opencv/modules/java/generator/gen_java.py
Jason von Nieda f4b502dd03 Adds supports for the majority of features2d to the Java wrappers:
* Adds the main features2d header to the parse list for the generator.
* Removes the manual definition of drawKeypoints and drawMatches since these are now included in the main header.
* Updates the generator to ignore SimpleBlobDetector, FlannBasedMatcher and DescriptorMatcher as these cause conflicts with the generator. This is okay since these were not previously included in the distribution anyway, so no harm is done.
2016-03-07 00:14:53 -08:00

1572 lines
68 KiB
Python
Executable File

#!/usr/bin/env python
import sys, re, os.path
import logging
from pprint import pformat
from string import Template
if sys.version_info[0] >= 3:
from io import StringIO
else:
from cStringIO import StringIO
class_ignore_list = (
#core
"FileNode", "FileStorage", "KDTree", "KeyPoint", "DMatch",
#features2d
"SimpleBlobDetector", "FlannBasedMatcher", "DescriptorMatcher"
)
const_ignore_list = (
"CV_CAP_OPENNI",
"CV_CAP_PROP_OPENNI_",
"CV_CAP_INTELPERC",
"CV_CAP_PROP_INTELPERC_"
"WINDOW_AUTOSIZE",
"CV_WND_PROP_",
"CV_WINDOW_",
"CV_EVENT_",
"CV_GUI_",
"CV_PUSH_BUTTON",
"CV_CHECKBOX",
"CV_RADIOBOX",
#attention!
#the following constants are added to this list using code automatic generation
#TODO: should be checked
"CV_CAP_ANY",
"CV_CAP_MIL",
"CV_CAP_VFW",
"CV_CAP_V4L",
"CV_CAP_V4L2",
"CV_CAP_FIREWARE",
"CV_CAP_FIREWIRE",
"CV_CAP_IEEE1394",
"CV_CAP_DC1394",
"CV_CAP_CMU1394",
"CV_CAP_STEREO",
"CV_CAP_TYZX",
"CV_TYZX_LEFT",
"CV_TYZX_RIGHT",
"CV_TYZX_COLOR",
"CV_TYZX_Z",
"CV_CAP_QT",
"CV_CAP_UNICAP",
"CV_CAP_DSHOW",
"CV_CAP_PVAPI",
"CV_CAP_PROP_DC1394_OFF",
"CV_CAP_PROP_DC1394_MODE_MANUAL",
"CV_CAP_PROP_DC1394_MODE_AUTO",
"CV_CAP_PROP_DC1394_MODE_ONE_PUSH_AUTO",
"CV_CAP_PROP_POS_MSEC",
"CV_CAP_PROP_POS_FRAMES",
"CV_CAP_PROP_POS_AVI_RATIO",
"CV_CAP_PROP_FPS",
"CV_CAP_PROP_FOURCC",
"CV_CAP_PROP_FRAME_COUNT",
"CV_CAP_PROP_FORMAT",
"CV_CAP_PROP_MODE",
"CV_CAP_PROP_BRIGHTNESS",
"CV_CAP_PROP_CONTRAST",
"CV_CAP_PROP_SATURATION",
"CV_CAP_PROP_HUE",
"CV_CAP_PROP_GAIN",
"CV_CAP_PROP_EXPOSURE",
"CV_CAP_PROP_CONVERT_RGB",
"CV_CAP_PROP_WHITE_BALANCE_BLUE_U",
"CV_CAP_PROP_RECTIFICATION",
"CV_CAP_PROP_MONOCHROME",
"CV_CAP_PROP_SHARPNESS",
"CV_CAP_PROP_AUTO_EXPOSURE",
"CV_CAP_PROP_GAMMA",
"CV_CAP_PROP_TEMPERATURE",
"CV_CAP_PROP_TRIGGER",
"CV_CAP_PROP_TRIGGER_DELAY",
"CV_CAP_PROP_WHITE_BALANCE_RED_V",
"CV_CAP_PROP_MAX_DC1394",
"CV_CAP_GSTREAMER_QUEUE_LENGTH",
"CV_CAP_PROP_PVAPI_MULTICASTIP",
"CV_CAP_PROP_SUPPORTED_PREVIEW_SIZES_STRING",
"EVENT_.*",
"CV_L?(BGRA?|RGBA?|GRAY|XYZ|YCrCb|Luv|Lab|HLS|YUV|HSV)\d*2L?(BGRA?|RGBA?|GRAY|XYZ|YCrCb|Luv|Lab|HLS|YUV|HSV).*",
"CV_COLORCVT_MAX",
"CV_.*Bayer.*",
"CV_YUV420(i|sp|p)2.+",
"CV_TM_.+",
"CV_FLOODFILL_.+",
"CV_ADAPTIVE_THRESH_.+",
"WINDOW_.+",
"WND_PROP_.+",
)
const_private_list = (
"CV_MOP_.+",
"CV_INTER_.+",
"CV_THRESH_.+",
"CV_INPAINT_.+",
"CV_RETR_.+",
"CV_CHAIN_APPROX_.+",
"OPPONENTEXTRACTOR",
"GRIDDETECTOR",
"PYRAMIDDETECTOR",
"DYNAMICDETECTOR",
)
# { Module : { public : [[name, val],...], private : [[]...] } }
missing_consts = \
{
'Core' :
{
'private' :
(
('CV_8U', 0 ), ('CV_8S', 1 ),
('CV_16U', 2 ), ('CV_16S', 3 ),
('CV_32S', 4 ),
('CV_32F', 5 ), ('CV_64F', 6 ),
('CV_USRTYPE1', 7 ),
), # private
'public' :
(
('SVD_MODIFY_A', 1), ('SVD_NO_UV', 2), ('SVD_FULL_UV', 4),
('FILLED', -1),
('REDUCE_SUM', 0), ('REDUCE_AVG', 1), ('REDUCE_MAX', 2), ('REDUCE_MIN', 3),
) #public
}, # Core
"Imgproc":
{
'private' :
(
('IPL_BORDER_CONSTANT', 0 ),
('IPL_BORDER_REPLICATE', 1 ),
('IPL_BORDER_REFLECT', 2 ),
('IPL_BORDER_WRAP', 3 ),
('IPL_BORDER_REFLECT_101', 4 ),
('IPL_BORDER_TRANSPARENT', 5 ),
), # private
'public' :
(
('LINE_AA', 16), ('LINE_8', 8), ('LINE_4', 4),
) #public
}, # Imgproc
"Calib3d":
{
'public' :
(
('CALIB_USE_INTRINSIC_GUESS', '1'),
('CALIB_RECOMPUTE_EXTRINSIC', '2'),
('CALIB_CHECK_COND', '4'),
('CALIB_FIX_SKEW', '8'),
('CALIB_FIX_K1', '16'),
('CALIB_FIX_K2', '32'),
('CALIB_FIX_K3', '64'),
('CALIB_FIX_K4', '128'),
('CALIB_FIX_INTRINSIC', '256')
)
}, # Calib3d
"Video":
{
'private' :
(
('CV_LKFLOW_INITIAL_GUESSES', 4 ),
('CV_LKFLOW_GET_MIN_EIGENVALS', 8 ),
) # private
}, # Video
}
# c_type : { java/jni correspondence }
type_dict = {
# "simple" : { j_type : "?", jn_type : "?", jni_type : "?", suffix : "?" },
"" : { "j_type" : "", "jn_type" : "long", "jni_type" : "jlong" }, # c-tor ret_type
"void" : { "j_type" : "void", "jn_type" : "void", "jni_type" : "void" },
"env" : { "j_type" : "", "jn_type" : "", "jni_type" : "JNIEnv*"},
"cls" : { "j_type" : "", "jn_type" : "", "jni_type" : "jclass"},
"bool" : { "j_type" : "boolean", "jn_type" : "boolean", "jni_type" : "jboolean", "suffix" : "Z" },
"char" : { "j_type" : "char", "jn_type" : "char", "jni_type" : "jchar", "suffix" : "C" },
"int" : { "j_type" : "int", "jn_type" : "int", "jni_type" : "jint", "suffix" : "I" },
"long" : { "j_type" : "int", "jn_type" : "int", "jni_type" : "jint", "suffix" : "I" },
"float" : { "j_type" : "float", "jn_type" : "float", "jni_type" : "jfloat", "suffix" : "F" },
"double" : { "j_type" : "double", "jn_type" : "double", "jni_type" : "jdouble", "suffix" : "D" },
"size_t" : { "j_type" : "long", "jn_type" : "long", "jni_type" : "jlong", "suffix" : "J" },
"__int64" : { "j_type" : "long", "jn_type" : "long", "jni_type" : "jlong", "suffix" : "J" },
"int64" : { "j_type" : "long", "jn_type" : "long", "jni_type" : "jlong", "suffix" : "J" },
"double[]": { "j_type" : "double[]", "jn_type" : "double[]", "jni_type" : "jdoubleArray", "suffix" : "_3D" },
