H H H;g t @ 1Mff. f UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ r1HT$8dH+%( H@]f D 諭HHuϐHt$ H|$衬tD$$t$ tQ 9O1H9 tHE H HuH] H g HE H H; g u, 9O1҅H9 t H fHԨ @ UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( H@]f D ;HHuϐHt$ H|$1tD$$t$ tQ 9O1H9 tHE H 耭HuH\ H g HE H` H;[ u, 9O1҅H9 t H fHd @ UH@fnFdH%( HD$81Hh Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 蒰1HT$8dH+%( H@]f D ˪HHuϐHt$ H|$tD$$t$ tQ 9O
9L9 tHE H
HrHZ H d @ HE H H;n^ u4 9O
9L9 t H Hff. ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11 E1HD$(dH+%( H0LA\ @ SHHuf HHRxH;W IMtoI$H5 LPtZ襪HuL8IHoHbL蔤1HH P@ L8fE1HH" D Ijyf ATUSH@fnFdH%( HD$81HF Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 薭1HT$8dH+%( H@[]A\ ˧HHuːHt$H|$tD$$Ld$u`HE LH@H;vU H= 輦tLH= 試u- HaHc菧Vf. L LH=5 itLH=4 VtLH=. CtL HЉҢf AW1AVAUATUSH HNdH%( H$ 1HGAfnH % fnA)fbAtWAm A H5Q Dī1H$ dH+%( - Hĸ []A\A]A^A_f H Ht$0H\$8L$@T$DT$HHj Hl$0Lw( 1HH|$p4 AHcLl$pE! Ml D$@+D$D HEH|$p1HT$xH9.H%HD$]HD$ H N Ht$0H\$8T$HfD$@H Ho(Ht%D$@+D$D" H|$0 辪1 H Ht$0H\$8T$HfD$@H Ho(HtŋD$@+D$D" H|$0 ^1U IcI\ 蛤HHH|$0 萙H|$p4 Hc螤H|$p1IL1fKHHS1 +HH1 Ht$pH|$0 |$ L$xD$pH藣fH~mHfHn躚S D L|$P HLDLHE~TIEH9 AD$ D1HffAd $HH9uDAt AD LLL薙E~8Ic1f. HH9t AD f.zt肤H tIH|$p1M#HS H Ld$0Ht$LxHt$ LcHt$(LNT$(L$ D$vD1AD HH9uDL H#E Hff. f ATL%# H
H_ H5 L& uLH LA\ ATIUH]Ht HH5 LHtHm tH]A\HH]A\Q 9O1H9 tH @ f. D 1f f D D 9O1H9 tH @ f. D 1f f D D 9O
9L9 tH f. D
f D f D D 9 tH D f. D D 闕 UH=. Hu ]ÐHH= ўtHH= 辞tHH= 諞tHH= 蘞tH]Kf. HH H;Q u) tLJ 1f. f HH H;sQ u! tLJ w UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5| 誝|$ HtHt+H H5 HPt蒟HuH% 1yHu轙ff. f UH@dH%( HD$81H@ Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uFH@] @ H|$HT$H5 ʜ|$ Ht蛕HÞHuHVff. @ ATUHHdH%( HD$81H~ Ht$HD$HFHD$$ D$ D$ wcLd$HT$ H5 L*|$ Ht#D$ 9D$(|Vt$ H誒HHtU1HT$8dH+%( uMHH]A\ H|$ ܡf. Ht$ L3u D HPf AUATUH- H0dH%( HD$(1HFH4$Hl$D$HD$ t5H K1HT$(dH+%( uOH0]A\A] Ll$ H L蓕tĿ eLHIgLH茑5 HOf 闝 ATUHHLgMtLQL9HH]A\f. USHHdH%( HD$81H8 Ht$HD$HFHD$$ D$ HD$ t6H|$ "1HT$8dH+%( HH[] D Ht$H|$蟑tHl$H=T HwtHH= du軛HuHcN @ HH=$ 9tHԕ @ SH0fnFdH%( HD$(1Hy H4$HD$HG fnȉD$fbfD$u=HGHtL$9L$t:H111HT$(dH+%( uHt$L<)Ht$L'L$LLHDD$趙AHtg1 D Ll$0Ld$ LLLt$@ LLًLLHޔHHvC H D HH1 HGHhH:D$ +D$$DH|$ `1褎 @ AUATUSHH8dH%( HD$(1HtHH HCH- H $Hl$D$HD$ t3H 1HT$(dH+%( uiH8[]A\A] @ Ll$ H L+tƿ LHILH$fHG H5: H8:1豍 Hۙ D H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11ߖ1HT$(dH+%( u9H8 HHuҐ{覒HuHBA H ߌff. @ H8fnFdH%( HD$(1Hѽ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( u9H8 KHHuҐ ֑HuHr@ H ff. @ SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( uZH0[f D {HHuӐ tHuHc蕏 H H H;E tЉ ff. f SH0fnFdH%( HD$(1H# H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uZH0[f D 苎HHuӐ tHuHc襎 H H H;D tЉ-ff. f UH0fnFdH%( HD$(1HE H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11^1HT$(dH+%( u^H0]f D 蛍HHuӐt$Hoh#Hu H聍 HHp H;D tH9f UH0fnFdH%( HD$(1H_ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11n1HT$(dH+%( u^H0]f D 諌HHuӐt$HoP3Hu H葌 HHH H; < tHIf UH0fnFdH%( HD$(1Hz H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~1HT$(dH+%( u^H0]f D 軋HHuӐt$H @Hu H @ HH H;A tHYf UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 肐1HT$8dH+%( u_H@]f. 車HHuϐH5 HT$H|$*|$ HtHȈ#HuH: H \ff. ATUHHfnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uJHo(Ht!D$ +D$$tDH|$ 耏1HT$8dH+%( HH]A\f軉HHuѐLd$Ht$L讈tHt$L蝈tHt$ L茈tL$ T$Ht$zHtHc茉i2f ATUHHfnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uJHo(Ht!D$ +D$$tDH|$ `1HT$8dH+%( HH]A\f蛈HHuѐLd$HL萇tHt$LtHt$LntHt$ L]tDD$ L$HT$4$~̉HcHd8 H Uff. ATUHHfnFdH%( HD$81He Ht$HD$HG fnȉD$(fbfD$ uJHo(Ht!D$ +D$$tDH|$ 1HT$8dH+%( HH]A\f[HHuѐLd$HLPtHt$L?tHt$L.tHt$ L tDD$ L$HT$4$衄茈HcH$7 H U辂ff. ATUHHfnFdH%( HD$81H6 Ht$HD$HG fnȉD$(fbfD$ uJHo(Ht!D$ +D$$tDH|$ 1HT$8dH+%( HH]A\fHHuѐLd$HLtHt$LtHt$LtHt$ L݄tDD$ L$HT$4$葈LHcH5 H U~ff. ATUSH@fnFdH%( HD$81HF Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 薊1HT$8dH+%( H@[]A\ ˄HHuːHt$H|$|tD$$Ld$uXHE LH@H;v8 ulH= tLH=\ 譃u)HeHc蓄Zf D L LH=\ qtL%x븐HЉf ATH0fnFdH%( HD$(1Ḫ H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11=E1HD$(dH+%( H0LA\ @ sHHuf HHRxH;6 IMtoI$H5I LPtZńHuLXzIHoHubL~1HH P@ L8fE1hH" D Ij~f AVAUATUSHPfnFdH%( HD$H1H& Ht$ HD$(HG fnȉD$8fbfD$0uUHo(Ht!D$0+D$4tOH|$ 軇1HT$HdH+%( O HP[]A\A]A^ HHuƐLl$Ld$ LLۀtLt$LLǀtHt$ L趀tHt$L襀rHt$L萀]Ht$L{HH\$ LHc0SD$ LLHPDL$$DD$ L$ yXZHt/趂HtH謂Ht+袂HHc1T$1L{T$ L{T$ L{| ATUHHdH%( HD$8HF Ld$Ht$H HD$H HT$ LH5 D$( HD$ D$ |$ Ht9D$ 9D$(}Ht$ L*t t$ H:vH袁Htm D 1HT$8dH+%( u`HH]A\f D HD$8dH+%( uBHHHH]H=f A\_ H5A Hvq{ AU1ATUHĀHNdH%( HD$x1HGAfnH % fnA)fbAtBA H5 Dy1HT$xdH+%( H]A\A]f L Ht$ LT$(L$0T$4T$8H Ho(Ht{D$0+D$4t|H|$ @1 @ H
Q Ht$ HL$(T$8fD$0H Ho(Ht%D$0+D$4 H|$ 1( Ld$@Ll$ LL>xtHD$PfoT$@LHHD$p)T$`D$`9D$@\ D$D9D$dN D$h9D$H@ D$l9D$L2 D$p9D$P$ D$t9D$T AHRH- H q Ld$ Ht$L~| Ht$ Li| Ht$LT|Ht$L?|Ht$L*|Ht$ L|HHD$$PDL$(DD$$L$ T$ t$V|XZ) |HHC1|HH1 +~H L1L0~Vxf D AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
ͩ Ht$ HL$(T$8fD$0H Ho(HtH(HtD$9D$t;H11?p1HT$(dH+%( uLH8 {jHHuҐu$H kHuH H @ [,ff. f f D f D f.GPf(fz uf.OXzuf.W`z u H_PW` f. @ HGP f.Ghf(fz uf.Opzuf.Wxz u H_hWx f. @ HGh H @ h UH=9 H\hu ]ÐHH= AhtHH= .htH]\ fHVf(H8 H; ff(u4f.GPz uf.gXzuf.W`z u GPW` f. @ fHVf(H` H;! ff(u4f.Ghz uf.gpzuf.Wxz u GhWx f. @ ] UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ l1HT$(dH+%( u8H0]f D {fHHuӐ+cHhHuH]?bff. @ UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ bk1HT$8dH+%( u_H@]f. eHHuϐH5 HT$H|$
e|$ HtHWgHuH H H(HtD$9D$t;H11 _1HT$(dH+%( u9H8 [YHHuҐSZHuH H Uff. @ H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O^1HT$(dH+%( u>H8 XHHuҐ \ZHuH H JTf. H8fnFdH%( HD$(1Hݧ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11]1HT$(dH+%( u;H8 WHHuҐ1[DYHuH H }Sff. f H8fnFdH%( HD$(1HZ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11\1HT$(dH+%( u>H8 VHHuҐ vUqXHuH
H Rf. H8fnFdH%( HD$(1HZ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11[1HT$(dH+%( u;H8 VHHuҐ1TWHuH@ H Qff. f H8fnFdH%( HD$(1HmY H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11[1HT$(dH+%( u>H8 KUHHuҐ SVHuHm H
Qf. SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>Z1HT$(dH+%( u7H0[f D {THHuӐ+HVHuHcT@P UH0fnFdH%( HD$(1Hz H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~Y1HT$(dH+%( u^H0]f D SHHuӐt$H @UHu HN @ HH H; tHYOf UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11X1HT$(dH+%( u^H0]f D RHHuӐt$H PTHu HR @ HH H;? tHiNf UH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11W1HT$(dH+%( u^H0]f D QHHuӐt$H `SHu HQ @ HH H; tHyMf SH0VdH%( HD$(1H H4$HD$HGfn fnȉD$fbfD$u;H(Htt^H11V1HT$(dH+%( u_H0[f. PHtHx(HtˋD$t9HA1f H PRHuSWLT$q UH@fnFdH%( HD$81H6} Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ U1HT$8dH+%( uXH@]f. OHHuϐHt$H|$AFtD$HUZQHuH H K UH@fnFdH%( HD$81HI Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ T1HT$8dH+%( uVH@]f. NHHuϐHt$ H|$Mtt$ HqNlPHuH H J D UH@fnFdH%( HD$81H| Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ S1HT$8dH+%( u_H@]f. NHHuϐH5Oi HT$H|$zM|$ HtHGsOHuH H Iff. UH@fnFdH%( HD$81HRQ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( uVH@]f. MHHuϐHt$ H|$Ltt$ HK|NHuH H H D UH@fnFdH%( HD$81H) Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ Q1HT$8dH+%( uXH@]f. LHHuϐHt$H|$qBtD$Ho?MHuH& H G UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ P1HT$8dH+%( uVH@]f. +KHHuϐHt$ H|$!Jtt$ HaBLHuH8 H F D UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(D$ Ht!D$ +D$$tAH|$ O1HT$8dH+%( uRH@] D ;JHHuԐHt$H|$Ftt$HPNKHuHG H E @ UH@fnFdH%( HD$81Hϙ Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ O1HT$8dH+%( uUH@]f. KIHHuϐHt$ H|$AHtt$ HCJHuHcMIDf D ATUH8fnFdH%( HD$(1HIL H4$HD$HG fnȉD$fbfD$u;H(HtD$9D$t8H11,N1HT$(dH+%( uoH8]A\fkHHHuՐkIHIHuHt1H @ HY H Cf D ATUSH@fnFdH%( HD$81Hr Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ M1HT$8dH+%( H@[]A\ KGHHuːHt$H|$>tD$$Ld$uXHE LH@H;> u\H=[b @FtLH=r -Fu)HHeHcGZf D L L: @ HЉBf USHHfnFdH%( HD$81H H4$HD$HG fnЉD$fbfD$uLH_(Ht D$+D$tFH K1HT$8dH+%( HH[] EHHu͐Ht$ H ^>tD$ K81f/w?f/C@w8D$(KHf/w'f/CPw D$0KXf/w1f/C`@ @ #GHVH"LKXA AWAVAUATUSH VdH%( H$ 1H[ Ht$HD$HGfn fnȉD$(fbfD$ uSHo(HttuH|$ yJ1H$ dH+%( H []A\A]A^A_f D DHtHh(HtD$$ H|$?51 Ll$@Ld$ LLd~D$0LLHHE Dt$8fpfD$f~ ~D$f~;D$0u+;\$4u%D9t$8u EH H& H pEHuع L LvE?T$ f D ATH0fnFdH%( HD$(1H\n H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11HE1HD$(dH+%( H0LA\ @ CHHuf HHRxH; ?IMtoI$H5^ LPtZUDHuL9IHoH4bLD>1HH P@ L@8fE1CH" D Ij)>f AWAVAUATUSH fnFdH%( HD$x1H? H4$HD$HG fnȉD$fbfD$ HLw( 1H6H|$@4 AHcALl$@EuzM D$+D$ HGH|$@E1HtHD$HH9t2?HD$xdH+%( HĈ L[]A\A]A^A_f IcI\ y AHH2H E15H|$@4 Hc
AH|$@IgLE1\fL|$ HL+95DLH9 E~TIEH9 AD$ D1HffAT HH9uDAt AD I I LLE~,Ic1 fHH9tAD f.ztAHt'AH|$@E1HqL% I$`DL H9ĐD1 AD HH9uZy; HGff. f AUATUH`HNdH%( HD$X1HGfnAH % HfnfbA)t:At|H5 DmD1HT$XdH+%( H`]A\A] D L
H4$LL$L$D$D$Hs H(HteD$9D$thH11DD1H
F H4$HL$D$fD$H
Ho(Ht D$+D$tWH C1Cf D 9H?HuH HH5v /HF7Ld$ I LL8tHD$0foT$ LHHD$P)T$@1D$@9D$ D$$9D$D D$H9D$(u~D$,9D$LutD$P9D$0ujD$T9D$4u`+?H-H H gfk=HH1M K=HH|1- >Hu L1L>8f. AW1AVAUATUSH HNdH%( H$ 1HGAfnH % fnA)fbA AA H Ht$0H\$8T$HfD$@HE Ho(Ht%D$@+D$DK H|$0 A1H$ dH+%( x Hĸ []A\A]A^A_ @ H _ Ht$0H\$8L$@T$DT$HH Hl$0Lw( 1H0H|$p4 AHc;Ll$pEu}M D$@+D$D3 H1AH|$p1H9H|$p1IrL1hD1 D AD HH9uDL H2O4 H@ D ATL%# 1HS H5 L6 u>LH 7LA\ AUATIUSH**HtHH5S LH-u\H E Lk0Hc{H8HHtH3HLr-Hm tHL9uH[]A\A] H/f D Hm uH/ff. @ H8fnFdH%( HD$(1Hˇ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11<1HT$(dH+%( uLH8 7HHuҐu$H 8HuH* H @ 62ff. UH@fnFdH%( HD$81H1 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ ;1HT$8dH+%( uzH@]f. 6HHuϐH5r HT$H|$5|$ HtD$$u(HE H v7HuH H @ H&1 H @ H @ H @ 1 UH=P H4u ]ÐHH=l` 4tH]4) @ w) UH@dH%( HD$81HP_ Ht$HD$HFHD$$ D$ t0H|$ l:1HT$8dH+%( uhH@] @ HT$H|$H5^ *4|$ HtHt+H H5+ HPt6HuH+ 15Hu=0ff. f USHHdH%( HD$81H^ Ht$HD$HFHD$$ D$ HD$ t6H|$ 91HT$8dH+%( HH[] D Ht$H|$*tHl$H=I H2tHH=N 2u5HuHc3 @ HH=^ 2tHM'4/ @ ATUSH@fnFdH%( HD$81H^ Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ V81HT$8dH+%( H@[]A\ 2HHuːHt$H|$)tD$$Ld$uXHE LH@H; ulH= 1tLH=M m1u)3HeHcS2Zf D L LH= ] 11tL%븐HЉ-f H8fnFdH%( HD$(1H4 H4$HD$HG fnȉD$fbfD$u>H( tD$9D$t=H1171HT$(dH+%( u5H8f. ;1HHuА2Huſ \1- D H8fnFdH%( HD$(1H3 H4$HD$HG fnȉD$fbfD$u>H( tD$9D$t=H11A61HT$(dH+%( u2H8f. {0HHuА 2Hu10H, SH0fnFdH%( HD$(1HU3 H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11~51HT$(dH+%( u6H0[f D /HHuӐ E1HuHc/+ UH@fnFdH%( HD$81H@3 Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 41HT$8dH+%( uVH@]f. .HHuϐHt$ H|$-tt$ Hq!\0HuH H * D ATH0fnFdH%( HD$(1H\Y H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH113E1HD$(dH+%( H0LA\ @ .HHuf HHRxH; '"IMtoI$H5n LPtZU/HuL$IHoH bLD)1HH P@ L+8fE1.H" D Ij))f ATL% H
H H5 LV+ u LHއ 9,LA\ ATIUHM&HtHH5h LH3"u7 ,HHtHH5Y L "Hm t$H]A\ @ Hm uHY$ HH]A\A$ SH0fnFdH%( HD$(1H{ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11~11HT$(dH+%( uMH0[f D +HHuӐu$H <-Hu?2 D j'f. AWAVAUATUSH fnFdH%( H$ 1Hi{ Ht$HD$HG fnȉD$(fbfD$ u]Ho(Ht!D$ +D$$tWH|$ 01H$ dH+%( H []A\A]A^A_ *HHu뾐Ll$@Ld$ LL#tL|$0 LL$tD$8Dt$4\$0D$ D$$uPHE LLH ;\$0uGD;t$4u@D$ 9D$8u6+H5HY H ' LLH(+Hu L L+%f. UH=N H(u ]ÐHH=D (tHH=T (tH]a / UH@dH%( HD$81HS Ht$HD$HFHD$$ D$ t0H|$ .1HT$8dH+%( uhH@] @ HT$H|$H5,S Z(|$ HtHt+H H5 HPtB*HuH 1)*Hum$ff. f USHHdH%( HD$81HR Ht$HD$HFHD$$ D$ HD$ t6H|$ -1HT$8dH+%( HH[] D Ht$H|$/ tHl$H=8 H'tHH=C &uK)HuHc' @ HH=R &tH}d# @ SH0fnFdH%( HD$(1Hͣ H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11,1HT$(dH+%( u?H0[f D &HHuӐx fH~^(HufHn " SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11+1HT$(dH+%( u6H0[f D &HHuӐ 'HuHc(&! SH0fnFdH%( HD$(1Hf H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11+1HT$(dH+%( u6H0[f D K%HHuӐ< &HuHch%! SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11N*1HT$(dH+%( u6H0[f D $HHuӐ &HuHc$Q SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11)1HT$(dH+%( u6H0[f D #HHuӐ@ U%HuHc# SH0fnFdH%( HD$(1H[ H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H11(1HT$(dH+%( u6H0[f D #HHuӐ $HuHc(# H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11(1HT$(dH+%( u;H8 K"HHuҐ1Y #HuHp H
ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11?'1HT$(dH+%( u;H8 {!HHuҐ1 #HuH H = ff. f H8fnFdH%( HD$(1H2 H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11o&1HT$(dH+%( u>H8 HHuҐ F1"HuH H j f. H8fnFdH%( HD$(1Hw H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11%1HT$(dH+%( u;H8 HHuҐ1yd!HuH H ff. f H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11$1HT$(dH+%( u>H8 HHuҐ F HuH- H f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11#1HT$(dH+%( u>H8 ; HHuҐ F HuH] H f. H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11/#1HT$(dH+%( uEH8 k HHuҐH H` HuH H # H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11_"1HT$(dH+%( uEH8 HHuҐH H` HuH H S H8fnFdH%( HD$(1HD H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11!1HT$(dH+%( uEH8 HHuҐH
H` J HuH H H8fnFdH%( HD$(1HΘ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( uEH8 HHuҐH H` z HuH H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( uBH8 +HHuҐH1H` HuHI H f D H8fnFdH%( HD$(1Hd H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( uEH8 [HHuҐH H` HuHv H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11O 1HT$(dH+%( uEH8 HHuҐH H`
HuH H C H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( uEH8 HHuҐH H` :HuH H s H8fnFdH%( HD$(1H@ H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11 1HT$(dH+%( uEH8 HHuҐH H` jHuH H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( uEH8 HHuҐH H` HuH6 H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( uEH8 KHHuҐH H` HuHf H UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 21HT$8dH+%( uVH@]f. kHHuϐHt$ H|$att$ H
HuHx H D UH@fnFdH%( HD$81H, Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ B1HT$8dH+%( uVH@]f. {HHuϐHt$ H|$qtt$ HHuH H % D UH@fnFdH%( HD$81HO Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( uXH@]f. HHuϐHt$H|$tD$HOHuH H 3 UH@fnFdH%( HD$81Hr Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( uVH@]f. HHuϐHt$ H|$tt$ H HuH H E
D UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ r1HT$8dH+%( uVH@]f. HHuϐHt$ H|$tt$ H HuH H U D ATUSH@fnFdH%( HD$81H&; Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ v1HT$8dH+%( H@[]A\ HHuːHt$H|$tD$$Ld$uXHE LH@H;f ulH= tLH=* u)HeHcsZf D L LH=<: QtL븐HЉ
f ATH0fnFdH%( HD$(1H9 H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11 E1HD$(dH+%( H0LA\ @ SHHuf HHRxH; IMtoI$H5} LPtZHuL8IHoHbL 1HH P@ L 8fE1HH" D Ijy f ATUSH@HNdH%( HD$81HGfnAH % HfnfbA)tcA H H4$H\$D$fD$H H_(HtuD$+D$ H z1Pf D H C H4$H\$L$D$D$H3 H_(HtD$9D$ H11(1HT$8dH+%( 3 H@[]A\f H5ӊ D1 D C HH1 D Ld$ H LHtf(L$ fH X l$0f.f(f()D$ ffT$0zwuuf.zoumf.zgue`
H/H H ! ;
H
HH @ s HHf Hu L1HDz*f. AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
\ Ht$ HL$(T$8fD$0H Ho(Ht H5^g LXf uLHf LA\ AUIATUSH HtHH5 LHudH ղ L
@ HL9t7Hc{HHtH3HLHm uHH
L9uH[]A\A] D Hm uH SH0fnFdH%( HD$(1HW H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11
1HT$(dH+%( uMH0[f D [HHuӐu$H Hu
D C
f. AWAVAUATUSH fnFdH%( H$ 1H W Ht$HD$HG fnȉD$(fbfD$ u]Ho(Ht!D$ +D$$tWH|$ # 1H$ dH+%( H []A\A]A^A_ KHHu뾐Ll$@Ld$ LLtL|$0 LL- tD$8Dt$4\$0D$ D$$uPHE LLH ;\$0uGD;t$4u@D$ 9D$8u6aH5H H ' LLHb +Hu L L1Zf. ATUH8fnFdH%( HD$(1Hу H4$HD$HG fnȉD$fbfD$uCH(HtD$9D$tHH11
1HT$(dH+%( H8]A\f D HHuf uLHh H;HuHtAHHHI
Hu!LHVwHf D H H V+ ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R 1HT$8dH+%( urH@]f. HHuϐHt$ H|$tD$$t$ u)HE H` HuH H D Hf w UH=m H<u ]ÐHH=< !tHH=- tH] UH@dH%( HD$81H, Ht$HD$HFHD$$ D$ t0H|$ 1HT$8dH+%( uhH@] @ HT$H|$H5, |$ HtHt+H H5 HPtHuH5 1Huff. f USHHdH%( HD$81H(, Ht$HD$HFHD$$ D$ HD$ t6H|$ 1HT$8dH+%( HH[] D Ht$H|$tHl$H== Hg tHH=o T uHuHc> @ HH=, ) tH @ ATUSH@fnFdH%( HD$81H+ Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$QtD$$Ld$uXHE LH@H; ulH= tLH= u)THeHcZf D L LH=* tLu븐HЉRf SH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u=HG(HtL$9L$t:H111HT$(dH+%( u6H0[f D HHuӐ U HuHc H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( uEH8 HHuҐH H` HuH& H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H111HT$(dH+%( uEH8 ;HHuҐH H` HuHV H H8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$u>H(HtD$9D$t;H11/1HT$(dH+%( uBH8 kHHuҐH1H` HuH H &f D ATH0fnFdH%( HD$(1H& H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11]E1HD$(dH+%( H0LA\ @ HHuf HHRxH;r IMtoI$H5b LPtZHuLxIHoH4bL1HH P@ L'8fE1H" D Ijf ATL%#^ H
H H5_ L^ uxLH^ LA\ ATIUHHt HH5\ LHtHm tH]A\HH]A\ SH0fnFdH%( HD$(1HI H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uMH0[f D HHuӐu$H Hu D :f. AWAVAUATUSH fnFdH%( H$ 1H9I Ht$HD$HG fnȉD$(fbfD$ u]Ho(Ht!D$ +D$$tWH|$ S1H$ dH+%( H []A\A]A^A_ {HHu뾐Ll$@Ld$ LLtL|$0 LL]tD$8Dt$4\$0D$ D$$uPHE LLH ;\$0uGD;t$4u@D$ 9D$8u6H5H) H ' LLHb[Hu L Laf. ATUH8fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uCH(HtD$9D$tHH111HT$(dH+%( H8]A\f D HHuf uLHh HkHuHtAHHHI+HuQLHw Hf D H H V[ff. UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ 1HT$8dH+%( urH@]f. HHuϐHt$ H|$tD$$t$ u)HE H` HuH H D H0If g UH=B Hlu ]ÐHH=l QtHH=) >tH] UH@dH%( HD$81H Ht$HD$HFHD$$ D$ t0H|$ ,1HT$8dH+%( uhH@] @ HT$H|$H5 |$ HtHt+H H5 HPtHuHe 1Huff. f USHHdH%( HD$81HX Ht$HD$HFHD$$ D$ HD$ t6H|$ B1HT$8dH+%( HH[] D Ht$H|$tHl$H= HtHH= ? uHuHcn @ HH=7 YtHH=1 FtH UH0fnFdH%( HD$(1Hn H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11 1HT$(dH+%( u^H0]f D [HHuӐt$H Hu H @ HH H;O tHf UH0fnFdH%( HD$(1HX\ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11.1HT$(dH+%( u^H0]f D kHHuӐt$H Hu HN @ HH H; tH f UH0fnFdH%( HD$(1HX[ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11>1HT$(dH+%( u^H0]f D {HHuӐt$H Hu H^ @ HH H;g tHf UH0fnFdH%( HD$(1H[ H4$HD$HG fnȉD$fbfD$u=H(HtD$9D$t:H11N1HT$(dH+%( uVH0]f D HHuӐt H HuH뵐HHh H; tH1 ATH0fnFdH%( HD$(1H H4$HD$HG fnȉD$fbfD$uDH(HtD$9D$tIH11mE1HD$(dH+%( H0LA\ @ HHuf HHRxH; IMtoI$H5 LPtZHuLIHoHDbL1HH P@ L78fE1H" D Ijf ATUSH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uYHD$ Ho(Ht!\$ +\$$tJH|$ 1HT$8dH+%( H@[]A\ HHuːHt$H|$QtD$$Ld$u`HE LH@H; H=( tLH=~8 u-PHaHcVf. L LH= tLH= tLZf D HЉ2f AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
>W Ht$ HL$(T$8fD$0H Ho(HtEHt$L)0Ht$LD$L$L$4T$f(fم HE Hp H;| v f. z u f. zuf. z H Ld$@H|$ LypT$4HE f(D$@Hp H; T$Pf(f(ff( f. z u f. zuf. zt D H HH H fKHHf. Hx H; f(D$@Hp H; T$Pf(f(ff(;f(Hnf D f. z u f. zuf. z@HE H LHmff. f AT1UHhHNdH%( HD$X1HGAfnH % fnA)fbA AuZH
S Ht$ HL$(T$8fD$0H Ho(HtEHt$ L)0Ht$LHt$LHt$LHt$ LDD$L$T$ t$D$ DL$fnfAnfnfnDT$4fbfAnfnfbfbflE L] M L; 9 H D D A , fLd$@H|$ LL$4HE H H; foD$@L L; T$TDL$PDD$Lf~ƋL$HD\$D 9 D; | ; utD; ukD; ub; uZu SHHaffoD$@L L; T$TDL$PDD$Lf~ƋL$HD\$DuO; wD H HH H HHRDAXZLH9 twHE Hf֕ ; +9 D9 D9 ; UWHPAAXAYD; u9 uD9 hD9 [; O f D ATL%F H
H H5H LG uhLHNG LA\ ATIUHHt HH5ő LHtHm tH]A\HH]A\1 UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ b1HT$8dH+%( uzH@]f. HHuϐH5 HT$H|$
|$ HtD$$u(HE HPpHuH H H! UH@fnFdH%( HD$81H Ht$HD$HG fnȉD$(fbfD$ uLHo(Ht!D$ +D$$tFH|$ R1HT$8dH+%( uzH@]f. HHuϐH5KI HT$H|$|$ HtD$$u(HE H` HuH H @ H H @ f. f(fz"u f. zuf. z
u H H @ f. f(fz"u f. zuf. z
u H H @ fnfAnfnt$fnfAnfbfbfnflfb9 t H f֗ @ 9 u9 uD9 uD9 u9 uf. H @ UH= Hu ]ÐHH=6' tHH=| tHH=v tH]>f. @ fHVf(Hp H;& ff(uDf. z"u f. zuf. z
u f. @ fHVf(H H; ff(uDf. z"u f. zuf. z
u f. @ HoVDNL L;p DF ND^f~uW9 t D D D9 u9 uD9 uD; u; u @ HRDAH ATH=C UHHIyHN HH5H
HHHHHH
HH=HeH=HHH%HMHuHHH}HH=HHmHH]HHHH]HHHH-HHHHHHHL]A\H5ے H= HH SafeDownCast vtkObjectBase vtkExtractVOI IsTypeOf GetVOI GetSampleRate GetIncludeBoundary IncludeBoundaryOff IncludeBoundaryOn SetIncludeBoundary NewInstance IsA SetSampleRate SetVOI vtkImageAlgorithm vtkAlgorithm vtkObject vtkExtractVOI - select piece (e.g., volume of interest) and/or
subsample structured points dataset
Superclass: vtkImageAlgorithm
vtkExtractVOI is a filter that selects a portion of an input
structured points dataset, or subsamples an input dataset. (The
selected portion of interested is referred to as the Volume Of
Interest, or VOI.) The output of this filter is a structured points
dataset. The filter treats input data of any topological dimension
(i.e., point, line, image, or volume) and can generate output data of
any topological dimension.
To use this filter set the VOI ivar which are i-j-k min/max indices
that specify a rectangular region in the data. (Note that these are
0-offset.) You can also specify a sampling rate to subsample the
data.
Typical applications of this filter are to extract a slice from a
volume for image processing, subsampling large volumes to reduce data
size, or extracting regions of a volume with interesting data.
@sa
vtkGeometryFilter vtkExtractGeometry vtkExtractGrid
vtkImagingCorePython.vtkExtractVOI V.IsTypeOf(string) -> int
C++: static vtkTypeBool IsTypeOf(const char *type)
Return 1 if this class type is the same type of (or a subclass
of) the named class. Returns 0 otherwise. This method works in
combination with vtkTypeMacro found in vtkSetGet.h.
V.IsA(string) -> int
C++: vtkTypeBool IsA(const char *type) override;
Return 1 if this class is the same type of (or a subclass of) the
named class. Returns 0 otherwise. This method works in
combination with vtkTypeMacro found in vtkSetGet.h.
V.SafeDownCast(vtkObjectBase) -> vtkExtractVOI
C++: static vtkExtractVOI *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkExtractVOI
C++: vtkExtractVOI *NewInstance()
V.SetVOI(int, int, int, int, int, int)
C++: void SetVOI(int, int, int, int, int, int)
V.SetVOI((int, int, int, int, int, int))
C++: void SetVOI(int a[6])
V.GetVOI() -> (int, int, int, int, int, int)
C++: int *GetVOI()
Specify i-j-k (min,max) pairs to extract. The resulting
structured points dataset can be of any topological dimension
(i.e., point, line, image, or volume).
V.SetSampleRate(int, int, int)
C++: void SetSampleRate(int, int, int)
V.SetSampleRate((int, int, int))
C++: void SetSampleRate(int a[3])
V.GetSampleRate() -> (int, int, int)
C++: int *GetSampleRate()
Set the sampling rate in the i, j, and k directions. If the rate
is > 1, then the resulting VOI will be subsampled representation
of the input. For example, if the SampleRate=(2,2,2), every
other point will be selected, resulting in a volume 1/8th the
original size.
V.SetIncludeBoundary(int)
C++: virtual void SetIncludeBoundary(int _arg)
Control whether to enforce that the "boundary" of the grid is
output in the subsampling process. (This ivar only has effect
when the SampleRate in any direction is not equal to 1.) When
this ivar IncludeBoundary is on, the subsampling will always
include the boundary of the grid even though the sample rate is
not an even multiple of the grid dimensions. (By default
IncludeBoundary is off.)
V.GetIncludeBoundary() -> int
C++: virtual int GetIncludeBoundary()
Control whether to enforce that the "boundary" of the grid is
output in the subsampling process. (This ivar only has effect
when the SampleRate in any direction is not equal to 1.) When
this ivar IncludeBoundary is on, the subsampling will always
include the boundary of the grid even though the sample rate is
not an even multiple of the grid dimensions. (By default
IncludeBoundary is off.)
V.IncludeBoundaryOn()
C++: virtual void IncludeBoundaryOn()
Control whether to enforce that the "boundary" of the grid is
output in the subsampling process. (This ivar only has effect
when the SampleRate in any direction is not equal to 1.) When
this ivar IncludeBoundary is on, the subsampling will always
include the boundary of the grid even though the sample rate is
not an even multiple of the grid dimensions. (By default
IncludeBoundary is off.)
V.IncludeBoundaryOff()
C++: virtual void IncludeBoundaryOff()
Control whether to enforce that the "boundary" of the grid is
output in the subsampling process. (This ivar only has effect
when the SampleRate in any direction is not equal to 1.) When
this ivar IncludeBoundary is on, the subsampling will always
include the boundary of the grid even though the sample rate is
not an even multiple of the grid dimensions. (By default
IncludeBoundary is off.)
vtkImageAppendComponents GetNumberOfInputs GetInput SetInputData vtkDataObject ReplaceNthInputConnection vtkAlgorithmOutput vtkThreadedImageAlgorithm vtkImageAppendComponents - Collects components from two inputs into
one output.
Superclass: vtkThreadedImageAlgorithm
vtkImageAppendComponents takes the components from two inputs and
merges them into one output. If Input1 has M components, and Input2
has N components, the output will have M+N components with input1
components coming first.
vtkImagingCorePython.vtkImageAppendComponents V.SafeDownCast(vtkObjectBase) -> vtkImageAppendComponents
C++: static vtkImageAppendComponents *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageAppendComponents
C++: vtkImageAppendComponents *NewInstance()
V.ReplaceNthInputConnection(int, vtkAlgorithmOutput)
C++: virtual void ReplaceNthInputConnection(int idx,
vtkAlgorithmOutput *input)
Replace one of the input connections with a new input. You can
only replace input connections that you previously created with
AddInputConnection() or, in the case of the first input, with
SetInputConnection().
V.SetInputData(int, vtkDataObject)
C++: void SetInputData(int num, vtkDataObject *input)
V.SetInputData(vtkDataObject)
C++: void SetInputData(vtkDataObject *input)
Assign a data object as input. Note that this method does not
establish a pipeline connection. Use SetInputConnection() to
setup a pipeline connection.
V.GetInput(int) -> vtkDataObject
C++: vtkDataObject *GetInput(int num)
V.GetInput() -> vtkDataObject
C++: vtkDataObject *GetInput()
Get one input to this filter. This method is only for support of
old-style pipeline connections. When writing new code you should
use vtkAlgorithm::GetInputConnection(0, num).
V.GetNumberOfInputs() -> int
C++: int GetNumberOfInputs()
Get the number of inputs to this filter. This method is only for
support of old-style pipeline connections. When writing new code
you should use vtkAlgorithm::GetNumberOfInputConnections(0).
vtkImageBlend GetStencil GetBlendModeMinValue GetBlendModeMaxValue GetBlendMode GetCompoundThreshold SetStencilConnection SetStencilData vtkImageStencilData GetOpacity SetOpacity Unknown Blend Mode GetBlendModeAsString SetBlendModeToNormal SetBlendModeToCompound SetCompoundThreshold SetBlendMode VTK_IMAGE_BLEND_MODE_NORMAL VTK_IMAGE_BLEND_MODE_COMPOUND vtkImageBlend - blend images together using alpha or opacity
Superclass: vtkThreadedImageAlgorithm
vtkImageBlend takes L, LA, RGB, or RGBA images as input and blends
them according to the alpha values and/or the opacity setting for
each input.
The spacing, origin, extent, and number of components of the output
are the same as those for the first input. If the input has an alpha
component, then this component is copied unchanged into the output.
In addition, if the first input has either one component or two
components i.e. if it is either L (greyscale) or LA (greyscale +
alpha) then all other inputs must also be L or LA.
Different blending modes are available:
Normal (default) : This is the standard blending mode used by OpenGL
and other graphics packages. The output always has the same number
of components and the same extent as the first input. The alpha
value of the first input is not used in the blending computation,
instead it is copied directly to the output.
output <- input[0]
foreach input i {
foreach pixel px {
r <- input[i](px)(alpha) * opacity[i]
f <- (255 - r)
output(px) <- output(px) * f + input(px) * r
}
}
Compound : Images are compounded together and each component is
scaled by the sum of the alpha/opacity values. Use the
CompoundThreshold method to set specify a threshold in compound mode.
Pixels with opacity*alpha less or equal than this threshold are
ignored. The alpha value of the first input, if present, is NOT
copied to the alpha value of the output. The output always has the
same number of components and the same extent as the first input.
output <- 0
foreach pixel px {
sum <- 0
foreach input i {
r <- input[i](px)(alpha) * opacity(i)
sum <- sum + r
if r > threshold {
output(px) <- output(px) + input(px) * r
}
}
output(px) <- output(px) / sum
}
vtkImagingCorePython.vtkImageBlend V.SafeDownCast(vtkObjectBase) -> vtkImageBlend
C++: static vtkImageBlend *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageBlend
C++: vtkImageBlend *NewInstance()
V.SetOpacity(int, float)
C++: void SetOpacity(int idx, double opacity)
Set the opacity of an input image: the alpha values of the image
are multiplied by the opacity. The opacity of image idx=0 is
ignored.
V.GetOpacity(int) -> float
C++: double GetOpacity(int idx)
Set the opacity of an input image: the alpha values of the image
are multiplied by the opacity. The opacity of image idx=0 is
ignored.