# "complex" : { j_type : "?", jn_args : (("", ""),), jn_name : "", jni_var : "", jni_name : "", "suffix" : "?" },
"vector_Point" : { "j_type" : "MatOfPoint", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point> %(n)s", "suffix" : "J" },
"vector_Point2f" : { "j_type" : "MatOfPoint2f", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point2f> %(n)s", "suffix" : "J" },
#"vector_Point2d" : { "j_type" : "MatOfPoint2d", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point2d> %(n)s", "suffix" : "J" },
"vector_Point3i" : { "j_type" : "MatOfPoint3", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point3i> %(n)s", "suffix" : "J" },
"vector_Point3f" : { "j_type" : "MatOfPoint3f", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point3f> %(n)s", "suffix" : "J" },
#"vector_Point3d" : { "j_type" : "MatOfPoint3d", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Point3d> %(n)s", "suffix" : "J" },
"vector_KeyPoint" : { "j_type" : "MatOfKeyPoint", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<KeyPoint> %(n)s", "suffix" : "J" },
"vector_DMatch" : { "j_type" : "MatOfDMatch", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<DMatch> %(n)s", "suffix" : "J" },
"vector_Rect" : { "j_type" : "MatOfRect", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Rect> %(n)s", "suffix" : "J" },
"vector_uchar" : { "j_type" : "MatOfByte", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<uchar> %(n)s", "suffix" : "J" },
"vector_char" : { "j_type" : "MatOfByte", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<char> %(n)s", "suffix" : "J" },
"vector_int" : { "j_type" : "MatOfInt", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<int> %(n)s", "suffix" : "J" },
"vector_float" : { "j_type" : "MatOfFloat", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<float> %(n)s", "suffix" : "J" },
"vector_double" : { "j_type" : "MatOfDouble", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<double> %(n)s", "suffix" : "J" },
"vector_Vec4i" : { "j_type" : "MatOfInt4", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Vec4i> %(n)s", "suffix" : "J" },
"vector_Vec4f" : { "j_type" : "MatOfFloat4", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Vec4f> %(n)s", "suffix" : "J" },
"vector_Vec6f" : { "j_type" : "MatOfFloat6", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Vec6f> %(n)s", "suffix" : "J" },
"vector_Mat" : { "j_type" : "List<Mat>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector<Mat> %(n)s", "suffix" : "J" },
"vector_vector_KeyPoint": { "j_type" : "List<MatOfKeyPoint>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<KeyPoint> > %(n)s" },
"vector_vector_DMatch" : { "j_type" : "List<MatOfDMatch>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<DMatch> > %(n)s" },
"vector_vector_char" : { "j_type" : "List<MatOfByte>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<char> > %(n)s" },
"vector_vector_Point" : { "j_type" : "List<MatOfPoint>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<Point> > %(n)s" },
"vector_vector_Point2f" : { "j_type" : "List<MatOfPoint2f>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<Point2f> > %(n)s" },
"vector_vector_Point3f" : { "j_type" : "List<MatOfPoint3f>", "jn_type" : "long", "jni_type" : "jlong", "jni_var" : "std::vector< std::vector<Point3f> > %(n)s" },
"Mat" : { "j_type" : "Mat", "jn_type" : "long", "jn_args" : (("__int64", ".nativeObj"),),
"jni_var" : "Mat& %(n)s = *((Mat*)%(n)s_nativeObj)",
"jni_type" : "jlong", #"jni_name" : "*%(n)s",
"suffix" : "J" },
"Point" : { "j_type" : "Point", "jn_args" : (("double", ".x"), ("double", ".y")),
"jni_var" : "Point %(n)s((int)%(n)s_x, (int)%(n)s_y)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"Point2f" : { "j_type" : "Point", "jn_args" : (("double", ".x"), ("double", ".y")),
"jni_var" : "Point2f %(n)s((float)%(n)s_x, (float)%(n)s_y)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"Point2d" : { "j_type" : "Point", "jn_args" : (("double", ".x"), ("double", ".y")),
"jni_var" : "Point2d %(n)s(%(n)s_x, %(n)s_y)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"Point3i" : { "j_type" : "Point3", "jn_args" : (("double", ".x"), ("double", ".y"), ("double", ".z")),
"jni_var" : "Point3i %(n)s((int)%(n)s_x, (int)%(n)s_y, (int)%(n)s_z)", "jni_type" : "jdoubleArray",
"suffix" : "DDD"},
"Point3f" : { "j_type" : "Point3", "jn_args" : (("double", ".x"), ("double", ".y"), ("double", ".z")),
"jni_var" : "Point3f %(n)s((float)%(n)s_x, (float)%(n)s_y, (float)%(n)s_z)", "jni_type" : "jdoubleArray",
"suffix" : "DDD"},
"Point3d" : { "j_type" : "Point3", "jn_args" : (("double", ".x"), ("double", ".y"), ("double", ".z")),
"jni_var" : "Point3d %(n)s(%(n)s_x, %(n)s_y, %(n)s_z)", "jni_type" : "jdoubleArray",
"suffix" : "DDD"},
"KeyPoint": { "j_type" : "KeyPoint", "jn_args" : (("float", ".x"), ("float", ".y"), ("float", ".size"),
("float", ".angle"), ("float", ".response"), ("int", ".octave"), ("int", ".class_id")),
"jni_var" : "KeyPoint %(n)s(%(n)s_x, %(n)s_y, %(n)s_size, %(n)s_angle, %(n)s_response, %(n)s_octave, %(n)s_class_id)",
"jni_type" : "jdoubleArray",
"suffix" : "FFFFFII"},
"DMatch" : { "j_type" : "DMatch", "jn_args" : ( ('int', 'queryIdx'), ('int', 'trainIdx'),
('int', 'imgIdx'), ('float', 'distance'), ),
"jni_var" : "DMatch %(n)s(%(n)s_queryIdx, %(n)s_trainIdx, %(n)s_imgIdx, %(n)s_distance)",
"jni_type" : "jdoubleArray",
"suffix" : "IIIF"},
"Rect" : { "j_type" : "Rect", "jn_args" : (("int", ".x"), ("int", ".y"), ("int", ".width"), ("int", ".height")),
"jni_var" : "Rect %(n)s(%(n)s_x, %(n)s_y, %(n)s_width, %(n)s_height)", "jni_type" : "jdoubleArray",
"suffix" : "IIII"},
"Size" : { "j_type" : "Size", "jn_args" : (("double", ".width"), ("double", ".height")),
"jni_var" : "Size %(n)s((int)%(n)s_width, (int)%(n)s_height)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"Size2f" : { "j_type" : "Size", "jn_args" : (("double", ".width"), ("double", ".height")),