V.SetStencilConnection(vtkAlgorithmOutput)
C++: void SetStencilConnection(vtkAlgorithmOutput *algOutput)
Set a stencil to apply when blending the data. Create a pipeline
connection.
V.SetStencilData(vtkImageStencilData)
C++: void SetStencilData(vtkImageStencilData *stencil)
Set a stencil to apply when blending the data.
V.GetStencil() -> vtkImageStencilData
C++: vtkImageStencilData *GetStencil()
Set a stencil to apply when blending the data.
V.SetBlendMode(int)
C++: virtual void SetBlendMode(int _arg)
Set the blend mode
V.GetBlendModeMinValue() -> int
C++: virtual int GetBlendModeMinValue()
Set the blend mode
V.GetBlendModeMaxValue() -> int
C++: virtual int GetBlendModeMaxValue()
Set the blend mode
V.GetBlendMode() -> int
C++: virtual int GetBlendMode()
Set the blend mode
V.SetBlendModeToNormal()
C++: void SetBlendModeToNormal()
Set the blend mode
V.SetBlendModeToCompound()
C++: void SetBlendModeToCompound()
Set the blend mode
V.GetBlendModeAsString() -> string
C++: const char *GetBlendModeAsString(void)
Set the blend mode
V.SetCompoundThreshold(float)
C++: virtual void SetCompoundThreshold(double _arg)
Specify a threshold in compound mode. Pixels with opacity*alpha
less or equal the threshold are ignored.
V.GetCompoundThreshold() -> float
C++: virtual double GetCompoundThreshold()
Specify a threshold in compound mode. Pixels with opacity*alpha
less or equal the threshold are ignored.
vtkImageCacheFilter GetCacheSize SetCacheSize vtkImageCacheFilter - Caches multiple vtkImageData objects.
Superclass: vtkImageAlgorithm
vtkImageCacheFilter keep a number of vtkImageDataObjects from
previous updates to satisfy future updates without needing to update
the input. It does not change the data at all. It just makes the
pipeline more efficient at the expense of using extra memory.
vtkImagingCorePython.vtkImageCacheFilter V.SafeDownCast(vtkObjectBase) -> vtkImageCacheFilter
C++: static vtkImageCacheFilter *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageCacheFilter
C++: vtkImageCacheFilter *NewInstance()
V.SetCacheSize(int)
C++: void SetCacheSize(int size)
This is the maximum number of images that can be retained in
memory. it defaults to 10.
V.GetCacheSize() -> int
C++: int GetCacheSize()
This is the maximum number of images that can be retained in
memory. it defaults to 10.
vtkImageCast GetClampOverflow GetOutputScalarType SetClampOverflow ClampOverflowOff ClampOverflowOn SetOutputScalarTypeToFloat SetOutputScalarTypeToInt SetOutputScalarTypeToDouble SetOutputScalarTypeToLong SetOutputScalarTypeToChar SetOutputScalarTypeToShort SetOutputScalarType SetOutputScalarTypeToUnsignedShort SetOutputScalarTypeToUnsignedInt SetOutputScalarTypeToUnsignedChar SetOutputScalarTypeToUnsignedLong vtkImageCast - Image Data type Casting Filter
Superclass: vtkThreadedImageAlgorithm
vtkImageCast filter casts the input type to match the output type in
the image processing pipeline. The filter does nothing if the input
already has the correct type. To specify the "CastTo" type, use
"SetOutputScalarType" method.
@warning
As vtkImageCast only casts values without rescaling them, its use is
not recommented. vtkImageShiftScale is the recommented way to change
the type of an image data.
@sa
vtkImageThreshold vtkImageShiftScale
vtkImagingCorePython.vtkImageCast V.SafeDownCast(vtkObjectBase) -> vtkImageCast
C++: static vtkImageCast *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageCast
C++: vtkImageCast *NewInstance()
V.SetOutputScalarType(int)
C++: virtual void SetOutputScalarType(int _arg)
Set the desired output scalar type to cast to.
V.GetOutputScalarType() -> int
C++: virtual int GetOutputScalarType()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToFloat()
C++: void SetOutputScalarTypeToFloat()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToDouble()
C++: void SetOutputScalarTypeToDouble()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToInt()
C++: void SetOutputScalarTypeToInt()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToUnsignedInt()
C++: void SetOutputScalarTypeToUnsignedInt()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToLong()
C++: void SetOutputScalarTypeToLong()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToUnsignedLong()
C++: void SetOutputScalarTypeToUnsignedLong()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToShort()
C++: void SetOutputScalarTypeToShort()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToUnsignedShort()
C++: void SetOutputScalarTypeToUnsignedShort()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToUnsignedChar()
C++: void SetOutputScalarTypeToUnsignedChar()
Set the desired output scalar type to cast to.
V.SetOutputScalarTypeToChar()
C++: void SetOutputScalarTypeToChar()
Set the desired output scalar type to cast to.
V.SetClampOverflow(int)
C++: virtual void SetClampOverflow(int _arg)
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default ClampOverflow is off.
V.GetClampOverflow() -> int
C++: virtual int GetClampOverflow()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default ClampOverflow is off.
V.ClampOverflowOn()
C++: virtual void ClampOverflowOn()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default ClampOverflow is off.
V.ClampOverflowOff()
C++: virtual void ClampOverflowOff()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default ClampOverflow is off.
vtkImageChangeInformation GetOutputOrigin GetOutputSpacing GetOutputExtentStart GetExtentTranslation GetSpacingScale GetOriginScale GetOriginTranslation GetCenterImage SetCenterImage CenterImageOn CenterImageOff SetOriginTranslation SetOriginScale SetSpacingScale SetOutputOrigin SetExtentTranslation SetOutputSpacing SetOutputExtentStart GetInformationInput SetInformationInputData vtkImageData vtkImageChangeInformation - modify spacing, origin and extent.
Superclass: vtkImageAlgorithm
vtkImageChangeInformation modify the spacing, origin, or extent of
the data without changing the data itself. The data is not resampled
by this filter, only the information accompanying the data is
modified.
vtkImagingCorePython.vtkImageChangeInformation V.SafeDownCast(vtkObjectBase) -> vtkImageChangeInformation
C++: static vtkImageChangeInformation *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageChangeInformation
C++: vtkImageChangeInformation *NewInstance()
V.SetInformationInputData(vtkImageData)
C++: virtual void SetInformationInputData(vtkImageData *)
Copy the information from another data set. By default, the
information is copied from the input.
V.GetInformationInput() -> vtkImageData
C++: virtual vtkImageData *GetInformationInput()
Copy the information from another data set. By default, the
information is copied from the input.
V.SetOutputExtentStart(int, int, int)
C++: void SetOutputExtentStart(int, int, int)
V.SetOutputExtentStart((int, int, int))
C++: void SetOutputExtentStart(int a[3])
V.GetOutputExtentStart() -> (int, int, int)
C++: int *GetOutputExtentStart()
V.SetOutputSpacing(float, float, float)
C++: void SetOutputSpacing(double, double, double)
V.SetOutputSpacing((float, float, float))
C++: void SetOutputSpacing(double a[3])
V.GetOutputSpacing() -> (float, float, float)
C++: double *GetOutputSpacing()
V.SetOutputOrigin(float, float, float)
C++: void SetOutputOrigin(double, double, double)
V.SetOutputOrigin((float, float, float))
C++: void SetOutputOrigin(double a[3])
V.GetOutputOrigin() -> (float, float, float)
C++: double *GetOutputOrigin()
V.SetCenterImage(int)
C++: virtual void SetCenterImage(int _arg)
Set the Origin of the output so that image coordinate (0,0,0)
lies at the Center of the data set. This will override
SetOutputOrigin. This is often a useful operation to apply
before using vtkImageReslice to apply a transformation to an
image.
V.CenterImageOn()
C++: virtual void CenterImageOn()
Set the Origin of the output so that image coordinate (0,0,0)
lies at the Center of the data set. This will override
SetOutputOrigin. This is often a useful operation to apply
before using vtkImageReslice to apply a transformation to an
image.
V.CenterImageOff()
C++: virtual void CenterImageOff()
Set the Origin of the output so that image coordinate (0,0,0)
lies at the Center of the data set. This will override
SetOutputOrigin. This is often a useful operation to apply
before using vtkImageReslice to apply a transformation to an
image.
V.GetCenterImage() -> int
C++: virtual int GetCenterImage()
Set the Origin of the output so that image coordinate (0,0,0)
lies at the Center of the data set. This will override
SetOutputOrigin. This is often a useful operation to apply
before using vtkImageReslice to apply a transformation to an
image.
V.SetExtentTranslation(int, int, int)
C++: void SetExtentTranslation(int, int, int)
V.SetExtentTranslation((int, int, int))
C++: void SetExtentTranslation(int a[3])
V.GetExtentTranslation() -> (int, int, int)
C++: int *GetExtentTranslation()
V.SetSpacingScale(float, float, float)
C++: void SetSpacingScale(double, double, double)
V.SetSpacingScale((float, float, float))
C++: void SetSpacingScale(double a[3])
V.GetSpacingScale() -> (float, float, float)
C++: double *GetSpacingScale()
V.SetOriginTranslation(float, float, float)
C++: void SetOriginTranslation(double, double, double)
V.SetOriginTranslation((float, float, float))
C++: void SetOriginTranslation(double a[3])
V.GetOriginTranslation() -> (float, float, float)
C++: double *GetOriginTranslation()
V.SetOriginScale(float, float, float)
C++: void SetOriginScale(double, double, double)
V.SetOriginScale((float, float, float))
C++: void SetOriginScale(double a[3])
V.GetOriginScale() -> (float, float, float)
C++: double *GetOriginScale()
vtkImageClip ResetOutputWholeExtent GetClipData ClipDataOff ClipDataOn SetClipData GetOutputWholeExtent SetOutputWholeExtent vtkImageClip - Reduces the image extent of the input.
Superclass: vtkImageAlgorithm
vtkImageClip will make an image smaller. The output must have an
image extent which is the subset of the input. The filter has two
modes of operation: 1: By default, the data is not copied in this
filter. Only the whole extent is modified. 2: If ClipDataOn is set,
then you will get no more that the clipped extent.
vtkImagingCorePython.vtkImageClip V.SafeDownCast(vtkObjectBase) -> vtkImageClip
C++: static vtkImageClip *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageClip
C++: vtkImageClip *NewInstance()
V.SetOutputWholeExtent([int, int, int, int, int, int],
vtkInformation)
C++: void SetOutputWholeExtent(int extent[6],
vtkInformation *outInfo=nullptr)
V.SetOutputWholeExtent(int, int, int, int, int, int)
C++: void SetOutputWholeExtent(int minX, int maxX, int minY,
int maxY, int minZ, int maxZ)
The whole extent of the output has to be set explicitly.
V.GetOutputWholeExtent([int, int, int, int, int, int])
C++: void GetOutputWholeExtent(int extent[6])
V.GetOutputWholeExtent() -> (int, int, int, int, int, int)
C++: int *GetOutputWholeExtent()
The whole extent of the output has to be set explicitly.
V.ResetOutputWholeExtent()
C++: void ResetOutputWholeExtent()
V.SetClipData(int)
C++: virtual void SetClipData(int _arg)
By default, ClipData is off, and only the WholeExtent is
modified. the data's extent may actually be larger. When this
flag is on, the data extent will be no more than the
OutputWholeExtent.
V.GetClipData() -> int
C++: virtual int GetClipData()
By default, ClipData is off, and only the WholeExtent is
modified. the data's extent may actually be larger. When this
flag is on, the data extent will be no more than the
OutputWholeExtent.
V.ClipDataOn()
C++: virtual void ClipDataOn()
By default, ClipData is off, and only the WholeExtent is
modified. the data's extent may actually be larger. When this
flag is on, the data extent will be no more than the
OutputWholeExtent.
V.ClipDataOff()
C++: virtual void ClipDataOff()
By default, ClipData is off, and only the WholeExtent is
modified. the data's extent may actually be larger. When this
flag is on, the data extent will be no more than the
OutputWholeExtent.
vtkImageConstantPad GetConstant SetConstant vtkImagePadFilter vtkImageConstantPad - Makes image larger by padding with constant.
Superclass: vtkImagePadFilter
vtkImageConstantPad changes the image extent of its input. Any pixels
outside of the original image extent are filled with a constant value
(default is 0.0).
@sa
vtkImageWrapPad vtkImageMirrorPad
vtkImagingCorePython.vtkImageConstantPad V.SafeDownCast(vtkObjectBase) -> vtkImageConstantPad
C++: static vtkImageConstantPad *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageConstantPad
C++: vtkImageConstantPad *NewInstance()
V.SetConstant(float)
C++: virtual void SetConstant(double _arg)
Set/Get the pad value.
V.GetConstant() -> float
C++: virtual double GetConstant()
Set/Get the pad value.
vtkImageDataStreamer SetNumberOfStreamDivisions GetNumberOfStreamDivisions GetExtentTranslator SetExtentTranslator vtkExtentTranslator vtkImageDataStreamer - Initiates streaming on image data.
Superclass: vtkImageAlgorithm
To satisfy a request, this filter calls update on its input many
times with smaller update extents. All processing up stream streams
smaller pieces.
vtkImagingCorePython.vtkImageDataStreamer V.SafeDownCast(vtkObjectBase) -> vtkImageDataStreamer
C++: static vtkImageDataStreamer *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageDataStreamer
C++: vtkImageDataStreamer *NewInstance()
V.SetNumberOfStreamDivisions(int)
C++: virtual void SetNumberOfStreamDivisions(int _arg)
Set how many pieces to divide the input into. void
SetNumberOfStreamDivisions(int num); int
GetNumberOfStreamDivisions();
V.GetNumberOfStreamDivisions() -> int
C++: virtual int GetNumberOfStreamDivisions()
Set how many pieces to divide the input into. void
SetNumberOfStreamDivisions(int num); int
GetNumberOfStreamDivisions();
V.SetExtentTranslator(vtkExtentTranslator)
C++: virtual void SetExtentTranslator(vtkExtentTranslator *)
Get the extent translator that will be used to split the requests
V.GetExtentTranslator() -> vtkExtentTranslator
C++: virtual vtkExtentTranslator *GetExtentTranslator()
Get the extent translator that will be used to split the requests
PermuteExtent vtkImageDecomposeFilter GetDimensionality SetDimensionality PermuteIncrements vtkImageIterateFilter vtkImageDecomposeFilter - Filters that execute axes in series.
Superclass: vtkImageIterateFilter
This superclass molds the vtkImageIterateFilter superclass so it
iterates over the axes. The filter uses dimensionality to determine
how many axes to execute (starting from x). The filter also provides
convenience methods for permuting information retrieved from input,
output and vtkImageData.
vtkImagingCorePython.vtkImageDecomposeFilter V.IsTypeOf(string) -> int
C++: static vtkTypeBool IsTypeOf(const char *type)
Construct an instance of vtkImageDecomposeFilter filter with
default dimensionality 3.
V.IsA(string) -> int
C++: vtkTypeBool IsA(const char *type) override;
Construct an instance of vtkImageDecomposeFilter filter with
default dimensionality 3.
V.SafeDownCast(vtkObjectBase) -> vtkImageDecomposeFilter
C++: static vtkImageDecomposeFilter *SafeDownCast(
vtkObjectBase *o)
Construct an instance of vtkImageDecomposeFilter filter with
default dimensionality 3.
V.NewInstance() -> vtkImageDecomposeFilter
C++: vtkImageDecomposeFilter *NewInstance()
Construct an instance of vtkImageDecomposeFilter filter with
default dimensionality 3.
V.SetDimensionality(int)
C++: void SetDimensionality(int dim)
Dimensionality is the number of axes which are considered during
execution. To process images dimensionality would be set to 2.
V.GetDimensionality() -> int
C++: virtual int GetDimensionality()
Dimensionality is the number of axes which are considered during
execution. To process images dimensionality would be set to 2.
V.PermuteIncrements([int, ...], int, int, int)
C++: void PermuteIncrements(vtkIdType *increments,
vtkIdType &inc0, vtkIdType &inc1, vtkIdType &inc2)
Private methods kept public for template execute functions.
V.PermuteExtent([int, ...], int, int, int, int, int, int)
C++: void PermuteExtent(int *extent, int &min0, int &max0,
int &min1, int &max1, int &min2, int &max2)
Private methods kept public for template execute functions.
vtkImageDifference GetImage GetAveraging GetAllowShift GetThreshold SetImageData SetImageConnection SetAveraging SetAllowShift SetThreshold AveragingOff AllowShiftOn AveragingOn AllowShiftOff GetThresholdedError GetError vtkImageDifference - Compares images for regression tests.
Superclass: vtkThreadedImageAlgorithm
vtkImageDifference takes two rgb unsigned char images and compares
them. It allows the images to be slightly different. If AllowShift
is on, then each pixel can be shifted by one pixel. Threshold is the
allowable error for each pixel.
This is not a symetric filter and the difference computed is not
symetric when AllowShift is on. Specifically in that case a pixel in
SetImage input will be compared to the matching pixel in the input as
well as to the input's eight connected neighbors. BUT... the opposite
is not true. So for example if a valid image (SetImage) has a single
white pixel in it, it will not find a match in the input image if the
input image is black (because none of the nine suspect pixels are
white). In contrast, if there is a single white pixel in the input
image and the valid image (SetImage) is all black it will match with
no error because all it has to do is find black pixels and even
though the input image has a white pixel, its neighbors are not
white.
vtkImagingCorePython.vtkImageDifference V.SafeDownCast(vtkObjectBase) -> vtkImageDifference
C++: static vtkImageDifference *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageDifference
C++: vtkImageDifference *NewInstance()
V.SetImageConnection(vtkAlgorithmOutput)
C++: void SetImageConnection(vtkAlgorithmOutput *output)
Specify the Image to compare the input to.
V.SetImageData(vtkDataObject)
C++: void SetImageData(vtkDataObject *image)
Specify the Image to compare the input to.
V.GetImage() -> vtkImageData
C++: vtkImageData *GetImage()
Specify the Image to compare the input to.
V.GetError() -> float
C++: double GetError()
V.GetError([float, ...])
C++: void GetError(double *e)
Return the total error in comparing the two images.
V.GetThresholdedError() -> float
C++: double GetThresholdedError()
V.GetThresholdedError([float, ...])
C++: void GetThresholdedError(double *e)
Return the total thresholded error in comparing the two images.
The thresholded error is the error for a given pixel minus the
threshold and clamped at a minimum of zero.
V.SetThreshold(int)
C++: virtual void SetThreshold(int _arg)
Specify a threshold tolerance for pixel differences.
V.GetThreshold() -> int
C++: virtual int GetThreshold()
Specify a threshold tolerance for pixel differences.
V.SetAllowShift(int)
C++: virtual void SetAllowShift(int _arg)
Specify whether the comparison will allow a shift of one pixel
between the images. If set, then the minimum difference between
input images will be used to determine the difference. Otherwise,
the difference is computed directly between pixels of identical
row/column values.
V.GetAllowShift() -> int
C++: virtual int GetAllowShift()
Specify whether the comparison will allow a shift of one pixel
between the images. If set, then the minimum difference between
input images will be used to determine the difference. Otherwise,
the difference is computed directly between pixels of identical
row/column values.
V.AllowShiftOn()
C++: virtual void AllowShiftOn()
Specify whether the comparison will allow a shift of one pixel
between the images. If set, then the minimum difference between
input images will be used to determine the difference. Otherwise,
the difference is computed directly between pixels of identical
row/column values.
V.AllowShiftOff()
C++: virtual void AllowShiftOff()
Specify whether the comparison will allow a shift of one pixel
between the images. If set, then the minimum difference between
input images will be used to determine the difference. Otherwise,
the difference is computed directly between pixels of identical
row/column values.
V.SetAveraging(int)
C++: virtual void SetAveraging(int _arg)
Specify whether the comparison will include comparison of
averaged 3x3 data between the images. For graphics renderings you
normally would leave this on. For imaging operations it should be
off.
V.GetAveraging() -> int
C++: virtual int GetAveraging()
Specify whether the comparison will include comparison of
averaged 3x3 data between the images. For graphics renderings you
normally would leave this on. For imaging operations it should be
off.
V.AveragingOn()
C++: virtual void AveragingOn()
Specify whether the comparison will include comparison of
averaged 3x3 data between the images. For graphics renderings you
normally would leave this on. For imaging operations it should be
off.
V.AveragingOff()
C++: virtual void AveragingOff()
Specify whether the comparison will include comparison of
averaged 3x3 data between the images. For graphics renderings you
normally would leave this on. For imaging operations it should be
off.
vtkImageExtractComponents GetComponents GetNumberOfComponents SetComponents vtkImageExtractComponents - Outputs a single component
Superclass: vtkThreadedImageAlgorithm
vtkImageExtractComponents takes an input with any number of
components and outputs some of them. It does involve a copy of the
data.
@sa
vtkImageAppendComponents
vtkImagingCorePython.vtkImageExtractComponents V.SafeDownCast(vtkObjectBase) -> vtkImageExtractComponents
C++: static vtkImageExtractComponents *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageExtractComponents
C++: vtkImageExtractComponents *NewInstance()
V.SetComponents(int)
C++: void SetComponents(int c1)
V.SetComponents(int, int)
C++: void SetComponents(int c1, int c2)
V.SetComponents(int, int, int)
C++: void SetComponents(int c1, int c2, int c3)
Set/Get the components to extract.
V.GetComponents() -> (int, int, int)
C++: int *GetComponents()
V.GetNumberOfComponents() -> int
C++: virtual int GetNumberOfComponents()
Get the number of components to extract. This is set implicitly
by the SetComponents() method.
vtkImageFlip GetFlipAboutOrigin GetPreserveImageExtent GetFilteredAxis GetFilteredAxes SetFilteredAxis SetFlipAboutOrigin SetPreserveImageExtent FlipAboutOriginOff PreserveImageExtentOff PreserveImageExtentOn FlipAboutOriginOn SetFilteredAxes vtkImageReslice vtkImageFlip - This flips an axis of an image.
Superclass: vtkImageReslice
Right becomes left ...
vtkImageFlip will reflect the data along the filtered axis. This
filter is actually a thin wrapper around vtkImageReslice.
vtkImagingCorePython.vtkImageFlip V.SafeDownCast(vtkObjectBase) -> vtkImageFlip
C++: static vtkImageFlip *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageFlip
C++: vtkImageFlip *NewInstance()
V.SetFilteredAxis(int)
C++: virtual void SetFilteredAxis(int _arg)
Specify which axis will be flipped. This must be an integer
between 0 (for x) and 2 (for z). Initial value is 0.
V.GetFilteredAxis() -> int
C++: virtual int GetFilteredAxis()
Specify which axis will be flipped. This must be an integer
between 0 (for x) and 2 (for z). Initial value is 0.
V.SetFlipAboutOrigin(int)
C++: virtual void SetFlipAboutOrigin(int _arg)
By default the image will be flipped about its center, and the
Origin, Spacing and Extent of the output will be identical to the
input. However, if you have a coordinate system associated with
the image and you want to use the flip to convert +ve values
along one axis to -ve values (and vice versa) then you actually
want to flip the image about coordinate (0,0,0) instead of about
the center of the image. This method will adjust the Origin of
the output such that the flip occurs about (0,0,0). Note that
this method only changes the Origin (and hence the coordinate
system) the output data: the actual pixel values are the same
whether or not this method is used. Also note that the Origin in
this method name refers to (0,0,0) in the coordinate system
associated with the image, it does not refer to the Origin ivar
that is associated with a vtkImageData.
V.GetFlipAboutOrigin() -> int
C++: virtual int GetFlipAboutOrigin()
By default the image will be flipped about its center, and the
Origin, Spacing and Extent of the output will be identical to the
input. However, if you have a coordinate system associated with
the image and you want to use the flip to convert +ve values
along one axis to -ve values (and vice versa) then you actually
want to flip the image about coordinate (0,0,0) instead of about
the center of the image. This method will adjust the Origin of
the output such that the flip occurs about (0,0,0). Note that
this method only changes the Origin (and hence the coordinate
system) the output data: the actual pixel values are the same
whether or not this method is used. Also note that the Origin in
this method name refers to (0,0,0) in the coordinate system
associated with the image, it does not refer to the Origin ivar
that is associated with a vtkImageData.
V.FlipAboutOriginOn()
C++: virtual void FlipAboutOriginOn()
By default the image will be flipped about its center, and the
Origin, Spacing and Extent of the output will be identical to the
input. However, if you have a coordinate system associated with
the image and you want to use the flip to convert +ve values
along one axis to -ve values (and vice versa) then you actually
want to flip the image about coordinate (0,0,0) instead of about
the center of the image. This method will adjust the Origin of
the output such that the flip occurs about (0,0,0). Note that
this method only changes the Origin (and hence the coordinate
system) the output data: the actual pixel values are the same
whether or not this method is used. Also note that the Origin in
this method name refers to (0,0,0) in the coordinate system
associated with the image, it does not refer to the Origin ivar
that is associated with a vtkImageData.
V.FlipAboutOriginOff()
C++: virtual void FlipAboutOriginOff()
By default the image will be flipped about its center, and the
Origin, Spacing and Extent of the output will be identical to the
input. However, if you have a coordinate system associated with
the image and you want to use the flip to convert +ve values
along one axis to -ve values (and vice versa) then you actually
want to flip the image about coordinate (0,0,0) instead of about
the center of the image. This method will adjust the Origin of
the output such that the flip occurs about (0,0,0). Note that
this method only changes the Origin (and hence the coordinate
system) the output data: the actual pixel values are the same
whether or not this method is used. Also note that the Origin in
this method name refers to (0,0,0) in the coordinate system
associated with the image, it does not refer to the Origin ivar
that is associated with a vtkImageData.
V.SetFilteredAxes(int)
C++: void SetFilteredAxes(int axis)
Keep the mis-named Axes variations around for compatibility with
old scripts. Axis is singular, not plural...
V.GetFilteredAxes() -> int
C++: int GetFilteredAxes()
V.SetPreserveImageExtent(int)
C++: virtual void SetPreserveImageExtent(int _arg)
PreserveImageExtentOff wasn't covered by test scripts and its
implementation was broken. It is deprecated now and it has no
effect (i.e. the ImageExtent is always preserved).
V.GetPreserveImageExtent() -> int
C++: virtual int GetPreserveImageExtent()
PreserveImageExtentOff wasn't covered by test scripts and its
implementation was broken. It is deprecated now and it has no
effect (i.e. the ImageExtent is always preserved).
V.PreserveImageExtentOn()
C++: virtual void PreserveImageExtentOn()
PreserveImageExtentOff wasn't covered by test scripts and its
implementation was broken. It is deprecated now and it has no
effect (i.e. the ImageExtent is always preserved).
V.PreserveImageExtentOff()
C++: virtual void PreserveImageExtentOff()
PreserveImageExtentOff wasn't covered by test scripts and its
implementation was broken. It is deprecated now and it has no
effect (i.e. the ImageExtent is always preserved).
GetNumberOfIterations GetIteration vtkImageIterateFilter - Multiple executes per update.
Superclass: vtkThreadedImageAlgorithm
vtkImageIterateFilter is a filter superclass that supports calling
execute multiple times per update. The largest hack/open issue is
that the input and output caches are temporarily changed to "fool"
the subclasses. I believe the correct solution is to pass the in and
out cache to the subclasses methods as arguments. Now the data is
passes. Can the caches be passed, and data retrieved from the cache?
vtkImagingCorePython.vtkImageIterateFilter V.SafeDownCast(vtkObjectBase) -> vtkImageIterateFilter
C++: static vtkImageIterateFilter *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageIterateFilter
C++: vtkImageIterateFilter *NewInstance()
V.GetIteration() -> int
C++: virtual int GetIteration()
Get which iteration is current being performed. Normally the user
will not access this method.
V.GetNumberOfIterations() -> int
C++: virtual int GetNumberOfIterations()
Get which iteration is current being performed. Normally the user
will not access this method.
vtkImageMagnify GetMagnificationFactors GetInterpolate InterpolateOn InterpolateOff SetInterpolate SetMagnificationFactors vtkImageMagnify - magnify an image by an integer value
Superclass: vtkThreadedImageAlgorithm
vtkImageMagnify maps each pixel of the input onto a nxmx... region of
the output. Location (0,0,...) remains in the same place. The
magnification occurs via pixel replication, or if Interpolate is on,
by bilinear interpolation. Initially, interpolation is off and
magnification factors are set to 1 in all directions.
vtkImagingCorePython.vtkImageMagnify V.SafeDownCast(vtkObjectBase) -> vtkImageMagnify
C++: static vtkImageMagnify *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageMagnify
C++: vtkImageMagnify *NewInstance()
V.SetMagnificationFactors(int, int, int)
C++: void SetMagnificationFactors(int, int, int)
V.SetMagnificationFactors((int, int, int))
C++: void SetMagnificationFactors(int a[3])
V.GetMagnificationFactors() -> (int, int, int)
C++: int *GetMagnificationFactors()
V.SetInterpolate(int)
C++: virtual void SetInterpolate(int _arg)
Turn interpolation on and off (pixel replication is used when
off). Initially, interpolation is off.
V.GetInterpolate() -> int
C++: virtual int GetInterpolate()
Turn interpolation on and off (pixel replication is used when
off). Initially, interpolation is off.
V.InterpolateOn()
C++: virtual void InterpolateOn()
Turn interpolation on and off (pixel replication is used when
off). Initially, interpolation is off.
V.InterpolateOff()
C++: virtual void InterpolateOff()
Turn interpolation on and off (pixel replication is used when
off). Initially, interpolation is off.
vtkImageMapToColors SetOutputFormatToLuminance SetOutputFormatToRGBA SetOutputFormatToRGB GetNaNColor GetActiveComponent GetLookupTable GetPassAlphaToOutput GetOutputFormat SetPassAlphaToOutput SetOutputFormat SetActiveComponent PassAlphaToOutputOn PassAlphaToOutputOff SetNaNColor GetMTime SetLookupTable vtkScalarsToColors SetOutputFormatToLuminanceAlpha vtkImageMapToColors - map the input image through a lookup table
Superclass: vtkThreadedImageAlgorithm
The vtkImageMapToColors filter will take an input image of any valid
scalar type, and map the first component of the image through a
lookup table. The result is an image of type VTK_UNSIGNED_CHAR. If
the lookup table is not set, or is set to nullptr, then the input
data will be passed through if it is already of type
VTK_UNSIGNED_CHAR.
@sa
vtkLookupTable vtkScalarsToColors
vtkImagingCorePython.vtkImageMapToColors V.SafeDownCast(vtkObjectBase) -> vtkImageMapToColors
C++: static vtkImageMapToColors *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageMapToColors
C++: vtkImageMapToColors *NewInstance()
V.SetLookupTable(vtkScalarsToColors)
C++: virtual void SetLookupTable(vtkScalarsToColors *)
Set the lookup table.
V.GetLookupTable() -> vtkScalarsToColors
C++: virtual vtkScalarsToColors *GetLookupTable()
Set the lookup table.
V.SetOutputFormat(int)
C++: virtual void SetOutputFormat(int _arg)
Set the output format, the default is RGBA.
V.GetOutputFormat() -> int
C++: virtual int GetOutputFormat()
Set the output format, the default is RGBA.
V.SetOutputFormatToRGBA()
C++: void SetOutputFormatToRGBA()
Set the output format, the default is RGBA.
V.SetOutputFormatToRGB()
C++: void SetOutputFormatToRGB()
Set the output format, the default is RGBA.
V.SetOutputFormatToLuminanceAlpha()
C++: void SetOutputFormatToLuminanceAlpha()
Set the output format, the default is RGBA.
V.SetOutputFormatToLuminance()
C++: void SetOutputFormatToLuminance()
Set the output format, the default is RGBA.
V.SetActiveComponent(int)
C++: virtual void SetActiveComponent(int _arg)
Set the component to map for multi-component images (default: 0)
V.GetActiveComponent() -> int
C++: virtual int GetActiveComponent()
Set the component to map for multi-component images (default: 0)
V.SetPassAlphaToOutput(int)
C++: virtual void SetPassAlphaToOutput(int _arg)
Use the alpha component of the input when computing the alpha
component of the output (useful when converting monochrome+alpha
data to RGBA)
V.PassAlphaToOutputOn()
C++: virtual void PassAlphaToOutputOn()
Use the alpha component of the input when computing the alpha
component of the output (useful when converting monochrome+alpha
data to RGBA)
V.PassAlphaToOutputOff()
C++: virtual void PassAlphaToOutputOff()
Use the alpha component of the input when computing the alpha
component of the output (useful when converting monochrome+alpha
data to RGBA)
V.GetPassAlphaToOutput() -> int
C++: virtual int GetPassAlphaToOutput()
Use the alpha component of the input when computing the alpha
component of the output (useful when converting monochrome+alpha
data to RGBA)
V.GetMTime() -> int
C++: vtkMTimeType GetMTime() override;
We need to check the modified time of the lookup table too.
V.SetNaNColor(int, int, int, int)
C++: void SetNaNColor(unsigned char, unsigned char, unsigned char,
unsigned char)
V.SetNaNColor((int, int, int, int))
C++: void SetNaNColor(unsigned char a[4])
V.GetNaNColor() -> (int, int, int, int)
C++: unsigned char *GetNaNColor()
vtkImageMask GetMaskedOutputValueLength GetMaskAlphaMaxValue GetMaskAlphaMinValue GetMaskAlpha GetNotMask GetMaskedOutputValue p_void SetImageInputData SetMaskInputData SetInput2Data SetInput1Data SetMaskedOutputValue SetNotMask NotMaskOff NotMaskOn SetMaskAlpha @iP *d @dd vtkImageMask - Combines a mask and an image.
Superclass: vtkThreadedImageAlgorithm
vtkImageMask combines a mask with an image. Non zero mask implies
the output pixel will be the same as the image. If a mask pixel is
zero, then the output pixel is set to "MaskedValue". The filter
also has the option to pass the mask through a boolean not operation
before processing the image. This reverses the passed and replaced
pixels. The two inputs should have the same "WholeExtent". The mask
input should be unsigned char, and the image scalar type is the same
as the output scalar type.
vtkImagingCorePython.vtkImageMask V.SafeDownCast(vtkObjectBase) -> vtkImageMask
C++: static vtkImageMask *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageMask
C++: vtkImageMask *NewInstance()
V.SetMaskedOutputValue(int, [float, ...])
C++: void SetMaskedOutputValue(int num, double *v)
V.SetMaskedOutputValue(float)
C++: void SetMaskedOutputValue(double v)
V.SetMaskedOutputValue(float, float)
C++: void SetMaskedOutputValue(double v1, double v2)
V.SetMaskedOutputValue(float, float, float)
C++: void SetMaskedOutputValue(double v1, double v2, double v3)
SetGet the value of the output pixel replaced by mask.
V.GetMaskedOutputValue() -> (float, ...)
C++: double *GetMaskedOutputValue()
V.GetMaskedOutputValueLength() -> int
C++: int GetMaskedOutputValueLength()
V.SetMaskAlpha(float)
C++: virtual void SetMaskAlpha(double _arg)
Set/Get the alpha blending value for the mask The input image is
assumed to be at alpha = 1.0 and the mask image uses this alpha
to blend using an over operator.
V.GetMaskAlphaMinValue() -> float
C++: virtual double GetMaskAlphaMinValue()
Set/Get the alpha blending value for the mask The input image is
assumed to be at alpha = 1.0 and the mask image uses this alpha
to blend using an over operator.
V.GetMaskAlphaMaxValue() -> float
C++: virtual double GetMaskAlphaMaxValue()
Set/Get the alpha blending value for the mask The input image is
assumed to be at alpha = 1.0 and the mask image uses this alpha
to blend using an over operator.
V.GetMaskAlpha() -> float
C++: virtual double GetMaskAlpha()
Set/Get the alpha blending value for the mask The input image is
assumed to be at alpha = 1.0 and the mask image uses this alpha
to blend using an over operator.
V.SetImageInputData(vtkImageData)
C++: void SetImageInputData(vtkImageData *in)
Set the input to be masked.
V.SetMaskInputData(vtkImageData)
C++: void SetMaskInputData(vtkImageData *in)
Set the mask to be used.
V.SetNotMask(int)
C++: virtual void SetNotMask(int _arg)
When Not Mask is on, the mask is passed through a boolean not
before it is used to mask the image. The effect is to pass the
pixels where the input mask is zero, and replace the pixels where
the input value is non zero.
V.GetNotMask() -> int
C++: virtual int GetNotMask()
When Not Mask is on, the mask is passed through a boolean not
before it is used to mask the image. The effect is to pass the
pixels where the input mask is zero, and replace the pixels where
the input value is non zero.
V.NotMaskOn()
C++: virtual void NotMaskOn()
When Not Mask is on, the mask is passed through a boolean not
before it is used to mask the image. The effect is to pass the
pixels where the input mask is zero, and replace the pixels where
the input value is non zero.
V.NotMaskOff()
C++: virtual void NotMaskOff()
When Not Mask is on, the mask is passed through a boolean not
before it is used to mask the image. The effect is to pass the
pixels where the input mask is zero, and replace the pixels where
the input value is non zero.
V.SetInput1Data(vtkDataObject)
C++: virtual void SetInput1Data(vtkDataObject *in)
Set the two inputs to this filter
V.SetInput2Data(vtkDataObject)
C++: virtual void SetInput2Data(vtkDataObject *in)
?vtkImageMirrorPad vtkImageMirrorPad - Extra pixels are filled by mirror images.
Superclass: vtkImagePadFilter
vtkImageMirrorPad makes an image larger by filling extra pixels with
a mirror image of the original image (mirror at image boundaries).
vtkImagingCorePython.vtkImageMirrorPad V.SafeDownCast(vtkObjectBase) -> vtkImageMirrorPad
C++: static vtkImageMirrorPad *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageMirrorPad
C++: vtkImageMirrorPad *NewInstance()
GetOutputNumberOfScalarComponents SetOutputNumberOfScalarComponents vtkImagePadFilter - Super class for filters that fill in extra pixels.
Superclass: vtkThreadedImageAlgorithm
vtkImagePadFilter Changes the image extent of an image. If the image
extent is larger than the input image extent, the extra pixels are
filled by an algorithm determined by the subclass. The image extent
of the output has to be specified.
vtkImagingCorePython.vtkImagePadFilter V.SafeDownCast(vtkObjectBase) -> vtkImagePadFilter
C++: static vtkImagePadFilter *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImagePadFilter
C++: vtkImagePadFilter *NewInstance()
V.SetOutputWholeExtent([int, int, int, int, int, int])
C++: void SetOutputWholeExtent(int extent[6])
V.SetOutputWholeExtent(int, int, int, int, int, int)
C++: void SetOutputWholeExtent(int minX, int maxX, int minY,
int maxY, int minZ, int maxZ)
The image extent of the output has to be set explicitly.
V.GetOutputWholeExtent([int, int, int, int, int, int])
C++: void GetOutputWholeExtent(int extent[6])
V.GetOutputWholeExtent() -> (int, int, int, int, int, int)
C++: int *GetOutputWholeExtent()
The image extent of the output has to be set explicitly.
V.SetOutputNumberOfScalarComponents(int)
C++: virtual void SetOutputNumberOfScalarComponents(int _arg)
Set/Get the number of output scalar components.
V.GetOutputNumberOfScalarComponents() -> int
C++: virtual int GetOutputNumberOfScalarComponents()
Set/Get the number of output scalar components.
vtkImagePermute vtkImagePermute - Permutes axes of input.
Superclass: vtkImageReslice
vtkImagePermute reorders the axes of the input. Filtered axes specify
the input axes which become X, Y, Z. The input has to have the same
scalar type of the output. The filter does copy the data when it
executes. This filter is actually a very thin wrapper around
vtkImageReslice.
vtkImagingCorePython.vtkImagePermute V.SafeDownCast(vtkObjectBase) -> vtkImagePermute
C++: static vtkImagePermute *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImagePermute
C++: vtkImagePermute *NewInstance()
V.SetFilteredAxes(int, int, int)
C++: void SetFilteredAxes(int x, int y, int z)
V.SetFilteredAxes((int, int, int))
C++: void SetFilteredAxes(const int xyz[3])
The filtered axes are the input axes that get relabeled to X,Y,Z.
V.GetFilteredAxes() -> (int, int, int)
C++: int *GetFilteredAxes()
GetVoidPointer vtkDataArray SpanEndId GetId IsInStencil NextSpan IsAtEnd Initialize GetIndex @W vtkImagePointDataIterator V|kP *vtkImageData *i V|kP *vtkDataArray *i this function takes no keyword arguments vtkImagePointDataIterator - iterate over point data in an image.
This class will iterate over an image. For each position, it will
provide the (I,J,K) index, the point Id, and if a stencil is
supplied, it will report whether the point is inside or outside of
the stencil.
For efficiency, this class iterates over spans rather than points.
Each span is one image row or partial row, defined by a start
position and a size. Within a span, only the X index and the point
Id will change. The vtkImagePointDataIterator and related iterators
are the preferred method of iterating over image data within the VTK
image filters.
@sa
vtkImageData vtkImageStencilData vtkImageProgressIterator
vtkImagePointDataIterator()
vtkImagePointDataIterator(vtkImageData *image,
const int extent[6]=nullptr, vtkImageStencilData *stencil=nullptr,
vtkAlgorithm *algorithm=nullptr, int threadId=0)
vtkImagePointDataIterator(const &vtkImagePointDataIterator)
vtkImagingCorePython.vtkImagePointDataIterator @V|PVVi *vtkImageData *i *vtkImageStencilData *vtkAlgorithm V.Initialize(vtkImageData, (int, int, int, int, int, int),
vtkImageStencilData, vtkAlgorithm, int)
C++: void Initialize(vtkImageData *image,
const int extent[6]=nullptr,
vtkImageStencilData *stencil=nullptr,
vtkAlgorithm *algorithm=nullptr, int threadId=0)
Initialize an iterator. See constructor for more details.
V.NextSpan()
C++: void NextSpan()
Move the iterator to the beginning of the next span. A span is a
contiguous region of the image over which nothing but the point
Id and the X index changes.
V.IsAtEnd() -> bool
C++: bool IsAtEnd()
Test if the iterator has completed iterating over the entire
extent.
V.IsInStencil() -> bool
C++: bool IsInStencil()
Check if the iterator is within the region specified by the
stencil. This is updated when NextSpan() is called.
V.GetIndex([int, int, int])
C++: void GetIndex(int result[3])
V.GetIndex() -> (int, int, int)
C++: const int *GetIndex()
Get the index at the beginning of the current span.
V.GetId() -> int
C++: vtkIdType GetId()
Get the point Id at the beginning of the current span.
V.SpanEndId() -> int
C++: vtkIdType SpanEndId()
Get the end of the span.
V.GetVoidPointer(vtkImageData, int, [int, ...]) -> void
C++: static void *GetVoidPointer(vtkImageData *image,
vtkIdType i=0, int *pixelIncrement=nullptr)
V.GetVoidPointer(vtkDataArray, int, [int, ...]) -> void
C++: static void *GetVoidPointer(vtkDataArray *array,
vtkIdType i=0, int *pixelIncrement=nullptr)
Get a void pointer and pixel increment for the given point Id.
The pixel increment is the number of scalar components.
Next GetPosition @W vtkImagePointIterator vtkImagePointIterator - iterate over all data points in an image.
Superclass: vtkImagePointDataIterator
This class will iterate over an image. For each position, it
provides the (x,y,z) position, the (I,J,K) index, and the point Id.
If a stencil is provided, then it also reports, for each point,
whether the point is inside the stencil.
The iterator can go through the image point-by-point or span-by-span.
The Next() method advances to the next point, while the NextSpan()
method skips to the beginning of the next span, where a span is
defined as a start position and point count within an image row.
@sa
vtkImageData vtkImageStencilData vtkImageProgressIterator
vtkImagePointIterator()
vtkImagePointIterator(vtkImageData *image,
const int extent[6]=nullptr, vtkImageStencilData *stencil=nullptr,
vtkAlgorithm *algorithm=nullptr, int threadId=0)
vtkImagePointIterator(const &vtkImagePointIterator)
vtkImagingCorePython.vtkImagePointIterator V.Next()
C++: void Next()
Move to the next position (rather than directly to the next
span). This will automatically advance to the next span if the
end of the current span is reached.
V.GetPosition() -> (float, float, float)
C++: double *GetPosition()
V.GetPosition([float, float, float])
C++: void GetPosition(double x[3])
Get the current position.
vtkImageResample SetAxisOutputSpacing SetAxisMagnificationFactor GetAxisMagnificationFactor vtkImageResample - Resamples an image to be larger or smaller.
Superclass: vtkImageReslice
This filter produces an output with different spacing (and extent)
than the input. Linear interpolation can be used to resample the
data. The Output spacing can be set explicitly or relative to input
spacing with the SetAxisMagnificationFactor method.
vtkImagingCorePython.vtkImageResample V.SafeDownCast(vtkObjectBase) -> vtkImageResample
C++: static vtkImageResample *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageResample
C++: vtkImageResample *NewInstance()
V.SetOutputSpacing(float, float, float)
C++: void SetOutputSpacing(double sx, double sy, double sz)
override;
V.SetOutputSpacing((float, float, float))
C++: void SetOutputSpacing(const double spacing[3]) override;
Set desired spacing. Zero is a reserved value indicating spacing
has not been set.
V.SetAxisOutputSpacing(int, float)
C++: void SetAxisOutputSpacing(int axis, double spacing)
Set desired spacing. Zero is a reserved value indicating spacing
has not been set.
V.SetMagnificationFactors(float, float, float)
C++: void SetMagnificationFactors(double fx, double fy, double fz)
V.SetMagnificationFactors((float, float, float))
C++: void SetMagnificationFactors(const double f[3])
Set/Get Magnification factors. Zero is a reserved value
indicating values have not been computed.
V.GetMagnificationFactors() -> (float, float, float)
C++: double *GetMagnificationFactors()
V.SetAxisMagnificationFactor(int, float)
C++: void SetAxisMagnificationFactor(int axis, double factor)
Set/Get Magnification factors. Zero is a reserved value
indicating values have not been computed.
V.GetAxisMagnificationFactor(int, vtkInformation) -> float
C++: double GetAxisMagnificationFactor(int axis,
vtkInformation *inInfo=nullptr)
Get the computed magnification factor for a specific axis. The
input information is required to compute the value.
V.SetDimensionality(int)
C++: virtual void SetDimensionality(int _arg)
Dimensionality is the number of axes which are considered during
execution. To process images dimensionality would be set to 2.
This has the same effect as setting the magnification of the
third axis to 1.0
V.GetDimensionality() -> int
C++: virtual int GetDimensionality()
Dimensionality is the number of axes which are considered during
execution. To process images dimensionality would be set to 2.
This has the same effect as setting the magnification of the
third axis to 1.0
SetOutputExtentToDefault SetOutputOriginToDefault SetOutputSpacingToDefault GetStencilOutput GetInterpolationModeMaxValue GetSlabModeMinValue GetSlabModeMaxValue GetInterpolationModeMinValue GetBackgroundColor GetOutputExtent GetStencilOutputPort GetSlabTrapezoidIntegration GetResliceTransform GetInterpolationMode GetMirror GetTransformInputSampling GetSlabMode GetGenerateStencilOutput GetWrap GetScalarScale GetSlabNumberOfSlices GetResliceAxes GetBorder GetAutoCropOutput GetOutputDimensionality GetOptimization GetSlabSliceSpacingFraction GetScalarShift SetStencilOutput GetBackgroundLevel SetSlabModeToSum SetSlabModeToMean SetInterpolationModeToCubic SetInterpolationModeToLinear SetSlabModeToMin SetSlabModeToMax SetAutoCropOutput SetSlabNumberOfSlices SetScalarShift SetOptimization SetOutputDimensionality SetGenerateStencilOutput SetMirror SetBorder SetSlabSliceSpacingFraction SetScalarScale SetWrap SetSlabTrapezoidIntegration SetTransformInputSampling OptimizationOn TransformInputSamplingOff WrapOn MirrorOff AutoCropOutputOff AutoCropOutputOn SlabTrapezoidIntegrationOn BorderOff MirrorOn GenerateStencilOutputOn OptimizationOff BorderOn TransformInputSamplingOn SlabTrapezoidIntegrationOff GenerateStencilOutputOff WrapOff SetInterpolationMode SetSlabMode SetBackgroundLevel GetResliceAxesOrigin SetResliceAxesOrigin SetBackgroundColor ReportReferences vtkGarbageCollector SetOutputExtent GetSlabModeAsString GetInterpolator SetInterpolator vtkAbstractImageInterpolator GetInterpolationModeAsString SetInformationInput SetResliceTransform vtkAbstractTransform SetResliceAxes vtkMatrix4x4 VTK_RESLICE_NEAREST VTK_RESLICE_LINEAR VTK_RESLICE_CUBIC SetInterpolationModeToNearestNeighbor GetResliceAxesDirectionCosines SetResliceAxesDirectionCosines vtkImageReslice - Reslices a volume along a new set of axes.
Superclass: vtkThreadedImageAlgorithm
vtkImageReslice is the swiss-army-knife of image geometry filters: It
can permute, rotate, flip, scale, resample, deform, and pad image
data in any combination with reasonably high efficiency. Simple
operations such as permutation, resampling and padding are done with
similar efficiently to the specialized vtkImagePermute,
vtkImageResample, and vtkImagePad filters. There are a number of
tasks that vtkImageReslice is well suited for:
1) Application of simple rotations, scales, and translations to an
image. It is often a good idea to use vtkImageChangeInformation to
center the image first, so that scales and rotations occur around the
center rather than around the lower-left corner of the image.
2) Resampling of one data set to match the voxel sampling of a second
data set via the SetInformationInput() method, e.g. for the purpose
of comparing two images or combining two images. A transformation,
either linear or nonlinear, can be applied at the same time via the
SetResliceTransform method if the two images are not in the same
coordinate space.
3) Extraction of slices from an image volume. The most convenient
way to do this is to use SetResliceAxesDirectionCosines() to specify
the orientation of the slice. The direction cosines give the x, y,
and z axes for the output volume. The method
SetOutputDimensionality(2) is used to specify that want to output a
slice rather than a volume. The SetResliceAxesOrigin() command is
used to provide an (x,y,z) point that the slice will pass through.
You can use both the ResliceAxes and the ResliceTransform at the same
time, in order to extract slices from a volume that you have applied
a transformation to.
@warning
This filter is very inefficient if the output X dimension is 1.
@sa
vtkAbstractTransform vtkMatrix4x4
vtkImagingCorePython.vtkImageReslice V.SafeDownCast(vtkObjectBase) -> vtkImageReslice
C++: static vtkImageReslice *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageReslice
C++: vtkImageReslice *NewInstance()
V.SetResliceAxes(vtkMatrix4x4)
C++: virtual void SetResliceAxes(vtkMatrix4x4 *)
This method is used to set up the axes for the output voxels. The
output Spacing, Origin, and Extent specify the locations of the
voxels within the coordinate system defined by the axes. The
ResliceAxes are used most often to permute the data, e.g. to
extract ZY or XZ slices of a volume as 2D XY images.
The first column of the matrix specifies the x-axis vector (the
fourth element must be set to zero), the second column specifies
the y-axis, and the third column the z-axis. The fourth column
is the origin of the axes (the fourth element must be set to
one).
An alternative to SetResliceAxes() is to use
SetResliceAxesDirectionCosines() to set the directions of the
axes and SetResliceAxesOrigin() to set the origin of the axes.
V.GetResliceAxes() -> vtkMatrix4x4
C++: virtual vtkMatrix4x4 *GetResliceAxes()
This method is used to set up the axes for the output voxels. The
output Spacing, Origin, and Extent specify the locations of the
voxels within the coordinate system defined by the axes. The
ResliceAxes are used most often to permute the data, e.g. to
extract ZY or XZ slices of a volume as 2D XY images.
The first column of the matrix specifies the x-axis vector (the
fourth element must be set to zero), the second column specifies
the y-axis, and the third column the z-axis. The fourth column
is the origin of the axes (the fourth element must be set to
one).
An alternative to SetResliceAxes() is to use
SetResliceAxesDirectionCosines() to set the directions of the
axes and SetResliceAxesOrigin() to set the origin of the axes.
V.SetResliceAxesDirectionCosines(float, float, float, float,
float, float, float, float, float)
C++: void SetResliceAxesDirectionCosines(double x0, double x1,
double x2, double y0, double y1, double y2, double z0,
double z1, double z2)
V.SetResliceAxesDirectionCosines((float, float, float), (float,
float, float), (float, float, float))
C++: void SetResliceAxesDirectionCosines(const double x[3],
const double y[3], const double z[3])
V.SetResliceAxesDirectionCosines((float, float, float, float,
float, float, float, float, float))
C++: void SetResliceAxesDirectionCosines(const double xyz[9])
Specify the direction cosines for the ResliceAxes (i.e. the first
three elements of each of the first three columns of the
ResliceAxes matrix). This will modify the current ResliceAxes
matrix, or create a new matrix if none exists.
V.GetResliceAxesDirectionCosines([float, float, float], [float,
float, float], [float, float, float])
C++: void GetResliceAxesDirectionCosines(double x[3], double y[3],
double z[3])
V.GetResliceAxesDirectionCosines([float, float, float, float,
float, float, float, float, float])
C++: void GetResliceAxesDirectionCosines(double xyz[9])
V.GetResliceAxesDirectionCosines() -> (float, float, float, float,
float, float, float, float, float)
C++: double *GetResliceAxesDirectionCosines()
Specify the direction cosines for the ResliceAxes (i.e. the first
three elements of each of the first three columns of the
ResliceAxes matrix). This will modify the current ResliceAxes
matrix, or create a new matrix if none exists.
V.SetResliceAxesOrigin(float, float, float)
C++: void SetResliceAxesOrigin(double x, double y, double z)
V.SetResliceAxesOrigin((float, float, float))
C++: void SetResliceAxesOrigin(const double xyz[3])
Specify the origin for the ResliceAxes (i.e. the first three
elements of the final column of the ResliceAxes matrix). This
will modify the current ResliceAxes matrix, or create new matrix
if none exists.
V.GetResliceAxesOrigin([float, float, float])
C++: void GetResliceAxesOrigin(double xyz[3])
V.GetResliceAxesOrigin() -> (float, float, float)
C++: double *GetResliceAxesOrigin()
Specify the origin for the ResliceAxes (i.e. the first three
elements of the final column of the ResliceAxes matrix). This
will modify the current ResliceAxes matrix, or create new matrix
if none exists.
V.SetResliceTransform(vtkAbstractTransform)
C++: virtual void SetResliceTransform(vtkAbstractTransform *)
Set a transform to be applied to the resampling grid that has
been defined via the ResliceAxes and the output Origin, Spacing
and Extent. Note that applying a transform to the resampling
grid (which lies in the output coordinate system) is equivalent
to applying the inverse of that transform to the input volume.
Nonlinear transforms such as vtkGridTransform and
vtkThinPlateSplineTransform can be used here.
V.GetResliceTransform() -> vtkAbstractTransform
C++: virtual vtkAbstractTransform *GetResliceTransform()
Set a transform to be applied to the resampling grid that has
been defined via the ResliceAxes and the output Origin, Spacing
and Extent. Note that applying a transform to the resampling
grid (which lies in the output coordinate system) is equivalent
to applying the inverse of that transform to the input volume.
Nonlinear transforms such as vtkGridTransform and
vtkThinPlateSplineTransform can be used here.
V.SetInformationInput(vtkImageData)
C++: virtual void SetInformationInput(vtkImageData *)
Set a vtkImageData from which the default Spacing, Origin, and
WholeExtent of the output will be copied. The spacing, origin,
and extent will be permuted according to the ResliceAxes. Any
values set via SetOutputSpacing, SetOutputOrigin, and
SetOutputExtent will override these values. By default, the
Spacing, Origin, and WholeExtent of the Input are used.
V.GetInformationInput() -> vtkImageData
C++: virtual vtkImageData *GetInformationInput()
Set a vtkImageData from which the default Spacing, Origin, and
WholeExtent of the output will be copied. The spacing, origin,
and extent will be permuted according to the ResliceAxes. Any
values set via SetOutputSpacing, SetOutputOrigin, and
SetOutputExtent will override these values. By default, the
Spacing, Origin, and WholeExtent of the Input are used.
V.SetTransformInputSampling(int)
C++: virtual void SetTransformInputSampling(int _arg)
Specify whether to transform the spacing, origin and extent of
the Input (or the InformationInput) according to the direction
cosines and origin of the ResliceAxes before applying them as the
default output spacing, origin and extent (default: On).
V.TransformInputSamplingOn()
C++: virtual void TransformInputSamplingOn()
Specify whether to transform the spacing, origin and extent of
the Input (or the InformationInput) according to the direction
cosines and origin of the ResliceAxes before applying them as the
default output spacing, origin and extent (default: On).
V.TransformInputSamplingOff()
C++: virtual void TransformInputSamplingOff()
Specify whether to transform the spacing, origin and extent of
the Input (or the InformationInput) according to the direction
cosines and origin of the ResliceAxes before applying them as the
default output spacing, origin and extent (default: On).
V.GetTransformInputSampling() -> int
C++: virtual int GetTransformInputSampling()
Specify whether to transform the spacing, origin and extent of
the Input (or the InformationInput) according to the direction
cosines and origin of the ResliceAxes before applying them as the
default output spacing, origin and extent (default: On).
V.SetAutoCropOutput(int)
C++: virtual void SetAutoCropOutput(int _arg)
Turn this on if you want to guarantee that the extent of the
output will be large enough to ensure that none of the data will
be cropped (default: Off).
V.AutoCropOutputOn()
C++: virtual void AutoCropOutputOn()
Turn this on if you want to guarantee that the extent of the
output will be large enough to ensure that none of the data will
be cropped (default: Off).
V.AutoCropOutputOff()
C++: virtual void AutoCropOutputOff()
Turn this on if you want to guarantee that the extent of the
output will be large enough to ensure that none of the data will
be cropped (default: Off).
V.GetAutoCropOutput() -> int
C++: virtual int GetAutoCropOutput()
Turn this on if you want to guarantee that the extent of the
output will be large enough to ensure that none of the data will
be cropped (default: Off).
V.SetWrap(int)
C++: virtual void SetWrap(int _arg)
Turn on wrap-pad feature (default: Off).
V.GetWrap() -> int
C++: virtual int GetWrap()
Turn on wrap-pad feature (default: Off).
V.WrapOn()
C++: virtual void WrapOn()
Turn on wrap-pad feature (default: Off).
V.WrapOff()
C++: virtual void WrapOff()
Turn on wrap-pad feature (default: Off).
V.SetMirror(int)
C++: virtual void SetMirror(int _arg)
Turn on mirror-pad feature (default: Off). This will override the
wrap-pad.
V.GetMirror() -> int
C++: virtual int GetMirror()
Turn on mirror-pad feature (default: Off). This will override the
wrap-pad.
V.MirrorOn()
C++: virtual void MirrorOn()
Turn on mirror-pad feature (default: Off). This will override the
wrap-pad.
V.MirrorOff()
C++: virtual void MirrorOff()
Turn on mirror-pad feature (default: Off). This will override the
wrap-pad.
V.SetBorder(int)
C++: virtual void SetBorder(int _arg)
Extend the apparent input border by a half voxel (default: On).
This changes how interpolation is handled at the borders of the
input image: if the center of an output voxel is beyond the edge
of the input image, but is within a half voxel width of the edge
(using the input voxel width), then the value of the output voxel
is calculated as if the input's edge voxels were duplicated past
the edges of the input. This has no effect if Mirror or Wrap are
on.
V.GetBorder() -> int
C++: virtual int GetBorder()
Extend the apparent input border by a half voxel (default: On).
This changes how interpolation is handled at the borders of the
input image: if the center of an output voxel is beyond the edge
of the input image, but is within a half voxel width of the edge
(using the input voxel width), then the value of the output voxel
is calculated as if the input's edge voxels were duplicated past
the edges of the input. This has no effect if Mirror or Wrap are
on.
V.BorderOn()
C++: virtual void BorderOn()
Extend the apparent input border by a half voxel (default: On).
This changes how interpolation is handled at the borders of the
input image: if the center of an output voxel is beyond the edge
of the input image, but is within a half voxel width of the edge
(using the input voxel width), then the value of the output voxel
is calculated as if the input's edge voxels were duplicated past
the edges of the input. This has no effect if Mirror or Wrap are
on.
V.BorderOff()
C++: virtual void BorderOff()
Extend the apparent input border by a half voxel (default: On).
This changes how interpolation is handled at the borders of the
input image: if the center of an output voxel is beyond the edge
of the input image, but is within a half voxel width of the edge
(using the input voxel width), then the value of the output voxel
is calculated as if the input's edge voxels were duplicated past
the edges of the input. This has no effect if Mirror or Wrap are
on.
V.SetInterpolationMode(int)
C++: virtual void SetInterpolationMode(int _arg)
Set interpolation mode (default: nearest neighbor).
V.GetInterpolationModeMinValue() -> int
C++: virtual int GetInterpolationModeMinValue()
Set interpolation mode (default: nearest neighbor).
V.GetInterpolationModeMaxValue() -> int
C++: virtual int GetInterpolationModeMaxValue()
Set interpolation mode (default: nearest neighbor).
V.GetInterpolationMode() -> int
C++: virtual int GetInterpolationMode()
Set interpolation mode (default: nearest neighbor).
V.SetInterpolationModeToNearestNeighbor()
C++: void SetInterpolationModeToNearestNeighbor()
Set interpolation mode (default: nearest neighbor).
V.SetInterpolationModeToLinear()
C++: void SetInterpolationModeToLinear()
Set interpolation mode (default: nearest neighbor).
V.SetInterpolationModeToCubic()
C++: void SetInterpolationModeToCubic()
Set interpolation mode (default: nearest neighbor).
V.GetInterpolationModeAsString() -> string
C++: virtual const char *GetInterpolationModeAsString()
Set interpolation mode (default: nearest neighbor).
V.SetInterpolator(vtkAbstractImageInterpolator)
C++: virtual void SetInterpolator(
vtkAbstractImageInterpolator *sampler)
Set the interpolator to use. The default interpolator supports
the Nearest, Linear, and Cubic interpolation modes.
V.GetInterpolator() -> vtkAbstractImageInterpolator
C++: virtual vtkAbstractImageInterpolator *GetInterpolator()
Set the interpolator to use. The default interpolator supports
the Nearest, Linear, and Cubic interpolation modes.
V.SetSlabMode(int)
C++: virtual void SetSlabMode(int _arg)
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.GetSlabModeMinValue() -> int
C++: virtual int GetSlabModeMinValue()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.GetSlabModeMaxValue() -> int
C++: virtual int GetSlabModeMaxValue()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.GetSlabMode() -> int
C++: virtual int GetSlabMode()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.SetSlabModeToMin()
C++: void SetSlabModeToMin()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.SetSlabModeToMax()
C++: void SetSlabModeToMax()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.SetSlabModeToMean()
C++: void SetSlabModeToMean()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.SetSlabModeToSum()
C++: void SetSlabModeToSum()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.GetSlabModeAsString() -> string
C++: virtual const char *GetSlabModeAsString()
Set the slab mode, for generating thick slices. The default is
Mean. If SetSlabNumberOfSlices(N) is called with N greater than
one, then each output slice will actually be a composite of N
slices. This method specifies the compositing mode to be used.
V.SetSlabNumberOfSlices(int)
C++: virtual void SetSlabNumberOfSlices(int _arg)
Set the number of slices that will be combined to create the
slab.
V.GetSlabNumberOfSlices() -> int
C++: virtual int GetSlabNumberOfSlices()
Set the number of slices that will be combined to create the
slab.
V.SetSlabTrapezoidIntegration(int)
C++: virtual void SetSlabTrapezoidIntegration(int _arg)
Use trapezoid integration for slab computation. All this does is
weigh the first and last slices by half when doing sum and mean.
It is off by default.
V.SlabTrapezoidIntegrationOn()
C++: virtual void SlabTrapezoidIntegrationOn()
Use trapezoid integration for slab computation. All this does is
weigh the first and last slices by half when doing sum and mean.
It is off by default.
V.SlabTrapezoidIntegrationOff()
C++: virtual void SlabTrapezoidIntegrationOff()
Use trapezoid integration for slab computation. All this does is
weigh the first and last slices by half when doing sum and mean.
It is off by default.
V.GetSlabTrapezoidIntegration() -> int
C++: virtual int GetSlabTrapezoidIntegration()
Use trapezoid integration for slab computation. All this does is
weigh the first and last slices by half when doing sum and mean.
It is off by default.
V.SetSlabSliceSpacingFraction(float)
C++: virtual void SetSlabSliceSpacingFraction(double _arg)
The slab spacing as a fraction of the output slice spacing. When
one of the various slab modes is chosen, each output slice is
produced by generating several "temporary" output slices and then
combining them according to the slab mode. By default, the
spacing between these temporary slices is the Z component of the
OutputSpacing. This method sets the spacing between these
temporary slices to be a fraction of the output spacing.
V.GetSlabSliceSpacingFraction() -> float
C++: virtual double GetSlabSliceSpacingFraction()
The slab spacing as a fraction of the output slice spacing. When
one of the various slab modes is chosen, each output slice is
produced by generating several "temporary" output slices and then
combining them according to the slab mode. By default, the
spacing between these temporary slices is the Z component of the
OutputSpacing. This method sets the spacing between these
temporary slices to be a fraction of the output spacing.
V.SetOptimization(int)
C++: virtual void SetOptimization(int _arg)
Turn on and off optimizations (default on, they should only be
turned off for testing purposes).
V.GetOptimization() -> int
C++: virtual int GetOptimization()
Turn on and off optimizations (default on, they should only be
turned off for testing purposes).
V.OptimizationOn()
C++: virtual void OptimizationOn()
Turn on and off optimizations (default on, they should only be
turned off for testing purposes).
V.OptimizationOff()
C++: virtual void OptimizationOff()
Turn on and off optimizations (default on, they should only be
turned off for testing purposes).
V.SetScalarShift(float)
C++: virtual void SetScalarShift(double _arg)
Set a value to add to all the output voxels. After a sample value
has been interpolated from the input image, the equation u = (v +
ScalarShift)*ScalarScale will be applied to it before it is
written to the output image. The result will always be clamped
to the limits of the output data type.
V.GetScalarShift() -> float
C++: virtual double GetScalarShift()
Set a value to add to all the output voxels. After a sample value
has been interpolated from the input image, the equation u = (v +
ScalarShift)*ScalarScale will be applied to it before it is
written to the output image. The result will always be clamped
to the limits of the output data type.
V.SetScalarScale(float)
C++: virtual void SetScalarScale(double _arg)
Set multiplication factor to apply to all the output voxels.
After a sample value has been interpolated from the input image,
the equation u = (v + ScalarShift)*ScalarScale will be applied to
it before it is written to the output image. The result will
always be clamped to the limits of the output data type.
V.GetScalarScale() -> float
C++: virtual double GetScalarScale()
Set multiplication factor to apply to all the output voxels.
After a sample value has been interpolated from the input image,
the equation u = (v + ScalarShift)*ScalarScale will be applied to
it before it is written to the output image. The result will
always be clamped to the limits of the output data type.
V.SetOutputScalarType(int)
C++: virtual void SetOutputScalarType(int _arg)
Set the scalar type of the output to be different from the input.
The default value is -1, which means that the input scalar type
will be used to set the output scalar type. Otherwise, this must
be set to one of the following types: VTK_CHAR, VTK_SIGNED_CHAR,
VTK_UNSIGNED_CHAR, VTK_SHORT, VTK_UNSIGNED_SHORT, VTK_INT,
VTK_UNSIGNED_INT, VTK_FLOAT, or VTK_DOUBLE. Other types are not
permitted. If the output type is an integer type, the output
will be rounded and clamped to the limits of the type.
V.GetOutputScalarType() -> int
C++: virtual int GetOutputScalarType()
Set the scalar type of the output to be different from the input.
The default value is -1, which means that the input scalar type
will be used to set the output scalar type. Otherwise, this must
be set to one of the following types: VTK_CHAR, VTK_SIGNED_CHAR,
VTK_UNSIGNED_CHAR, VTK_SHORT, VTK_UNSIGNED_SHORT, VTK_INT,
VTK_UNSIGNED_INT, VTK_FLOAT, or VTK_DOUBLE. Other types are not
permitted. If the output type is an integer type, the output
will be rounded and clamped to the limits of the type.
V.SetBackgroundColor(float, float, float, float)
C++: void SetBackgroundColor(double, double, double, double)
V.SetBackgroundColor((float, float, float, float))
C++: void SetBackgroundColor(double a[4])
V.GetBackgroundColor() -> (float, float, float, float)
C++: double *GetBackgroundColor()
V.SetBackgroundLevel(float)
C++: void SetBackgroundLevel(double v)
Set background grey level (for single-component images).
V.GetBackgroundLevel() -> float
C++: double GetBackgroundLevel()
Set background grey level (for single-component images).
V.SetOutputSpacing(float, float, float)
C++: virtual void SetOutputSpacing(double x, double y, double z)
V.SetOutputSpacing((float, float, float))
C++: virtual void SetOutputSpacing(const double a[3])
Set the voxel spacing for the output data. The default output
spacing is the input spacing permuted through the ResliceAxes.
V.SetOutputSpacingToDefault()
C++: void SetOutputSpacingToDefault()
Set the voxel spacing for the output data. The default output
spacing is the input spacing permuted through the ResliceAxes.
V.SetOutputOrigin(float, float, float)
C++: virtual void SetOutputOrigin(double x, double y, double z)
V.SetOutputOrigin((float, float, float))
C++: virtual void SetOutputOrigin(const double a[3])
Set the origin for the output data. The default output origin is
the input origin permuted through the ResliceAxes.
V.SetOutputOriginToDefault()
C++: void SetOutputOriginToDefault()
Set the origin for the output data. The default output origin is
the input origin permuted through the ResliceAxes.
V.SetOutputExtent(int, int, int, int, int, int)
C++: virtual void SetOutputExtent(int a, int b, int c, int d,
int e, int f)
V.SetOutputExtent((int, int, int, int, int, int))
C++: virtual void SetOutputExtent(const int a[6])
Set the extent for the output data. The default output extent is
the input extent permuted through the ResliceAxes.
V.GetOutputExtent() -> (int, int, int, int, int, int)
C++: int *GetOutputExtent()
V.SetOutputExtentToDefault()
C++: void SetOutputExtentToDefault()
Set the extent for the output data. The default output extent is
the input extent permuted through the ResliceAxes.
V.SetOutputDimensionality(int)
C++: virtual void SetOutputDimensionality(int _arg)
Force the dimensionality of the output to either 1, 2, 3 or 0
(default: 3). If the dimensionality is 2D, then the Z extent of
the output is forced to (0,0) and the Z origin of the output is
forced to 0.0 (i.e. the output extent is confined to the xy
plane). If the dimensionality is 1D, the output extent is
confined to the x axis. For 0D, the output extent consists of a
single voxel at (0,0,0).
V.GetOutputDimensionality() -> int
C++: virtual int GetOutputDimensionality()
Force the dimensionality of the output to either 1, 2, 3 or 0
(default: 3). If the dimensionality is 2D, then the Z extent of
the output is forced to (0,0) and the Z origin of the output is
forced to 0.0 (i.e. the output extent is confined to the xy
plane). If the dimensionality is 1D, the output extent is
confined to the x axis. For 0D, the output extent consists of a
single voxel at (0,0,0).
V.GetMTime() -> int
C++: vtkMTimeType GetMTime() override;
When determining the modified time of the filter, this check the
modified time of the transform and matrix.
V.ReportReferences(vtkGarbageCollector)
C++: void ReportReferences(vtkGarbageCollector *) override;
Report object referenced by instances of this class.
V.SetInterpolate(int)
C++: void SetInterpolate(int t)
Convenient methods for switching between nearest-neighbor and
linear interpolation. InterpolateOn() is equivalent to
SetInterpolationModeToLinear() and InterpolateOff() is equivalent
to SetInterpolationModeToNearestNeighbor() You should not use
these methods if you use the SetInterpolationMode methods.
V.InterpolateOn()
C++: void InterpolateOn()
Convenient methods for switching between nearest-neighbor and
linear interpolation. InterpolateOn() is equivalent to
SetInterpolationModeToLinear() and InterpolateOff() is equivalent
to SetInterpolationModeToNearestNeighbor() You should not use
these methods if you use the SetInterpolationMode methods.
V.InterpolateOff()
C++: void InterpolateOff()
Convenient methods for switching between nearest-neighbor and
linear interpolation. InterpolateOn() is equivalent to
SetInterpolationModeToLinear() and InterpolateOff() is equivalent
to SetInterpolationModeToNearestNeighbor() You should not use
these methods if you use the SetInterpolationMode methods.
V.GetInterpolate() -> int
C++: int GetInterpolate()
Convenient methods for switching between nearest-neighbor and
linear interpolation. InterpolateOn() is equivalent to
SetInterpolationModeToLinear() and InterpolateOff() is equivalent
to SetInterpolationModeToNearestNeighbor() You should not use
these methods if you use the SetInterpolationMode methods.
V.SetStencilData(vtkImageStencilData)
C++: void SetStencilData(vtkImageStencilData *stencil)
Use a stencil to limit the calculations to a specific region of
the output. Portions of the output that are 'outside' the
stencil will be cleared to the background color.
V.GetStencil() -> vtkImageStencilData
C++: vtkImageStencilData *GetStencil()
Use a stencil to limit the calculations to a specific region of
the output. Portions of the output that are 'outside' the
stencil will be cleared to the background color.
V.SetGenerateStencilOutput(int)
C++: virtual void SetGenerateStencilOutput(int _arg)
Generate an output stencil that defines which pixels were
interpolated and which pixels were out-of-bounds of the input.
V.GetGenerateStencilOutput() -> int
C++: virtual int GetGenerateStencilOutput()
Generate an output stencil that defines which pixels were
interpolated and which pixels were out-of-bounds of the input.
V.GenerateStencilOutputOn()
C++: virtual void GenerateStencilOutputOn()
Generate an output stencil that defines which pixels were
interpolated and which pixels were out-of-bounds of the input.
V.GenerateStencilOutputOff()
C++: virtual void GenerateStencilOutputOff()
Generate an output stencil that defines which pixels were
interpolated and which pixels were out-of-bounds of the input.
V.GetStencilOutputPort() -> vtkAlgorithmOutput
C++: vtkAlgorithmOutput *GetStencilOutputPort()
Get the output stencil.
V.GetStencilOutput() -> vtkImageStencilData
C++: vtkImageStencilData *GetStencilOutput()
Get the output stencil.
V.SetStencilOutput(vtkImageStencilData)
C++: void SetStencilOutput(vtkImageStencilData *stencil)
Get the output stencil.
vtkImageResliceToColors GetBypass BypassOff BypassOn GetOutputFormatMinValue GetOutputFormatMaxValue SetBypass vtkImageResliceToColors - Reslice and produce color scalars.
Superclass: vtkImageReslice
vtkImageResliceToColors is an extension of vtkImageReslice that
produces color scalars. It should be provided with a lookup table
that defines the output colors and the desired range of input values
to map to those colors. If the input has multiple components, then
you should use the SetVectorMode() method of the lookup table to
specify how the vectors will be colored. If no lookup table is
provided, then the input must already be color scalars, but they will
be converted to the specified output format.
@sa
vtkImageMapToColors
vtkImagingCorePython.vtkImageResliceToColors V.SafeDownCast(vtkObjectBase) -> vtkImageResliceToColors
C++: static vtkImageResliceToColors *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageResliceToColors
C++: vtkImageResliceToColors *NewInstance()
V.SetLookupTable(vtkScalarsToColors)
C++: virtual void SetLookupTable(vtkScalarsToColors *table)
Set a lookup table to apply to the data. Use the Range,
VectorMode, and VectorComponents of the table to control the
mapping of the input data to colors. If any output voxel is
transformed to a point outside the input volume, then that voxel
will be set to the BackgroundColor.
V.GetLookupTable() -> vtkScalarsToColors
C++: virtual vtkScalarsToColors *GetLookupTable()
Set a lookup table to apply to the data. Use the Range,
VectorMode, and VectorComponents of the table to control the
mapping of the input data to colors. If any output voxel is
transformed to a point outside the input volume, then that voxel
will be set to the BackgroundColor.
V.GetOutputFormatMinValue() -> int
C++: virtual int GetOutputFormatMinValue()
Set the output format, the default is RGBA.
V.GetOutputFormatMaxValue() -> int
C++: virtual int GetOutputFormatMaxValue()
Set the output format, the default is RGBA.
V.SetBypass(int)
C++: void SetBypass(int bypass)
Bypass the color mapping operation and output the scalar values
directly. The output values will be float, rather than the input
data type.
V.BypassOn()
C++: void BypassOn()
V.BypassOff()
C++: void BypassOff()
V.GetBypass() -> int
C++: int GetBypass()
V.GetMTime() -> int
C++: vtkMTimeType GetMTime() override;
When determining the modified time of the filter, this checks the
modified time of the transform and matrix.
vtkImageShiftScale GetShift GetScale SetShift SetScale vtkImageShiftScale - shift and scale an input image
Superclass: vtkThreadedImageAlgorithm
With vtkImageShiftScale Pixels are shifted (a constant value added)
and then scaled (multiplied by a scalar. As a convenience, this class
allows you to set the output scalar type similar to vtkImageCast.
This is because shift scale operations frequently convert data types.
vtkImagingCorePython.vtkImageShiftScale V.SafeDownCast(vtkObjectBase) -> vtkImageShiftScale
C++: static vtkImageShiftScale *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageShiftScale
C++: vtkImageShiftScale *NewInstance()
V.SetShift(float)
C++: virtual void SetShift(double _arg)
Set/Get the shift value. This value is added to each pixel
V.GetShift() -> float
C++: virtual double GetShift()
Set/Get the shift value. This value is added to each pixel
V.SetScale(float)
C++: virtual void SetScale(double _arg)
Set/Get the scale value. Each pixel is multiplied by this value.
V.GetScale() -> float
C++: virtual double GetScale()
Set/Get the scale value. Each pixel is multiplied by this value.
V.SetOutputScalarType(int)
C++: virtual void SetOutputScalarType(int _arg)
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.GetOutputScalarType() -> int
C++: virtual int GetOutputScalarType()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToDouble()
C++: void SetOutputScalarTypeToDouble()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToFloat()
C++: void SetOutputScalarTypeToFloat()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToLong()
C++: void SetOutputScalarTypeToLong()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToUnsignedLong()
C++: void SetOutputScalarTypeToUnsignedLong()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToInt()
C++: void SetOutputScalarTypeToInt()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToUnsignedInt()
C++: void SetOutputScalarTypeToUnsignedInt()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToShort()
C++: void SetOutputScalarTypeToShort()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToUnsignedShort()
C++: void SetOutputScalarTypeToUnsignedShort()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToChar()
C++: void SetOutputScalarTypeToChar()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetOutputScalarTypeToUnsignedChar()
C++: void SetOutputScalarTypeToUnsignedChar()
Set the desired output scalar type. The result of the shift and
scale operations is cast to the type specified.
V.SetClampOverflow(int)
C++: virtual void SetClampOverflow(int _arg)
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default, ClampOverflow is off.
V.GetClampOverflow() -> int
C++: virtual int GetClampOverflow()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default, ClampOverflow is off.
V.ClampOverflowOn()
C++: virtual void ClampOverflowOn()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default, ClampOverflow is off.
V.ClampOverflowOff()
C++: virtual void ClampOverflowOff()
When the ClampOverflow flag is on, the data is thresholded so
that the output value does not exceed the max or min of the data
type. Clamping is safer because otherwise you might invoke
undefined behavior (and may crash) if the type conversion is out
of range of the data type. On the other hand, clamping is
slower. By default, ClampOverflow is off.
vtkImageShrink3D GetShrinkFactors GetMinimum GetMean GetMedian GetMaximum MedianOn MeanOff MinimumOn MaximumOn MeanOn MedianOff MinimumOff MaximumOff SetMedian SetMaximum SetMean SetMinimum SetShrinkFactors vtkImageShrink3D - Subsamples an image.