"jni_var" : "Size2f %(n)s((float)%(n)s_width, (float)%(n)s_height)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"RotatedRect": { "j_type" : "RotatedRect", "jn_args" : (("double", ".center.x"), ("double", ".center.y"), ("double", ".size.width"), ("double", ".size.height"), ("double", ".angle")),
"jni_var" : "RotatedRect %(n)s(cv::Point2f(%(n)s_center_x, %(n)s_center_y), cv::Size2f(%(n)s_size_width, %(n)s_size_height), %(n)s_angle)",
"jni_type" : "jdoubleArray", "suffix" : "DDDDD"},
"Scalar" : { "j_type" : "Scalar", "jn_args" : (("double", ".val[0]"), ("double", ".val[1]"), ("double", ".val[2]"), ("double", ".val[3]")),
"jni_var" : "Scalar %(n)s(%(n)s_val0, %(n)s_val1, %(n)s_val2, %(n)s_val3)", "jni_type" : "jdoubleArray",
"suffix" : "DDDD"},
"Range" : { "j_type" : "Range", "jn_args" : (("int", ".start"), ("int", ".end")),
"jni_var" : "Range %(n)s(%(n)s_start, %(n)s_end)", "jni_type" : "jdoubleArray",
"suffix" : "II"},
"CvSlice" : { "j_type" : "Range", "jn_args" : (("int", ".start"), ("int", ".end")),
"jni_var" : "Range %(n)s(%(n)s_start, %(n)s_end)", "jni_type" : "jdoubleArray",
"suffix" : "II"},
"String" : { "j_type" : "String", "jn_type" : "String",
"jni_type" : "jstring", "jni_name" : "n_%(n)s",
"jni_var" : 'const char* utf_%(n)s = env->GetStringUTFChars(%(n)s, 0); String n_%(n)s( utf_%(n)s ? utf_%(n)s : "" ); env->ReleaseStringUTFChars(%(n)s, utf_%(n)s)',
"suffix" : "Ljava_lang_String_2"},
"c_string": { "j_type" : "String", "jn_type" : "String",
"jni_type" : "jstring", "jni_name" : "n_%(n)s.c_str()",
"jni_var" : 'const char* utf_%(n)s = env->GetStringUTFChars(%(n)s, 0); String n_%(n)s( utf_%(n)s ? utf_%(n)s : "" ); env->ReleaseStringUTFChars(%(n)s, utf_%(n)s)',
"suffix" : "Ljava_lang_String_2"},
"TermCriteria": { "j_type" : "TermCriteria", "jn_args" : (("int", ".type"), ("int", ".maxCount"), ("double", ".epsilon")),
"jni_var" : "TermCriteria %(n)s(%(n)s_type, %(n)s_maxCount, %(n)s_epsilon)", "jni_type" : "jdoubleArray",
"suffix" : "IID"},
"CvTermCriteria": { "j_type" : "TermCriteria", "jn_args" : (("int", ".type"), ("int", ".maxCount"), ("double", ".epsilon")),
"jni_var" : "TermCriteria %(n)s(%(n)s_type, %(n)s_maxCount, %(n)s_epsilon)", "jni_type" : "jdoubleArray",
"suffix" : "IID"},
"Vec2d" : { "j_type" : "double[]", "jn_args" : (("double", ".val[0]"), ("double", ".val[1]")),
"jn_type" : "double[]",
"jni_var" : "Vec2d %(n)s(%(n)s_val0, %(n)s_val1)", "jni_type" : "jdoubleArray",
"suffix" : "DD"},
"Vec3d" : { "j_type" : "double[]", "jn_args" : (("double", ".val[0]"), ("double", ".val[1]"), ("double", ".val[2]")),
"jn_type" : "double[]",
"jni_var" : "Vec3d %(n)s(%(n)s_val0, %(n)s_val1, %(n)s_val2)", "jni_type" : "jdoubleArray",
"suffix" : "DDD"},
"Moments" : {
"j_type" : "Moments",
"jn_args" : (("double", ".m00"), ("double", ".m10"), ("double", ".m01"), ("double", ".m20"), ("double", ".m11"),
("double", ".m02"), ("double", ".m30"), ("double", ".m21"), ("double", ".m12"), ("double", ".m03")),
"jni_var" : "Moments %(n)s(%(n)s_m00, %(n)s_m10, %(n)s_m01, %(n)s_m20, %(n)s_m11, %(n)s_m02, %(n)s_m30, %(n)s_m21, %(n)s_m12, %(n)s_m03)",
"jni_type" : "jdoubleArray",
"suffix" : "DDDDDDDDDD"},
}
# { class : { func : {j_code, jn_code, cpp_code} } }
ManualFuncs = {
'Core' :
{
'minMaxLoc' : {
'j_code' : """
// manual port
public static class MinMaxLocResult {
public double minVal;
public double maxVal;
public Point minLoc;
public Point maxLoc;
public MinMaxLocResult() {
minVal=0; maxVal=0;
minLoc=new Point();
maxLoc=new Point();
}
}
// C++: minMaxLoc(Mat src, double* minVal, double* maxVal=0, Point* minLoc=0, Point* maxLoc=0, InputArray mask=noArray())
//javadoc: minMaxLoc(src, mask)
public static MinMaxLocResult minMaxLoc(Mat src, Mat mask) {
MinMaxLocResult res = new MinMaxLocResult();
long maskNativeObj=0;
if (mask != null) {
maskNativeObj=mask.nativeObj;
}
double resarr[] = n_minMaxLocManual(src.nativeObj, maskNativeObj);
res.minVal=resarr[0];
res.maxVal=resarr[1];
res.minLoc.x=resarr[2];
res.minLoc.y=resarr[3];
res.maxLoc.x=resarr[4];
res.maxLoc.y=resarr[5];
return res;
}
//javadoc: minMaxLoc(src)
public static MinMaxLocResult minMaxLoc(Mat src) {
return minMaxLoc(src, null);
}
""",
'jn_code' :
""" private static native double[] n_minMaxLocManual(long src_nativeObj, long mask_nativeObj);\n""",
'cpp_code' :
"""
// C++: minMaxLoc(Mat src, double* minVal, double* maxVal=0, Point* minLoc=0, Point* maxLoc=0, InputArray mask=noArray())
JNIEXPORT jdoubleArray JNICALL Java_org_opencv_core_Core_n_1minMaxLocManual (JNIEnv*, jclass, jlong, jlong);
JNIEXPORT jdoubleArray JNICALL Java_org_opencv_core_Core_n_1minMaxLocManual
(JNIEnv* env, jclass, jlong src_nativeObj, jlong mask_nativeObj)
{
try {
LOGD("Core::n_1minMaxLoc()");
jdoubleArray result;
result = env->NewDoubleArray(6);
if (result == NULL) {
return NULL; /* out of memory error thrown */
}
Mat& src = *((Mat*)src_nativeObj);
double minVal, maxVal;
Point minLoc, maxLoc;
if (mask_nativeObj != 0) {
Mat& mask = *((Mat*)mask_nativeObj);
minMaxLoc(src, &minVal, &maxVal, &minLoc, &maxLoc, mask);
} else {
minMaxLoc(src, &minVal, &maxVal, &minLoc, &maxLoc);
}
jdouble fill[6];
fill[0]=minVal;
fill[1]=maxVal;
fill[2]=minLoc.x;
fill[3]=minLoc.y;
fill[4]=maxLoc.x;
fill[5]=maxLoc.y;
env->SetDoubleArrayRegion(result, 0, 6, fill);
return result;
} catch(const cv::Exception& e) {
LOGD("Core::n_1minMaxLoc() catched cv::Exception: %s", e.what());
jclass je = env->FindClass("org/opencv/core/CvException");
if(!je) je = env->FindClass("java/lang/Exception");
env->ThrowNew(je, e.what());
return NULL;
} catch (...) {