Superclass: vtkThreadedImageAlgorithm
vtkImageShrink3D shrinks an image by sub sampling on a uniform grid
(integer multiples).
vtkImagingCorePython.vtkImageShrink3D V.SafeDownCast(vtkObjectBase) -> vtkImageShrink3D
C++: static vtkImageShrink3D *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageShrink3D
C++: vtkImageShrink3D *NewInstance()
V.SetShrinkFactors(int, int, int)
C++: void SetShrinkFactors(int, int, int)
V.SetShrinkFactors((int, int, int))
C++: void SetShrinkFactors(int a[3])
V.GetShrinkFactors() -> (int, int, int)
C++: int *GetShrinkFactors()
V.SetShift(int, int, int)
C++: void SetShift(int, int, int)
V.SetShift((int, int, int))
C++: void SetShift(int a[3])
V.GetShift() -> (int, int, int)
C++: int *GetShift()
V.SetAveraging(int)
C++: void SetAveraging(int)
Choose Mean, Minimum, Maximum, Median or sub sampling. The
neighborhood operations are not centered on the sampled pixel.
This may cause a half pixel shift in your output image. You can
changed "Shift" to get around this. vtkImageGaussianSmooth or
vtkImageMean with strides.
V.GetAveraging() -> int
C++: int GetAveraging()
Choose Mean, Minimum, Maximum, Median or sub sampling. The
neighborhood operations are not centered on the sampled pixel.
This may cause a half pixel shift in your output image. You can
changed "Shift" to get around this. vtkImageGaussianSmooth or
vtkImageMean with strides.
V.AveragingOn()
C++: virtual void AveragingOn()
Choose Mean, Minimum, Maximum, Median or sub sampling. The
neighborhood operations are not centered on the sampled pixel.
This may cause a half pixel shift in your output image. You can
changed "Shift" to get around this. vtkImageGaussianSmooth or
vtkImageMean with strides.
V.AveragingOff()
C++: virtual void AveragingOff()
Choose Mean, Minimum, Maximum, Median or sub sampling. The
neighborhood operations are not centered on the sampled pixel.
This may cause a half pixel shift in your output image. You can
changed "Shift" to get around this. vtkImageGaussianSmooth or
vtkImageMean with strides.
V.SetMean(int)
C++: void SetMean(int)
V.GetMean() -> int
C++: virtual int GetMean()
V.MeanOn()
C++: virtual void MeanOn()
V.MeanOff()
C++: virtual void MeanOff()
V.SetMinimum(int)
C++: void SetMinimum(int)
V.GetMinimum() -> int
C++: virtual int GetMinimum()
V.MinimumOn()
C++: virtual void MinimumOn()
V.MinimumOff()
C++: virtual void MinimumOff()
V.SetMaximum(int)
C++: void SetMaximum(int)
V.GetMaximum() -> int
C++: virtual int GetMaximum()
V.MaximumOn()
C++: virtual void MaximumOn()
V.MaximumOff()
C++: virtual void MaximumOff()
V.SetMedian(int)
C++: void SetMedian(int)
V.GetMedian() -> int
C++: virtual int GetMedian()
V.MedianOn()
C++: virtual void MedianOn()
V.MedianOff()
C++: virtual void MedianOff()
vtkImageThreshold GetUpperThreshold GetInValue GetReplaceIn GetOutValue GetLowerThreshold GetReplaceOut SetOutValue SetInValue ThresholdByUpper ThresholdByLower ThresholdBetween SetReplaceOut SetReplaceIn ReplaceInOn ReplaceOutOn ReplaceOutOff ReplaceInOff SetOutputScalarTypeToSignedChar vtkImageThreshold - Flexible threshold
Superclass: vtkThreadedImageAlgorithm
vtkImageThreshold can do binary or continuous thresholding for lower,
upper or a range of data. The output data type may be different than
the output, but defaults to the same type.
vtkImagingCorePython.vtkImageThreshold V.SafeDownCast(vtkObjectBase) -> vtkImageThreshold
C++: static vtkImageThreshold *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageThreshold
C++: vtkImageThreshold *NewInstance()
V.ThresholdByUpper(float)
C++: void ThresholdByUpper(double thresh)
The values greater than or equal to the value match.
V.ThresholdByLower(float)
C++: void ThresholdByLower(double thresh)
The values less than or equal to the value match.
V.ThresholdBetween(float, float)
C++: void ThresholdBetween(double lower, double upper)
The values in a range (inclusive) match
V.SetReplaceIn(int)
C++: virtual void SetReplaceIn(int _arg)
Determines whether to replace the pixel in range with InValue
V.GetReplaceIn() -> int
C++: virtual int GetReplaceIn()
Determines whether to replace the pixel in range with InValue
V.ReplaceInOn()
C++: virtual void ReplaceInOn()
Determines whether to replace the pixel in range with InValue
V.ReplaceInOff()
C++: virtual void ReplaceInOff()
Determines whether to replace the pixel in range with InValue
V.SetInValue(float)
C++: void SetInValue(double val)
Replace the in range pixels with this value.
V.GetInValue() -> float
C++: virtual double GetInValue()
Replace the in range pixels with this value.
V.SetReplaceOut(int)
C++: virtual void SetReplaceOut(int _arg)
Determines whether to replace the pixel out of range with
OutValue
V.GetReplaceOut() -> int
C++: virtual int GetReplaceOut()
Determines whether to replace the pixel out of range with
OutValue
V.ReplaceOutOn()
C++: virtual void ReplaceOutOn()
Determines whether to replace the pixel out of range with
OutValue
V.ReplaceOutOff()
C++: virtual void ReplaceOutOff()
Determines whether to replace the pixel out of range with
OutValue
V.SetOutValue(float)
C++: void SetOutValue(double val)
Replace the in range pixels with this value.
V.GetOutValue() -> float
C++: virtual double GetOutValue()
Replace the in range pixels with this value.
V.GetUpperThreshold() -> float
C++: virtual double GetUpperThreshold()
Get the Upper and Lower thresholds.
V.GetLowerThreshold() -> float
C++: virtual double GetLowerThreshold()
Get the Upper and Lower thresholds.
V.SetOutputScalarType(int)
C++: virtual void SetOutputScalarType(int _arg)
Set the desired output scalar type to cast to
V.GetOutputScalarType() -> int
C++: virtual int GetOutputScalarType()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToDouble()
C++: void SetOutputScalarTypeToDouble()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToFloat()
C++: void SetOutputScalarTypeToFloat()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToLong()
C++: void SetOutputScalarTypeToLong()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToUnsignedLong()
C++: void SetOutputScalarTypeToUnsignedLong()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToInt()
C++: void SetOutputScalarTypeToInt()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToUnsignedInt()
C++: void SetOutputScalarTypeToUnsignedInt()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToShort()
C++: void SetOutputScalarTypeToShort()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToUnsignedShort()
C++: void SetOutputScalarTypeToUnsignedShort()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToChar()
C++: void SetOutputScalarTypeToChar()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToSignedChar()
C++: void SetOutputScalarTypeToSignedChar()
Set the desired output scalar type to cast to
V.SetOutputScalarTypeToUnsignedChar()
C++: void SetOutputScalarTypeToUnsignedChar()
Set the desired output scalar type to cast to
vtkImageTranslateExtent GetTranslation SetTranslation vtkImageTranslateExtent - Changes extent, nothing else.
Superclass: vtkImageAlgorithm
vtkImageTranslateExtent shift the whole extent, but does not change
the data.
vtkImagingCorePython.vtkImageTranslateExtent V.SafeDownCast(vtkObjectBase) -> vtkImageTranslateExtent
C++: static vtkImageTranslateExtent *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageTranslateExtent
C++: vtkImageTranslateExtent *NewInstance()
V.SetTranslation(int, int, int)
C++: void SetTranslation(int, int, int)
V.SetTranslation((int, int, int))
C++: void SetTranslation(int a[3])
V.GetTranslation() -> (int, int, int)
C++: int *GetTranslation()
vtkImageWrapPad vtkImageWrapPad - Makes an image larger by wrapping existing data.
Superclass: vtkImagePadFilter
vtkImageWrapPad performs a modulo operation on the output pixel index
to determine the source input index. The new image extent of the
output has to be specified. Input has to be the same scalar type as
output.
vtkImagingCorePython.vtkImageWrapPad V.SafeDownCast(vtkObjectBase) -> vtkImageWrapPad
C++: static vtkImageWrapPad *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageWrapPad
C++: vtkImageWrapPad *NewInstance()
vtkRTAnalyticSource GetWholeExtent GetCenter GetXFreq GetStandardDeviation GetZFreq GetYMag GetSubsampleRate GetYFreq GetZMag GetXMag SetSubsampleRate SetXMag SetYMag SetYFreq SetZFreq SetZMag SetStandardDeviation SetXFreq SetWholeExtent SetCenter vtkRTAnalyticSource - Create an image for regression testing
Superclass: vtkImageAlgorithm
vtkRTAnalyticSource just produces images with pixel values determined
by a Maximum*Gaussian*XMag*sin(XFreq*x)*sin(YFreq*y)*cos(ZFreq*z)
Values are float scalars on point data with name "RTData".
vtkImagingCorePython.vtkRTAnalyticSource V.SafeDownCast(vtkObjectBase) -> vtkRTAnalyticSource
C++: static vtkRTAnalyticSource *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkRTAnalyticSource
C++: vtkRTAnalyticSource *NewInstance()
V.SetWholeExtent(int, int, int, int, int, int)
C++: void SetWholeExtent(int xMinx, int xMax, int yMin, int yMax,
int zMin, int zMax)
Set/Get the extent of the whole output image. Initial value is
{-10,10,-10,10,-10,10}
V.GetWholeExtent() -> (int, int, int, int, int, int)
C++: int *GetWholeExtent()
V.SetCenter(float, float, float)
C++: void SetCenter(double, double, double)
V.SetCenter((float, float, float))
C++: void SetCenter(double a[3])
V.GetCenter() -> (float, float, float)
C++: double *GetCenter()
V.SetMaximum(float)
C++: virtual void SetMaximum(double _arg)
Set/Get the Maximum value of the function. Initial value is
255.0.
V.GetMaximum() -> float
C++: virtual double GetMaximum()
Set/Get the Maximum value of the function. Initial value is
255.0.
V.SetStandardDeviation(float)
C++: virtual void SetStandardDeviation(double _arg)
Set/Get the standard deviation of the function. Initial value is
0.5.
V.GetStandardDeviation() -> float
C++: virtual double GetStandardDeviation()
Set/Get the standard deviation of the function. Initial value is
0.5.
V.SetXFreq(float)
C++: virtual void SetXFreq(double _arg)
Set/Get the natural frequency in x. Initial value is 60.
V.GetXFreq() -> float
C++: virtual double GetXFreq()
Set/Get the natural frequency in x. Initial value is 60.
V.SetYFreq(float)
C++: virtual void SetYFreq(double _arg)
Set/Get the natural frequency in y. Initial value is 30.
V.GetYFreq() -> float
C++: virtual double GetYFreq()
Set/Get the natural frequency in y. Initial value is 30.
V.SetZFreq(float)
C++: virtual void SetZFreq(double _arg)
Set/Get the natural frequency in z. Initial value is 40.
V.GetZFreq() -> float
C++: virtual double GetZFreq()
Set/Get the natural frequency in z. Initial value is 40.
V.SetXMag(float)
C++: virtual void SetXMag(double _arg)
Set/Get the magnitude in x. Initial value is 10.
V.GetXMag() -> float
C++: virtual double GetXMag()
Set/Get the magnitude in x. Initial value is 10.
V.SetYMag(float)
C++: virtual void SetYMag(double _arg)
Set/Get the magnitude in y. Initial value is 18.
V.GetYMag() -> float
C++: virtual double GetYMag()
Set/Get the magnitude in y. Initial value is 18.
V.SetZMag(float)
C++: virtual void SetZMag(double _arg)
Set/Get the magnitude in z. Initial value is 5.
V.GetZMag() -> float
C++: virtual double GetZMag()
Set/Get the magnitude in z. Initial value is 5.
V.SetSubsampleRate(int)
C++: virtual void SetSubsampleRate(int _arg)
Set/Get the sub-sample rate. Initial value is 1.
V.GetSubsampleRate() -> int
C++: virtual int GetSubsampleRate()
Set/Get the sub-sample rate. Initial value is 1.
vtkImageResize GetResizeMethodMinValue GetResizeMethodMaxValue GetOutputDimensions GetCroppingRegion GetResizeMethod GetCropping SetCropping CroppingOn CroppingOff SetResizeMethod SetOutputDimensions SetCroppingRegion GetResizeMethodAsString OUTPUT_DIMENSIONS OUTPUT_SPACING MAGNIFICATION_FACTORS SetResizeMethodToOutputSpacing SetResizeMethodToOutputDimensions SetResizeMethodToMagnificationFactors vtkImageResize - High-quality image resizing filter
Superclass: vtkThreadedImageAlgorithm
vtkImageResize will magnify or shrink an image with interpolation and
antialiasing. The resizing is done with a 5-lobe Lanczos-windowed
sinc filter that is bandlimited to the output sampling frequency in
order to avoid aliasing when the image size is reduced. This filter
utilizes a O(n) algorithm to provide good effiency even though the
filtering kernel is large. The sinc interpolator can be turned off
if nearest-neighbor interpolation is required, or it can be replaced
with a different vtkImageInterpolator object.@par Thanks: Thanks to
David Gobbi for contributing this class to VTK.
vtkImagingCorePython.vtkImageResize V.SafeDownCast(vtkObjectBase) -> vtkImageResize
C++: static vtkImageResize *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageResize
C++: vtkImageResize *NewInstance()
V.SetResizeMethod(int)
C++: virtual void SetResizeMethod(int _arg)
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.GetResizeMethodMinValue() -> int
C++: virtual int GetResizeMethodMinValue()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.GetResizeMethodMaxValue() -> int
C++: virtual int GetResizeMethodMaxValue()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.GetResizeMethod() -> int
C++: virtual int GetResizeMethod()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.SetResizeMethodToOutputDimensions()
C++: void SetResizeMethodToOutputDimensions()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.SetResizeMethodToOutputSpacing()
C++: void SetResizeMethodToOutputSpacing()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.SetResizeMethodToMagnificationFactors()
C++: void SetResizeMethodToMagnificationFactors()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.GetResizeMethodAsString() -> string
C++: virtual const char *GetResizeMethodAsString()
The resizing method to use. The default is to set the output
image dimensions, and allow the filter to resize the image to
these new dimensions. It is also possible to resize the image by
setting the output image spacing or by setting a magnification
factor.
V.SetOutputDimensions(int, int, int)
C++: void SetOutputDimensions(int, int, int)
V.SetOutputDimensions((int, int, int))
C++: void SetOutputDimensions(int a[3])
V.GetOutputDimensions() -> (int, int, int)
C++: int *GetOutputDimensions()
V.SetMagnificationFactors(float, float, float)
C++: void SetMagnificationFactors(double, double, double)
V.SetMagnificationFactors((float, float, float))
C++: void SetMagnificationFactors(double a[3])
V.SetBorder(int)
C++: virtual void SetBorder(int _arg)
If Border is Off (the default), then the centers of each of the
corner voxels will be considered to form the rectangular bounds
of the image. This is the way that VTK normally computes image
bounds. If Border is On, then the image bounds will be defined
by the outer corners of the voxels. This setting impacts how the
resizing is done. For example, if a MagnificationFactor of two
is applied to a 256x256 image, the output image will be 512x512
if Border is On, or 511x511 if Border is Off.
V.BorderOn()
C++: virtual void BorderOn()
If Border is Off (the default), then the centers of each of the
corner voxels will be considered to form the rectangular bounds
of the image. This is the way that VTK normally computes image
bounds. If Border is On, then the image bounds will be defined
by the outer corners of the voxels. This setting impacts how the
resizing is done. For example, if a MagnificationFactor of two
is applied to a 256x256 image, the output image will be 512x512
if Border is On, or 511x511 if Border is Off.
V.BorderOff()
C++: virtual void BorderOff()
If Border is Off (the default), then the centers of each of the
corner voxels will be considered to form the rectangular bounds
of the image. This is the way that VTK normally computes image
bounds. If Border is On, then the image bounds will be defined
by the outer corners of the voxels. This setting impacts how the
resizing is done. For example, if a MagnificationFactor of two
is applied to a 256x256 image, the output image will be 512x512
if Border is On, or 511x511 if Border is Off.
V.GetBorder() -> int
C++: virtual int GetBorder()
If Border is Off (the default), then the centers of each of the
corner voxels will be considered to form the rectangular bounds
of the image. This is the way that VTK normally computes image
bounds. If Border is On, then the image bounds will be defined
by the outer corners of the voxels. This setting impacts how the
resizing is done. For example, if a MagnificationFactor of two
is applied to a 256x256 image, the output image will be 512x512
if Border is On, or 511x511 if Border is Off.
V.SetCropping(int)
C++: virtual void SetCropping(int _arg)
Whether to crop the input image before resizing (Off by default).
If this is On, then the CroppingRegion must be set.
V.CroppingOn()
C++: virtual void CroppingOn()
Whether to crop the input image before resizing (Off by default).
If this is On, then the CroppingRegion must be set.
V.CroppingOff()
C++: virtual void CroppingOff()
Whether to crop the input image before resizing (Off by default).
If this is On, then the CroppingRegion must be set.
V.GetCropping() -> int
C++: virtual int GetCropping()
Whether to crop the input image before resizing (Off by default).
If this is On, then the CroppingRegion must be set.
V.SetCroppingRegion(float, float, float, float, float, float)
C++: void SetCroppingRegion(double, double, double, double,
double, double)
V.SetCroppingRegion((float, float, float, float, float, float))
C++: void SetCroppingRegion(double a[6])
V.GetCroppingRegion() -> (float, float, float, float, float,
float)
C++: double *GetCroppingRegion()
V.SetInterpolate(int)
C++: virtual void SetInterpolate(int _arg)
Turn interpolation on or off (by default, interpolation is on).
V.InterpolateOn()
C++: virtual void InterpolateOn()
Turn interpolation on or off (by default, interpolation is on).
V.InterpolateOff()
C++: virtual void InterpolateOff()
Turn interpolation on or off (by default, interpolation is on).
V.GetInterpolate() -> int
C++: virtual int GetInterpolate()
Turn interpolation on or off (by default, interpolation is on).
V.SetInterpolator(vtkAbstractImageInterpolator)
C++: virtual void SetInterpolator(
vtkAbstractImageInterpolator *sampler)
Set the interpolator for resampling the data.
V.GetInterpolator() -> vtkAbstractImageInterpolator
C++: virtual vtkAbstractImageInterpolator *GetInterpolator()
Set the interpolator for resampling the data.
V.GetMTime() -> int
C++: vtkMTimeType GetMTime() override;
Get the modified time of the filter.
vtkImageBSplineCoefficients GetOutputScalarTypeMinValue GetOutputScalarTypeMaxValue GetBorderModeMinValue GetSplineDegreeMaxValue GetSplineDegreeMinValue GetBorderModeMaxValue GetSplineDegree GetBorderMode CheckBounds GetOutputScalarTypeAsString GetBorderModeAsString SetBorderModeToClamp SetBorderModeToMirror SetBorderModeToRepeat SetBorderMode SetSplineDegree Evaluate vtkImageBSplineCoefficients - convert image to b-spline knots
Superclass: vtkThreadedImageAlgorithm
vtkImageBSplineCoefficients prepares an image for b-spline
interpolation by converting the image values into b-spline knot
coefficients. It is a necessary pre-filtering step before applying
b-spline interpolation with vtkImageReslice.
This class is based on code provided by Philippe Thevenaz of EPFL,
Lausanne, Switzerland. Please acknowledge his contribution by citing
the following paper: [1] P. Thevenaz, T. Blu, M. Unser, "Interpolation
Revisited,"
IEEE Transactions on Medical Imaging 19(7):739-758, 2000.
The clamped boundary condition (which is the default) is taken from
code presented in the following paper: [2] D. Ruijters, P. Thevenaz,
"GPU Prefilter for Accurate Cubic B-spline Interpolation,"
The Computer Journal, doi: 10.1093/comjnl/bxq086, 2010.
@par Thanks: This class was written by David Gobbi at the Seaman
Family MR Research Centre, Foothills Medical Centre, Calgary,
Alberta. DG Gobbi and YP Starreveld, "Uniform B-Splines for the VTK Imaging
Pipeline," VTK Journal, 2011, http://hdl.handle.net/10380/3252
vtkImagingCorePython.vtkImageBSplineCoefficients V.SafeDownCast(vtkObjectBase) -> vtkImageBSplineCoefficients
C++: static vtkImageBSplineCoefficients *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageBSplineCoefficients
C++: vtkImageBSplineCoefficients *NewInstance()
V.SetSplineDegree(int)
C++: virtual void SetSplineDegree(int _arg)
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9.
V.GetSplineDegreeMinValue() -> int
C++: virtual int GetSplineDegreeMinValue()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9.
V.GetSplineDegreeMaxValue() -> int
C++: virtual int GetSplineDegreeMaxValue()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9.
V.GetSplineDegree() -> int
C++: virtual int GetSplineDegree()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9.
V.SetBorderMode(int)
C++: virtual void SetBorderMode(int _arg)
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.GetBorderModeMinValue() -> int
C++: virtual int GetBorderModeMinValue()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.GetBorderModeMaxValue() -> int
C++: virtual int GetBorderModeMaxValue()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.SetBorderModeToClamp()
C++: void SetBorderModeToClamp()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.SetBorderModeToRepeat()
C++: void SetBorderModeToRepeat()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.SetBorderModeToMirror()
C++: void SetBorderModeToMirror()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.GetBorderMode() -> int
C++: virtual int GetBorderMode()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.GetBorderModeAsString() -> string
C++: const char *GetBorderModeAsString()
Set the border mode. The filter that is used to create the
coefficients must repeat the image somehow to make a
theoritically infinite input. The default is to clamp values
that are off the edge of the image, to the value at the closest
point on the edge. The other ways of virtually extending the
image are to produce mirrored copies, which results in optimal
smoothness at the boundary, or to repeat the image, which results
in a cyclic or periodic spline.
V.SetOutputScalarType(int)
C++: virtual void SetOutputScalarType(int _arg)
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.GetOutputScalarTypeMinValue() -> int
C++: virtual int GetOutputScalarTypeMinValue()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.GetOutputScalarTypeMaxValue() -> int
C++: virtual int GetOutputScalarTypeMaxValue()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.GetOutputScalarType() -> int
C++: virtual int GetOutputScalarType()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.SetOutputScalarTypeToFloat()
C++: void SetOutputScalarTypeToFloat()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.SetOutputScalarTypeToDouble()
C++: void SetOutputScalarTypeToDouble()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.GetOutputScalarTypeAsString() -> string
C++: const char *GetOutputScalarTypeAsString()
Set the scalar type of the output. Default is float.
Floating-point output is used to avoid overflow, since the range
of the output values is larger than the input values.
V.SetBypass(int)
C++: virtual void SetBypass(int _arg)
Bypass the filter, do not do any processing. If this is on, then
the output data will reference the input data directly, and the
output type will be the same as the input type. This is useful a
downstream filter sometimes uses b-spline interpolation and
sometimes uses other forms of interpolation.
V.BypassOn()
C++: virtual void BypassOn()
Bypass the filter, do not do any processing. If this is on, then
the output data will reference the input data directly, and the
output type will be the same as the input type. This is useful a
downstream filter sometimes uses b-spline interpolation and
sometimes uses other forms of interpolation.
V.BypassOff()
C++: virtual void BypassOff()
Bypass the filter, do not do any processing. If this is on, then
the output data will reference the input data directly, and the
output type will be the same as the input type. This is useful a
downstream filter sometimes uses b-spline interpolation and
sometimes uses other forms of interpolation.
V.GetBypass() -> int
C++: virtual int GetBypass()
Bypass the filter, do not do any processing. If this is on, then
the output data will reference the input data directly, and the
output type will be the same as the input type. This is useful a
downstream filter sometimes uses b-spline interpolation and
sometimes uses other forms of interpolation.
V.CheckBounds((float, float, float)) -> int
C++: int CheckBounds(const double point[3])
Check a point against the image bounds. Return 0 if out of
bounds, and 1 if inside bounds. Calling Evaluate on a point
outside the bounds will not generate an error, but the value
returned will depend on the BorderMode.
V.Evaluate((float, float, float), [float, ...])
C++: void Evaluate(const double point[3], double *value)
V.Evaluate(float, float, float) -> float
C++: double Evaluate(double x, double y, double z)
V.Evaluate((float, float, float)) -> float
C++: double Evaluate(const double point[3])
Interpolate a value from the image. You must call Update()
before calling this method for the first time. The first
signature can return multiple components, while the second
signature is for use on single-component images.
GetData vtkImageStencilRaster GetTolerance SetTolerance PrepareForNewData FillStencilData InsertLine AllocateExtents Fill GetExtentType GetDataObjectType GetOrigin GetSpacing GetExtent InternalImageStencilDataCopy IsInside RemoveExtent InsertNextExtent InsertAndMergeExtent GetNextExtent SetExtent SetSpacing SetOrigin Replace Subtract Add CopyInformationToPipeline CopyInformationFromPipeline ShallowCopy DeepCopy @P *i V *vtkInformation V|i *vtkInformationVector vtkImageStencilData - efficient description of an image stencil
Superclass: vtkDataObject
vtkImageStencilData describes an image stencil in a manner which is
efficient both in terms of speed and storage space. The stencil
extents are stored for each x-row across the image (multiple extents
per row if necessary) and can be retrieved via the GetNextExtent()
method.
@sa
vtkImageStencilSource vtkImageStencil
vtkImageStencilRaster - This is a helper class for stencil creation.
It is a raster with infinite resolution in the X direction
(approximately, since it uses double precision). Lines that
represent polygon edges can be drawn into this raster, and then
filled given a tolerance.
vtkImageStencilRaster(const int wholeExtent[2])
vtkImagingCorePython.vtkImageStencilRaster V.PrepareForNewData((int, int))
C++: void PrepareForNewData(const int allocateExtent[2]=nullptr)
Reset the raster to its original state, but keep the same whole
extent. Pre-allocate the specified 1D allocateExtent, which must
be within the whole extent.
V.InsertLine((float, float), (float, float))
C++: void InsertLine(const double p1[2], const double p2[2])
V.InsertLine((float, float), (float, float), bool, bool)
C++: void InsertLine(const double[2], const double[2], bool, bool)
Insert a line into the raster, given the two end points.
V.FillStencilData(vtkImageStencilData, (int, int, int, int, int,
int), int, int)
C++: void FillStencilData(vtkImageStencilData *data,
const int extent[6], int xj=0, int yj=1)
Fill the specified extent of a vtkImageStencilData with the
raster, after permuting the raster according to xj and yj.
V.SetTolerance(float)
C++: void SetTolerance(double tol)
The tolerance for float-to-int conversions.
V.GetTolerance() -> float
C++: double GetTolerance()
vtkImagingCorePython.vtkImageStencilData V.SafeDownCast(vtkObjectBase) -> vtkImageStencilData
C++: static vtkImageStencilData *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageStencilData
C++: vtkImageStencilData *NewInstance()
V.Initialize()
C++: void Initialize() override;
Restore data object to initial state,
V.DeepCopy(vtkDataObject)
C++: void DeepCopy(vtkDataObject *o) override;
Shallow and Deep copy. These copy the data, but not any of the
pipeline connections.
V.ShallowCopy(vtkDataObject)
C++: void ShallowCopy(vtkDataObject *f) override;
Shallow and Deep copy. These copy the data, but not any of the
pipeline connections.
V.InternalImageStencilDataCopy(vtkImageStencilData)
C++: void InternalImageStencilDataCopy(vtkImageStencilData *s)
V.GetDataObjectType() -> int
C++: int GetDataObjectType() override;
Get the data type as an integer (this will return VTK_DATA_OBJECT
for now, maybe a proper type constant will be reserved later).
V.GetExtentType() -> int
C++: int GetExtentType() override;
The extent type is 3D, just like vtkImageData.
V.GetNextExtent(int, int, int, int, int, int, int) -> int
C++: int GetNextExtent(int &r1, int &r2, int xMin, int xMax,
int yIdx, int zIdx, int &iter)
Given the total output x extent [xMin,xMax] and the current y, z
indices, return each sub-extent [r1,r2] that lies within within
the unclipped region in sequence. A value of '0' is returned if
no more sub-extents are available. The variable 'iter' must be
initialized to zero before the first call, unless you want the
complementary sub-extents in which case you must initialize
'iter' to -1. The variable 'iter' is used internally to keep
track of which sub-extent should be returned next.
V.IsInside(int, int, int) -> int
C++: int IsInside(int xIdx, int yIdx, int zIdx)
Checks if an image index is inside the stencil. Even though
GetNextExtent and the vtkImageStencilIterator are faster if every
voxel in the volume has to be checked, IsInside provides an
efficient alternative for if just a single voxel has to be
checked.
V.InsertNextExtent(int, int, int, int)
C++: void InsertNextExtent(int r1, int r2, int yIdx, int zIdx)
This method is used by vtkImageStencilDataSource to add an x sub
extent [r1,r2] for the x row (yIdx,zIdx). The specified sub
extent must not intersect any other sub extents along the same x
row. As well, r1 and r2 must both be within the total x extent
[Extent[0],Extent[1]].
V.InsertAndMergeExtent(int, int, int, int)
C++: void InsertAndMergeExtent(int r1, int r2, int yIdx, int zIdx)
Similar to InsertNextExtent, except that the extent (r1,r2) at
yIdx, zIdx is merged with other extents, (if any) on that row. So
a unique extent may not necessarily be added. For instance, if an
extent [5,11] already exists adding an extent, [7,9] will not
affect the stencil. Likewise adding [10, 13] will replace the
existing extent with [5,13].
V.RemoveExtent(int, int, int, int)
C++: void RemoveExtent(int r1, int r2, int yIdx, int zIdx)
Remove the extent from (r1,r2) at yIdx, zIdx
V.SetSpacing(float, float, float)
C++: void SetSpacing(double, double, double)
V.SetSpacing((float, float, float))
C++: void SetSpacing(double a[3])
V.GetSpacing() -> (float, float, float)
C++: double *GetSpacing()
V.SetOrigin(float, float, float)
C++: void SetOrigin(double, double, double)
V.SetOrigin((float, float, float))
C++: void SetOrigin(double a[3])
V.GetOrigin() -> (float, float, float)
C++: double *GetOrigin()
V.SetExtent([int, int, int, int, int, int])
C++: void SetExtent(int extent[6])
V.SetExtent(int, int, int, int, int, int)
C++: void SetExtent(int x1, int x2, int y1, int y2, int z1,
int z2)
Set the extent of the data. This is should be called only by
vtkImageStencilSource, as it is part of the basic pipeline
functionality.
V.GetExtent() -> (int, int, int, int, int, int)
C++: int *GetExtent()
V.AllocateExtents()
C++: void AllocateExtents()
Allocate space for the sub-extents. This is called by
vtkImageStencilSource.
V.Fill()
C++: void Fill()
Fill the sub-extents.
V.CopyInformationFromPipeline(vtkInformation)
C++: void CopyInformationFromPipeline(vtkInformation *info)
override;
Override these to handle origin, spacing, scalar type, and scalar
number of components. See vtkDataObject for details.
V.CopyInformationToPipeline(vtkInformation)
C++: void CopyInformationToPipeline(vtkInformation *info)
override;
Override these to handle origin, spacing, scalar type, and scalar
number of components. See vtkDataObject for details.
V.GetData(vtkInformation) -> vtkImageStencilData
C++: static vtkImageStencilData *GetData(vtkInformation *info)
V.GetData(vtkInformationVector, int) -> vtkImageStencilData
C++: static vtkImageStencilData *GetData(vtkInformationVector *v,
int i=0)
Retrieve an instance of this class from an information object.
V.Add(vtkImageStencilData)
C++: virtual void Add(vtkImageStencilData *)
Add merges the stencil supplied as argument into Self.
V.Subtract(vtkImageStencilData)
C++: virtual void Subtract(vtkImageStencilData *)
Subtract removes the portion of the stencil, supplied as
argument, that lies within Self from Self.
V.Replace(vtkImageStencilData)
C++: virtual void Replace(vtkImageStencilData *)
Replaces the portion of the stencil, supplied as argument, that
lies within Self from Self.
V.Clip([int, int, int, int, int, int]) -> int
C++: virtual int Clip(int extent[6])
Clip the stencil with the supplied extents. In other words,
discard data outside the specified extents. Return 1 if something
changed.
vtkImageStencilAlgorithm GetOutput SetOutput vtkImageStencilAlgorithm - producer of vtkImageStencilData
Superclass: vtkAlgorithm
vtkImageStencilAlgorithm is a superclass for filters that generate
the special vtkImageStencilData type. This data type is a special
representation of a binary image that can be used as a mask by
several imaging filters.
@sa
vtkImageStencilData vtkImageStencilSource
vtkImagingCorePython.vtkImageStencilAlgorithm V.SafeDownCast(vtkObjectBase) -> vtkImageStencilAlgorithm
C++: static vtkImageStencilAlgorithm *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageStencilAlgorithm
C++: vtkImageStencilAlgorithm *NewInstance()
V.SetOutput(vtkImageStencilData)
C++: void SetOutput(vtkImageStencilData *output)
Get or set the output for this source.
V.GetOutput() -> vtkImageStencilData
C++: vtkImageStencilData *GetOutput()
Get or set the output for this source.
GetComponentOffset GetComponentCount GetSlidingWindow Update SlidingWindowOn SlidingWindowOff IsSeparable SetComponentOffset SetComponentCount SetSlidingWindow ComputeNumberOfComponents CheckBoundsIJK ComputeSupportSize InterpolateIJK ReleaseData VTK_IMAGE_BORDER_CLAMP VTK_IMAGE_BORDER_REPEAT VTK_IMAGE_BORDER_MIRROR vtkAbstractImageInterpolator - interpolate data values from images
Superclass: vtkObject
vtkAbstractImageInterpolator provides an abstract interface for
interpolating image data. You specify the data set you want to
interpolate values from, then call Interpolate(x,y,z) to interpolate
the data.@par Thanks: Thanks to David Gobbi at the Seaman Family MR
Centre and Dept. of Clinical Neurosciences, Foothills Medical Centre,
Calgary, for providing this class.
@sa
vtkImageReslice vtkImageInterpolator vtkImageSincInterpolator
vtkImagingCorePython.vtkAbstractImageInterpolator V.SafeDownCast(vtkObjectBase) -> vtkAbstractImageInterpolator
C++: static vtkAbstractImageInterpolator *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkAbstractImageInterpolator
C++: vtkAbstractImageInterpolator *NewInstance()
V.Initialize(vtkDataObject)
C++: virtual void Initialize(vtkDataObject *data)
Initialize the interpolator with the data that you wish to
interpolate.
V.ReleaseData()
C++: virtual void ReleaseData()
Release any data stored by the interpolator.
V.DeepCopy(vtkAbstractImageInterpolator)
C++: void DeepCopy(vtkAbstractImageInterpolator *obj)
Copy the interpolator. It is possible to duplicate an
interpolator by calling NewInstance() followed by DeepCopy().
V.Update()
C++: void Update()
Update the interpolator. If the interpolator has been modified
by a Set method since Initialize() was called, you must call this
method to update the interpolator before you can use it.
V.Interpolate(float, float, float, int) -> float
C++: double Interpolate(double x, double y, double z,
int component)
V.Interpolate((float, float, float), [float, ...]) -> bool
C++: bool Interpolate(const double point[3], double *value)
Get the result of interpolating the specified component of the
input data, which should be set to zero if there is only one
component. If the point is not within the bounds of the data set,
then OutValue will be returned. This method is primarily meant
for use by the wrapper languages.
V.SetOutValue(float)
C++: void SetOutValue(double outValue)
The value to return when the point is out of bounds.
V.GetOutValue() -> float
C++: double GetOutValue()
V.SetTolerance(float)
C++: void SetTolerance(double tol)
The tolerance to apply when checking whether a point is out of
bounds. This is a fractional distance relative to the voxel size,
so a tolerance of 1 expands the bounds by one voxel.
V.SetComponentOffset(int)
C++: void SetComponentOffset(int offset)
This method specifies which component of the input will be
interpolated, or if ComponentCount is also set, it specifies the
first component. When the interpolation is performed, it will be
clamped to the number of available components.
V.GetComponentOffset() -> int
C++: int GetComponentOffset()
V.SetComponentCount(int)
C++: void SetComponentCount(int count)
This method specifies the number of components to extract. The
default value is -1, which extracts all available components.
When the interpolation is performed, this will be clamped to the
number of available components.
V.GetComponentCount() -> int
C++: int GetComponentCount()
V.ComputeNumberOfComponents(int) -> int
C++: int ComputeNumberOfComponents(int inputComponents)
Compute the number of output components based on the
ComponentOffset, ComponentCount, and the number of components in
the input data.
V.GetNumberOfComponents() -> int
C++: int GetNumberOfComponents()
Get the number of components that will be returned when
Interpolate() is called. This is only valid after
initialization. Before then, use ComputeNumberOfComponents
instead.
V.InterpolateIJK((float, float, float), [float, ...])
C++: void InterpolateIJK(const double point[3], double *value)
A version of Interpolate that takes structured coords instead of
data coords. Structured coords are the data coords after
subtracting the Origin and dividing by the Spacing.
V.CheckBoundsIJK((float, float, float)) -> bool
C++: bool CheckBoundsIJK(const double x[3])
Check an x,y,z point to see if it is within the bounds for the
structured coords of the image. This is meant to be called prior
to InterpolateIJK. The bounds that are checked against are the
input image extent plus the tolerance.
V.SetBorderMode(int)
C++: void SetBorderMode(int mode)
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.SetBorderModeToClamp()
C++: void SetBorderModeToClamp()
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.SetBorderModeToRepeat()
C++: void SetBorderModeToRepeat()
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.SetBorderModeToMirror()
C++: void SetBorderModeToMirror()
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.GetBorderMode() -> int
C++: int GetBorderMode()
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.GetBorderModeAsString() -> string
C++: const char *GetBorderModeAsString()
The border mode (default: clamp). This controls how
out-of-bounds lookups are handled, i.e. how data will be
extrapolated beyond the bounds of the image. The default is to
clamp the lookup point to the bounds. The other modes wrap
around to the opposite boundary, or mirror the image at the
boundary.
V.SetSlidingWindow(bool)
C++: void SetSlidingWindow(bool x)
Enable sliding window for separable kernels. When this is
enabled, the interpolator will cache partial sums in in order to
accelerate the computation. It only makes sense to do this if
the interpolator is used by calling InterpolateRow() while
incrementing first the Y, and then the Z index with every call.
V.SlidingWindowOn()
C++: void SlidingWindowOn()
V.SlidingWindowOff()
C++: void SlidingWindowOff()
V.GetSlidingWindow() -> bool
C++: bool GetSlidingWindow()
V.ComputeSupportSize((float, float, float, float, float, float,
float, float, float, float, float, float, float, float, float,
float), [int, int, int])
C++: virtual void ComputeSupportSize(const double matrix[16],
int support[3])
Get the support size for use in computing update extents. If the
data will be sampled on a regular grid, then pass a matrix
describing the structured coordinate transformation between the
output and the input. Otherwise, pass nullptr as the matrix to
retrieve the full kernel size.
V.IsSeparable() -> bool
C++: virtual bool IsSeparable()
True if the interpolation is separable, which means that the
weights can be precomputed in order to accelerate the
interpolation. Any interpolator which is separable will
implement the methods PrecomputeWeightsForExtent and
InterpolateRow
V.GetWholeExtent() -> (int, ...)
C++: int *GetWholeExtent()
V.GetWholeExtent([int, int, int, int, int, int])
C++: void GetWholeExtent(int extent[6])
Get the whole extent of the data being interpolated, including
parts of the data that are not currently in memory.
vtkImageBSplineInterpolator VTK_IMAGE_BSPLINE_DEGREE_MAX vtkImageBSplineInterpolator - perform b-spline interpolation on images
Superclass: vtkAbstractImageInterpolator
vtkImageBSplineInterpolator can be used to perform b-spline
interpolation on images that have been filtered with
vtkImageBSplineCoefficients. The b-spline interpolants provide the
maximum possible degree of continuity for a given kernel size, but
require that the image data be pre-filtered to generate b-spline
coefficients before the interpolation is performed. Interpolating
data that has not been pre-filtered will give incorrect results.
@sa
vtkImageReslice vtkImageBSplineCoefficients vtkBSplineTransform@par
Thanks: This class was written by David Gobbi at the Seaman Family MR
Research Centre, Foothills Medical Centre, Calgary, Alberta. DG Gobbi
and YP Starreveld, "Uniform B-Splines for the VTK Imaging Pipeline,"
VTK Journal, 2011, http://hdl.handle.net/10380/3252
vtkImagingCorePython.vtkImageBSplineInterpolator V.SafeDownCast(vtkObjectBase) -> vtkImageBSplineInterpolator
C++: static vtkImageBSplineInterpolator *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageBSplineInterpolator
C++: vtkImageBSplineInterpolator *NewInstance()
V.SetSplineDegree(int)
C++: void SetSplineDegree(int degree)
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9. The data must be pre-filtered for the same
degree of polynomial with vtkImageBSplineCoefficients.
V.GetSplineDegree() -> int
C++: int GetSplineDegree()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9. The data must be pre-filtered for the same
degree of polynomial with vtkImageBSplineCoefficients.
V.GetSplineDegreeMinValue() -> int
C++: int GetSplineDegreeMinValue()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9. The data must be pre-filtered for the same
degree of polynomial with vtkImageBSplineCoefficients.
V.GetSplineDegreeMaxValue() -> int
C++: int GetSplineDegreeMaxValue()
Set the degree of the spline polynomial. The default value is 3,
and the maximum is 9. The data must be pre-filtered for the same
degree of polynomial with vtkImageBSplineCoefficients.
V.ComputeSupportSize((float, float, float, float, float, float,
float, float, float, float, float, float, float, float, float,
float), [int, int, int])
C++: void ComputeSupportSize(const double matrix[16],
int support[3]) override;
Get the support size for use in computing update extents. If the
data will be sampled on a regular grid, then pass a matrix
describing the structured coordinate transformation between the
output and the input. Otherwise, pass nullptr as the matrix to
retrieve the full kernel size.
V.IsSeparable() -> bool
C++: bool IsSeparable() override;
Returns true if the interpolator supports weight precomputation.
This will always return true for this interpolator.
vtkImageSincInterpolator GetWindowParameter GetUseWindowParameter GetAntialiasing GetWindowFunction GetRenormalization GetWindowHalfWidth AntialiasingOff RenormalizationOff UseWindowParameterOn UseWindowParameterOff RenormalizationOn AntialiasingOn SetWindowFunctionToNuttall SetWindowFunctionToLanczos SetWindowFunctionToKaiser SetWindowFunctionToCosine SetWindowFunctionToHann SetWindowFunctionToHamming SetWindowFunctionToBlackman SetUseWindowParameter SetWindowHalfWidth SetWindowParameter SetRenormalization SetAntialiasing GetBlurFactors SetBlurFactors GetWindowFunctionAsString SetWindowFunction VTK_LANCZOS_WINDOW VTK_KAISER_WINDOW VTK_COSINE_WINDOW VTK_HANN_WINDOW VTK_HAMMING_WINDOW VTK_BLACKMAN_WINDOW VTK_BLACKMAN_HARRIS3 VTK_BLACKMAN_HARRIS4 VTK_NUTTALL_WINDOW VTK_BLACKMAN_NUTTALL3 VTK_BLACKMAN_NUTTALL4 VTK_SINC_KERNEL_SIZE_MAX SetWindowFunctionToBlackmanHarris4 SetWindowFunctionToBlackmanNuttall3 SetWindowFunctionToBlackmanNuttall4 SetWindowFunctionToBlackmanHarris3 vtkImageSincInterpolator - perform sinc interpolation on images
Superclass: vtkAbstractImageInterpolator
vtkImageSincInterpolator provides various windowed sinc interpolation
methods for image data. The default is a five-lobed Lanczos
interpolant, with a kernel size of 6. The interpolator can also
bandlimit the image, which can be used for antialiasing. The
interpolation kernels are evaluated via a lookup table for
efficiency.@par Thanks: Thanks to David Gobbi at the Seaman Family MR
Centre and Dept. of Clinical Neurosciences, Foothills Medical Centre,
Calgary, for providing this class.
@sa
vtkImageReslice
vtkImagingCorePython.vtkImageSincInterpolator V.SafeDownCast(vtkObjectBase) -> vtkImageSincInterpolator
C++: static vtkImageSincInterpolator *SafeDownCast(
vtkObjectBase *o)
V.NewInstance() -> vtkImageSincInterpolator
C++: vtkImageSincInterpolator *NewInstance()
V.SetWindowFunction(int)
C++: virtual void SetWindowFunction(int mode)
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToLanczos()
C++: void SetWindowFunctionToLanczos()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToKaiser()
C++: void SetWindowFunctionToKaiser()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToCosine()
C++: void SetWindowFunctionToCosine()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToHann()
C++: void SetWindowFunctionToHann()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToHamming()
C++: void SetWindowFunctionToHamming()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToBlackman()
C++: void SetWindowFunctionToBlackman()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToBlackmanHarris3()
C++: void SetWindowFunctionToBlackmanHarris3()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToBlackmanHarris4()
C++: void SetWindowFunctionToBlackmanHarris4()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToNuttall()
C++: void SetWindowFunctionToNuttall()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToBlackmanNuttall3()
C++: void SetWindowFunctionToBlackmanNuttall3()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowFunctionToBlackmanNuttall4()
C++: void SetWindowFunctionToBlackmanNuttall4()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.GetWindowFunction() -> int
C++: int GetWindowFunction()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.GetWindowFunctionAsString() -> string
C++: virtual const char *GetWindowFunctionAsString()
The window function to use. The default is Lanczos, which is
very popular and performs well with a kernel width of 6. The
Cosine window is included for historical reasons. All other
windows are described in AH Nuttall, "Some windows with very good
sidelobe behavior," IEEE Transactions on Acoustics, Speech, and
Signal Processing 29:84-91, 1981.
V.SetWindowHalfWidth(int)
C++: void SetWindowHalfWidth(int n)
Set the window half-width, this must be an integer between 1 and
16, with a default value of 3. The kernel size will be twice
this value if no blur factors are applied. The total number of
sinc lobes will be one less than twice the half-width, so if the
half-width is 3 then the kernel size will be 6 and there will be
5 sinc lobes.
V.GetWindowHalfWidth() -> int
C++: int GetWindowHalfWidth()
V.SetUseWindowParameter(int)
C++: void SetUseWindowParameter(int val)
Turn this on in order to use SetWindowParameter. If it is off,
then the default parameter will be used for the window.
V.UseWindowParameterOn()
C++: void UseWindowParameterOn()
V.UseWindowParameterOff()
C++: void UseWindowParameterOff()
V.GetUseWindowParameter() -> int
C++: int GetUseWindowParameter()
V.SetWindowParameter(float)
C++: void SetWindowParameter(double parm)
Set the alpha parameter for the Kaiser window function. This
parameter will be ignored unless UseWindowParameter is On. If
UseWindowParameter is Off, then alpha is set to be the same as n
where n is the window half-width. Using an alpha less than n
increases the sharpness and ringing, while using an alpha greater
than n increases the blurring.
V.GetWindowParameter() -> float
C++: double GetWindowParameter()
V.SetBlurFactors(float, float, float)
C++: void SetBlurFactors(double x, double y, double z)
V.SetBlurFactors((float, float, float))
C++: void SetBlurFactors(const double f[3])
Blur the image by widening the windowed sinc kernel by the
specified factors for the x, y, and z directions. This reduces
the bandwidth by these same factors. If you turn Antialiasing
on, then the blur factors will be computed automatically from the
output sampling rate. Blurring increases the computation time
because the kernel size increases by the blur factor.
V.GetBlurFactors([float, float, float])
C++: void GetBlurFactors(double f[3])
V.GetBlurFactors() -> (float, float, float)
C++: double *GetBlurFactors()
Blur the image by widening the windowed sinc kernel by the
specified factors for the x, y, and z directions. This reduces
the bandwidth by these same factors. If you turn Antialiasing
on, then the blur factors will be computed automatically from the
output sampling rate. Blurring increases the computation time
because the kernel size increases by the blur factor.
V.SetAntialiasing(int)
C++: void SetAntialiasing(int antialiasing)
Turn on antialiasing. If antialiasing is on, then the
BlurFactors will be computed automatically from the output
sampling rate such that that the image will be bandlimited to the
Nyquist frequency. This is only applicable when the interpolator
is being used by a resampling filter like vtkImageReslice. Such
a filter will indicate the output sampling by calling the
interpolator's ComputeSupportSize() method, which will compute
the blur factors at the same time that it computes the support
size.
V.AntialiasingOn()
C++: void AntialiasingOn()
V.AntialiasingOff()
C++: void AntialiasingOff()
V.GetAntialiasing() -> int
C++: int GetAntialiasing()
V.SetRenormalization(int)
C++: void SetRenormalization(int renormalization)
Turn off renormalization. Most of the sinc windows provide
kernels for which the weights do not sum to one, and for which
the sum depends on the offset. This results in small ripple
artifacts in the output. By default, the vtkImageSincInterpolator
will renormalize these kernels. This method allows the
renormalization to be turned off.
V.RenormalizationOn()
C++: void RenormalizationOn()
V.RenormalizationOff()
C++: void RenormalizationOff()
V.GetRenormalization() -> int
C++: int GetRenormalization()
vtkImageInterpolator SetInterpolationModeToNearest vtkImageInterpolator - interpolate data values from images
Superclass: vtkAbstractImageInterpolator
vtkImageInterpolator provides a simple interface for interpolating
image data. It provides linear, cubic, and nearest-neighbor
interpolation.@par Thanks: Thanks to David Gobbi at the Seaman Family
MR Centre and Dept. of Clinical Neurosciences, Foothills Medical
Centre, Calgary, for providing this class.
@sa
vtkImageReslice
vtkImagingCorePython.vtkImageInterpolator V.SafeDownCast(vtkObjectBase) -> vtkImageInterpolator
C++: static vtkImageInterpolator *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageInterpolator
C++: vtkImageInterpolator *NewInstance()
V.SetInterpolationMode(int)
C++: virtual void SetInterpolationMode(int mode)
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
V.SetInterpolationModeToNearest()
C++: void SetInterpolationModeToNearest()
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
V.SetInterpolationModeToLinear()
C++: void SetInterpolationModeToLinear()
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
V.SetInterpolationModeToCubic()
C++: void SetInterpolationModeToCubic()
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
V.GetInterpolationMode() -> int
C++: int GetInterpolationMode()
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
V.GetInterpolationModeAsString() -> string
C++: virtual const char *GetInterpolationModeAsString()
The interpolation mode for point scalars (default: linear).
Subclasses will provide additional interpolation modes, so this
is a virtual method.
vtkImageStencilSource vtkImageStencilSource - generate an image stencil
Superclass: vtkImageStencilAlgorithm
vtkImageStencilSource is a superclass for filters that generate image
stencils. Given a clipping object such as a vtkImplicitFunction, it
will set up a list of clipping extents for each x-row through the
image data. The extents for each x-row can be retrieved via the
GetNextExtent() method after the extent lists have been built with
the BuildExtents() method. For large images, using clipping extents
is much more memory efficient (and slightly more time-efficient) than
building a mask. This class can be subclassed to allow clipping with
objects other than vtkImplicitFunction.
@sa
vtkImplicitFunction vtkImageStencil vtkPolyDataToImageStencil
vtkImagingCorePython.vtkImageStencilSource V.SafeDownCast(vtkObjectBase) -> vtkImageStencilSource
C++: static vtkImageStencilSource *SafeDownCast(vtkObjectBase *o)
V.NewInstance() -> vtkImageStencilSource
C++: vtkImageStencilSource *NewInstance()
V.SetInformationInput(vtkImageData)
C++: virtual void SetInformationInput(vtkImageData *)
Set a vtkImageData that has the Spacing, Origin, and WholeExtent
that will be used for the stencil. This input should be set to
the image that you wish to apply the stencil to. If you use this
method, then any values set with the SetOutputSpacing,
SetOutputOrigin, and SetOutputWholeExtent methods will be
ignored.
V.GetInformationInput() -> vtkImageData
C++: virtual vtkImageData *GetInformationInput()
Set a vtkImageData that has the Spacing, Origin, and WholeExtent
that will be used for the stencil. This input should be set to
the image that you wish to apply the stencil to. If you use this
method, then any values set with the SetOutputSpacing,
SetOutputOrigin, and SetOutputWholeExtent methods will be
ignored.
V.SetOutputWholeExtent(int, int, int, int, int, int)
C++: void SetOutputWholeExtent(int, int, int, int, int, int)
V.SetOutputWholeExtent((int, int, int, int, int, int))
C++: void SetOutputWholeExtent(int a[6])
V.GetOutputWholeExtent() -> (int, int, int, int, int, int)
C++: int *GetOutputWholeExtent()
can't get dictionary for module vtkImagingCorePython real_initvtkImagingCorePython ;@) ' L \) |5) 5) K(F KhG K L
LlL .L\_ OLLf _Lf L|g Lg L NA 4> \`> |> > > 8 <8 L8 9 9 09 D9 M @0N ATN DN DN ,EL | ?| LA| lB} C } D<} EX} Ft} H} ,I} LJ} lK} L ~ M ~ N8~ OT~ Qp~ ,R~ LS~ T~ ,V~ \W X8 X>A > >! > () > ) EDPa
AE 8 l>b EY
B } X >D l >? $?k ( p) EAD`n
AAF T? A J 8* ED@
AG + ED@
AG $ + ED@
AG H , H@
E d - H@
E .D EDP
AG /g FD@
EE 0 1 FAA D`
AABH ( h2 FCDp
ABD L ( 5 FCD
ABD DGAvDEB x <:M FF 0 p:O FDD n
ABA DDB L = dI = EDPa
AE ( " EAD`n
AAF t `? ED@
AG 0 @ FAA D`
AABH xAg FD@
EE B EDP
AF ( `D FCD`
ABD @ DFM FF 0 \ xFO FDD n
ABA DDB , F/ FAD`
ABC b1 c c
c $ c) 8 ,c
L G ` c t G EDPa
AE bu EY
B P( H" EAD`n
AAF I ED@
AG I ED@
AG , J ED@
AG P TK ED@
AG t L ED@
AG L ED@
AG M EDP
AK N EDP
AK `O EDP
AK ( ( ,P FAD`
ABG ( T QZ FADP
ABG DR H@
I (S H@
I TT EDP
AG HUl EDP
AG Vg FD@
EE 0 $ W FAA D`
AABH X LY EDP
AF ( | Z FCD`
ABD \M FF 4 ] FDD z
ABE \
DBN X (
]/ FAD`
ABC <
_ P
g d
_ EDPa
AE
fb EY
B }
L` ED@
AG
` EDP
AK (
a EAD`n
AAF 0 b FAA D`
AABH P cg FD@
EE t @eM FF 0 teO FDD n
ABA DDB h|! | |! | , e @ | T e EDPa
AE x \|u EY
B P |? |D ( f" EAD`n
AAF 0 g FAA D`
AABH
th ED@
AG D
0i ED@
AG h
iD EDP
AG
k H@
E
l H@
E
mg FD@
EE
ln H@
I Po H@
I 4p H@
I < q H@
I X q H@
I t r H@
I s H@
I t H@
I u H@
I pv H@
I TwD EDP
AG $ xM FF 0 @ xO FDD n
ABA DDB t A T PP P ħ ! ܧ , اA @ T P h L | HP P y y EDPa
AE |b EY
B } 8 ̨? L D ` 4k t k r Xr Īr 0r r ( x EAD`n
AAF y ED@
AG < z ED@
AG ` d{ ED@
AG 0| ED@
AG | ED@
AG } ED@
AG ~ ED@
AG ` ED@
AG 8 D EDP
AG \ H H@
E x L H@
E Pg FD@
EE 0 FAA D`
AABH ( FCD
ABD ( FCD
ABD ( D @ FCD
ABD ( p FCD
ABD ( FCDp
ABD ( FCD
ABD ( FCDp
ABD M FF 0 < (O FDD n
ABA DDB p D 0 ED@
AG EDP
AK ظ! ܸ EDPa
AE @ b EY
B } ` ? t 0D ( \ EAD`n
AAF @ H@
I ED@
AG g FD@
EE H@
E 4 H@
E P D EDP
AG 0 t 0 FAA D`
AABH < V FBA A(D
(A ABBH D j FDA D
ABBG H\A 0 ԵM FF 0 L O FDD n
ABA DDB T п)
8 Կ EDPa
AE EY
B c ( ED@
AG L T EDP
AG ( p 5 EAD`n
AAF 0 FAA D`
AABH g FD@
EE нM FF 0 O FDD n
ABA DDB D
\ ! p EDPa
AE b EY
B } 0D EDP
AG ( ( \ EAD`n
AAF T @ ED@
AG x ED@
AG 0 FAA D`
AABH g FD@
EE `M FF 0 O FDD n
ABA DDB D X EDP
AK | zPLR x 4 $ $ w EC
P
D .m. \ | Y T EDPa
AE D ` EY
B c d ED@
AG EDP
AK ( x5 EAD`n
AAF L L M q FBB B(A0A8G
8D0A(B BBBD [! ; 0 L h FAA D`
AABH g FD@
EE @H FA 0 tO FDD n
ABA DDB @ ! 4 ! H \ ! p EDPa
AE u EY
B P 4D pD ? , ? ( @ " EAD`n
AAF l ED@
AG ED@
AG P ED@
AG ED@
AG EDP
AK ! EDP
AK D! D EDP
AG h! D EDP
AG ! D EDP
AG ! H@
E ! H@
E ! H@
E " H@
E " $g FD@
EE 0 D" p FAA D`
AABH D f FGB A(A0Dd
0A(A BBBG 4 ! ˃ D X f FGB A(A0Dd
0A(A BBBG ! P# M FF 0 l# O FDD n
ABA DDB # # 0 # , # h # $ P EDPa
AE ($ u EY
B P( H$ " EAD`n
AAF t$ ED@
AG $ ED@
AG 0 $ x FAA D`
AABH $ g FD@
EE ( % 0 FCD`|
ABD @% M FF 0 \% 8O FDD n
ABA DDB % %
! %
%
! % 4
% 0
! & L
& x 0& 4
D& ` EDPa
AE h&
EY
B c & |
? &
D &
? & D ( & 5 EAD`n
AAF 0 ' FAA D`
AABH 8' L ED@
AG \' ED@
AG ' ED@
AG ' ED@
AG ' ' EDP
AG ( 5 ?N FADp
ABC 05 4@D EDP
AG T5 `A H@
E p5 dB H@
E 5 hC EDP
AG 5 Eg FD@
EE D H PF p FBB A(A0D
0D(A BBBA ! p 0 @6 H FAA D`
AABH 8 t6 J FFD|
ABA
KBK 6 tLM FF 0 6 LO FDD n
ABA DDB 7 7 N (7 T <7 N EDPa
AE `7 T EY
B c( 7 DO5 EAD`n
AAF 0 7 XP FAA D`
AABH 7 Qg FD@
EE 8 0SM FF 0 8 dSO FDD n
ABA DDB T8 l8 a! 8 a 8 S 8 a 8 S EDPa
AE 8 dau EY
B P( 9 dT" EAD`n
AAF ,9 hU ED@
AG P9 $VD EDP
AG 0 t9 PW FAA D`
AABH 9 Xg FD@
EE < 9 ZV FBA A(D
(A ABBH D : (\ FDA Dr
ABBJ H\A T: _M FF 0 p: 4_O FDD n
ABA DDB : : (i : _ : i : _ EDPa
AE ; h EY
B c <; x` ED@
AG ( `; Da5 EAD`n
AAF 0 ; Xb FAA D`
AABH ( ; c+ FCDp
ABD ; eg FD@
EE < 4gM FF 0 ,< hgO FDD n
ABA DDB `< t< h NA( < he FAK`x
DBH L 0 i !j FBB B(H0A8D
8A0A(B BBBF i 0= dkA lT H k i FBB A(A0F
0D(A BBBF ! ! ui = n EU = n P \! n )i FDD p
FBJ T
CBG D
MBM Y
KBJ ! h H ! n h FBB A(A0F
0D(A BBBF " ! h > p ED@
AG > q ED@
AG ? 4r ED@
AG 4? r H@
I ( P? s EADP
AAE H |? (tE FBB B(A0A8D
8A0A(B BBBD 0 ? ,v> FAA D`~
AABB ? 8xA Fz 0 @ lxO FDD n
ABA DDB L@ H d@ px NG( @ Dy FAK`x
DBH L $ z f FBB B(H0A8D
8A0A(B BBBF p$ m ]f A T| EU H@
I f p? H@
I 0f D@ H@
I Lf A H@
I hf A H@
I f B ED@
AG f |C EDP
AK f HD EDP
AK f E EDP
AK g E EDP
AK 8g F EDP
AK \g xGg FD@
EE 0 g H FAA D`
AABH ( g 0J FCDp
ABD ( g M FCDp
ABD h PM FF 0 (h ,QO FDD n
ABA DDB \h th 0y! h Ly h Hy
h Dy! h `y h \y
h Xy
i Ty
i Py! (i ly ^ FAA D`
AABH ( ?8 EAD`
AAH H L @ FBB B(A0A8G
8A0A(B BBBG \Bg FD@
EE L 0y C ' FBB B(A0A8G
8D0A(B BBBJ y ! 0 0 Ef FBA Dp
ABBF L y 0H[ FDB B(A0A8G
8A0A(B BBBE (z 7! y ؖ LH FA 8 PL FBD A(D0a
(A ABBH 0 T D L H@
I ` tM EDP
AK N > > 0> @> P> `> p> > > > > > > > > ? ? ? 0? @? P? `? p? ? ? ? ? ? ? ? ? @ @ @ 0@ @@ P@ `@ p@ @ @ @ @ @ @ @ @ A A A 0A @A PA `A pA A A A A A A A A B B B 0B @B PB `B pB B B B B B B B B C C C 0C @C PC `C pC C C C C C C C C D D D 0D @D PD `D pD D D D D D D D D E E E 0E @E PE `E pE E E E E E E E E F F F 0F @F @
H D ) e m @d l x s 2 0f ` o @ 9 g Љ 0k G h m j Ȏ Z h P H D ) | ~ { ` @ h Ȗ Ё r } @ H D ) x h Ȗ r @ p ٚ ` J X @ ( U j Ћ @ , 8 C p ` H D ) Ч 0 ` X 9 Х , @ H D ) в @ ͯ p . p b p I p x p ~ p x ` p p x p 8 p x p p x ȼ
h H D ) p j V A h > 0 ` - p ` p ` @ 8 S 0 h 0 H x X H D ) 8 P I p ` x P l 0 0 H D ) p
` p 0 h H D ) p p P p H C / x H D ) @% ) P " + P$ p# @ & s H D ) @/ ? `. `> 4 3 ` p0 D @ pA B 8 3 4 @7 2 ` \ ; u @= ' 5 X @1 ` i < ` O 9 X H D ) PL PO pK P ` `R i M w pN H D ) W X V g ( ^ p `\ (
p_ Z t pe 8 4 b f @] 0 ` h [ p ^ Pd p G 0c h H D ) n p @l q 0 v n ` m ( ! H D ) `u `x t " z " 6 " v # ' } # w $
p{ 8% | % ) H D ) P Ж p ) ` p* ' 0 * & @+ 7' + ' P 0, & P , & - ' x- & - G' Б p. & / "' 0 / Z' h0 n' @ 81 & p 2 ' @ 2 ' p h3 & 84 7 H D ) 8 д 8 I5 8 4 p: 4 0 : ~5 ; 4 ; 4 < 4 =
5 Щ > 5 Ъ @? ^5 ? 4 @ t5 A i5 а B ;5 D -5 Ы xD @ 5 0 5 E H D ) F xF H H D ) H I P pI J F K F HL XN H D ) N N @O (P U ( 0U P P P pU P V P W P ` W P X P PY P Y mP Z ! P ! P _ ( 0U [ P pU P V [ _ P W [ 0 p` b H D ) 0 p P c
xc 0 c )a @ d 6 0
e p f >a P Pg Ya ` h (i ` @j y H D ) k y 0h @z }q z m , } r y r `s X up q @ `p n Tq ` fl $ h @q Б p V # 8 o P o _ X )o @S l P' %n ? 8 fo W To V m . Й n 0N l ) Co `T p $p c ț n H l p& o [ ( Jo U n J m - ( o ^ ( o Z ,p d k k 0 zl % q > @ m ; ب m : X #q ة p x p p Ap e X k k l 0( ( n < ` n = m 9 г m 8 p @ 7n @ l + ( n O wo X o ` Jl " n pK Xm 1 \n D Hm @0 X o R o `] Mn C @ tm 02 n L l * ͯ 0B " h p @~ l x Mp i m @5 X 0 - ` k p ( ` P lk 0 p p %l p P Sk ln 0F h 0m `/ P ' 0 p p ' l
P7 g H `6 @3 J @ n G l ) o @\ p a 5l @! P k m @4 H H D ) 0 p P h ' & H 7' ` + Щ @ ' 0, & , & - ' 0 x- & ` - ( p 0 Х ' X H D ) 0 H ` 8 ͯ p 0 л b p . p h ~ p ` p I p p X p p p 8 p X и p
0 H D ) p ` X j x ' `
i @ O
W ` ( P _ , L 0 H x 7 p B @ @ @ x " H D ) ( `
U P f @ p w 0 p h @ J ` P @ 0
( > p h ͯ X b . H ~ ` 8 I 8 8! ! 8" 8 " ($ H D ) P `! X$ " $ c# `$ @% T# ` % h' H D ) * , ) ' - ( p* H D ) p1 L 0 * J + () K p+ ]( 2 X, 7) N , l( p3 H- L D - < .
) PG . ( p5 8/ ) H / v( `4 H0 ( A 0 ( 9 01 ( 0C 1 ( 6 2 ( ? 2 ( ; 2 ( p@ `3 ( 7 3 ) E 84 ( : 4 ( = 5 ( 8 5 H: H D ) W `r V p: p : 6 o (;
6 X x< "6 Y = `6 P^ (? H7 b p@ (7 a A p7 c (C 6 D 6 w E :6 Z F 0 `{ ` - `] 6 t F p\ f n d G o h I o @m L m ` N |6 f HP 6 k Q 6 `n Q p6 ` XR 6 0 S N6 [ T ' pg xT
i U l xU 0_ U p pV p 0 W ' @ W ^ H D ) 0 А X^ ^ Y Ш P_ X _ X ` X @a wY ` a ~X c X p f 6Y О (h aY Т 8j KY Р Hl X Xn Y Н hp ͯ @ r FX s bX Г t ` u . С v b П w Y М x ( У y z @ P| @ } X Y Ю P ( @ H D H ` H о p { n л ) к 0 p P @ ڃ @ P ` ʂ ( b & P ( < M / p Ж z P ` p @ ؘ p 0 ` p ł 8 p p ` h P X P @ 0 ؟ D ! ! H D ) p p 8 p p H D ) 0
P 8 P 8 J p P > h { n ~ H ' w س д Υ wY @ 6Y aY KY 0 X Y h
Q ` a ` 9 @ ݥ P r 0 P @ ؘ ` p ]( @ P H D ) p! p" P ' Y & H X `% H X $ @ X # H ݥ @* P r `) h x H D ) @- PE `, F 0 b Q - : 8 H ; b < | `= 0 0> ? x ? h 7 : 8 8 P9 k 0 H PP H A 2 @ p4 @5 E / B ` 2 @. ݥ N P 9 J P * 0H x `D 6 2 [ / 0 pC h 6 3 H } P1 r M h H D ) S T S Y X ,p P_ X m W x m W X zl PV 8 #q ^ ݥ p\ P r [ h H D ) a g ` 8 pf @q w V e
pi ` d 0 @m ` - c q H b p pv `
GCC: (Ubuntu 11.4.0-1ubuntu1~22.04) 11.4.0 : \ x " p# P$ * @% 5 ^ & M \ ! ) + g C 9
g `;
P_ i P. `. @/ " F p0 u @1 2 3 3 B 4 { 5 D @7 D 8 D 9 H ; { < @= `> g ? = pA f w \ ! D f \ ! <
8 @>
Z p_ @ " 0 6 k - Щ _ Ъ Ы / ' 0 N $
D O
а z
д g
@ 5 ] ! r U
` Q
R
1 0` W P e
#] d
A
`
`
3] ! [ ^
` = T] d] ! ; n ` E J > ]
_
` Q ( j ] K b
` ] 2 D ` E 0 b `
b
B ` q А " ^ Г 5 | p ` @ = | М ? Н О П Р X С Т У D X @ ` l Ш l
@ t P g 0 Ю ] ! 3
[
0b % G y ] ' 6 T к л @ + о d ` ] ! J! v! ! ! " p G" ` x" P " P " p 2 # 2 X# 2 # 0 n # g # '$ / V$ `
` $ 0 $ P $ %
5%
X% @
z%
@ %
% Pb ! & 3& 0 b& @ & P & ` & p A' t' ' 1 ' P ( 0 L( ( ( ) J) @ ) ) * @* ` * 0 * + R+ + ` + P
, @ G, 0 , , - <- z- - -
9. . .
^ . 8 0 @ f }0 [ 0 ^ ! 0 @
#1
O1 0 1 b 1 1 4 62 0d V2 @d 2 e 2 0f 2 g 3 h 93 h m3 j 3 0k D 3 l g 4 m &4 o U4 s }4 `
4
4 0^ 6 4 { 5 { ?5 | " t5 } 5 ~ 5 ` g 6 Ё O6 6
6 @
6 P^ 7 @ / ; M7 m7 7 " 7 7 '8 Ћ ]8 8 8 p 8 *9 Z9 9 p 9 Z 9 : V: T : @ l : g : ; 6; d; `!
~; #
; p^ ; / = ; #< 0 W< < Х < < Ч = ` g M= %
m= '
= ^ XB = = > " 2> V> > > p D > ? M? g y? p ? p ? p 0@ p q@ p @ p @ p 1A p kA p A p A p D B `(
-B *
IB ^ 6H oB B B C HC C C
D GD D D E p D =E xE E g E p F `F F F p G @ XG G G ,
G @.
'H ^ ZH H 9K H H ,I UI I I g I 0 J P ;J p D gJ J P V J j J `1
K 3
*K ^ L PK
vK
K K T L p
5 @L kL p g L 4
L 6
L _ O M ` 5M p jM P D M M !N ]N p N g N 7
N 8
O 0_ 0O Q lO `K O pK O PL " P M CP pN P PO P P g P `R +Q @
QQ `B
zQ _ U Q V Q V Q W 5 "R X FR Z yR [ R `\ R @] S ^ D @S p_ D sS ` D S b S 0c T Pd JT pe |T f T g g T `C
T E
U _ V 3U @l iU m U n U n " V p =V q g rV G
V H
V _ CY V pt
W t :W `u " fW v W w W `x W z g )X p{ ZX | X } D X X I
Y @K
` 4Y _ ^ ]Y ` Y p Y P " Y )Z P fZ Z Z [ V[ [ p [ P [ 0 D ;\ D r\ Б D \ \ @ #] ` g V] Ж ] p ! ] L
] @N
] ` $^ @ T^ 0 _ ^ ^ ^ 5 _ 7_ g h_ U
_ W
_ P` b _ _ (` " V` ` D `
a g >a V xa P a W
a `Y
a p` c b >b nb b 5 b b + 'c g Vc Z
rc \
c ` zf c @ c P d 0 5 ;d p wd ` d @ d P %e ` D de D e
g e p e 0
3 .f @c
Kf d
kf ` f z f f g " Hg g g p g @ +h _h h h
i Mi i p i ` i P j @! Uj " j " j # k $ 9k % qk p& k P' k 0(
l ) Fl ) ql * l + l , m - ;m . pm `/ m @0 m 1 n 02 On @3 n @4 n @5 n `6 o P7 1 No 8 o 9 o : o ; 6p < jp = p > p ? D q @ D Uq 0B D q C T q D D q 0F D ,r G D hr H D r J D r pK T s L T 3s 0N D ^s O D s P D s R t @S It `T st U t V t W u X Gu Z tu [ u @\ u `] v ^ :v _ vv ` v a v c w d l Tw e l w g . w 0h g w i h x k Ax l sx n x q 3 x `s | %y y V gy @~ $ y f
y h
y ` 0 z a .z p bz z p z ` z ({ % _{ { { % | Б <| s| | @ | P } 0 5 ;} p j} 0 } } Х *~ k~ ` ~ 0 ~ Щ ] p J ` t g t
v
0a 8 l ˁ " - 0 W и л & D ] T ` T ( g Z p p p ! p j p p p 5 p v p p p D 7 y
V z
x Pa , LJ p " % R ` @ ? l Ɖ O } ݊ p ` = @ k 0 Ƌ & g V ` ~ }
`
pa ' G k " ˍ + [ ( a p ` P @ . 0 d @ D D ɐ
, _ @ `
g I Ȓ N ܓ _ D ٔ
` a
C p m ` ߕ P `! B " g y `$
ז
a M / ) Q ) * 5 , ԗ - g
> a g 0 0 p1 2 ' p3 X `4 p5 ę 6 7 # 8 [ 9 : ; < = D S ? T p@ T A T 0C T D T C E T r PG T H T ޜ J g K o G L r N
Ý `
` a Ф V 4 V c W " X Ȟ Y Z 8 [ l p\ `] ٟ P^ 0_ < ` h ` a נ b c c d D f D pg D h i I k v l @m Ӣ `n o l 3 p g a `r t w `{ * 0 ^ `
|
0 b @ 0 F x % { ݥ L p p p n g
D `
l b ̧ p! @ p" n s # $ `% @ & ' g
@
`
b B `) } @* P, `, # @- X @. / ٫ / 0 S P1 2 Ѭ 2
3 L p4 @5 ϭ 6
6 H 7 8 P9 7 : ~ : ů ; < Q `= 0> ܰ ? $ ? s @ A B 3 pC r `D PE n F g 0H F Q J 3
@
ٳ
b A M y N PP % Q < R c S S ɵ T n PV 2 W w W X Y g 5
V
z c [ ܷ p\ ^ % \ P_ ` ` a ) b g c d ڹ e pf g L g y pi @m q * `
L
q c pv ڻ w I
h : @c + j
y `
pc c c Ӽ @
X d 1 H ? R @
_ <
{ }
0
(
O ۽ " " ( : " Ѓ g x O ۾ " @ , " R b " ` ɿ " 1 2 " Ж _ "
" u " p ? C " r w " P
) O " p) k " @
" 0 " " ^ " 0V u " " _ " D ` ) [ " y " J ? " ` D 7 " ! c 0 M H " `I " " @ \ " } " S ) " i ! " 0 G " 0 " + " 3 N n " , " @j ! > V " M " ` ! " B 5 k " @ " u PR M " @ b " Ќ ? " `` = " A v i M - H " " ` ) E v "
R O " Z " P ! . " x \ " k " ( A " " 2 " y P c { " ! " ! U ps O x " " " k " P ( " u E b " P
" % " T ) H " P k " " П ! @ M " z b $ 4 " O " p
M " p " P 1 O " b q " # " I K O r O ! " ! ] " "
" P @ " P ? s " S P M " " I u
. = " D ^ u M " j ! " " 0I ! 7 L l " ` D " 0 ? P M : " p r c " " U " 0 D "
" y 6 B i P M " S
" b 0 " I ` " U ) " 1 " K ? 9 " k ? d " ! " " p " @
G " D o " P " P D " p 1 # ^ " p " y b " ? > O X m " " z k " ! " c
D " n " " И ! O " T ) O " " Z @/ M " 6 " a " 0 ! " ! & " X x " ! " p ! v O A | " H ! / " ! ` " j z " ` " `
B "
~ M Ъ M " ? 5 M H O m " " i " " @ B b " ` u " D " " u J g O " P 1 " pi O 8 / O U y " S ) w M " ! " ! ; P M O " " P
? " k p ( M " D % " S " V " k ? " ! " ! A " `S ) " p " u " P , " ! M f " s H # " @ _ r " u % " D K o " y A " " P " P E " r u " A " ( " ! , " D M " o "
b t " I " J D " " D 8 " r p " " " p " D " ` ? b " p " ! " / " @ D > " ? j " " " U
8 " i " P u " O 3 " u M " P ~ " V " 0 ? ? " ( t " " b " ` D p M 8 N " 0 1 `U M B ~ " P " ? M / H " @ k " py ! p O " @J D
D PH M b " `y O "
F " `y j " ? " & " ? Q " 0
< P- O $ " M "
" S
" " B " i P M p O " 0 O 8 w " ) " P " е ' " pj S " Й { " " z ? " ` ! ; " ? k " ` D " " * " ! Y " " U b " " % " s X p M s "
" " A | " P " T )
@( O -
" j W
Z M
" @ ?
" p
" 1 " ? C " o " ` ! " PU
+ M Q " ` " 0 /
M S
" u t
" !
" r ' " p ? L " R O r " ` " 0
" A " D T " ` z " 0z D " y " @ b " - " ` ] " "
" P ) " "
2 " ` ` "
" z r " T
" s u M - O N x " / I | g O " " p` O " { D " V r j " ) " pI ! " ? 1 f "
M , O "
z O " U & G " ! " 0 A P A 2 0 L " ` ?