LOGD("Core::n_1minMaxLoc() catched unknown exception (...)");
jclass je = env->FindClass("java/lang/Exception");
env->ThrowNew(je, "Unknown exception in JNI code {core::minMaxLoc()}");
return NULL;
}
}
""",
}, # minMaxLoc
## "checkRange" : #TBD
## {'j_code' : '/* TBD: checkRange() */', 'jn_code' : '', 'cpp_code' : '' },
"checkHardwareSupport" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"setUseOptimized" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"useOptimized" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
}, # Core
'Imgproc' :
{
'getTextSize' :
{
'j_code' :
"""
// C++: Size getTextSize(const String& text, int fontFace, double fontScale, int thickness, int* baseLine);
//javadoc:getTextSize(text, fontFace, fontScale, thickness, baseLine)
public static Size getTextSize(String text, int fontFace, double fontScale, int thickness, int[] baseLine) {
if(baseLine != null && baseLine.length != 1)
throw new java.lang.IllegalArgumentException("'baseLine' must be 'int[1]' or 'null'.");
Size retVal = new Size(n_getTextSize(text, fontFace, fontScale, thickness, baseLine));
return retVal;
}
""",
'jn_code' :
""" private static native double[] n_getTextSize(String text, int fontFace, double fontScale, int thickness, int[] baseLine);\n""",
'cpp_code' :
"""
// C++: Size getTextSize(const String& text, int fontFace, double fontScale, int thickness, int* baseLine);
JNIEXPORT jdoubleArray JNICALL Java_org_opencv_imgproc_Imgproc_n_1getTextSize (JNIEnv*, jclass, jstring, jint, jdouble, jint, jintArray);
JNIEXPORT jdoubleArray JNICALL Java_org_opencv_imgproc_Imgproc_n_1getTextSize
(JNIEnv* env, jclass, jstring text, jint fontFace, jdouble fontScale, jint thickness, jintArray baseLine)
{
try {
LOGD("Core::n_1getTextSize()");
jdoubleArray result;
result = env->NewDoubleArray(2);
if (result == NULL) {
return NULL; /* out of memory error thrown */
}
const char* utf_text = env->GetStringUTFChars(text, 0);
String n_text( utf_text ? utf_text : "" );
env->ReleaseStringUTFChars(text, utf_text);
int _baseLine;
int* pbaseLine = 0;
if (baseLine != NULL)
pbaseLine = &_baseLine;
cv::Size rsize = cv::getTextSize(n_text, (int)fontFace, (double)fontScale, (int)thickness, pbaseLine);
jdouble fill[2];
fill[0]=rsize.width;
fill[1]=rsize.height;
env->SetDoubleArrayRegion(result, 0, 2, fill);
if (baseLine != NULL) {
jint jbaseLine = (jint)(*pbaseLine);
env->SetIntArrayRegion(baseLine, 0, 1, &jbaseLine);
}
return result;
} catch(const cv::Exception& e) {
LOGD("Imgproc::n_1getTextSize() catched cv::Exception: %s", e.what());
jclass je = env->FindClass("org/opencv/core/CvException");
if(!je) je = env->FindClass("java/lang/Exception");
env->ThrowNew(je, e.what());
return NULL;
} catch (...) {
LOGD("Imgproc::n_1getTextSize() catched unknown exception (...)");
jclass je = env->FindClass("java/lang/Exception");
env->ThrowNew(je, "Unknown exception in JNI code {core::getTextSize()}");
return NULL;
}
}
""",
}, # getTextSize
}, # Imgproc
'Highgui' :
{
"namedWindow" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"destroyWindow" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"destroyAllWindows" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"startWindowThread" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"setWindowProperty" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"getWindowProperty" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"getTrackbarPos" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"setTrackbarPos" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"imshow" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"waitKey" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"moveWindow" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
"resizeWindow" : {'j_code' : '', 'jn_code' : '', 'cpp_code' : '' },
}, # Highgui
}
# { class : { func : { arg_name : {"ctype" : ctype, "attrib" : [attrib]} } } }
func_arg_fix = {
'' : {
'randu' : { 'low' : {"ctype" : 'double'},
'high' : {"ctype" : 'double'} },
'randn' : { 'mean' : {"ctype" : 'double'},
'stddev' : {"ctype" : 'double'} },
'inRange' : { 'lowerb' : {"ctype" : 'Scalar'},
'upperb' : {"ctype" : 'Scalar'} },
'goodFeaturesToTrack' : { 'corners' : {"ctype" : 'vector_Point'} },
'findFundamentalMat' : { 'points1' : {"ctype" : 'vector_Point2f'},
'points2' : {"ctype" : 'vector_Point2f'} },
'cornerSubPix' : { 'corners' : {"ctype" : 'vector_Point2f'} },
'minEnclosingCircle' : { 'points' : {"ctype" : 'vector_Point2f'} },
'findHomography' : { 'srcPoints' : {"ctype" : 'vector_Point2f'},
'dstPoints' : {"ctype" : 'vector_Point2f'} },
'solvePnP' : { 'objectPoints' : {"ctype" : 'vector_Point3f'},
'imagePoints' : {"ctype" : 'vector_Point2f'},
'distCoeffs' : {"ctype" : 'vector_double' } },
'solvePnPRansac' : { 'objectPoints' : {"ctype" : 'vector_Point3f'},
'imagePoints' : {"ctype" : 'vector_Point2f'},
'distCoeffs' : {"ctype" : 'vector_double' } },
'calcOpticalFlowPyrLK' : { 'prevPts' : {"ctype" : 'vector_Point2f'},
'nextPts' : {"ctype" : 'vector_Point2f'},
'status' : {"ctype" : 'vector_uchar'},
'err' : {"ctype" : 'vector_float'} },
'fitEllipse' : { 'points' : {"ctype" : 'vector_Point2f'} },
'fillPoly' : { 'pts' : {"ctype" : 'vector_vector_Point'} },
'polylines' : { 'pts' : {"ctype" : 'vector_vector_Point'} },
'fillConvexPoly' : { 'points' : {"ctype" : 'vector_Point'} },
'boundingRect' : { 'points' : {"ctype" : 'vector_Point'} },
'approxPolyDP' : { 'curve' : {"ctype" : 'vector_Point2f'},
'approxCurve' : {"ctype" : 'vector_Point2f'} },
'arcLength' : { 'curve' : {"ctype" : 'vector_Point2f'} },
'pointPolygonTest' : { 'contour' : {"ctype" : 'vector_Point2f'} },
'minAreaRect' : { 'points' : {"ctype" : 'vector_Point2f'} },
'getAffineTransform' : { 'src' : {"ctype" : 'vector_Point2f'},
'dst' : {"ctype" : 'vector_Point2f'} },
'hconcat' : { 'src' : {"ctype" : 'vector_Mat'} },
'vconcat' : { 'src' : {"ctype" : 'vector_Mat'} },
'undistortPoints' : { 'src' : {"ctype" : 'vector_Point2f'},
'dst' : {"ctype" : 'vector_Point2f'} },
'checkRange' : {'pos' : {"ctype" : '*'} },
'meanStdDev' : { 'mean' : {"ctype" : 'vector_double'},
'stddev' : {"ctype" : 'vector_double'} },
'drawContours' : {'contours' : {"ctype" : 'vector_vector_Point'} },
'findContours' : {'contours' : {"ctype" : 'vector_vector_Point'} },
'convexityDefects' : { 'contour' : {"ctype" : 'vector_Point'},
'convexhull' : {"ctype" : 'vector_int'},
'convexityDefects' : {"ctype" : 'vector_Vec4i'} },
'isContourConvex' : { 'contour' : {"ctype" : 'vector_Point'} },
'convexHull' : { 'points' : {"ctype" : 'vector_Point'},
'hull' : {"ctype" : 'vector_int'},
'returnPoints' : {"ctype" : ''} },
'projectPoints' : { 'objectPoints' : {"ctype" : 'vector_Point3f'},
'imagePoints' : {"ctype" : 'vector_Point2f'},
'distCoeffs' : {"ctype" : 'vector_double' } },
'initCameraMatrix2D' : { 'objectPoints' : {"ctype" : 'vector_vector_Point3f'},
'imagePoints' : {"ctype" : 'vector_vector_Point2f'} },
'findChessboardCorners' : { 'corners' : {"ctype" : 'vector_Point2f'} },
'drawChessboardCorners' : { 'corners' : {"ctype" : 'vector_Point2f'} },
'mixChannels' : { 'dst' : {"attrib" : []} },
}, # '', i.e. no class
} # func_arg_fix
def getLibVersion(version_hpp_path):
version_file = open(version_hpp_path, "rt").read()
major = re.search("^W*#\W*define\W+CV_VERSION_MAJOR\W+(\d+)\W*$", version_file, re.MULTILINE).group(1)
minor = re.search("^W*#\W*define\W+CV_VERSION_MINOR\W+(\d+)\W*$", version_file, re.MULTILINE).group(1)
revision = re.search("^W*#\W*define\W+CV_VERSION_REVISION\W+(\d+)\W*$", version_file, re.MULTILINE).group(1)
status = re.search("^W*#\W*define\W+CV_VERSION_STATUS\W+\"(.*?)\"\W*$", version_file, re.MULTILINE).group(1)
return (major, minor, revision, status)
def libVersionBlock():
(major, minor, revision, status) = getLibVersion(
(os.path.dirname(__file__) or '.') + '/../../core/include/opencv2/core/version.hpp')
version_str = '.'.join( (major, minor, revision) ) + status
version_suffix = ''.join( (major, minor, revision) )
return """
// these constants are wrapped inside functions to prevent inlining
private static String getVersion() { return "%(v)s"; }
private static String getNativeLibraryName() { return "opencv_java%(vs)s"; }
private static int getVersionMajor() { return %(ma)s; }
private static int getVersionMinor() { return %(mi)s; }
private static int getVersionRevision() { return %(re)s; }
private static String getVersionStatus() { return "%(st)s"; }
public static final String VERSION = getVersion();
public static final String NATIVE_LIBRARY_NAME = getNativeLibraryName();
public static final int VERSION_MAJOR = getVersionMajor();
public static final int VERSION_MINOR = getVersionMinor();
public static final int VERSION_REVISION = getVersionRevision();
public static final String VERSION_STATUS = getVersionStatus();
""" % { 'v' : version_str, 'vs' : version_suffix, 'ma' : major, 'mi' : minor, 're' : revision, 'st': status }
T_JAVA_START_INHERITED = """
//
// This file is auto-generated. Please don't modify it!
//
package org.opencv.$module;
$imports
// C++: class $name
//javadoc: $name
public class $jname extends $base {
protected $jname(long addr) { super(addr); }
"""
T_JAVA_START_ORPHAN = """
//
// This file is auto-generated. Please don't modify it!
//
package org.opencv.$module;
$imports
// C++: class $name
//javadoc: $name
public class $jname {
protected final long nativeObj;
protected $jname(long addr) { nativeObj = addr; }
"""
T_JAVA_START_MODULE = """
//
// This file is auto-generated. Please don't modify it!
//
package org.opencv.$module;
$imports
public class $jname {
"""
T_CPP_MODULE = """
//
// This file is auto-generated, please don't edit!
//
#define LOG_TAG "org.opencv.$m"
#include "common.h"
#include "opencv2/opencv_modules.hpp"
#ifdef HAVE_OPENCV_$M
#include <string>
#include "opencv2/$m.hpp"
$includes
using namespace cv;
/// throw java exception
static void throwJavaException(JNIEnv *env, const std::exception *e, const char *method) {
std::string what = "unknown exception";
jclass je = 0;
if(e) {
std::string exception_type = "std::exception";
if(dynamic_cast<const cv::Exception*>(e)) {
exception_type = "cv::Exception";
je = env->FindClass("org/opencv/core/CvException");
}
what = exception_type + ": " + e->what();
}
if(!je) je = env->FindClass("java/lang/Exception");
env->ThrowNew(je, what.c_str());
LOGE("%s caught %s", method, what.c_str());
(void)method; // avoid "unused" warning
}
extern "C" {
$code
} // extern "C"
#endif // HAVE_OPENCV_$M
"""
class GeneralInfo():
def __init__(self, name, namespaces):
self.namespace, self.classpath, self.classname, self.name = self.parseName(name, namespaces)
def parseName(self, name, namespaces):
'''
input: full name and available namespaces
returns: (namespace, classpath, classname, name)
'''
name = name[name.find(" ")+1:].strip() # remove struct/class/const prefix
spaceName = ""
localName = name # <classes>.<name>
for namespace in sorted(namespaces, key=len, reverse=True):
if name.startswith(namespace + "."):
spaceName = namespace
localName = name.replace(namespace + ".", "")
break
pieces = localName.split(".")
if len(pieces) > 2: # <class>.<class>.<class>.<name>
return spaceName, ".".join(pieces[:-1]), pieces[-2], pieces[-1]
elif len(pieces) == 2: # <class>.<name>
return spaceName, pieces[0], pieces[0], pieces[1]
elif len(pieces) == 1: # <name>
return spaceName, "", "", pieces[0]
else:
return spaceName, "", "" # error?!