" 8 " 0 ! j " p u " @ < " О D ! @ " T
d "
" " P B O e " " ! " ! B " 0j j 1 Q j " ) b " " `T ) 4 O S p O " y # L M G b " N M O " ! " b + " ) S " k " p " #! X! " - }! " ! ! " ! " (" @" " Py o" " { r " O " " Њ " O # ># a# # # # " P ) $ " P R$ ~$ $ p M $ % " x P 6% {% 0 O % % % & " .& M G& " y& & & " , O & " p ' ` M ;' " p c' " - ' " ? ' ( p M ( >( " o( " ! ( " x ( " @ P ( 2) J) k) " D ) ) O ) @[ O * " PS %* " ? E* * " * " p
* + " O ++ " [+ " y w+ "
+ " B + " ` k + , " p D D, " ? d, , , " - U O F- " r y- " - ' M - " `k D - " - $. " P. w. . . " r / D/ " k D p/ " V / / /
0 " z =0 " PT
a0 " p D 0 " 0 " p 0 " p u 1 " s 31 " a1 1 1 " A 1 " `
2 +2 " D \2 " b }2 2 2 " P ! 3 43 d3 3 " ! 3 " R 3 " A
4 M %4 J4 _4 4 " px 4 " @ 4 " З ) 5 D5 " o5 " T
5 5 " 0{ 5 " s 6 "
%6 " 1 W6 " `U ! 6 p M 6 " 6 6 " (7 L7 " y7 7 " u 7 7 " k _ZL39PyvtkImageDecomposeFilter_PermuteExtentP7_objectS0_ _ZL39PyvtkImageDecomposeFilter_PermuteExtentP7_objectS0_.cold _ZL38PyvtkImageDecomposeFilter_SafeDownCastP7_objectS0_ _ZL43PyvtkImageDecomposeFilter_GetDimensionalityP7_objectS0_ _ZL43PyvtkImageDecomposeFilter_SetDimensionalityP7_objectS0_ _ZL34PyvtkImageDecomposeFilter_IsTypeOfP7_objectS0_ _ZL43PyvtkImageDecomposeFilter_PermuteIncrementsP7_objectS0_ _ZL43PyvtkImageDecomposeFilter_PermuteIncrementsP7_objectS0_.cold _ZL29PyvtkImageDecomposeFilter_IsAP7_objectS0_ _ZL37PyvtkImageDecomposeFilter_NewInstanceP7_objectS0_ _ZL30PyvtkImageDecomposeFilter_Type _ZL33PyvtkImageDecomposeFilter_Methods _GLOBAL__sub_I_vtkImageDecomposeFilterPython.cxx _ZL30PyvtkImageDifference_StaticNewv _ZL33PyvtkImageDifference_SafeDownCastP7_objectS0_ _ZL29PyvtkImageDifference_IsTypeOfP7_objectS0_ _ZL29PyvtkImageDifference_GetImageP7_objectS0_ _ZL33PyvtkImageDifference_GetAveragingP7_objectS0_ _ZL34PyvtkImageDifference_GetAllowShiftP7_objectS0_ _ZL33PyvtkImageDifference_GetThresholdP7_objectS0_ _ZL33PyvtkImageDifference_SetImageDataP7_objectS0_ _ZL39PyvtkImageDifference_SetImageConnectionP7_objectS0_ _ZL33PyvtkImageDifference_SetAveragingP7_objectS0_ _ZL34PyvtkImageDifference_SetAllowShiftP7_objectS0_ _ZL33PyvtkImageDifference_SetThresholdP7_objectS0_ _ZL33PyvtkImageDifference_AveragingOffP7_objectS0_ _ZL33PyvtkImageDifference_AllowShiftOnP7_objectS0_ _ZL32PyvtkImageDifference_AveragingOnP7_objectS0_ _ZL34PyvtkImageDifference_AllowShiftOffP7_objectS0_ _ZL32PyvtkImageDifference_NewInstanceP7_objectS0_ _ZL24PyvtkImageDifference_IsAP7_objectS0_ _ZL40PyvtkImageDifference_GetThresholdedErrorP7_objectS0_ _ZL40PyvtkImageDifference_GetThresholdedErrorP7_objectS0_.cold _ZL29PyvtkImageDifference_GetErrorP7_objectS0_ _ZL29PyvtkImageDifference_GetErrorP7_objectS0_.cold _ZL25PyvtkImageDifference_Type _ZL28PyvtkImageDifference_Methods _GLOBAL__sub_I_vtkImageDifferencePython.cxx _ZL24PyvtkImageMask_StaticNewv _ZL27PyvtkImageMask_SafeDownCastP7_objectS0_ _ZL23PyvtkImageMask_IsTypeOfP7_objectS0_ _ZL41PyvtkImageMask_GetMaskedOutputValueLengthP7_objectS0_ _ZL35PyvtkImageMask_GetMaskAlphaMaxValueP7_objectS0_ _ZL35PyvtkImageMask_GetMaskAlphaMinValueP7_objectS0_ _ZL27PyvtkImageMask_GetMaskAlphaP7_objectS0_ _ZL25PyvtkImageMask_GetNotMaskP7_objectS0_ _ZL35PyvtkImageMask_GetMaskedOutputValueP7_objectS0_ _ZL32PyvtkImageMask_SetImageInputDataP7_objectS0_ _ZL31PyvtkImageMask_SetMaskInputDataP7_objectS0_ _ZL28PyvtkImageMask_SetInput2DataP7_objectS0_ _ZL28PyvtkImageMask_SetInput1DataP7_objectS0_ _ZL38PyvtkImageMask_SetMaskedOutputValue_s3P7_objectS0_ _ZL25PyvtkImageMask_SetNotMaskP7_objectS0_ _ZL25PyvtkImageMask_NotMaskOffP7_objectS0_ _ZL24PyvtkImageMask_NotMaskOnP7_objectS0_ _ZL27PyvtkImageMask_SetMaskAlphaP7_objectS0_ _ZL26PyvtkImageMask_NewInstanceP7_objectS0_ _ZL38PyvtkImageMask_SetMaskedOutputValue_s1P7_objectS0_ _ZL38PyvtkImageMask_SetMaskedOutputValue_s1P7_objectS0_.cold _ZL18PyvtkImageMask_IsAP7_objectS0_ _ZL35PyvtkImageMask_SetMaskedOutputValueP7_objectS0_ _ZL43PyvtkImageMask_SetMaskedOutputValue_Methods _ZL19PyvtkImageMask_Type _ZL22PyvtkImageMask_Methods _GLOBAL__sub_I_vtkImageMaskPython.cxx _ZL33PyvtkImagePointDataIterator_CCopyPKv _ZL56PyvtkImagePointDataIterator_vtkImagePointDataIterator_s3P7_objectS0_ _ZL56PyvtkImagePointDataIterator_vtkImagePointDataIterator_s2P7_objectS0_ _ZL56PyvtkImagePointDataIterator_vtkImagePointDataIterator_s2P7_objectS0_.cold _ZL42PyvtkImagePointDataIterator_GetVoidPointerP7_objectS0_ _ZL50PyvtkImagePointDataIterator_GetVoidPointer_Methods _ZL45PyvtkImagePointDataIterator_GetVoidPointer_s1P7_objectS0_ _ZL45PyvtkImagePointDataIterator_GetVoidPointer_s1P7_objectS0_.cold _ZL34PyvtkImagePointDataIterator_DeleteP7_object _ZL32PyvtkImagePointDataIterator_HashP7_object _ZL31PyvtkImagePointDataIterator_NewP11_typeobjectP7_objectS2_ _ZL61PyvtkImagePointDataIterator_vtkImagePointDataIterator_Methods _ZL31PyvtkImagePointDataIterator_NewP11_typeobjectP7_objectS2_.cold _ZL45PyvtkImagePointDataIterator_GetVoidPointer_s2P7_objectS0_ _ZL45PyvtkImagePointDataIterator_GetVoidPointer_s2P7_objectS0_.cold _ZL37PyvtkImagePointDataIterator_SpanEndIdP7_objectS0_ _ZL33PyvtkImagePointDataIterator_GetIdP7_objectS0_ _ZL39PyvtkImagePointDataIterator_IsInStencilP7_objectS0_ _ZL36PyvtkImagePointDataIterator_NextSpanP7_objectS0_ _ZL35PyvtkImagePointDataIterator_IsAtEndP7_objectS0_ _ZL38PyvtkImagePointDataIterator_InitializeP7_objectS0_ _ZL36PyvtkImagePointDataIterator_GetIndexP7_objectS0_ _ZL32PyvtkImagePointDataIterator_Type _ZL35PyvtkImagePointDataIterator_Methods _GLOBAL__sub_I_vtkImagePointDataIteratorPython.cxx _ZL29PyvtkImagePointIterator_CCopyPKv _ZL48PyvtkImagePointIterator_vtkImagePointIterator_s3P7_objectS0_ _ZL48PyvtkImagePointIterator_vtkImagePointIterator_s2P7_objectS0_ _ZL48PyvtkImagePointIterator_vtkImagePointIterator_s2P7_objectS0_.cold _ZL30PyvtkImagePointIterator_DeleteP7_object _ZL28PyvtkImagePointIterator_HashP7_object _ZL27PyvtkImagePointIterator_NewP11_typeobjectP7_objectS2_ _ZL53PyvtkImagePointIterator_vtkImagePointIterator_Methods _ZL27PyvtkImagePointIterator_NewP11_typeobjectP7_objectS2_.cold _ZL31PyvtkImagePointIterator_IsAtEndP7_objectS0_ _ZL28PyvtkImagePointIterator_NextP7_objectS0_ _ZL32PyvtkImagePointIterator_NextSpanP7_objectS0_ _ZL34PyvtkImagePointIterator_InitializeP7_objectS0_ _ZL35PyvtkImagePointIterator_GetPositionP7_objectS0_ _ZL28PyvtkImagePointIterator_Type _ZL31PyvtkImagePointIterator_Methods _GLOBAL__sub_I_vtkImagePointIteratorPython.cxx _ZL39PyvtkImageBSplineCoefficients_StaticNewv _ZL42PyvtkImageBSplineCoefficients_SafeDownCastP7_objectS0_ _ZL38PyvtkImageBSplineCoefficients_IsTypeOfP7_objectS0_ _ZL57PyvtkImageBSplineCoefficients_GetOutputScalarTypeMinValueP7_objectS0_ _ZL57PyvtkImageBSplineCoefficients_GetOutputScalarTypeMaxValueP7_objectS0_ _ZL51PyvtkImageBSplineCoefficients_GetBorderModeMinValueP7_objectS0_ _ZL53PyvtkImageBSplineCoefficients_GetSplineDegreeMaxValueP7_objectS0_ _ZL53PyvtkImageBSplineCoefficients_GetSplineDegreeMinValueP7_objectS0_ _ZL51PyvtkImageBSplineCoefficients_GetBorderModeMaxValueP7_objectS0_ _ZL49PyvtkImageBSplineCoefficients_GetOutputScalarTypeP7_objectS0_ _ZL39PyvtkImageBSplineCoefficients_GetBypassP7_objectS0_ _ZL45PyvtkImageBSplineCoefficients_GetSplineDegreeP7_objectS0_ _ZL43PyvtkImageBSplineCoefficients_GetBorderModeP7_objectS0_ _ZL41PyvtkImageBSplineCoefficients_CheckBoundsP7_objectS0_ _ZL57PyvtkImageBSplineCoefficients_GetOutputScalarTypeAsStringP7_objectS0_ _ZL51PyvtkImageBSplineCoefficients_GetBorderModeAsStringP7_objectS0_ _ZL50PyvtkImageBSplineCoefficients_SetBorderModeToClampP7_objectS0_ _ZL57PyvtkImageBSplineCoefficients_SetOutputScalarTypeToDoubleP7_objectS0_ _ZL51PyvtkImageBSplineCoefficients_SetBorderModeToMirrorP7_objectS0_ _ZL56PyvtkImageBSplineCoefficients_SetOutputScalarTypeToFloatP7_objectS0_ _ZL51PyvtkImageBSplineCoefficients_SetBorderModeToRepeatP7_objectS0_ _ZL39PyvtkImageBSplineCoefficients_SetBypassP7_objectS0_ _ZL38PyvtkImageBSplineCoefficients_BypassOnP7_objectS0_ _ZL39PyvtkImageBSplineCoefficients_BypassOffP7_objectS0_ _ZL43PyvtkImageBSplineCoefficients_SetBorderModeP7_objectS0_ _ZL45PyvtkImageBSplineCoefficients_SetSplineDegreeP7_objectS0_ _ZL49PyvtkImageBSplineCoefficients_SetOutputScalarTypeP7_objectS0_ _ZL41PyvtkImageBSplineCoefficients_NewInstanceP7_objectS0_ _ZL33PyvtkImageBSplineCoefficients_IsAP7_objectS0_ _ZL38PyvtkImageBSplineCoefficients_EvaluateP7_objectS0_ _ZL38PyvtkImageBSplineCoefficients_EvaluateP7_objectS0_.cold _ZL34PyvtkImageBSplineCoefficients_Type _ZL37PyvtkImageBSplineCoefficients_Methods _GLOBAL__sub_I_vtkImageBSplineCoefficientsPython.cxx _ZL31PyvtkImageStencilData_StaticNewv _ZL34PyvtkImageStencilData_SafeDownCastP7_objectS0_ _ZL32PyvtkImageStencilData_GetData_s1P7_objectS0_ _ZL32PyvtkImageStencilData_GetData_s2P7_objectS0_ _ZL45PyvtkImageStencilRaster_vtkImageStencilRasterP7_objectS0_ _ZL45PyvtkImageStencilRaster_vtkImageStencilRasterP7_objectS0_.cold _ZL28PyvtkImageStencilRaster_HashP7_object _ZL30PyvtkImageStencilRaster_DeleteP7_object _ZL30PyvtkImageStencilData_IsTypeOfP7_objectS0_ _ZL36PyvtkImageStencilRaster_GetToleranceP7_objectS0_ _ZL36PyvtkImageStencilRaster_SetToleranceP7_objectS0_ _ZL41PyvtkImageStencilRaster_PrepareForNewDataP7_objectS0_ _ZL39PyvtkImageStencilRaster_FillStencilDataP7_objectS0_ _ZL34PyvtkImageStencilRaster_InsertLineP7_objectS0_ _ZL27PyvtkImageStencilRaster_NewP11_typeobjectP7_objectS2_ _ZL27PyvtkImageStencilRaster_NewP11_typeobjectP7_objectS2_.cold _ZL37PyvtkImageStencilData_AllocateExtentsP7_objectS0_ _ZL26PyvtkImageStencilData_FillP7_objectS0_ _ZL35PyvtkImageStencilData_GetExtentTypeP7_objectS0_ _ZL39PyvtkImageStencilData_GetDataObjectTypeP7_objectS0_ _ZL31PyvtkImageStencilData_GetOriginP7_objectS0_ _ZL32PyvtkImageStencilData_GetSpacingP7_objectS0_ _ZL31PyvtkImageStencilData_GetExtentP7_objectS0_ _ZL50PyvtkImageStencilData_InternalImageStencilDataCopyP7_objectS0_ _ZL30PyvtkImageStencilData_IsInsideP7_objectS0_ _ZL34PyvtkImageStencilData_RemoveExtentP7_objectS0_ _ZL38PyvtkImageStencilData_InsertNextExtentP7_objectS0_ _ZL42PyvtkImageStencilData_InsertAndMergeExtentP7_objectS0_ _ZL25PyvtkImageStencilData_IsAP7_objectS0_ _ZL33PyvtkImageStencilData_NewInstanceP7_objectS0_ _ZL35PyvtkImageStencilData_GetNextExtentP7_objectS0_ _ZL29PyvtkImageStencilData_GetDataP7_objectS0_ _ZL37PyvtkImageStencilData_GetData_Methods _ZL31PyvtkImageStencilData_SetExtentP7_objectS0_ _ZL32PyvtkImageStencilData_SetSpacingP7_objectS0_ _ZL31PyvtkImageStencilData_SetOriginP7_objectS0_ _ZL26PyvtkImageStencilData_Type _ZL29PyvtkImageStencilData_Methods _ZL28PyvtkImageStencilRaster_Type _ZL53PyvtkImageStencilRaster_vtkImageStencilRaster_Methods _ZL31PyvtkImageStencilRaster_Methods _GLOBAL__sub_I_vtkImageStencilDataPython.cxx _ZL26PyvtkImageStencilData_ClipP7_objectS0_ _ZL29PyvtkImageStencilData_ReplaceP7_objectS0_ _ZL30PyvtkImageStencilData_SubtractP7_objectS0_ _ZL25PyvtkImageStencilData_AddP7_objectS0_ _ZL47PyvtkImageStencilData_CopyInformationToPipelineP7_objectS0_ _ZL49PyvtkImageStencilData_CopyInformationFromPipelineP7_objectS0_ _ZL33PyvtkImageStencilData_ShallowCopyP7_objectS0_ _ZL30PyvtkImageStencilData_DeepCopyP7_objectS0_ _ZL32PyvtkImageStencilData_InitializeP7_objectS0_ _ZL43PyvtkAbstractImageInterpolator_SafeDownCastP7_objectS0_ _ZL39PyvtkAbstractImageInterpolator_IsTypeOfP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_GetOutValueP7_objectS0_ _ZL43PyvtkAbstractImageInterpolator_GetToleranceP7_objectS0_ _ZL49PyvtkAbstractImageInterpolator_GetComponentOffsetP7_objectS0_ _ZL48PyvtkAbstractImageInterpolator_GetComponentCountP7_objectS0_ _ZL47PyvtkAbstractImageInterpolator_GetSlidingWindowP7_objectS0_ _ZL44PyvtkAbstractImageInterpolator_GetBorderModeP7_objectS0_ _ZL37PyvtkAbstractImageInterpolator_UpdateP7_objectS0_ _ZL46PyvtkAbstractImageInterpolator_SlidingWindowOnP7_objectS0_ _ZL47PyvtkAbstractImageInterpolator_SlidingWindowOffP7_objectS0_ _ZL52PyvtkAbstractImageInterpolator_SetBorderModeToMirrorP7_objectS0_ _ZL51PyvtkAbstractImageInterpolator_SetBorderModeToClampP7_objectS0_ _ZL52PyvtkAbstractImageInterpolator_SetBorderModeToRepeatP7_objectS0_ _ZL52PyvtkAbstractImageInterpolator_GetNumberOfComponentsP7_objectS0_ _ZL40PyvtkAbstractImageInterpolator_GetExtentP7_objectS0_ _ZL41PyvtkAbstractImageInterpolator_GetSpacingP7_objectS0_ _ZL40PyvtkAbstractImageInterpolator_GetOriginP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_IsSeparableP7_objectS0_ _ZL43PyvtkAbstractImageInterpolator_SetToleranceP7_objectS0_ _ZL49PyvtkAbstractImageInterpolator_SetComponentOffsetP7_objectS0_ _ZL39PyvtkAbstractImageInterpolator_DeepCopyP7_objectS0_ _ZL44PyvtkAbstractImageInterpolator_SetBorderModeP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_SetOutValueP7_objectS0_ _ZL48PyvtkAbstractImageInterpolator_SetComponentCountP7_objectS0_ _ZL47PyvtkAbstractImageInterpolator_SetSlidingWindowP7_objectS0_ _ZL56PyvtkAbstractImageInterpolator_ComputeNumberOfComponentsP7_objectS0_ _ZL52PyvtkAbstractImageInterpolator_GetBorderModeAsStringP7_objectS0_ _ZL34PyvtkAbstractImageInterpolator_IsAP7_objectS0_ _ZL45PyvtkAbstractImageInterpolator_CheckBoundsIJKP7_objectS0_ _ZL49PyvtkAbstractImageInterpolator_ComputeSupportSizeP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_NewInstanceP7_objectS0_ _ZL45PyvtkAbstractImageInterpolator_InterpolateIJKP7_objectS0_ _ZL45PyvtkAbstractImageInterpolator_InterpolateIJKP7_objectS0_.cold _ZL45PyvtkAbstractImageInterpolator_GetWholeExtentP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_InterpolateP7_objectS0_ _ZL42PyvtkAbstractImageInterpolator_InterpolateP7_objectS0_.cold _ZL35PyvtkAbstractImageInterpolator_Type _ZL38PyvtkAbstractImageInterpolator_Methods _ZZ41PyVTKAddFile_vtkAbstractImageInterpolatorE9constants _GLOBAL__sub_I_vtkAbstractImageInterpolatorPython.cxx _ZL42PyvtkAbstractImageInterpolator_ReleaseDataP7_objectS0_ _ZL41PyvtkAbstractImageInterpolator_InitializeP7_objectS0_ _ZL25PyvtkExtractVOI_StaticNewv _ZL28PyvtkExtractVOI_SafeDownCastP7_objectS0_ _ZL24PyvtkExtractVOI_IsTypeOfP7_objectS0_ _ZL22PyvtkExtractVOI_GetVOIP7_objectS0_ _ZL29PyvtkExtractVOI_GetSampleRateP7_objectS0_ _ZL34PyvtkExtractVOI_GetIncludeBoundaryP7_objectS0_ _ZL34PyvtkExtractVOI_IncludeBoundaryOffP7_objectS0_ _ZL33PyvtkExtractVOI_IncludeBoundaryOnP7_objectS0_ _ZL34PyvtkExtractVOI_SetIncludeBoundaryP7_objectS0_ _ZL27PyvtkExtractVOI_NewInstanceP7_objectS0_ _ZL19PyvtkExtractVOI_IsAP7_objectS0_ _ZL29PyvtkExtractVOI_SetSampleRateP7_objectS0_ _ZL22PyvtkExtractVOI_SetVOIP7_objectS0_ _ZL20PyvtkExtractVOI_Type _ZL23PyvtkExtractVOI_Methods _GLOBAL__sub_I_vtkExtractVOIPython.cxx _ZL36PyvtkImageAppendComponents_StaticNewv _ZL39PyvtkImageAppendComponents_SafeDownCastP7_objectS0_ _ZL35PyvtkImageAppendComponents_IsTypeOfP7_objectS0_ _ZL44PyvtkImageAppendComponents_GetNumberOfInputsP7_objectS0_ _ZL30PyvtkImageAppendComponents_IsAP7_objectS0_ _ZL38PyvtkImageAppendComponents_NewInstanceP7_objectS0_ _ZL35PyvtkImageAppendComponents_GetInputP7_objectS0_ _ZL39PyvtkImageAppendComponents_SetInputDataP7_objectS0_ _ZL31PyvtkImageAppendComponents_Type _ZL34PyvtkImageAppendComponents_Methods _GLOBAL__sub_I_vtkImageAppendComponentsPython.cxx _ZL52PyvtkImageAppendComponents_ReplaceNthInputConnectionP7_objectS0_ _ZL25PyvtkImageBlend_StaticNewv _ZL28PyvtkImageBlend_SafeDownCastP7_objectS0_ _ZL24PyvtkImageBlend_IsTypeOfP7_objectS0_ _ZL26PyvtkImageBlend_GetStencilP7_objectS0_ _ZL36PyvtkImageBlend_GetBlendModeMinValueP7_objectS0_ _ZL36PyvtkImageBlend_GetBlendModeMaxValueP7_objectS0_ _ZL33PyvtkImageBlend_GetNumberOfInputsP7_objectS0_ _ZL28PyvtkImageBlend_GetBlendModeP7_objectS0_ _ZL36PyvtkImageBlend_GetCompoundThresholdP7_objectS0_ _ZL36PyvtkImageBlend_SetStencilConnectionP7_objectS0_ _ZL30PyvtkImageBlend_SetStencilDataP7_objectS0_ _ZL26PyvtkImageBlend_GetOpacityP7_objectS0_ _ZL26PyvtkImageBlend_SetOpacityP7_objectS0_ _ZL36PyvtkImageBlend_GetBlendModeAsStringP7_objectS0_ _ZL36PyvtkImageBlend_SetBlendModeToNormalP7_objectS0_ _ZL38PyvtkImageBlend_SetBlendModeToCompoundP7_objectS0_ _ZL36PyvtkImageBlend_SetCompoundThresholdP7_objectS0_ _ZL28PyvtkImageBlend_SetBlendModeP7_objectS0_ _ZL27PyvtkImageBlend_NewInstanceP7_objectS0_ _ZL19PyvtkImageBlend_IsAP7_objectS0_ _ZL24PyvtkImageBlend_GetInputP7_objectS0_ _ZL28PyvtkImageBlend_SetInputDataP7_objectS0_ _ZL20PyvtkImageBlend_Type _ZL23PyvtkImageBlend_Methods _GLOBAL__sub_I_vtkImageBlendPython.cxx _ZL41PyvtkImageBlend_ReplaceNthInputConnectionP7_objectS0_ _ZL31PyvtkImageCacheFilter_StaticNewv _ZL34PyvtkImageCacheFilter_SafeDownCastP7_objectS0_ _ZL34PyvtkImageCacheFilter_GetCacheSizeP7_objectS0_ _ZL34PyvtkImageCacheFilter_SetCacheSizeP7_objectS0_ _ZL30PyvtkImageCacheFilter_IsTypeOfP7_objectS0_ _ZL25PyvtkImageCacheFilter_IsAP7_objectS0_ _ZL33PyvtkImageCacheFilter_NewInstanceP7_objectS0_ _ZL26PyvtkImageCacheFilter_Type _ZL29PyvtkImageCacheFilter_Methods _GLOBAL__sub_I_vtkImageCacheFilterPython.cxx _ZL24PyvtkImageCast_StaticNewv _ZL27PyvtkImageCast_SafeDownCastP7_objectS0_ _ZL23PyvtkImageCast_IsTypeOfP7_objectS0_ _ZL18PyvtkImageCast_IsAP7_objectS0_ _ZL31PyvtkImageCast_GetClampOverflowP7_objectS0_ _ZL34PyvtkImageCast_GetOutputScalarTypeP7_objectS0_ _ZL31PyvtkImageCast_SetClampOverflowP7_objectS0_ _ZL31PyvtkImageCast_ClampOverflowOffP7_objectS0_ _ZL30PyvtkImageCast_ClampOverflowOnP7_objectS0_ _ZL26PyvtkImageCast_NewInstanceP7_objectS0_ _ZL49PyvtkImageCast_SetOutputScalarTypeToUnsignedShortP7_objectS0_ _ZL41PyvtkImageCast_SetOutputScalarTypeToFloatP7_objectS0_ _ZL39PyvtkImageCast_SetOutputScalarTypeToIntP7_objectS0_ _ZL47PyvtkImageCast_SetOutputScalarTypeToUnsignedIntP7_objectS0_ _ZL48PyvtkImageCast_SetOutputScalarTypeToUnsignedCharP7_objectS0_ _ZL48PyvtkImageCast_SetOutputScalarTypeToUnsignedLongP7_objectS0_ _ZL42PyvtkImageCast_SetOutputScalarTypeToDoubleP7_objectS0_ _ZL40PyvtkImageCast_SetOutputScalarTypeToLongP7_objectS0_ _ZL40PyvtkImageCast_SetOutputScalarTypeToCharP7_objectS0_ _ZL41PyvtkImageCast_SetOutputScalarTypeToShortP7_objectS0_ _ZL34PyvtkImageCast_SetOutputScalarTypeP7_objectS0_ _ZL19PyvtkImageCast_Type _ZL22PyvtkImageCast_Methods _GLOBAL__sub_I_vtkImageCastPython.cxx _ZL37PyvtkImageChangeInformation_StaticNewv _ZL40PyvtkImageChangeInformation_SafeDownCastP7_objectS0_ _ZL36PyvtkImageChangeInformation_IsTypeOfP7_objectS0_ _ZL43PyvtkImageChangeInformation_GetOutputOriginP7_objectS0_ _ZL44PyvtkImageChangeInformation_GetOutputSpacingP7_objectS0_ _ZL48PyvtkImageChangeInformation_GetOutputExtentStartP7_objectS0_ _ZL48PyvtkImageChangeInformation_GetExtentTranslationP7_objectS0_ _ZL43PyvtkImageChangeInformation_GetSpacingScaleP7_objectS0_ _ZL42PyvtkImageChangeInformation_GetOriginScaleP7_objectS0_ _ZL48PyvtkImageChangeInformation_GetOriginTranslationP7_objectS0_ _ZL42PyvtkImageChangeInformation_GetCenterImageP7_objectS0_ _ZL42PyvtkImageChangeInformation_SetCenterImageP7_objectS0_ _ZL41PyvtkImageChangeInformation_CenterImageOnP7_objectS0_ _ZL42PyvtkImageChangeInformation_CenterImageOffP7_objectS0_ _ZL39PyvtkImageChangeInformation_NewInstanceP7_objectS0_ _ZL31PyvtkImageChangeInformation_IsAP7_objectS0_ _ZL48PyvtkImageChangeInformation_SetOriginTranslationP7_objectS0_ _ZL42PyvtkImageChangeInformation_SetOriginScaleP7_objectS0_ _ZL43PyvtkImageChangeInformation_SetSpacingScaleP7_objectS0_ _ZL43PyvtkImageChangeInformation_SetOutputOriginP7_objectS0_ _ZL48PyvtkImageChangeInformation_SetExtentTranslationP7_objectS0_ _ZL44PyvtkImageChangeInformation_SetOutputSpacingP7_objectS0_ _ZL48PyvtkImageChangeInformation_SetOutputExtentStartP7_objectS0_ _ZL32PyvtkImageChangeInformation_Type _ZL35PyvtkImageChangeInformation_Methods _GLOBAL__sub_I_vtkImageChangeInformationPython.cxx _ZL47PyvtkImageChangeInformation_GetInformationInputP7_objectS0_ _ZL51PyvtkImageChangeInformation_SetInformationInputDataP7_objectS0_ _ZL24PyvtkImageClip_StaticNewv _ZL27PyvtkImageClip_SafeDownCastP7_objectS0_ _ZL23PyvtkImageClip_IsTypeOfP7_objectS0_ _ZL37PyvtkImageClip_ResetOutputWholeExtentP7_objectS0_ _ZL26PyvtkImageClip_GetClipDataP7_objectS0_ _ZL26PyvtkImageClip_NewInstanceP7_objectS0_ _ZL26PyvtkImageClip_ClipDataOffP7_objectS0_ _ZL25PyvtkImageClip_ClipDataOnP7_objectS0_ _ZL26PyvtkImageClip_SetClipDataP7_objectS0_ _ZL18PyvtkImageClip_IsAP7_objectS0_ _ZL35PyvtkImageClip_GetOutputWholeExtentP7_objectS0_ _ZL35PyvtkImageClip_SetOutputWholeExtentP7_objectS0_ _ZL19PyvtkImageClip_Type _ZL22PyvtkImageClip_Methods _GLOBAL__sub_I_vtkImageClipPython.cxx _ZL31PyvtkImageConstantPad_StaticNewv _ZL34PyvtkImageConstantPad_SafeDownCastP7_objectS0_ _ZL33PyvtkImageConstantPad_GetConstantP7_objectS0_ _ZL33PyvtkImageConstantPad_SetConstantP7_objectS0_ _ZL30PyvtkImageConstantPad_IsTypeOfP7_objectS0_ _ZL25PyvtkImageConstantPad_IsAP7_objectS0_ _ZL33PyvtkImageConstantPad_NewInstanceP7_objectS0_ _ZL26PyvtkImageConstantPad_Type _ZL29PyvtkImageConstantPad_Methods _GLOBAL__sub_I_vtkImageConstantPadPython.cxx _ZL32PyvtkImageDataStreamer_StaticNewv _ZL35PyvtkImageDataStreamer_SafeDownCastP7_objectS0_ _ZL49PyvtkImageDataStreamer_SetNumberOfStreamDivisionsP7_objectS0_ _ZL31PyvtkImageDataStreamer_IsTypeOfP7_objectS0_ _ZL49PyvtkImageDataStreamer_GetNumberOfStreamDivisionsP7_objectS0_ _ZL42PyvtkImageDataStreamer_GetExtentTranslatorP7_objectS0_ _ZL26PyvtkImageDataStreamer_IsAP7_objectS0_ _ZL34PyvtkImageDataStreamer_NewInstanceP7_objectS0_ _ZL27PyvtkImageDataStreamer_Type _ZL30PyvtkImageDataStreamer_Methods _GLOBAL__sub_I_vtkImageDataStreamerPython.cxx _ZL42PyvtkImageDataStreamer_SetExtentTranslatorP7_objectS0_ _ZL37PyvtkImageExtractComponents_StaticNewv _ZL40PyvtkImageExtractComponents_SafeDownCastP7_objectS0_ _ZL36PyvtkImageExtractComponents_IsTypeOfP7_objectS0_ _ZL41PyvtkImageExtractComponents_GetComponentsP7_objectS0_ _ZL49PyvtkImageExtractComponents_GetNumberOfComponentsP7_objectS0_ _ZL31PyvtkImageExtractComponents_IsAP7_objectS0_ _ZL39PyvtkImageExtractComponents_NewInstanceP7_objectS0_ _ZL41PyvtkImageExtractComponents_SetComponentsP7_objectS0_ _ZL32PyvtkImageExtractComponents_Type _ZL35PyvtkImageExtractComponents_Methods _GLOBAL__sub_I_vtkImageExtractComponentsPython.cxx _ZL24PyvtkImageFlip_StaticNewv _ZL27PyvtkImageFlip_SafeDownCastP7_objectS0_ _ZL23PyvtkImageFlip_IsTypeOfP7_objectS0_ _ZL18PyvtkImageFlip_IsAP7_objectS0_ _ZL33PyvtkImageFlip_GetFlipAboutOriginP7_objectS0_ _ZL37PyvtkImageFlip_GetPreserveImageExtentP7_objectS0_ _ZL30PyvtkImageFlip_GetFilteredAxisP7_objectS0_ _ZL30PyvtkImageFlip_GetFilteredAxesP7_objectS0_ _ZL30PyvtkImageFlip_SetFilteredAxisP7_objectS0_ _ZL33PyvtkImageFlip_SetFlipAboutOriginP7_objectS0_ _ZL37PyvtkImageFlip_SetPreserveImageExtentP7_objectS0_ _ZL33PyvtkImageFlip_FlipAboutOriginOffP7_objectS0_ _ZL37PyvtkImageFlip_PreserveImageExtentOffP7_objectS0_ _ZL36PyvtkImageFlip_PreserveImageExtentOnP7_objectS0_ _ZL32PyvtkImageFlip_FlipAboutOriginOnP7_objectS0_ _ZL30PyvtkImageFlip_SetFilteredAxesP7_objectS0_ _ZL26PyvtkImageFlip_NewInstanceP7_objectS0_ _ZL19PyvtkImageFlip_Type _ZL22PyvtkImageFlip_Methods _GLOBAL__sub_I_vtkImageFlipPython.cxx _ZL36PyvtkImageIterateFilter_SafeDownCastP7_objectS0_ _ZL45PyvtkImageIterateFilter_GetNumberOfIterationsP7_objectS0_ _ZL36PyvtkImageIterateFilter_GetIterationP7_objectS0_ _ZL32PyvtkImageIterateFilter_IsTypeOfP7_objectS0_ _ZL27PyvtkImageIterateFilter_IsAP7_objectS0_ _ZL35PyvtkImageIterateFilter_NewInstanceP7_objectS0_ _ZL28PyvtkImageIterateFilter_Type _ZL31PyvtkImageIterateFilter_Methods _GLOBAL__sub_I_vtkImageIterateFilterPython.cxx _ZL27PyvtkImageMagnify_StaticNewv _ZL30PyvtkImageMagnify_SafeDownCastP7_objectS0_ _ZL26PyvtkImageMagnify_IsTypeOfP7_objectS0_ _ZL41PyvtkImageMagnify_GetMagnificationFactorsP7_objectS0_ _ZL32PyvtkImageMagnify_GetInterpolateP7_objectS0_ _ZL21PyvtkImageMagnify_IsAP7_objectS0_ _ZL29PyvtkImageMagnify_NewInstanceP7_objectS0_ _ZL31PyvtkImageMagnify_InterpolateOnP7_objectS0_ _ZL32PyvtkImageMagnify_InterpolateOffP7_objectS0_ _ZL32PyvtkImageMagnify_SetInterpolateP7_objectS0_ _ZL41PyvtkImageMagnify_SetMagnificationFactorsP7_objectS0_ _ZL22PyvtkImageMagnify_Type _ZL25PyvtkImageMagnify_Methods _GLOBAL__sub_I_vtkImageMagnifyPython.cxx _ZL31PyvtkImageMapToColors_StaticNewv _ZL34PyvtkImageMapToColors_SafeDownCastP7_objectS0_ _ZL30PyvtkImageMapToColors_IsTypeOfP7_objectS0_ _ZL48PyvtkImageMapToColors_SetOutputFormatToLuminanceP7_objectS0_ _ZL43PyvtkImageMapToColors_SetOutputFormatToRGBAP7_objectS0_ _ZL42PyvtkImageMapToColors_SetOutputFormatToRGBP7_objectS0_ _ZL53PyvtkImageMapToColors_SetOutputFormatToLuminanceAlphaP7_objectS0_ _ZL33PyvtkImageMapToColors_GetNaNColorP7_objectS0_ _ZL40PyvtkImageMapToColors_GetActiveComponentP7_objectS0_ _ZL36PyvtkImageMapToColors_GetLookupTableP7_objectS0_ _ZL42PyvtkImageMapToColors_GetPassAlphaToOutputP7_objectS0_ _ZL37PyvtkImageMapToColors_GetOutputFormatP7_objectS0_ _ZL42PyvtkImageMapToColors_SetPassAlphaToOutputP7_objectS0_ _ZL37PyvtkImageMapToColors_SetOutputFormatP7_objectS0_ _ZL40PyvtkImageMapToColors_SetActiveComponentP7_objectS0_ _ZL41PyvtkImageMapToColors_PassAlphaToOutputOnP7_objectS0_ _ZL42PyvtkImageMapToColors_PassAlphaToOutputOffP7_objectS0_ _ZL33PyvtkImageMapToColors_NewInstanceP7_objectS0_ _ZL25PyvtkImageMapToColors_IsAP7_objectS0_ _ZL33PyvtkImageMapToColors_SetNaNColorP7_objectS0_ _ZL26PyvtkImageMapToColors_Type _ZL29PyvtkImageMapToColors_Methods _GLOBAL__sub_I_vtkImageMapToColorsPython.cxx _ZL30PyvtkImageMapToColors_GetMTimeP7_objectS0_ _ZL36PyvtkImageMapToColors_SetLookupTableP7_objectS0_ _ZL29PyvtkImageMirrorPad_StaticNewv _ZL32PyvtkImageMirrorPad_SafeDownCastP7_objectS0_ _ZL28PyvtkImageMirrorPad_IsTypeOfP7_objectS0_ _ZL23PyvtkImageMirrorPad_IsAP7_objectS0_ _ZL31PyvtkImageMirrorPad_NewInstanceP7_objectS0_ _ZL24PyvtkImageMirrorPad_Type _ZL27PyvtkImageMirrorPad_Methods _GLOBAL__sub_I_vtkImageMirrorPadPython.cxx _ZL29PyvtkImagePadFilter_StaticNewv _ZL32PyvtkImagePadFilter_SafeDownCastP7_objectS0_ _ZL28PyvtkImagePadFilter_IsTypeOfP7_objectS0_ _ZL53PyvtkImagePadFilter_GetOutputNumberOfScalarComponentsP7_objectS0_ _ZL53PyvtkImagePadFilter_SetOutputNumberOfScalarComponentsP7_objectS0_ _ZL23PyvtkImagePadFilter_IsAP7_objectS0_ _ZL31PyvtkImagePadFilter_NewInstanceP7_objectS0_ _ZL40PyvtkImagePadFilter_GetOutputWholeExtentP7_objectS0_ _ZL40PyvtkImagePadFilter_SetOutputWholeExtentP7_objectS0_ _ZL24PyvtkImagePadFilter_Type _ZL27PyvtkImagePadFilter_Methods _GLOBAL__sub_I_vtkImagePadFilterPython.cxx _ZL27PyvtkImagePermute_StaticNewv _ZL30PyvtkImagePermute_SafeDownCastP7_objectS0_ _ZL33PyvtkImagePermute_GetFilteredAxesP7_objectS0_ _ZL26PyvtkImagePermute_IsTypeOfP7_objectS0_ _ZL21PyvtkImagePermute_IsAP7_objectS0_ _ZL33PyvtkImagePermute_SetFilteredAxesP7_objectS0_ _ZL29PyvtkImagePermute_NewInstanceP7_objectS0_ _ZL22PyvtkImagePermute_Type _ZL25PyvtkImagePermute_Methods _GLOBAL__sub_I_vtkImagePermutePython.cxx _ZL28PyvtkImageResample_StaticNewv _ZL31PyvtkImageResample_SafeDownCastP7_objectS0_ _ZL27PyvtkImageResample_IsTypeOfP7_objectS0_ _ZL42PyvtkImageResample_GetMagnificationFactorsP7_objectS0_ _ZL36PyvtkImageResample_GetDimensionalityP7_objectS0_ _ZL39PyvtkImageResample_SetAxisOutputSpacingP7_objectS0_ _ZL45PyvtkImageResample_SetAxisMagnificationFactorP7_objectS0_ _ZL45PyvtkImageResample_GetAxisMagnificationFactorP7_objectS0_ _ZL36PyvtkImageResample_SetDimensionalityP7_objectS0_ _ZL30PyvtkImageResample_NewInstanceP7_objectS0_ _ZL22PyvtkImageResample_IsAP7_objectS0_ _ZL42PyvtkImageResample_SetMagnificationFactorsP7_objectS0_ _ZL23PyvtkImageResample_Type _ZL26PyvtkImageResample_Methods _GLOBAL__sub_I_vtkImageResamplePython.cxx _ZL35PyvtkImageResample_SetOutputSpacingP7_objectS0_ _ZL27PyvtkImageReslice_StaticNewv _ZL30PyvtkImageReslice_SafeDownCastP7_objectS0_ _ZL26PyvtkImageReslice_IsTypeOfP7_objectS0_ _ZL42PyvtkImageReslice_SetOutputExtentToDefaultP7_objectS0_ _ZL42PyvtkImageReslice_SetOutputOriginToDefaultP7_objectS0_ _ZL43PyvtkImageReslice_SetOutputSpacingToDefaultP7_objectS0_ _ZL28PyvtkImageReslice_GetStencilP7_objectS0_ _ZL34PyvtkImageReslice_GetStencilOutputP7_objectS0_ _ZL46PyvtkImageReslice_GetInterpolationModeMaxValueP7_objectS0_ _ZL37PyvtkImageReslice_GetSlabModeMinValueP7_objectS0_ _ZL37PyvtkImageReslice_GetSlabModeMaxValueP7_objectS0_ _ZL46PyvtkImageReslice_GetInterpolationModeMinValueP7_objectS0_ _ZL36PyvtkImageReslice_GetBackgroundColorP7_objectS0_ _ZL33PyvtkImageReslice_GetOutputExtentP7_objectS0_ _ZL34PyvtkImageReslice_GetOutputSpacingP7_objectS0_ _ZL33PyvtkImageReslice_GetOutputOriginP7_objectS0_ _ZL38PyvtkImageReslice_GetStencilOutputPortP7_objectS0_ _ZL45PyvtkImageReslice_GetSlabTrapezoidIntegrationP7_objectS0_ _ZL37PyvtkImageReslice_GetOutputScalarTypeP7_objectS0_ _ZL37PyvtkImageReslice_GetInformationInputP7_objectS0_ _ZL37PyvtkImageReslice_GetResliceTransformP7_objectS0_ _ZL38PyvtkImageReslice_GetInterpolationModeP7_objectS0_ _ZL27PyvtkImageReslice_GetMirrorP7_objectS0_ _ZL43PyvtkImageReslice_GetTransformInputSamplingP7_objectS0_ _ZL29PyvtkImageReslice_GetSlabModeP7_objectS0_ _ZL42PyvtkImageReslice_GetGenerateStencilOutputP7_objectS0_ _ZL25PyvtkImageReslice_GetWrapP7_objectS0_ _ZL32PyvtkImageReslice_GetScalarScaleP7_objectS0_ _ZL39PyvtkImageReslice_GetSlabNumberOfSlicesP7_objectS0_ _ZL32PyvtkImageReslice_GetResliceAxesP7_objectS0_ _ZL27PyvtkImageReslice_GetBorderP7_objectS0_ _ZL35PyvtkImageReslice_GetAutoCropOutputP7_objectS0_ _ZL41PyvtkImageReslice_GetOutputDimensionalityP7_objectS0_ _ZL33PyvtkImageReslice_GetOptimizationP7_objectS0_ _ZL45PyvtkImageReslice_GetSlabSliceSpacingFractionP7_objectS0_ _ZL32PyvtkImageReslice_GetScalarShiftP7_objectS0_ _ZL32PyvtkImageReslice_SetStencilDataP7_objectS0_ _ZL34PyvtkImageReslice_SetStencilOutputP7_objectS0_ _ZL36PyvtkImageReslice_GetBackgroundLevelP7_objectS0_ _ZL32PyvtkImageReslice_GetInterpolateP7_objectS0_ _ZL31PyvtkImageReslice_InterpolateOnP7_objectS0_ _ZL34PyvtkImageReslice_SetSlabModeToSumP7_objectS0_ _ZL35PyvtkImageReslice_SetSlabModeToMeanP7_objectS0_ _ZL45PyvtkImageReslice_SetInterpolationModeToCubicP7_objectS0_ _ZL46PyvtkImageReslice_SetInterpolationModeToLinearP7_objectS0_ _ZL34PyvtkImageReslice_SetSlabModeToMinP7_objectS0_ _ZL34PyvtkImageReslice_SetSlabModeToMaxP7_objectS0_ _ZL55PyvtkImageReslice_SetInterpolationModeToNearestNeighborP7_objectS0_ _ZL35PyvtkImageReslice_SetAutoCropOutputP7_objectS0_ _ZL39PyvtkImageReslice_SetSlabNumberOfSlicesP7_objectS0_ _ZL37PyvtkImageReslice_SetOutputScalarTypeP7_objectS0_ _ZL32PyvtkImageReslice_SetScalarShiftP7_objectS0_ _ZL33PyvtkImageReslice_SetOptimizationP7_objectS0_ _ZL41PyvtkImageReslice_SetOutputDimensionalityP7_objectS0_ _ZL42PyvtkImageReslice_SetGenerateStencilOutputP7_objectS0_ _ZL27PyvtkImageReslice_SetMirrorP7_objectS0_ _ZL27PyvtkImageReslice_SetBorderP7_objectS0_ _ZL45PyvtkImageReslice_SetSlabSliceSpacingFractionP7_objectS0_ _ZL32PyvtkImageReslice_SetScalarScaleP7_objectS0_ _ZL25PyvtkImageReslice_SetWrapP7_objectS0_ _ZL45PyvtkImageReslice_SetSlabTrapezoidIntegrationP7_objectS0_ _ZL43PyvtkImageReslice_SetTransformInputSamplingP7_objectS0_ _ZL32PyvtkImageReslice_OptimizationOnP7_objectS0_ _ZL43PyvtkImageReslice_TransformInputSamplingOffP7_objectS0_ _ZL24PyvtkImageReslice_WrapOnP7_objectS0_ _ZL27PyvtkImageReslice_MirrorOffP7_objectS0_ _ZL35PyvtkImageReslice_AutoCropOutputOffP7_objectS0_ _ZL34PyvtkImageReslice_AutoCropOutputOnP7_objectS0_ _ZL44PyvtkImageReslice_SlabTrapezoidIntegrationOnP7_objectS0_ _ZL27PyvtkImageReslice_BorderOffP7_objectS0_ _ZL26PyvtkImageReslice_MirrorOnP7_objectS0_ _ZL41PyvtkImageReslice_GenerateStencilOutputOnP7_objectS0_ _ZL33PyvtkImageReslice_OptimizationOffP7_objectS0_ _ZL26PyvtkImageReslice_BorderOnP7_objectS0_ _ZL42PyvtkImageReslice_TransformInputSamplingOnP7_objectS0_ _ZL45PyvtkImageReslice_SlabTrapezoidIntegrationOffP7_objectS0_ _ZL42PyvtkImageReslice_GenerateStencilOutputOffP7_objectS0_ _ZL25PyvtkImageReslice_WrapOffP7_objectS0_ _ZL38PyvtkImageReslice_SetInterpolationModeP7_objectS0_ _ZL29PyvtkImageReslice_SetSlabModeP7_objectS0_ _ZL32PyvtkImageReslice_InterpolateOffP7_objectS0_ _ZL29PyvtkImageReslice_NewInstanceP7_objectS0_ _ZL36PyvtkImageReslice_SetBackgroundLevelP7_objectS0_ _ZL21PyvtkImageReslice_IsAP7_objectS0_ _ZL32PyvtkImageReslice_SetInterpolateP7_objectS0_ _ZL38PyvtkImageReslice_GetResliceAxesOriginP7_objectS0_ _ZL38PyvtkImageReslice_SetResliceAxesOriginP7_objectS0_ _ZL48PyvtkImageReslice_GetResliceAxesDirectionCosinesP7_objectS0_ _ZL48PyvtkImageReslice_SetResliceAxesDirectionCosinesP7_objectS0_ _ZL36PyvtkImageReslice_SetBackgroundColorP7_objectS0_ _ZL22PyvtkImageReslice_Type _ZL25PyvtkImageReslice_Methods _ZZ28PyVTKAddFile_vtkImageResliceE9constants _GLOBAL__sub_I_vtkImageReslicePython.cxx _ZL34PyvtkImageReslice_ReportReferencesP7_objectS0_ _ZL26PyvtkImageReslice_GetMTimeP7_objectS0_ _ZL33PyvtkImageReslice_SetOutputExtentP7_objectS0_ _ZL33PyvtkImageReslice_SetOutputOriginP7_objectS0_ _ZL34PyvtkImageReslice_SetOutputSpacingP7_objectS0_ _ZL37PyvtkImageReslice_GetSlabModeAsStringP7_objectS0_ _ZL33PyvtkImageReslice_GetInterpolatorP7_objectS0_ _ZL33PyvtkImageReslice_SetInterpolatorP7_objectS0_ _ZL46PyvtkImageReslice_GetInterpolationModeAsStringP7_objectS0_ _ZL37PyvtkImageReslice_SetInformationInputP7_objectS0_ _ZL37PyvtkImageReslice_SetResliceTransformP7_objectS0_ _ZL32PyvtkImageReslice_SetResliceAxesP7_objectS0_ _ZL35PyvtkImageResliceToColors_StaticNewv _ZL38PyvtkImageResliceToColors_SafeDownCastP7_objectS0_ _ZL34PyvtkImageResliceToColors_IsTypeOfP7_objectS0_ _ZL29PyvtkImageResliceToColors_IsAP7_objectS0_ _ZL57PyvtkImageResliceToColors_SetOutputFormatToLuminanceAlphaP7_objectS0_ _ZL46PyvtkImageResliceToColors_SetOutputFormatToRGBP7_objectS0_ _ZL35PyvtkImageResliceToColors_GetBypassP7_objectS0_ _ZL47PyvtkImageResliceToColors_SetOutputFormatToRGBAP7_objectS0_ _ZL52PyvtkImageResliceToColors_SetOutputFormatToLuminanceP7_objectS0_ _ZL35PyvtkImageResliceToColors_BypassOffP7_objectS0_ _ZL34PyvtkImageResliceToColors_BypassOnP7_objectS0_ _ZL49PyvtkImageResliceToColors_GetOutputFormatMinValueP7_objectS0_ _ZL49PyvtkImageResliceToColors_GetOutputFormatMaxValueP7_objectS0_ _ZL41PyvtkImageResliceToColors_GetOutputFormatP7_objectS0_ _ZL40PyvtkImageResliceToColors_GetLookupTableP7_objectS0_ _ZL35PyvtkImageResliceToColors_SetBypassP7_objectS0_ _ZL41PyvtkImageResliceToColors_SetOutputFormatP7_objectS0_ _ZL37PyvtkImageResliceToColors_NewInstanceP7_objectS0_ _ZL30PyvtkImageResliceToColors_Type _ZL33PyvtkImageResliceToColors_Methods _GLOBAL__sub_I_vtkImageResliceToColorsPython.cxx _ZL34PyvtkImageResliceToColors_GetMTimeP7_objectS0_ _ZL40PyvtkImageResliceToColors_SetLookupTableP7_objectS0_ _ZL30PyvtkImageShiftScale_StaticNewv _ZL33PyvtkImageShiftScale_SafeDownCastP7_objectS0_ _ZL29PyvtkImageShiftScale_IsTypeOfP7_objectS0_ _ZL24PyvtkImageShiftScale_IsAP7_objectS0_ _ZL37PyvtkImageShiftScale_GetClampOverflowP7_objectS0_ _ZL29PyvtkImageShiftScale_GetShiftP7_objectS0_ _ZL29PyvtkImageShiftScale_GetScaleP7_objectS0_ _ZL40PyvtkImageShiftScale_GetOutputScalarTypeP7_objectS0_ _ZL37PyvtkImageShiftScale_SetClampOverflowP7_objectS0_ _ZL29PyvtkImageShiftScale_SetShiftP7_objectS0_ _ZL29PyvtkImageShiftScale_SetScaleP7_objectS0_ _ZL36PyvtkImageShiftScale_ClampOverflowOnP7_objectS0_ _ZL37PyvtkImageShiftScale_ClampOverflowOffP7_objectS0_ _ZL32PyvtkImageShiftScale_NewInstanceP7_objectS0_ _ZL53PyvtkImageShiftScale_SetOutputScalarTypeToUnsignedIntP7_objectS0_ _ZL46PyvtkImageShiftScale_SetOutputScalarTypeToCharP7_objectS0_ _ZL46PyvtkImageShiftScale_SetOutputScalarTypeToLongP7_objectS0_ _ZL55PyvtkImageShiftScale_SetOutputScalarTypeToUnsignedShortP7_objectS0_ _ZL48PyvtkImageShiftScale_SetOutputScalarTypeToDoubleP7_objectS0_ _ZL54PyvtkImageShiftScale_SetOutputScalarTypeToUnsignedLongP7_objectS0_ _ZL47PyvtkImageShiftScale_SetOutputScalarTypeToFloatP7_objectS0_ _ZL47PyvtkImageShiftScale_SetOutputScalarTypeToShortP7_objectS0_ _ZL54PyvtkImageShiftScale_SetOutputScalarTypeToUnsignedCharP7_objectS0_ _ZL45PyvtkImageShiftScale_SetOutputScalarTypeToIntP7_objectS0_ _ZL40PyvtkImageShiftScale_SetOutputScalarTypeP7_objectS0_ _ZL25PyvtkImageShiftScale_Type _ZL28PyvtkImageShiftScale_Methods _GLOBAL__sub_I_vtkImageShiftScalePython.cxx _ZL28PyvtkImageShrink3D_StaticNewv _ZL31PyvtkImageShrink3D_SafeDownCastP7_objectS0_ _ZL27PyvtkImageShrink3D_IsTypeOfP7_objectS0_ _ZL27PyvtkImageShrink3D_GetShiftP7_objectS0_ _ZL35PyvtkImageShrink3D_GetShrinkFactorsP7_objectS0_ _ZL29PyvtkImageShrink3D_GetMinimumP7_objectS0_ _ZL26PyvtkImageShrink3D_GetMeanP7_objectS0_ _ZL28PyvtkImageShrink3D_GetMedianP7_objectS0_ _ZL29PyvtkImageShrink3D_GetMaximumP7_objectS0_ _ZL27PyvtkImageShrink3D_MedianOnP7_objectS0_ _ZL26PyvtkImageShrink3D_MeanOffP7_objectS0_ _ZL28PyvtkImageShrink3D_MinimumOnP7_objectS0_ _ZL28PyvtkImageShrink3D_MaximumOnP7_objectS0_ _ZL25PyvtkImageShrink3D_MeanOnP7_objectS0_ _ZL30PyvtkImageShrink3D_AveragingOnP7_objectS0_ _ZL28PyvtkImageShrink3D_MedianOffP7_objectS0_ _ZL31PyvtkImageShrink3D_AveragingOffP7_objectS0_ _ZL29PyvtkImageShrink3D_MinimumOffP7_objectS0_ _ZL29PyvtkImageShrink3D_MaximumOffP7_objectS0_ _ZL31PyvtkImageShrink3D_GetAveragingP7_objectS0_ _ZL28PyvtkImageShrink3D_SetMedianP7_objectS0_ _ZL29PyvtkImageShrink3D_SetMaximumP7_objectS0_ _ZL26PyvtkImageShrink3D_SetMeanP7_objectS0_ _ZL29PyvtkImageShrink3D_SetMinimumP7_objectS0_ _ZL31PyvtkImageShrink3D_SetAveragingP7_objectS0_ _ZL30PyvtkImageShrink3D_NewInstanceP7_objectS0_ _ZL22PyvtkImageShrink3D_IsAP7_objectS0_ _ZL35PyvtkImageShrink3D_SetShrinkFactorsP7_objectS0_ _ZL27PyvtkImageShrink3D_SetShiftP7_objectS0_ _ZL23PyvtkImageShrink3D_Type _ZL26PyvtkImageShrink3D_Methods _GLOBAL__sub_I_vtkImageShrink3DPython.cxx _ZL29PyvtkImageThreshold_StaticNewv _ZL32PyvtkImageThreshold_SafeDownCastP7_objectS0_ _ZL28PyvtkImageThreshold_IsTypeOfP7_objectS0_ _ZL23PyvtkImageThreshold_IsAP7_objectS0_ _ZL37PyvtkImageThreshold_GetUpperThresholdP7_objectS0_ _ZL30PyvtkImageThreshold_GetInValueP7_objectS0_ _ZL32PyvtkImageThreshold_GetReplaceInP7_objectS0_ _ZL31PyvtkImageThreshold_GetOutValueP7_objectS0_ _ZL37PyvtkImageThreshold_GetLowerThresholdP7_objectS0_ _ZL33PyvtkImageThreshold_GetReplaceOutP7_objectS0_ _ZL39PyvtkImageThreshold_GetOutputScalarTypeP7_objectS0_ _ZL31PyvtkImageThreshold_SetOutValueP7_objectS0_ _ZL30PyvtkImageThreshold_SetInValueP7_objectS0_ _ZL36PyvtkImageThreshold_ThresholdByUpperP7_objectS0_ _ZL36PyvtkImageThreshold_ThresholdByLowerP7_objectS0_ _ZL36PyvtkImageThreshold_ThresholdBetweenP7_objectS0_ _ZL33PyvtkImageThreshold_SetReplaceOutP7_objectS0_ _ZL32PyvtkImageThreshold_SetReplaceInP7_objectS0_ _ZL31PyvtkImageThreshold_ReplaceInOnP7_objectS0_ _ZL32PyvtkImageThreshold_ReplaceOutOnP7_objectS0_ _ZL33PyvtkImageThreshold_ReplaceOutOffP7_objectS0_ _ZL32PyvtkImageThreshold_ReplaceInOffP7_objectS0_ _ZL31PyvtkImageThreshold_NewInstanceP7_objectS0_ _ZL46PyvtkImageThreshold_SetOutputScalarTypeToShortP7_objectS0_ _ZL53PyvtkImageThreshold_SetOutputScalarTypeToUnsignedCharP7_objectS0_ _ZL45PyvtkImageThreshold_SetOutputScalarTypeToCharP7_objectS0_ _ZL46PyvtkImageThreshold_SetOutputScalarTypeToFloatP7_objectS0_ _ZL53PyvtkImageThreshold_SetOutputScalarTypeToUnsignedLongP7_objectS0_ _ZL45PyvtkImageThreshold_SetOutputScalarTypeToLongP7_objectS0_ _ZL54PyvtkImageThreshold_SetOutputScalarTypeToUnsignedShortP7_objectS0_ _ZL52PyvtkImageThreshold_SetOutputScalarTypeToUnsignedIntP7_objectS0_ _ZL44PyvtkImageThreshold_SetOutputScalarTypeToIntP7_objectS0_ _ZL51PyvtkImageThreshold_SetOutputScalarTypeToSignedCharP7_objectS0_ _ZL47PyvtkImageThreshold_SetOutputScalarTypeToDoubleP7_objectS0_ _ZL39PyvtkImageThreshold_SetOutputScalarTypeP7_objectS0_ _ZL24PyvtkImageThreshold_Type _ZL27PyvtkImageThreshold_Methods _GLOBAL__sub_I_vtkImageThresholdPython.cxx _ZL35PyvtkImageTranslateExtent_StaticNewv _ZL38PyvtkImageTranslateExtent_SafeDownCastP7_objectS0_ _ZL40PyvtkImageTranslateExtent_GetTranslationP7_objectS0_ _ZL34PyvtkImageTranslateExtent_IsTypeOfP7_objectS0_ _ZL29PyvtkImageTranslateExtent_IsAP7_objectS0_ _ZL37PyvtkImageTranslateExtent_NewInstanceP7_objectS0_ _ZL40PyvtkImageTranslateExtent_SetTranslationP7_objectS0_ _ZL30PyvtkImageTranslateExtent_Type _ZL33PyvtkImageTranslateExtent_Methods _GLOBAL__sub_I_vtkImageTranslateExtentPython.cxx _ZL27PyvtkImageWrapPad_StaticNewv _ZL30PyvtkImageWrapPad_SafeDownCastP7_objectS0_ _ZL26PyvtkImageWrapPad_IsTypeOfP7_objectS0_ _ZL21PyvtkImageWrapPad_IsAP7_objectS0_ _ZL29PyvtkImageWrapPad_NewInstanceP7_objectS0_ _ZL22PyvtkImageWrapPad_Type _ZL25PyvtkImageWrapPad_Methods _GLOBAL__sub_I_vtkImageWrapPadPython.cxx _ZL31PyvtkRTAnalyticSource_StaticNewv _ZL34PyvtkRTAnalyticSource_SafeDownCastP7_objectS0_ _ZL30PyvtkRTAnalyticSource_IsTypeOfP7_objectS0_ _ZL36PyvtkRTAnalyticSource_GetWholeExtentP7_objectS0_ _ZL31PyvtkRTAnalyticSource_GetCenterP7_objectS0_ _ZL30PyvtkRTAnalyticSource_GetXFreqP7_objectS0_ _ZL42PyvtkRTAnalyticSource_GetStandardDeviationP7_objectS0_ _ZL30PyvtkRTAnalyticSource_GetZFreqP7_objectS0_ _ZL29PyvtkRTAnalyticSource_GetYMagP7_objectS0_ _ZL38PyvtkRTAnalyticSource_GetSubsampleRateP7_objectS0_ _ZL30PyvtkRTAnalyticSource_GetYFreqP7_objectS0_ _ZL29PyvtkRTAnalyticSource_GetZMagP7_objectS0_ _ZL29PyvtkRTAnalyticSource_GetXMagP7_objectS0_ _ZL32PyvtkRTAnalyticSource_GetMaximumP7_objectS0_ _ZL38PyvtkRTAnalyticSource_SetSubsampleRateP7_objectS0_ _ZL29PyvtkRTAnalyticSource_SetXMagP7_objectS0_ _ZL29PyvtkRTAnalyticSource_SetYMagP7_objectS0_ _ZL30PyvtkRTAnalyticSource_SetYFreqP7_objectS0_ _ZL30PyvtkRTAnalyticSource_SetZFreqP7_objectS0_ _ZL32PyvtkRTAnalyticSource_SetMaximumP7_objectS0_ _ZL29PyvtkRTAnalyticSource_SetZMagP7_objectS0_ _ZL42PyvtkRTAnalyticSource_SetStandardDeviationP7_objectS0_ _ZL30PyvtkRTAnalyticSource_SetXFreqP7_objectS0_ _ZL33PyvtkRTAnalyticSource_NewInstanceP7_objectS0_ _ZL36PyvtkRTAnalyticSource_SetWholeExtentP7_objectS0_ _ZL25PyvtkRTAnalyticSource_IsAP7_objectS0_ _ZL31PyvtkRTAnalyticSource_SetCenterP7_objectS0_ _ZL26PyvtkRTAnalyticSource_Type _ZL29PyvtkRTAnalyticSource_Methods _GLOBAL__sub_I_vtkRTAnalyticSourcePython.cxx _ZL26PyvtkImageResize_StaticNewv _ZL29PyvtkImageResize_SafeDownCastP7_objectS0_ _ZL25PyvtkImageResize_IsTypeOfP7_objectS0_ _ZL40PyvtkImageResize_GetResizeMethodMinValueP7_objectS0_ _ZL40PyvtkImageResize_GetResizeMethodMaxValueP7_objectS0_ _ZL36PyvtkImageResize_GetOutputDimensionsP7_objectS0_ _ZL34PyvtkImageResize_GetCroppingRegionP7_objectS0_ _ZL40PyvtkImageResize_GetMagnificationFactorsP7_objectS0_ _ZL33PyvtkImageResize_GetOutputSpacingP7_objectS0_ _ZL32PyvtkImageResize_GetResizeMethodP7_objectS0_ _ZL31PyvtkImageResize_GetInterpolateP7_objectS0_ _ZL26PyvtkImageResize_GetBorderP7_objectS0_ _ZL28PyvtkImageResize_GetCroppingP7_objectS0_ _ZL47PyvtkImageResize_SetResizeMethodToOutputSpacingP7_objectS0_ _ZL50PyvtkImageResize_SetResizeMethodToOutputDimensionsP7_objectS0_ _ZL54PyvtkImageResize_SetResizeMethodToMagnificationFactorsP7_objectS0_ _ZL26PyvtkImageResize_SetBorderP7_objectS0_ _ZL28PyvtkImageResize_SetCroppingP7_objectS0_ _ZL31PyvtkImageResize_SetInterpolateP7_objectS0_ _ZL25PyvtkImageResize_BorderOnP7_objectS0_ _ZL30PyvtkImageResize_InterpolateOnP7_objectS0_ _ZL27PyvtkImageResize_CroppingOnP7_objectS0_ _ZL31PyvtkImageResize_InterpolateOffP7_objectS0_ _ZL26PyvtkImageResize_BorderOffP7_objectS0_ _ZL28PyvtkImageResize_CroppingOffP7_objectS0_ _ZL32PyvtkImageResize_SetResizeMethodP7_objectS0_ _ZL28PyvtkImageResize_NewInstanceP7_objectS0_ _ZL20PyvtkImageResize_IsAP7_objectS0_ _ZL40PyvtkImageResize_SetMagnificationFactorsP7_objectS0_ _ZL36PyvtkImageResize_SetOutputDimensionsP7_objectS0_ _ZL33PyvtkImageResize_SetOutputSpacingP7_objectS0_ _ZL34PyvtkImageResize_SetCroppingRegionP7_objectS0_ _ZL24PyvtkImageResize_Methods _ZL21PyvtkImageResize_Type _ZZ25PyvtkImageResize_ClassNewE9constants _GLOBAL__sub_I_vtkImageResizePython.cxx _ZL25PyvtkImageResize_GetMTimeP7_objectS0_ _ZL32PyvtkImageResize_GetInterpolatorP7_objectS0_ _ZL32PyvtkImageResize_SetInterpolatorP7_objectS0_ _ZL40PyvtkImageResize_GetResizeMethodAsStringP7_objectS0_ _ZL36PyvtkImageStencilAlgorithm_StaticNewv _ZL39PyvtkImageStencilAlgorithm_SafeDownCastP7_objectS0_ _ZL36PyvtkImageStencilAlgorithm_GetOutputP7_objectS0_ _ZL36PyvtkImageStencilAlgorithm_SetOutputP7_objectS0_ _ZL35PyvtkImageStencilAlgorithm_IsTypeOfP7_objectS0_ _ZL30PyvtkImageStencilAlgorithm_IsAP7_objectS0_ _ZL38PyvtkImageStencilAlgorithm_NewInstanceP7_objectS0_ _ZL31PyvtkImageStencilAlgorithm_Type _ZL34PyvtkImageStencilAlgorithm_Methods _GLOBAL__sub_I_vtkImageStencilAlgorithmPython.cxx _ZL39PyvtkImageBSplineInterpolator_StaticNewv _ZL42PyvtkImageBSplineInterpolator_SafeDownCastP7_objectS0_ _ZL38PyvtkImageBSplineInterpolator_IsTypeOfP7_objectS0_ _ZL33PyvtkImageBSplineInterpolator_IsAP7_objectS0_ _ZL53PyvtkImageBSplineInterpolator_GetSplineDegreeMaxValueP7_objectS0_ _ZL53PyvtkImageBSplineInterpolator_GetSplineDegreeMinValueP7_objectS0_ _ZL45PyvtkImageBSplineInterpolator_GetSplineDegreeP7_objectS0_ _ZL45PyvtkImageBSplineInterpolator_SetSplineDegreeP7_objectS0_ _ZL41PyvtkImageBSplineInterpolator_NewInstanceP7_objectS0_ _ZL34PyvtkImageBSplineInterpolator_Type _ZL37PyvtkImageBSplineInterpolator_Methods _GLOBAL__sub_I_vtkImageBSplineInterpolatorPython.cxx _ZL41PyvtkImageBSplineInterpolator_IsSeparableP7_objectS0_ _ZL48PyvtkImageBSplineInterpolator_ComputeSupportSizeP7_objectS0_ _ZL36PyvtkImageSincInterpolator_StaticNewv _ZL39PyvtkImageSincInterpolator_SafeDownCastP7_objectS0_ _ZL35PyvtkImageSincInterpolator_IsTypeOfP7_objectS0_ _ZL45PyvtkImageSincInterpolator_GetWindowParameterP7_objectS0_ _ZL48PyvtkImageSincInterpolator_GetUseWindowParameterP7_objectS0_ _ZL42PyvtkImageSincInterpolator_GetAntialiasingP7_objectS0_ _ZL44PyvtkImageSincInterpolator_GetWindowFunctionP7_objectS0_ _ZL45PyvtkImageSincInterpolator_GetRenormalizationP7_objectS0_ _ZL45PyvtkImageSincInterpolator_GetWindowHalfWidthP7_objectS0_ _ZL42PyvtkImageSincInterpolator_AntialiasingOffP7_objectS0_ _ZL45PyvtkImageSincInterpolator_RenormalizationOffP7_objectS0_ _ZL47PyvtkImageSincInterpolator_UseWindowParameterOnP7_objectS0_ _ZL48PyvtkImageSincInterpolator_UseWindowParameterOffP7_objectS0_ _ZL44PyvtkImageSincInterpolator_RenormalizationOnP7_objectS0_ _ZL41PyvtkImageSincInterpolator_AntialiasingOnP7_objectS0_ _ZL61PyvtkImageSincInterpolator_SetWindowFunctionToBlackmanHarris4P7_objectS0_ _ZL62PyvtkImageSincInterpolator_SetWindowFunctionToBlackmanNuttall3P7_objectS0_ _ZL62PyvtkImageSincInterpolator_SetWindowFunctionToBlackmanNuttall4P7_objectS0_ _ZL53PyvtkImageSincInterpolator_SetWindowFunctionToNuttallP7_objectS0_ _ZL53PyvtkImageSincInterpolator_SetWindowFunctionToLanczosP7_objectS0_ _ZL52PyvtkImageSincInterpolator_SetWindowFunctionToKaiserP7_objectS0_ _ZL52PyvtkImageSincInterpolator_SetWindowFunctionToCosineP7_objectS0_ _ZL50PyvtkImageSincInterpolator_SetWindowFunctionToHannP7_objectS0_ _ZL53PyvtkImageSincInterpolator_SetWindowFunctionToHammingP7_objectS0_ _ZL54PyvtkImageSincInterpolator_SetWindowFunctionToBlackmanP7_objectS0_ _ZL61PyvtkImageSincInterpolator_SetWindowFunctionToBlackmanHarris3P7_objectS0_ _ZL48PyvtkImageSincInterpolator_SetUseWindowParameterP7_objectS0_ _ZL45PyvtkImageSincInterpolator_SetWindowHalfWidthP7_objectS0_ _ZL45PyvtkImageSincInterpolator_SetWindowParameterP7_objectS0_ _ZL45PyvtkImageSincInterpolator_SetRenormalizationP7_objectS0_ _ZL42PyvtkImageSincInterpolator_SetAntialiasingP7_objectS0_ _ZL30PyvtkImageSincInterpolator_IsAP7_objectS0_ _ZL38PyvtkImageSincInterpolator_NewInstanceP7_objectS0_ _ZL41PyvtkImageSincInterpolator_GetBlurFactorsP7_objectS0_ _ZL41PyvtkImageSincInterpolator_SetBlurFactorsP7_objectS0_ _ZL31PyvtkImageSincInterpolator_Type _ZL34PyvtkImageSincInterpolator_Methods _ZZ37PyVTKAddFile_vtkImageSincInterpolatorE9constants _GLOBAL__sub_I_vtkImageSincInterpolatorPython.cxx _ZL38PyvtkImageSincInterpolator_IsSeparableP7_objectS0_ _ZL45PyvtkImageSincInterpolator_ComputeSupportSizeP7_objectS0_ _ZL52PyvtkImageSincInterpolator_GetWindowFunctionAsStringP7_objectS0_ _ZL44PyvtkImageSincInterpolator_SetWindowFunctionP7_objectS0_ _ZL32PyvtkImageInterpolator_StaticNewv _ZL35PyvtkImageInterpolator_SafeDownCastP7_objectS0_ _ZL31PyvtkImageInterpolator_IsTypeOfP7_objectS0_ _ZL26PyvtkImageInterpolator_IsAP7_objectS0_ _ZL43PyvtkImageInterpolator_GetInterpolationModeP7_objectS0_ _ZL51PyvtkImageInterpolator_SetInterpolationModeToLinearP7_objectS0_ _ZL50PyvtkImageInterpolator_SetInterpolationModeToCubicP7_objectS0_ _ZL52PyvtkImageInterpolator_SetInterpolationModeToNearestP7_objectS0_ _ZL34PyvtkImageInterpolator_NewInstanceP7_objectS0_ _ZL27PyvtkImageInterpolator_Type _ZL30PyvtkImageInterpolator_Methods _GLOBAL__sub_I_vtkImageInterpolatorPython.cxx _ZL34PyvtkImageInterpolator_IsSeparableP7_objectS0_ _ZL41PyvtkImageInterpolator_ComputeSupportSizeP7_objectS0_ _ZL51PyvtkImageInterpolator_GetInterpolationModeAsStringP7_objectS0_ _ZL43PyvtkImageInterpolator_SetInterpolationModeP7_objectS0_ _ZL33PyvtkImageStencilSource_StaticNewv _ZL36PyvtkImageStencilSource_SafeDownCastP7_objectS0_ _ZL32PyvtkImageStencilSource_IsTypeOfP7_objectS0_ _ZL44PyvtkImageStencilSource_GetOutputWholeExtentP7_objectS0_ _ZL40PyvtkImageStencilSource_GetOutputSpacingP7_objectS0_ _ZL39PyvtkImageStencilSource_GetOutputOriginP7_objectS0_ _ZL43PyvtkImageStencilSource_GetInformationInputP7_objectS0_ _ZL35PyvtkImageStencilSource_NewInstanceP7_objectS0_ _ZL27PyvtkImageStencilSource_IsAP7_objectS0_ _ZL39PyvtkImageStencilSource_SetOutputOriginP7_objectS0_ _ZL40PyvtkImageStencilSource_SetOutputSpacingP7_objectS0_ _ZL44PyvtkImageStencilSource_SetOutputWholeExtentP7_objectS0_ _ZL28PyvtkImageStencilSource_Type _ZL31PyvtkImageStencilSource_Methods _GLOBAL__sub_I_vtkImageStencilSourcePython.cxx _ZL40PyvtkImageStencilSource_ReportReferencesP7_objectS0_ _ZL43PyvtkImageStencilSource_SetInformationInputP7_objectS0_ _ZL29PyvtkImagingCorePython_Module _GLOBAL__sub_I_vtkImagingCorePythonInitImpl.cxx _ZStL8__ioinit _ZL30PyvtkImagingCorePython_Methods crtstuff.c deregister_tm_clones __do_global_dtors_aux completed.0 __do_global_dtors_aux_fini_array_entry frame_dummy __frame_dummy_init_array_entry __FRAME_END__ __GNU_EH_FRAME_HDR __dso_handle DW.ref.__gxx_personality_v0 _fini _init _DYNAMIC __TMC_END__ _GLOBAL_OFFSET_TABLE_ PyVTKAddFile_vtkImageBSplineCoefficients _ZN15vtkImagePermute3IsAEPKc PyVTKObject_Delete _ZN23vtkImageTranslateExtent14GetTranslationEv _ZNK15vtkImageMagnify19NewInstanceInternalEv _ZN13vtkPythonArgs16PureVirtualErrorEv _ZN20vtkImageInterpolator20SetInterpolationModeEi PyVTKAddFile_vtkExtractVOI _ZN13vtkPythonUtil13ManglePointerEPKvPKc _ZN15vtkImageReslice15GetOptimizationEv _ZNK24vtkImageSincInterpolator19NewInstanceInternalEv _ZN15vtkImageReslice25GetTransformInputSamplingEv _ZN28vtkAbstractImageInterpolator11InterpolateEPKdPd _ZN12vtkImageMask3NewEv _ZN21vtkImageStencilSource3NewEv _ZN23vtkImageResliceToColors15SetOutputFormatEi _ZN15vtkImageReslice20GetInterpolationModeEv _ZN28vtkAbstractImageInterpolator10InitializeEP13vtkDataObject _ZN24vtkImageAppendComponents3NewEv _ZN15vtkImageReslice14GetScalarScaleEv _ZN27vtkImageBSplineCoefficients3IsAEPKc _ZN15vtkImageReslice24TransformInputSamplingOnEv _ZN25vtkImageChangeInformation16SetOutputSpacingEPd _ZN15vtkImageReslice15SetInterpolatorEP28vtkAbstractImageInterpolator _ZN12vtkImageMask16SetMaskInputDataEP12vtkImageData _ZN23vtkImageResliceToColors23GetOutputFormatMaxValueEv _ZN19vtkImageStencilData8IsInsideEiii _ZN23vtkImageTranslateExtent14SetTranslationEPi _ZN18vtkImageDifference3NewEv _ZN23vtkImageResliceToColors23GetOutputFormatMinValueEv _ZN19vtkImageStencilData10InitializeEv _ZN14vtkImageResize14GetInterpolateEv _ZN27vtkImageBSplineCoefficients23GetSplineDegreeMinValueEv _ZN25vtkImageExtractComponents3IsAEPKc _ZN15vtkImageReslice19GetSlabModeMinValueEv _ZN15vtkImageReslice18SetBackgroundColorEdddd _ZN12vtkImageMask10NotMaskOffEv PyVTKAddFile_vtkAbstractImageInterpolator _ZN15vtkImageReslice25SetOutputSpacingToDefaultEv _ZN16vtkImageResample3IsAEPKc _ZN16vtkImageResample20SetAxisOutputSpacingEid _ZN25vtkImageChangeInformation23SetInformationInputDataEP12vtkImageData _ZN18vtkImageDifference11AveragingOnEv _ZN14vtkImageResize9BorderOffEv _ZN18vtkImageShiftScale16SetClampOverflowEi PyvtkImageChangeInformation_ClassNew PyvtkAbstractImageInterpolator_ClassNew _ZN18vtkImageDifference13GetAllowShiftEv _ZN16vtkImageShrink3D10GetMaximumEv _ZN16vtkImageShrink3D7MeanOffEv _ZN19vtkImageMapToColors14SetLookupTableEP18vtkScalarsToColors _ZN15vtkImageReslice9GetMirrorEv PyVTKObject_Traverse _ZN19vtkRTAnalyticSource8SetXFreqEd _ZN12vtkImageFlip15SetFilteredAxisEi PyVTKObject_Check _ZN12vtkImageMask20GetMaskAlphaMinValueEv _ZN27vtkImageBSplineInterpolator11IsSeparableEv _ZN15vtkImageReslice16SetStencilOutputEP19vtkImageStencilData _ZN25vtkImageChangeInformation20GetOriginTranslationEv _ZNK27vtkImageBSplineInterpolator19NewInstanceInternalEv _ZN19vtkImageMapToColors3NewEv _ZN15vtkImageReslice7GetWrapEv _ZN15vtkImageMagnify3NewEv _ZN15vtkImageReslice8GetMTimeEv PyVTKAddFile_vtkImageBlend _ZN20vtkImageDataStreamer3NewEv _ZN15vtkImageReslice15SetOutputExtentEPKi _ZN12vtkImageFlip22SetPreserveImageExtentEi _ZN24vtkImageStencilAlgorithm9SetOutputEP19vtkImageStencilData _ZN12vtkImageCast3NewEv _ZN27vtkImageBSplineInterpolator15SetSplineDegreeEi _ZNK27vtkImageBSplineCoefficients19NewInstanceInternalEv PyvtkImagePointIterator_TypeNew _ZN12vtkImageCast19SetOutputScalarTypeEi _ZN19vtkImageStencilData10SetSpacingEddd _ZN25vtkImageChangeInformation19GetInformationInputEv _ZN19vtkImageMapToColors8GetMTimeEv _ZNK14vtkImageResize19NewInstanceInternalEv _ZN13vtkImageBlend3IsAEPKc PyvtkRTAnalyticSource_ClassNew _ZN19vtkImageMapToColors14GetLookupTableEv _ZN25vtkImagePointDataIterator14GetVoidPointerEP12vtkImageDataxPi _ZN14vtkImageResize13InterpolateOnEv _ZN20vtkImageDataStreamer19SetExtentTranslatorEP19vtkExtentTranslator _ZNK20vtkImageInterpolator19NewInstanceInternalEv _ZN15vtkImageReslice16ReportReferencesEP19vtkGarbageCollector _ZN25vtkImageChangeInformation20SetOutputExtentStartEiii PyvtkImageFlip_ClassNew PyvtkImageDecomposeFilter_ClassNew _ZN21vtkImageStencilRaster17PrepareForNewDataEPKi _ZN14vtkImageResize8GetMTimeEv _ZN13vtkPythonArgs5ArrayIxEC1El _ZN18vtkImageShiftScale8SetShiftEd _ZN28vtkAbstractImageInterpolator11SetOutValueEd _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeMaxValueEv PyVTKAddFile_vtkRTAnalyticSource _ZN19vtkImageMapToColors11SetNaNColorEhhhh _ZN19vtkImageMapToColors15SetOutputFormatEi _ZN21vtkImageStencilSource15GetOutputOriginEv _ZN16vtkImageShrink3D16SetShrinkFactorsEPi _ZN16vtkImageShrink3D3NewEv _ZN23vtkImageTranslateExtent14SetTranslationEiii _ZNK12vtkImageMask19NewInstanceInternalEv _ZN27vtkImageBSplineCoefficients15GetSplineDegreeEv _ZN21vtkImageStencilSource16SetOutputSpacingEddd PyObject_GenericSetAttr _ZN25vtkImagePointDataIterator14GetVoidPointerEP12vtkDataArrayxPi _ZN15vtkImageReslice16GetOutputSpacingEv _ZN28vtkAbstractImageInterpolator21GetNumberOfComponentsEv _ZN15vtkImageReslice27SetSlabTrapezoidIntegrationEi PyVTKAddFile_vtkImageIterateFilter _ZN15vtkImageMagnify14GetInterpolateEv _ZN16vtkImageShrink3D10MaximumOffEv _ZN14vtkImageResize19SetOutputDimensionsEPi _ZN25vtkImageChangeInformation20SetOriginTranslationEddd _ZN15vtkImageReslice3IsAEPKc _ZN17vtkImagePadFilter3NewEv _ZN28vtkAbstractImageInterpolator14GetWholeExtentEPi _ZN13vtkObjectBase8IsTypeOfEPKc _ZN17vtkImageThreshold11GetOutValueEv _ZN25vtkImageChangeInformation20GetOutputExtentStartEv PyModule_GetDict _ZN19vtkRTAnalyticSource7SetXMagEd _ZN14vtkImageResize11GetCroppingEv _ZN19vtkImageStencilData10GetSpacingEv _ZN19vtkImageMapToColors20SetPassAlphaToOutputEi _ZN17vtkImageThreshold11SetOutValueEd PyvtkImageMask_ClassNew _ZN21vtkImageStencilSource3IsAEPKc PyVTKObject_New __cxa_finalize@GLIBC_2.2.5 _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeMinValueEv strlen@GLIBC_2.2.5 _ZN27vtkImageBSplineInterpolator3NewEv PyvtkImageThreshold_ClassNew _ZNK23vtkImageResliceToColors19NewInstanceInternalEv _ZN27vtkImageBSplineCoefficients15SetSplineDegreeEi _ZN20vtkImageDataStreamer3IsAEPKc _ZN19vtkImageStencilData15AllocateExtentsEv _ZN19vtkImageStencilData11ShallowCopyEP13vtkDataObject _ZN13vtkPythonArgs5ArrayIiEC1El _ZN23vtkImageResliceToColors14GetLookupTableEv _ZN18vtkImageDifference12GetAveragingEv PyVTKAddFile_vtkImageChangeInformation _ZN23vtkImageResliceToColors9SetBypassEi PyVTKAddFile_vtkImageAppendComponents _ZN12vtkImageClip20SetOutputWholeExtentEiiiiii _Py_FatalErrorFunc _ZN18vtkImageShiftScale3NewEv _ZN17vtkImagePadFilter33SetOutputNumberOfScalarComponentsEi _ZN13vtkPythonArgs13CheckSizeHintEill _ZN14vtkImageResize17SetCroppingRegionEPd _ZN27vtkImageBSplineCoefficients21GetBorderModeMaxValueEv _ZN20vtkImageDataStreamer26GetNumberOfStreamDivisionsEv _ZN13vtkPythonArgs10GetArgSizeEi _ZN15vtkImageReslice26SlabTrapezoidIntegrationOnEv _ZN19vtkRTAnalyticSource9SetCenterEddd PyvtkAlgorithm_ClassNew PyvtkImageClip_ClassNew _ZN16vtkImageShrink3D7GetMeanEv _ZN18vtkImageDifference3IsAEPKc _ZN16vtkImageShrink3D10SetMaximumEi _Py_NoneStruct _ZN12vtkImageClip11ClipDataOffEv PyvtkImageStencilSource_ClassNew _ZN21vtkImagePointIteratorC1Ev _ZN12vtkImageFlip18SetFlipAboutOriginEi _ZN19vtkImageCacheFilter12SetCacheSizeEi _ZN17vtkImageMirrorPad3IsAEPKc _ZN18vtkImageDifference13SetAllowShiftEi PyDict_SetItemString _ZN13vtkPythonArgs8GetArrayEPxi _ZN25vtkImageChangeInformation14CenterImageOffEv _ZN15vtkImageReslice23GenerateStencilOutputOnEv _ZN24vtkImageStencilAlgorithm3NewEv _ZN25vtkImageChangeInformation3NewEv PyvtkImageStencilAlgorithm_ClassNew _ZN14vtkImageResize16SetOutputSpacingEPd _ZNK19vtkImageConstantPad19NewInstanceInternalEv _ZN19vtkRTAnalyticSource16GetSubsampleRateEv _ZN18vtkImageShiftScale16ClampOverflowOffEv _ZN12vtkImageMask10GetNotMaskEv _ZN13vtkExtractVOI18GetIncludeBoundaryEv PyType_Type _ZN27vtkImageBSplineCoefficients3NewEv PyvtkImageMirrorPad_ClassNew PyBytes_FromStringAndSize _ZN19vtkRTAnalyticSource20GetStandardDeviationEv _ZN19vtkImageStencilData10SetSpacingEPd _ZN17vtkImageAlgorithm12SetInputDataEiP13vtkDataObject _ZNK18vtkImageDifference19NewInstanceInternalEv _ZN19vtkRTAnalyticSource7SetZMagEd _ZN13vtkImageBlend14SetStencilDataEP19vtkImageStencilData _ZN15vtkImageReslice11SetSlabModeEi _ZN25vtkImageExtractComponents13SetComponentsEi _ZN18vtkImageDifference12AllowShiftOnEv _ZN12vtkImageFlip21PreserveImageExtentOnEv _ZN19vtkImageStencilData7GetDataEP20vtkInformationVectori _ZN17vtkImageThreshold13SetReplaceOutEi _ZN16vtkImageResample16SetOutputSpacingEPKd _ZN15vtkImageReslice18GetBackgroundColorEv _ZN12vtkImageMask20GetMaskAlphaMaxValueEv _ZN15vtkImageReslice15OptimizationOffEv _ZN16vtkImageShrink3D11AveragingOnEv _ZN17vtkImageThreshold13ReplaceOutOffEv _ZN15vtkImageReslice20SetInterpolationModeEi PyVTKSpecialObject_New _ZN23vtkImageTranslateExtent3NewEv _ZN24vtkImageSincInterpolator25GetWindowFunctionAsStringEv _ZN16vtkImageShrink3D8GetShiftEv _ZN13vtkExtractVOI3IsAEPKc _ZN15vtkImageReslice16AutoCropOutputOnEv _ZN13vtkPythonArgs8GetValueERd _ZN27vtkImageBSplineCoefficients8EvaluateEPKdPd _ZN19vtkImageStencilData12RemoveExtentEiiii PyVTKAddFile_vtkImageMask PyVTKObject_AsBuffer _ZN16vtkImageShrink3D9MaximumOnEv _ZN13vtkExtractVOI13SetSampleRateEPi _ZN15vtkImageReslice23SetOutputDimensionalityEi _ZN19vtkImageMapToColors11SetNaNColorEPh _ZN24vtkImageSincInterpolator21SetUseWindowParameterEi _ZNK12vtkImageCast19NewInstanceInternalEv _ZN16vtkImageShrink3D9MinimumOnEv _ZN15vtkImageReslice19SetOutputScalarTypeEi PyVTKAddFile_vtkImagePermute _ZN19vtkRTAnalyticSource7SetYMagEd PyVTKAddFile_vtkImageStencilAlgorithm _ZN27vtkImageBSplineCoefficients19GetOutputScalarTypeEv _ZN16vtkImageResample16SetOutputSpacingEddd PyvtkImageWrapPad_ClassNew PyFloat_FromDouble _ZN19vtkImageStencilData27CopyInformationFromPipelineEP14vtkInformation _ZN27vtkImageBSplineCoefficients21GetBorderModeMinValueEv _ZN16vtkImageResample17GetDimensionalityEv _ZN15vtkImageReslice9SetBorderEi _ZN17vtkImageThreshold3NewEv _ZN17vtkImageThreshold19SetOutputScalarTypeEi _ZN19vtkRTAnalyticSource3NewEv _ZN13vtkPythonUtil20GetObjectFromPointerEP13vtkObjectBase _ZN25vtkImageChangeInformation15GetSpacingScaleEv _ZN13vtkPythonArgs8GetValueERPc _ZN15vtkImageReslice15SetOptimizationEi _ZN28vtkAbstractImageInterpolator17SetComponentCountEi _ZN15vtkImageReslice17SetAutoCropOutputEi PyvtkImageAlgorithm_ClassNew PyVTKAddFile_vtkImageStencilSource _ZN23vtkImageDecomposeFilter17PermuteIncrementsEPxRxS1_S1_ _ZN18vtkImageDifference12SetThresholdEi _ZN16vtkImageResample3NewEv PyVTKObject_GetSet _ZN15vtkImagePermute15SetFilteredAxesEiii _ZN23vtkImageDecomposeFilter17SetDimensionalityEi _ZN25vtkImageChangeInformation14SetCenterImageEi _ZN12vtkImageFlip3IsAEPKc _ZN23vtkImageResliceToColors15GetOutputFormatEv _ZN13vtkPythonArgs11SetArgValueEix _ZN14vtkImageResize3NewEv _Py_Dealloc _ZN25vtkImagePointDataIteratorC1Ev _ZN17vtkImageThreshold17GetUpperThresholdEv _ZN27vtkImageBSplineCoefficients23GetSplineDegreeMaxValueEv _ZN24vtkImageSincInterpolator14SetBlurFactorsEddd PyvtkImageMapToColors_ClassNew PyvtkImageCacheFilter_ClassNew _ZN15vtkImageReslice6WrapOnEv _ZN20vtkImageInterpolator11IsSeparableEv _ZN12vtkImageClip3NewEv PyVTKAddFile_vtkImageDifference _ZN15vtkImageReslice17GetAutoCropOutputEv _ZN12vtkImageFlip15GetFilteredAxisEv _ZN18vtkImageShiftScale19GetOutputScalarTypeEv _ZN15vtkImageReslice11GetSlabModeEv _ZN19vtkImageStencilData7GetDataEP14vtkInformation _ZN13vtkPythonArgs8GetArrayEPdi _ZN17vtkImagePadFilter3IsAEPKc _ZN17vtkImageThreshold12ReplaceInOffEv _ZN16vtkImageShrink3D9GetMedianEv _ZN14vtkImageResize23GetResizeMethodAsStringEv _ZN15vtkImageMagnify3IsAEPKc _ZN20vtkImageInterpolator18ComputeSupportSizeEPKdPi _ZN17vtkImageMirrorPad3NewEv PyVTKAddFile_vtkImageDataStreamer _ZN13vtkImageBlend20SetStencilConnectionEP18vtkAlgorithmOutput _ZN14vtkImageResize15SetResizeMethodEi _ZN19vtkImageMapToColors18GetActiveComponentEv PyVTKAddFile_vtkImageFlip PyVTKAddFile_vtkImageWrapPad _ZN16vtkImageShrink3D10SetMinimumEi _ZN19vtkRTAnalyticSource20SetStandardDeviationEd _ZN17vtkImageThreshold16ThresholdByUpperEd PyvtkExtractVOI_ClassNew _ZN14vtkImageResize14SetInterpolateEi _ZN15vtkImageMagnify14SetInterpolateEi PyUnicode_FromString _ZN12vtkImageMask17SetImageInputDataEP12vtkImageData PyvtkImageShiftScale_ClassNew PyVTKAddFile_vtkImageResliceToColors _ZN16vtkImageShrink3D16GetShrinkFactorsEv _ZN12vtkImageMask12GetMaskAlphaEv _ZN12vtkImageClip20GetOutputWholeExtentEPi _ZN15vtkImageMagnify23SetMagnificationFactorsEPi PyvtkImageBSplineInterpolator_ClassNew _ZN17vtkImagePadFilter20SetOutputWholeExtentEiiiiii __cxa_atexit@GLIBC_2.2.5 _ZN15vtkImagePermute3NewEv _ZN14vtkImageResize14InterpolateOffEv _ZN28vtkAbstractImageInterpolator9GetExtentEv _ZN25vtkImageExtractComponents13GetComponentsEv _ZN12vtkImageFlip17FlipAboutOriginOnEv _ZN27vtkImageBSplineCoefficients9SetBypassEi _ZN24vtkImageAppendComponents8GetInputEi _ZN12vtkImageClip11GetClipDataEv _ZN19vtkImageStencilData4FillEv _ZN28vtkAbstractImageInterpolator25ComputeNumberOfComponentsEi _ZN19vtkRTAnalyticSource10SetMaximumEd _ZNK24vtkImageAppendComponents19NewInstanceInternalEv _ZN12vtkImageMask3IsAEPKc _ZN25vtkImageChangeInformation16SetOutputSpacingEddd _ZN15vtkImageReslice9SetMirrorEi PyvtkDataObject_ClassNew _ZN13vtkPythonArgs8SetArrayEiPKdi _ZNK13vtkImageBlend19NewInstanceInternalEv _ZN28vtkAbstractImageInterpolator8DeepCopyEPS_ _ZN13vtkPythonArgs8GetArrayEPii PyvtkImageIterateFilter_ClassNew _ZN17vtkImagePadFilter33GetOutputNumberOfScalarComponentsEv _ZdlPv@GLIBCXX_3.4 PyVTKObject_String _ZN24vtkImageAppendComponents3IsAEPKc _ZN28vtkAbstractImageInterpolator6UpdateEv _ZN19vtkImageConstantPad3NewEv _ZN19vtkRTAnalyticSource14SetWholeExtentEiiiiii _ZN12vtkImageCast16ClampOverflowOffEv _ZN13vtkPythonArgs10BuildTupleEPKii _ZN13vtkExtractVOI13SetSampleRateEiii _ZN16vtkImageShrink3D10MinimumOffEv _ZN15vtkImageReslice20GetResliceAxesOriginEPd _ZN14vtkImageResize16SetOutputSpacingEddd _ZN25vtkImageChangeInformation15SetSpacingScaleEddd _ZN14vtkImageResize23SetMagnificationFactorsEPd _ZN14vtkImageResize19SetOutputDimensionsEiii _ZNK12vtkImageClip19NewInstanceInternalEv PyVTKAddFile_vtkImageBSplineInterpolator PyErr_Clear _ZN16vtkImageResample17SetDimensionalityEi _ZN15vtkImageReslice9BorderOffEv _ZN16vtkImageShrink3D9MedianOffEv _ZN18vtkImageShiftScale8GetScaleEv _ZN27vtkImageBSplineCoefficients11CheckBoundsEPKd _ZN13vtkPythonArgs11SetArgValueEii _ZN25vtkImageExtractComponents3NewEv _ZN21vtkImagePointIteratorC1EP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi _Znwm@GLIBCXX_3.4 _ZN18vtkImageDifference12GetThresholdEv _ZN18vtkImageDifference13AllowShiftOffEv _ZN19vtkImageStencilData3AddEPS_ _ZNK17vtkImageMirrorPad19NewInstanceInternalEv _ZN14vtkImageResize11CroppingOffEv _ZN25vtkImageChangeInformation20SetOriginTranslationEPd _ZN13vtkImageBlend20GetBlendModeMinValueEv _ZN15vtkImageReslice15GetOutputExtentEv _ZN25vtkImageChangeInformation16GetOutputSpacingEv _ZN16vtkImageShrink3D8MedianOnEv _ZN24vtkImageSincInterpolator11IsSeparableEv _ZN12vtkImageMask9NotMaskOnEv _ZN13vtkImageBlend25ReplaceNthInputConnectionEiP18vtkAlgorithmOutput _ZNK19vtkImageStencilData19NewInstanceInternalEv _ZN15vtkImageReslice7SetWrapEi _ZN15vtkImageWrapPad3IsAEPKc _ZN15vtkImageReslice17AutoCropOutputOffEv _ZN27vtkImageBSplineCoefficients8BypassOnEv _ZN15vtkImageReslice15SetOutputOriginEPKd _ZNK16vtkImageShrink3D19NewInstanceInternalEv _ZN28vtkAbstractImageInterpolator14GetWholeExtentEv _ZN19vtkRTAnalyticSource7GetYMagEv _ZN21vtkImageStencilRasterD1Ev _ZN19vtkImageMapToColors20GetPassAlphaToOutputEv _ZN12vtkAlgorithm27GetNumberOfInputConnectionsEi _ZN14vtkImageResize3IsAEPKc _ZN13vtkImageBlend10SetOpacityEid _ZN20vtkImageInterpolator28GetInterpolationModeAsStringEv _ZN19vtkImageStencilData3IsAEPKc _ZN12vtkImageCast3IsAEPKc _ZN14vtkImageResize23SetMagnificationFactorsEddd _ZNK25vtkImageExtractComponents19NewInstanceInternalEv _ZN25vtkImagePointDataIterator10InitializeEP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi _ZN17vtkImageThreshold11ReplaceInOnEv _ZNK23vtkImageTranslateExtent19NewInstanceInternalEv _ZN17vtkImageThreshold19GetOutputScalarTypeEv _ZN12vtkImageClip3IsAEPKc _ZN15vtkImageMagnify14InterpolateOffEv PyvtkImageDataStreamer_ClassNew _ZN15vtkImageReslice28GetInterpolationModeAsStringEv PyVTKObject_GetObject _ZN27vtkImageBSplineCoefficients19SetOutputScalarTypeEi _ZN24vtkImageAppendComponents25ReplaceNthInputConnectionEiP18vtkAlgorithmOutput _ZN12vtkImageMask20SetMaskedOutputValueEiPd __stack_chk_fail@GLIBC_2.4 PyvtkImageExtractComponents_ClassNew _ZN12vtkImageClip20SetOutputWholeExtentEPiP14vtkInformation _ZNK17vtkImagePadFilter19NewInstanceInternalEv _ZN24vtkImageSincInterpolator15SetAntialiasingEi _ZN9vtkObject3NewEv _ZN14vtkImageResize10CroppingOnEv PyvtkImageMagnify_ClassNew _ZN13vtkExtractVOI3NewEv _ZN13vtkImageBlend12GetBlendModeEv _ZN13vtkExtractVOI18SetIncludeBoundaryEi _ZN13vtkPythonArgs8GetValueERb PyErr_SetString PyVTKAddFile_vtkImageThreshold _ZN18vtkImageDifference12AveragingOffEv _ZN15vtkImageReslice19SetInformationInputEP12vtkImageData PyvtkImageDifference_ClassNew _ZN27vtkImageBSplineCoefficients21GetBorderModeAsStringEv _ZN21vtkImageStencilSource20SetOutputWholeExtentEiiiiii _ZN24vtkImageStencilAlgorithm9GetOutputEv PyVTKAddFile_vtkImageShiftScale _ZN19vtkImageConstantPad11GetConstantEv _ZN13vtkExtractVOI13GetSampleRateEv _ZN15vtkImageReslice14OptimizationOnEv PyVTKSpecialType_Add _ZN15vtkImageReslice24SetOutputOriginToDefaultEv _ZN23vtkImageResliceToColors3NewEv _ZN15vtkImageReslice19GetResliceTransformEv _ZN18vtkImageShiftScale15ClampOverflowOnEv _ZN15vtkImageReslice20SetResliceAxesOriginEddd _ZN15vtkImageReslice19GetSlabModeMaxValueEv PyvtkImageStencilRaster_TypeNew PyVTKAddFile_vtkImageDecomposeFilter _ZN16vtkImageResample23SetMagnificationFactorsEddd _ZN12vtkImageCast19GetOutputScalarTypeEv _ZN15vtkImageReslice28GetInterpolationModeMaxValueEv _ZN24vtkImageSincInterpolator18SetRenormalizationEi _ZN19vtkRTAnalyticSource10GetMaximumEv _ZN15vtkImageReslice28GetInterpolationModeMinValueEv _ZN28vtkAbstractImageInterpolator10GetSpacingEv _ZN17vtkImageThreshold12GetReplaceInEv _ZN15vtkImageReslice14SetStencilDataEP19vtkImageStencilData PyvtkImageResliceToColors_ClassNew PyVTKAddFile_vtkImageClip _ZNK28vtkAbstractImageInterpolator19NewInstanceInternalEv PyVTKAddFile_vtkImageResize _ZN15vtkImageReslice30SetResliceAxesDirectionCosinesEddddddddd _ZN15vtkImageReslice14SetScalarScaleEd _ZN18vtkImageShiftScale16GetClampOverflowEv _ZN19vtkImageStencilData16InsertNextExtentEiiii _ZN27vtkImageBSplineCoefficients9GetBypassEv _ZN12vtkImageFlip22GetPreserveImageExtentEv _ZN15vtkImageReslice15GetOutputOriginEv _ZN19vtkImageConstantPad3IsAEPKc _ZN25vtkImageExtractComponents13SetComponentsEiii _ZN13vtkExtractVOI17IncludeBoundaryOnEv _ZN12vtkImageMask10SetNotMaskEi _ZN17vtkImageThreshold10SetInValueEd _ZN25vtkImageChangeInformation13CenterImageOnEv _ZN15vtkImageReslice9MirrorOffEv _ZdaPv@GLIBCXX_3.4 _ZN16vtkImageShrink3D10GetMinimumEv _ZN19vtkImageStencilData8DeepCopyEP13vtkDataObject _ZN15vtkImageReslice27GetSlabTrapezoidIntegrationEv _ZN18vtkImageShiftScale19SetOutputScalarTypeEi _ZNK15vtkImageReslice19NewInstanceInternalEv _ZN25vtkImagePointDataIterator8NextSpanEv _ZN19vtkRTAnalyticSource3IsAEPKc _ZN14vtkImageResize19GetOutputDimensionsEv _ZN14vtkImageResize17GetCroppingRegionEv _ZNK21vtkImageIterateFilter19NewInstanceInternalEv PyvtkImageReslice_ClassNew _ZN15vtkImageReslice27GetSlabSliceSpacingFractionEv _ZN17vtkImagePadFilter20SetOutputWholeExtentEPi PyVTKObject_SetFlag _ZNK17vtkImageThreshold19NewInstanceInternalEv _ZN14vtkImageResize15GetResizeMethodEv _ZN19vtkImageStencilData28InternalImageStencilDataCopyEPS_ PyVTKClass_Add _ZN15vtkImageReslice23GetOutputDimensionalityEv _ZN19vtkImageCacheFilter12GetCacheSizeEv _ZN19vtkRTAnalyticSource8SetYFreqEd PyVTKAddFile_vtkImageTranslateExtent _ZNK12vtkImageFlip19NewInstanceInternalEv _ZN17vtkImageThreshold16ThresholdBetweenEdd PyvtkImageInterpolator_ClassNew _ZN14vtkImageResize8BorderOnEv _ZN25vtkImageChangeInformation20GetExtentTranslationEv _ZN13vtkImageBlend12SetBlendModeEi _ZN17vtkImageThreshold12ReplaceOutOnEv _ZN15vtkImageReslice19GetOutputScalarTypeEv _ZN28vtkAbstractImageInterpolator13SetBorderModeEi PyObject_GC_Del _ZN15vtkImageReslice24SetGenerateStencilOutputEi _ZN19vtkRTAnalyticSource7GetZMagEv _ZN19vtkImageStencilData7ReplaceEPS_ PyVTKAddFile_vtkImageSincInterpolator _ZN20vtkImageDataStreamer19GetExtentTranslatorEv _ZN19vtkImageStencilData3NewEv _ZN27vtkImageBSplineInterpolator18ComputeSupportSizeEPKdPi _ZN16vtkImageShrink3D6MeanOnEv _ZN24vtkImageSincInterpolator18SetWindowParameterEd PyvtkImageAppendComponents_ClassNew _ZN19vtkImageMapToColors3IsAEPKc _ZN13vtkPythonArgs8GetValueERi _ZN20vtkImageInterpolator3NewEv PyObject_Free PyVTKObject_Repr _ZN14vtkImageResize11SetCroppingEi _ZN25vtkImageChangeInformation14SetOriginScaleEPd _ZN12vtkImageCast15ClampOverflowOnEv _ZN24vtkImageSincInterpolator3IsAEPKc strcmp@GLIBC_2.2.5 PyExc_TypeError _ZN19vtkImageStencilData9GetExtentEv _ZN13vtkImageBlend20GetBlendModeMaxValueEv PyVTKSpecialObject_Repr _ZN16vtkImageShrink3D8SetShiftEiii _ZN15vtkImageReslice27SlabTrapezoidIntegrationOffEv _ZN16vtkImageShrink3D12AveragingOffEv _ZN13vtkExtractVOI18IncludeBoundaryOffEv _ZN21vtkImageStencilSource20GetOutputWholeExtentEv _ZN19vtkImageStencilData9SetOriginEPd _ZN25vtkImageChangeInformation14GetCenterImageEv _ZNK18vtkImageShiftScale19NewInstanceInternalEv _ZN15vtkImageReslice14GetResliceAxesEv _ZN19vtkImageStencilData13GetExtentTypeEv _ZN15vtkImageReslice14SetScalarShiftEd _ZN14vtkImageResize23GetResizeMethodMinValueEv _ZN19vtkImageStencilData17GetDataObjectTypeEv _ZN14vtkImageResize17SetCroppingRegionEdddddd _ZN14vtkImageResize23GetResizeMethodMaxValueEv PyType_Ready _ZN21vtkImageStencilSource15SetOutputOriginEPd _ZN19vtkRTAnalyticSource7GetXMagEv _ZN21vtkImageIterateFilter3IsAEPKc PyvtkImageShrink3D_ClassNew PyVTKAddFile_vtkImageMapToColors _ZN19vtkImageStencilData9SetExtentEiiiiii _ZN13vtkPythonArgs17GetArgAsVTKObjectEPKcRb _ZN28vtkAbstractImageInterpolator18SetComponentOffsetEi _ZNK15vtkImageWrapPad19NewInstanceInternalEv _ZN27vtkImageBSplineCoefficients27GetOutputScalarTypeAsStringEv real_initvtkImagingCorePython _ZN27vtkImageBSplineCoefficients8EvaluateEddd PyVTKAddFile_vtkImagePointDataIterator _ZN12vtkImageMask13SetInput1DataEP13vtkDataObject _ZN20vtkImageInterpolator3IsAEPKc _ZN21vtkImageStencilSource20SetOutputWholeExtentEPi _ZN19vtkRTAnalyticSource9SetCenterEPd _ZN18vtkImageShiftScale8SetScaleEd _ZN28vtkAbstractImageInterpolator11ReleaseDataEv _ZN18vtkImageDifference12SetAveragingEi _ZN15vtkImageReslice16SetOutputSpacingEddd _ZN15vtkImageReslice8BorderOnEv _ZN13vtkPythonArgs19GetSelfFromFirstArgEP7_objectS1_ _ZNK19vtkImageMapToColors19NewInstanceInternalEv _ZN13vtkPythonArgs10BuildTupleEPKdi _ZN13vtkPythonArgs8SetArrayEiPKxi _ZN13vtkPythonArgs5ArrayIdEC1El PyLong_FromLong PyvtkImageConstantPad_ClassNew _ZN12vtkAlgorithm13GetOutputPortEi _ZN13vtkImageBlend20GetCompoundThresholdEv PyVTKAddFile_vtkImageCacheFilter PyLong_FromLongLong _ZNK19vtkRTAnalyticSource19NewInstanceInternalEv _ZN19vtkImageStencilData25CopyInformationToPipelineEP14vtkInformation _ZN13vtkImageBlend10GetStencilEv _ZN20vtkImageDataStreamer26SetNumberOfStreamDivisionsEi _ZN15vtkImageMagnify23SetMagnificationFactorsEiii PyvtkImagePointDataIterator_TypeNew _ZNSt8ios_base4InitC1Ev@GLIBCXX_3.4 _ZN13vtkImageBlend8GetInputEi _ZN15vtkImageReslice3NewEv PyvtkImageResize_ClassNew _ZN15vtkImageReslice19SetResliceTransformEP20vtkAbstractTransform _ZN19vtkImageMapToColors19PassAlphaToOutputOnEv _ZN28vtkAbstractImageInterpolator21GetBorderModeAsStringEv PyModule_Create2 _ZN28vtkAbstractImageInterpolator9GetOriginEv _ZN15vtkImageReslice25SetTransformInputSamplingEi _ZN14vtkImageResize15GetInterpolatorEv _ZN15vtkImageReslice16GetStencilOutputEv _ZN16vtkImageShrink3D3IsAEPKc _ZN28vtkAbstractImageInterpolator3IsAEPKc _ZN15vtkImageReslice7WrapOffEv _ZN13vtkPythonArgs8GetValueERx _ZN19vtkRTAnalyticSource8GetXFreqEv _ZN15vtkImageReslice14GetScalarShiftEv _ZN17vtkImageThreshold16ThresholdByLowerEd _ZN13vtkPythonArgs8GetArrayEPhi _ZN15vtkImagePermute15GetFilteredAxesEv _ZN13vtkPythonArgs8GetValueERh _ZN19vtkImageStencilData9GetOriginEv PyVTKAddFile_vtkImagePointIterator _ZN12vtkImageCast16GetClampOverflowEv PyErr_Occurred _ZN17vtkPythonOverload10CallMethodEP11PyMethodDefP7_objectS3_ PyObject_GenericGetAttr _ZN15vtkImageReslice24GetGenerateStencilOutputEv _ZN12vtkImageClip11SetClipDataEi _ZN12vtkImageFlip18GetFlipAboutOriginEv _ZN13vtkPythonArgs8SetArrayEiPKii _ZN19vtkImageCacheFilter3NewEv _ZN19vtkImageStencilData9SetExtentEPi _ZN21vtkImageStencilSource19SetInformationInputEP12vtkImageData _ZN16vtkImageShrink3D7SetMeanEi __gxx_personality_v0@CXXABI_1.3 _ZN13vtkImageBlend3NewEv _ZN23vtkImageTranslateExtent3IsAEPKc _ZN23vtkImageResliceToColors3IsAEPKc _ZN15vtkImageReslice15GetInterpolatorEv _ZN19vtkRTAnalyticSource8SetZFreqEd _ZN28vtkAbstractImageInterpolator11InterpolateEdddi PyVTKAddFile_vtkImagePadFilter _ZN15vtkImageReslice15SetOutputExtentEiiiiii _ZN15vtkImageReslice30GetResliceAxesDirectionCosinesEPdS0_S0_ PyObject_HashNotImplemented PyVTKAddFile_vtkImageShrink3D _ZNK13vtkExtractVOI19NewInstanceInternalEv PyvtkImageSincInterpolator_ClassNew _ZN15vtkImageWrapPad3NewEv _ZN12vtkImageMask12SetMaskAlphaEd _ZN12vtkAlgorithm3NewEv PyvtkImageBSplineCoefficients_ClassNew PyVTKAddFile_vtkImageCast _ZN17vtkImageThreshold12SetReplaceInEi _ZN25vtkImageChangeInformation3IsAEPKc _ZN19vtkImageConstantPad11SetConstantEd _ZN25vtkImageChangeInformation20SetOutputExtentStartEPi _ZNK20vtkImageDataStreamer19NewInstanceInternalEv _ZN19vtkImageStencilData20InsertAndMergeExtentEiiii _ZN12vtkImageMask13SetInput2DataEP13vtkDataObject _ZN15vtkImageReslice14SetResliceAxesEP12vtkMatrix4x4 _ZN23vtkImageDecomposeFilter3IsAEPKc _ZNK25vtkImageChangeInformation19NewInstanceInternalEv _ZN13vtkImageBlend12SetInputDataEiP13vtkDataObject _ZN14vtkImageResize9SetBorderEi _ZN21vtkImageStencilRasterC1EPKi _ZN12vtkImageFlip3NewEv _ZN21vtkImageStencilSource16GetOutputSpacingEv _ZN21vtkImageStencilSource16SetOutputSpacingEPd PyVTKAddFile_vtkImageResample _ZN14vtkImageResize23GetMagnificationFactorsEv PyVTKAddFile_vtkImageMagnify _ZN19vtkImageStencilData13GetNextExtentERiS0_iiiiS0_ _ZN18vtkImageDifference8GetImageEv _ZN19vtkImageStencilData8SubtractEPS_ _ZN21vtkImagePointIterator10InitializeEP12vtkImageDataPKiP19vtkImageStencilDataP12vtkAlgorithmi PyDict_Size _ZN13vtkImageBlend20SetCompoundThresholdEd _ZN25vtkImageChangeInformation15SetOutputOriginEddd _ZN12vtkImageClip22ResetOutputWholeExtentEv _ZN24vtkImageSincInterpolator17SetWindowFunctionEi PyvtkImagePadFilter_ClassNew _ZN24vtkImageSincInterpolator18ComputeSupportSizeEPKdPi _ZN21vtkImageStencilSource15SetOutputOriginEddd _ZN16vtkImageResample26GetAxisMagnificationFactorEiP14vtkInformation PyVTKAddFile_vtkImageConstantPad _ZN16vtkImageShrink3D12SetAveragingEi _ZN13vtkPythonArgs10BuildTupleEPKhi _ITM_deregisterTMCloneTable _ZN15vtkImageReslice18SetBackgroundColorEPd PyvtkImageBlend_ClassNew _ZN27vtkImageBSplineCoefficients13GetBorderModeEv _Unwind_Resume@GCC_3.0 _ZN28vtkAbstractImageInterpolator16SetSlidingWindowEb _ZN27vtkImageBSplineInterpolator3IsAEPKc _ZNK19vtkImageCacheFilter19NewInstanceInternalEv PyvtkImagePermute_ClassNew _ZN19vtkImageMapToColors11GetNaNColorEv _ZNK23vtkImageDecomposeFilter19NewInstanceInternalEv _ZN15vtkImageMagnify13InterpolateOnEv _ZN23vtkImageResliceToColors14SetLookupTableEP18vtkScalarsToColors PyvtkImageResample_ClassNew _ZN19vtkImageStencilData4ClipEPi _ZN16vtkImageResample23GetMagnificationFactorsEv _ZN12vtkImageCast16SetClampOverflowEi _ZN21vtkImageStencilSource19GetInformationInputEv _ZN25vtkImageChangeInformation14SetOriginScaleEddd _ZN13vtkPythonArgs21GetArgAsSpecialObjectEPKcPP7_object PyLong_FromUnsignedLong _ZN13vtkImageBlend10GetOpacityEi _ZN15vtkImageReslice25TransformInputSamplingOffEv _ZN16vtkImageShrink3D9SetMedianEi PyVTKAddFile_vtkImageMirrorPad PyVTKAddFile_vtkImageInterpolator _ZN19vtkRTAnalyticSource9GetCenterEv _ZN15vtkImageReslice8MirrorOnEv _ZN21vtkImageStencilRaster15FillStencilDataEP19vtkImageStencilDataPKiii _ZN14vtkImageResize9GetBorderEv _ZN17vtkImageThreshold17GetLowerThresholdEv _ZN15vtkImageReslice19GetSlabModeAsStringEv _ZN24vtkImageStencilAlgorithm3IsAEPKc _ZN15vtkImageMagnify23GetMagnificationFactorsEv _ZN13vtkExtractVOI6GetVOIEv _ZN18vtkImageShiftScale8GetShiftEv _ZN19vtkImageStencilData9SetOriginEddd _ZN16vtkImageShrink3D8SetShiftEPi _ZN17vtkImagePadFilter20GetOutputWholeExtentEPi _ZN15vtkImageReslice24GenerateStencilOutputOffEv _ZN12vtkImageClip10ClipDataOnEv _ZN23vtkImageDecomposeFilter13PermuteExtentEPiRiS1_S1_S1_S1_S1_ _ZN14vtkImageResize15SetInterpolatorEP28vtkAbstractImageInterpolator _ZNK24vtkImageStencilAlgorithm19NewInstanceInternalEv PyVTKAddFile_vtkImageExtractComponents _ZN25vtkImageChangeInformation15SetSpacingScaleEPd _ZNK16vtkImageResample19NewInstanceInternalEv PyvtkImageTranslateExtent_ClassNew _ZN12vtkImageFlip18FlipAboutOriginOffEv _ZN23vtkImageDecomposeFilter17GetDimensionalityEv _ZN19vtkImageMapToColors15GetOutputFormatEv _ZN13vtkPythonArgs13ArgCountErrorEiPKc _ZN16vtkImageResample26SetAxisMagnificationFactorEid _ZN24vtkImageSincInterpolator18SetWindowHalfWidthEi _ZN25vtkImageChangeInformation15SetOutputOriginEPd _ZN15vtkImageReslice24SetOutputExtentToDefaultEv _ZN12vtkImageFlip22PreserveImageExtentOffEv _ZN25vtkImageExtractComponents21GetNumberOfComponentsEv _ZN13vtkPythonArgs13ArgCountErrorEii _ZN21vtkImageStencilRaster10InsertLineEPKdS1_ __gmon_start__ _ZNK21vtkImageStencilSource19NewInstanceInternalEv _ZN19vtkRTAnalyticSource8GetYFreqEv _ZN27vtkImageBSplineCoefficients9BypassOffEv _ZN25vtkImageChangeInformation15GetOutputOriginEv _ZN14vtkImageResize16GetOutputSpacingEv _ZN18vtkImageShiftScale3IsAEPKc _ZN21vtkImageIterateFilter12GetIterationEv _ZN15vtkImageReslice21GetSlabNumberOfSlicesEv _ZN28vtkAbstractImageInterpolator12SetToleranceEd PyVTKAddFile_vtkImageReslice _ZN25vtkImageChangeInformation20SetExtentTranslationEiii _ZN15vtkImageReslice9GetBorderEv PyVTKAddFile_vtkImageStencilData _ZN19vtkImageMapToColors20PassAlphaToOutputOffEv _ZN19vtkImageCacheFilter3IsAEPKc _ITM_registerTMCloneTable _ZN24vtkImageAppendComponents12SetInputDataEiP13vtkDataObject _ZN15vtkImageReslice21SetSlabNumberOfSlicesEi _ZN25vtkImageExtractComponents13SetComponentsEii _ZN21vtkImageStencilRaster10InsertLineEPKdS1_bb _ZN15vtkImageReslice10GetStencilEv _ZN19vtkImageMapToColors18SetActiveComponentEi _ZN19vtkRTAnalyticSource14GetWholeExtentEv _ZN16vtkImageShrink3D16SetShrinkFactorsEiii PyvtkImageCast_ClassNew PyvtkThreadedImageAlgorithm_ClassNew PyvtkObject_ClassNew _ZN24vtkImageSincInterpolator3NewEv _ZN13vtkExtractVOI6SetVOIEiiiiii _ZN17vtkImageThreshold13GetReplaceOutEv _ZN15vtkImageReslice27SetSlabSliceSpacingFractionEd _ZN21vtkImageStencilSource16ReportReferencesEP19vtkGarbageCollector _ZN15vtkImageReslice16SetOutputSpacingEPKd _ZN19vtkRTAnalyticSource8GetZFreqEv PyUnicode_FromStringAndSize _ZN13vtkExtractVOI6SetVOIEPi _ZN21vtkImageIterateFilter21GetNumberOfIterationsEv _ZN17vtkImageThreshold10GetInValueEv _ZN27vtkImageBSplineCoefficients13SetBorderModeEi _ZN19vtkRTAnalyticSource16SetSubsampleRateEi PyvtkImageStencilData_ClassNew _ZN15vtkImageReslice19GetInformationInputEv _ZN23vtkImageResliceToColors8GetMTimeEv _ZN25vtkImageChangeInformation14GetOriginScaleEv _ZNSt8ios_base4InitD1Ev@GLIBCXX_3.4 _ZNK15vtkImagePermute19NewInstanceInternalEv PyBool_FromLong _ZN17vtkImageThreshold3IsAEPKc _ZN15vtkImageReslice15SetOutputOriginEddd _ZN25vtkImageChangeInformation20SetExtentTranslationEPi .symtab .strtab .shstrtab .note.gnu.property .note.gnu.build-id .gnu.hash .dynsym .dynstr .gnu.version .gnu.version_r .rela.dyn .rela.plt .init .plt.got .plt.sec .text .fini .rodata .eh_frame_hdr .eh_frame .gcc_except_table .init_array .fini_array .data.rel.ro .dynamic .got.plt .data .bss .comment . $ A o
K xH S Y Y { [ o
h o w ( ( & B 0! 0 0 0 0 0 PF PF `F `F \ \ 1! } }
Ӑ D) : : 4 L L P X X ` `
p P
P
( @
@
@
(
H # 0 (
+ X
x U
8 ڍ ,