def fullName(self, isCPP=False):
result = ".".join([self.fullClass(), self.name])
return result if not isCPP else result.replace(".", "::")
def fullClass(self, isCPP=False):
result = ".".join([f for f in [self.namespace] + self.classpath.split(".") if len(f)>0])
return result if not isCPP else result.replace(".", "::")
class ConstInfo(GeneralInfo):
def __init__(self, decl, addedManually=False, namespaces=[]):
GeneralInfo.__init__(self, decl[0], namespaces)
self.cname = self.name.replace(".", "::")
self.value = decl[1]
self.addedManually = addedManually
def __repr__(self):
return Template("CONST $name=$value$manual").substitute(name=self.name,
value=self.value,
manual="(manual)" if self.addedManually else "")
def isIgnored(self):
for c in const_ignore_list:
if re.match(c, self.name):
return True
return False
class ClassPropInfo():
def __init__(self, decl): # [f_ctype, f_name, '', '/RW']
self.ctype = decl[0]
self.name = decl[1]
self.rw = "/RW" in decl[3]
def __repr__(self):
return Template("PROP $ctype $name").substitute(ctype=self.ctype, name=self.name)
class ClassInfo(GeneralInfo):
def __init__(self, decl, namespaces=[]): # [ 'class/struct cname', ': base', [modlist] ]
GeneralInfo.__init__(self, decl[0], namespaces)
self.cname = self.name.replace(".", "::")
self.methods = []
self.methods_suffixes = {}
self.consts = [] # using a list to save the occurence order
self.private_consts = []
self.imports = set()
self.props= []
self.jname = self.name
self.j_code = None # java code stream
self.jn_code = None # jni code stream
self.cpp_code = None # cpp code stream
for m in decl[2]:
if m.startswith("="):
self.jname = m[1:]
self.base = ''
if decl[1]:
#self.base = re.sub(r"\b"+self.jname+r"\b", "", decl[1].replace(":", "")).strip()
self.base = re.sub(r"^.*:", "", decl[1].split(",")[0]).strip().replace(self.jname, "")
def __repr__(self):
return Template("CLASS $namespace.$classpath.$name : $base").substitute(**self.__dict__)
def getAllImports(self, module):
return ["import %s;" % c for c in sorted(self.imports) if not c.startswith('org.opencv.'+module)]
def addImports(self, ctype):
if ctype.startswith('vector_vector'):
self.imports.add("org.opencv.core.Mat")
self.imports.add("org.opencv.utils.Converters")
self.imports.add("java.util.List")
self.imports.add("java.util.ArrayList")
self.addImports(ctype.replace('vector_vector', 'vector'))
elif ctype.startswith('vector'):
self.imports.add("org.opencv.core.Mat")
self.imports.add('java.util.ArrayList')
if type_dict[ctype]['j_type'].startswith('MatOf'):
self.imports.add("org.opencv.core." + type_dict[ctype]['j_type'])
else:
self.imports.add("java.util.List")
self.imports.add("org.opencv.utils.Converters")
self.addImports(ctype.replace('vector_', ''))
else:
j_type = ''
if ctype in type_dict:
j_type = type_dict[ctype]['j_type']
elif ctype in ("Algorithm"):
j_type = ctype
if j_type in ( "CvType", "Mat", "Point", "Point3", "Range", "Rect", "RotatedRect", "Scalar", "Size", "TermCriteria", "Algorithm" ):
self.imports.add("org.opencv.core." + j_type)
if j_type == 'String':
self.imports.add("java.lang.String")
def getAllMethods(self):
result = []
result.extend([fi for fi in sorted(self.methods) if fi.isconstructor])
result.extend([fi for fi in sorted(self.methods) if not fi.isconstructor])
return result
def addMethod(self, fi):
self.methods.append(fi)
def getConst(self, name):
for cand in self.consts + self.private_consts:
if cand.name == name:
return cand
return None
def addConst(self, constinfo):
# choose right list (public or private)
consts = self.consts
for c in const_private_list:
if re.match(c, constinfo.name):
consts = self.private_consts
break
consts.append(constinfo)
def initCodeStreams(self, Module):
self.j_code = StringIO()
self.jn_code = StringIO()
self.cpp_code = StringIO();
if self.name != Module:
self.j_code.write(T_JAVA_START_INHERITED if self.base else T_JAVA_START_ORPHAN)
else:
self.j_code.write(T_JAVA_START_MODULE)
# misc handling
if self.name == 'Core':
self.imports.add("java.lang.String")
self.j_code.write(libVersionBlock())
def cleanupCodeStreams(self):
self.j_code.close()
self.jn_code.close()
self.cpp_code.close()
def generateJavaCode(self, m, M):
return Template(self.j_code.getvalue() + "\n\n" + \
self.jn_code.getvalue() + "\n}\n").substitute(\
module = m,
name = self.name,
jname = self.jname,
imports = "\n".join(self.getAllImports(M)),
base = self.base)
def generateCppCode(self):
return self.cpp_code.getvalue()
class ArgInfo():
def __init__(self, arg_tuple): # [ ctype, name, def val, [mod], argno ]
self.pointer = False
ctype = arg_tuple[0]
if ctype.endswith("*"):
ctype = ctype[:-1]
self.pointer = True
if ctype == 'vector_Point2d':
ctype = 'vector_Point2f'
elif ctype == 'vector_Point3d':
ctype = 'vector_Point3f'
self.ctype = ctype
self.name = arg_tuple[1]
self.defval = arg_tuple[2]
self.out = ""
if "/O" in arg_tuple[3]:
self.out = "O"
if "/IO" in arg_tuple[3]:
self.out = "IO"
def __repr__(self):
return Template("ARG $ctype$p $name=$defval").substitute(ctype=self.ctype,
p=" *" if self.pointer else "",
name=self.name,
defval=self.defval)
class FuncInfo(GeneralInfo):
def __init__(self, decl, namespaces=[]): # [ funcname, return_ctype, [modifiers], [args] ]
GeneralInfo.__init__(self, decl[0], namespaces)
self.cname = self.name.replace(".", "::")
self.jname = self.name
self.isconstructor = self.name == self.classname
if "[" in self.name:
self.jname = "getelem"
for m in decl[2]:
if m.startswith("="):
self.jname = m[1:]
self.static = ["","static"][ "/S" in decl[2] ]
self.ctype = re.sub(r"^CvTermCriteria", "TermCriteria", decl[1] or "")
self.args = []
func_fix_map = func_arg_fix.get(self.classname, {}).get(self.jname, {})
for a in decl[3]:
arg = a[:]
arg_fix_map = func_fix_map.get(arg[1], {})
arg[0] = arg_fix_map.get('ctype', arg[0]) #fixing arg type
arg[3] = arg_fix_map.get('attrib', arg[3]) #fixing arg attrib
self.args.append(ArgInfo(arg))
def __repr__(self):
return Template("FUNC <$ctype $namespace.$classpath.$name $args>").substitute(**self.__dict__)
def __lt__(self, other):
return self.__repr__() < other.__repr__()
class JavaWrapperGenerator(object):
def __init__(self):
self.clear()
def clear(self):
self.namespaces = set(["cv"])
self.classes = { "Mat" : ClassInfo([ 'class Mat', '', [], [] ], self.namespaces) }
self.module = ""
self.Module = ""
self.ported_func_list = []
self.skipped_func_list = []
self.def_args_hist = {} # { def_args_cnt : funcs_cnt }
def add_class(self, decl):
classinfo = ClassInfo(decl, namespaces=self.namespaces)
if classinfo.name in class_ignore_list:
logging.info('ignored: %s', classinfo)
return
name = classinfo.name
if self.isWrapped(name):
logging.warning('duplicated: %s', classinfo)
return
self.classes[name] = classinfo
if name in type_dict:
logging.warning('duplicated: %s', classinfo)
return
type_dict[name] = \
{ "j_type" : classinfo.jname,
"jn_type" : "long", "jn_args" : (("__int64", ".nativeObj"),),
"jni_name" : "(*("+classinfo.fullName(isCPP=True)+"*)%(n)s_nativeObj)", "jni_type" : "jlong",
"suffix" : "J" }
type_dict[name+'*'] = \
{ "j_type" : classinfo.jname,
"jn_type" : "long", "jn_args" : (("__int64", ".nativeObj"),),
"jni_name" : "("+classinfo.fullName(isCPP=True)+"*)%(n)s_nativeObj", "jni_type" : "jlong",
"suffix" : "J" }
# missing_consts { Module : { public : [[name, val],...], private : [[]...] } }
if name in missing_consts:
if 'private' in missing_consts[name]:
for (n, val) in missing_consts[name]['private']:
classinfo.private_consts.append( ConstInfo([n, val], addedManually=True) )
if 'public' in missing_consts[name]:
for (n, val) in missing_consts[name]['public']:
classinfo.consts.append( ConstInfo([n, val], addedManually=True) )
# class props
for p in decl[3]:
if True: #"vector" not in p[0]:
classinfo.props.append( ClassPropInfo(p) )
else:
logging.warning("Skipped property: [%s]" % name, p)
if classinfo.base:
classinfo.addImports(classinfo.base)
type_dict["Ptr_"+name] = \
{ "j_type" : name,
"jn_type" : "long", "jn_args" : (("__int64", ".nativeObj"),),
"jni_name" : "Ptr<"+name+">(("+name+"*)%(n)s_nativeObj)", "jni_type" : "jlong",
"suffix" : "J" }
logging.info('ok: %s', classinfo)
def add_const(self, decl): # [ "const cname", val, [], [] ]
constinfo = ConstInfo(decl, namespaces=self.namespaces)
if constinfo.isIgnored():
logging.info('ignored: %s', constinfo)
elif not self.isWrapped(constinfo.classname):
logging.info('class not found: %s', constinfo)
else:
ci = self.getClass(constinfo.classname)
duplicate = ci.getConst(constinfo.name)
if duplicate:
if duplicate.addedManually:
logging.info('manual: %s', constinfo)
else:
logging.warning('duplicated: %s', constinfo)
else:
ci.addConst(constinfo)
logging.info('ok: %s', constinfo)
def add_func(self, decl):
fi = FuncInfo(decl, namespaces=self.namespaces)
classname = fi.classname or self.Module
if classname in class_ignore_list:
logging.info('ignored: %s', fi)
elif classname in ManualFuncs and fi.jname in ManualFuncs[classname]:
logging.info('manual: %s', fi)
elif not self.isWrapped(classname):
logging.warning('not found: %s', fi)
else:
self.getClass(classname).addMethod(fi)
logging.info('ok: %s', fi)
# calc args with def val
cnt = len([a for a in fi.args if a.defval])
self.def_args_hist[cnt] = self.def_args_hist.get(cnt, 0) + 1
def save(self, path, buf):
f = open(path, "wt")
f.write(buf)
f.close()
def gen(self, srcfiles, module, output_path):
self.clear()
self.module = module
self.Module = module.capitalize()
parser = hdr_parser.CppHeaderParser()
self.add_class( ['class ' + self.Module, '', [], []] ) # [ 'class/struct cname', ':bases', [modlist] [props] ]
# scan the headers and build more descriptive maps of classes, consts, functions
includes = [];
for hdr in srcfiles:
decls = parser.parse(hdr)
self.namespaces = parser.namespaces
logging.info("\n\n===== Header: %s =====", hdr)
logging.info("Namespaces: %s", parser.namespaces)
if decls:
includes.append('#include "' + hdr + '"')
for decl in decls:
logging.info("\n--- Incoming ---\n%s", pformat(decl, 4))
name = decl[0]
if name.startswith("struct") or name.startswith("class"):
self.add_class(decl)
elif name.startswith("const"):
self.add_const(decl)
else: # function
self.add_func(decl)
logging.info("\n\n===== Generating... =====")
moduleCppCode = StringIO()
for ci in self.classes.values():
if ci.name == "Mat":
continue
ci.initCodeStreams(self.Module)
self.gen_class(ci)
classJavaCode = ci.generateJavaCode(self.module, self.Module)
self.save("%s/%s+%s.java" % (output_path, module, ci.jname), classJavaCode)
moduleCppCode.write(ci.generateCppCode())
ci.cleanupCodeStreams()
self.save(output_path+"/"+module+".cpp", Template(T_CPP_MODULE).substitute(m = module, M = module.upper(), code = moduleCppCode.getvalue(), includes = "\n".join(includes)))
self.save(output_path+"/"+module+".txt", self.makeReport())
def makeReport(self):
'''
Returns string with generator report
'''
report = StringIO()
total_count = len(self.ported_func_list)+ len(self.skipped_func_list)
report.write("PORTED FUNCs LIST (%i of %i):\n\n" % (len(self.ported_func_list), total_count))
report.write("\n".join(self.ported_func_list))
report.write("\n\nSKIPPED FUNCs LIST (%i of %i):\n\n" % (len(self.skipped_func_list), total_count))
report.write("".join(self.skipped_func_list))
for i in self.def_args_hist.keys():
report.write("\n%i def args - %i funcs" % (i, self.def_args_hist[i]))
return report.getvalue()
def fullTypeName(self, t):
if self.isWrapped(t):
return self.getClass(t).fullName(isCPP=True)
else:
return t
def gen_func(self, ci, fi, prop_name=''):
logging.info("%s", fi)
j_code = ci.j_code
jn_code = ci.jn_code
cpp_code = ci.cpp_code
# c_decl
# e.g: void add(Mat src1, Mat src2, Mat dst, Mat mask = Mat(), int dtype = -1)
if prop_name:
c_decl = "%s %s::%s" % (fi.ctype, fi.classname, prop_name)
else:
decl_args = []
for a in fi.args:
s = a.ctype or ' _hidden_ '
if a.pointer:
s += "*"
elif a.out:
s += "&"
s += " " + a.name
if a.defval:
s += " = "+a.defval
decl_args.append(s)
c_decl = "%s %s %s(%s)" % ( fi.static, fi.ctype, fi.cname, ", ".join(decl_args) )
# java comment
j_code.write( "\n //\n // C++: %s\n //\n\n" % c_decl )
# check if we 'know' all the types
if fi.ctype not in type_dict: # unsupported ret type
msg = "// Return type '%s' is not supported, skipping the function\n\n" % fi.ctype
self.skipped_func_list.append(c_decl + "\n" + msg)
j_code.write( " "*4 + msg )
logging.warning("SKIP:" + c_decl.strip() + "\t due to RET type" + fi.ctype)
return
for a in fi.args:
if a.ctype not in type_dict:
if not a.defval and a.ctype.endswith("*"):
a.defval = 0
if a.defval:
a.ctype = ''
continue
msg = "// Unknown type '%s' (%s), skipping the function\n\n" % (a.ctype, a.out or "I")
self.skipped_func_list.append(c_decl + "\n" + msg)
j_code.write( " "*4 + msg )
logging.warning("SKIP:" + c_decl.strip() + "\t due to ARG type" + a.ctype + "/" + (a.out or "I"))
return
self.ported_func_list.append(c_decl)
# jn & cpp comment
jn_code.write( "\n // C++: %s\n" % c_decl )
cpp_code.write( "\n//\n// %s\n//\n" % c_decl )
# java args
args = fi.args[:] # copy
suffix_counter = int(ci.methods_suffixes.get(fi.jname, -1))
while True:
suffix_counter += 1
ci.methods_suffixes[fi.jname] = suffix_counter
# java native method args
jn_args = []
# jni (cpp) function args
jni_args = [ArgInfo([ "env", "env", "", [], "" ]), ArgInfo([ "cls", "", "", [], "" ])]
j_prologue = []
j_epilogue = []
c_prologue = []
c_epilogue = []
if type_dict[fi.ctype]["jni_type"] == "jdoubleArray":
fields = type_dict[fi.ctype]["jn_args"]
c_epilogue.append( \
("jdoubleArray _da_retval_ = env->NewDoubleArray(%(cnt)i); " +
"jdouble _tmp_retval_[%(cnt)i] = {%(args)s}; " +
"env->SetDoubleArrayRegion(_da_retval_, 0, %(cnt)i, _tmp_retval_);") %
{ "cnt" : len(fields), "args" : ", ".join(["(jdouble)_retval_" + f[1] for f in fields]) } )
if fi.classname and fi.ctype and not fi.static: # non-static class method except c-tor
# adding 'self'
jn_args.append ( ArgInfo([ "__int64", "nativeObj", "", [], "" ]) )
jni_args.append( ArgInfo([ "__int64", "self", "", [], "" ]) )
ci.addImports(fi.ctype)
for a in args:
if not a.ctype: # hidden
continue
ci.addImports(a.ctype)
if "vector" in a.ctype: # pass as Mat
jn_args.append ( ArgInfo([ "__int64", "%s_mat.nativeObj" % a.name, "", [], "" ]) )
jni_args.append ( ArgInfo([ "__int64", "%s_mat_nativeObj" % a.name, "", [], "" ]) )
c_prologue.append( type_dict[a.ctype]["jni_var"] % {"n" : a.name} + ";" )
c_prologue.append( "Mat& %(n)s_mat = *((Mat*)%(n)s_mat_nativeObj)" % {"n" : a.name} + ";" )
if "I" in a.out or not a.out:
if a.ctype.startswith("vector_vector_"):
j_prologue.append( "List<Mat> %(n)s_tmplm = new ArrayList<Mat>((%(n)s != null) ? %(n)s.size() : 0);" % {"n" : a.name } )
j_prologue.append( "Mat %(n)s_mat = Converters.%(t)s_to_Mat(%(n)s, %(n)s_tmplm);" % {"n" : a.name, "t" : a.ctype} )
else:
if not type_dict[a.ctype]["j_type"].startswith("MatOf"):
j_prologue.append( "Mat %(n)s_mat = Converters.%(t)s_to_Mat(%(n)s);" % {"n" : a.name, "t" : a.ctype} )
else:
j_prologue.append( "Mat %s_mat = %s;" % (a.name, a.name) )
c_prologue.append( "Mat_to_%(t)s( %(n)s_mat, %(n)s );" % {"n" : a.name, "t" : a.ctype} )
else:
if not type_dict[a.ctype]["j_type"].startswith("MatOf"):
j_prologue.append( "Mat %s_mat = new Mat();" % a.name )
else:
j_prologue.append( "Mat %s_mat = %s;" % (a.name, a.name) )
if "O" in a.out:
if not type_dict[a.ctype]["j_type"].startswith("MatOf"):
j_epilogue.append("Converters.Mat_to_%(t)s(%(n)s_mat, %(n)s);" % {"t" : a.ctype, "n" : a.name})
j_epilogue.append( "%s_mat.release();" % a.name )
c_epilogue.append( "%(t)s_to_Mat( %(n)s, %(n)s_mat );" % {"n" : a.name, "t" : a.ctype} )
else:
fields = type_dict[a.ctype].get("jn_args", ((a.ctype, ""),))
if "I" in a.out or not a.out or self.isWrapped(a.ctype): # input arg, pass by primitive fields
for f in fields:
jn_args.append ( ArgInfo([ f[0], a.name + f[1], "", [], "" ]) )
jni_args.append( ArgInfo([ f[0], a.name + f[1].replace(".","_").replace("[","").replace("]",""), "", [], "" ]) )
if a.out and not self.isWrapped(a.ctype): # out arg, pass as double[]
jn_args.append ( ArgInfo([ "double[]", "%s_out" % a.name, "", [], "" ]) )
jni_args.append ( ArgInfo([ "double[]", "%s_out" % a.name, "", [], "" ]) )
j_prologue.append( "double[] %s_out = new double[%i];" % (a.name, len(fields)) )
c_epilogue.append( \
"jdouble tmp_%(n)s[%(cnt)i] = {%(args)s}; env->SetDoubleArrayRegion(%(n)s_out, 0, %(cnt)i, tmp_%(n)s);" %
{ "n" : a.name, "cnt" : len(fields), "args" : ", ".join(["(jdouble)" + a.name + f[1] for f in fields]) } )
if a.ctype in ('bool', 'int', 'long', 'float', 'double'):
j_epilogue.append('if(%(n)s!=null) %(n)s[0] = (%(t)s)%(n)s_out[0];' % {'n':a.name,'t':a.ctype})
else:
set_vals = []
i = 0
for f in fields:
set_vals.append( "%(n)s%(f)s = %(t)s%(n)s_out[%(i)i]" %
{"n" : a.name, "t": ("("+type_dict[f[0]]["j_type"]+")", "")[f[0]=="double"], "f" : f[1], "i" : i}
)
i += 1
j_epilogue.append( "if("+a.name+"!=null){ " + "; ".join(set_vals) + "; } ")
# java part:
# private java NATIVE method decl
# e.g.
# private static native void add_0(long src1, long src2, long dst, long mask, int dtype);
jn_code.write( Template(\
" private static native $type $name($args);\n").substitute(\
type = type_dict[fi.ctype].get("jn_type", "double[]"), \
name = fi.jname + '_' + str(suffix_counter), \
args = ", ".join(["%s %s" % (type_dict[a.ctype]["jn_type"], a.name.replace(".","_").replace("[","").replace("]","")) for a in jn_args])
) );
# java part:
#java doc comment
f_name = fi.name
if fi.classname:
f_name = fi.classname + "::" + fi.name
java_doc = "//javadoc: " + f_name + "(%s)" % ", ".join([a.name for a in args if a.ctype])
j_code.write(" "*4 + java_doc + "\n")
# public java wrapper method impl (calling native one above)
# e.g.
# public static void add( Mat src1, Mat src2, Mat dst, Mat mask, int dtype )
# { add_0( src1.nativeObj, src2.nativeObj, dst.nativeObj, mask.nativeObj, dtype ); }
ret_type = fi.ctype
if fi.ctype.endswith('*'):
ret_type = ret_type[:-1]
ret_val = type_dict[ret_type]["j_type"] + " retVal = "
tail = ""
ret = "return retVal;"
if ret_type.startswith('vector'):
tail = ")"
j_type = type_dict[ret_type]["j_type"]
if j_type.startswith('MatOf'):
ret_val += j_type + ".fromNativeAddr("
else:
ret_val = "Mat retValMat = new Mat("
j_prologue.append( j_type + ' retVal = new Array' + j_type+'();')
j_epilogue.append('Converters.Mat_to_' + ret_type + '(retValMat, retVal);')
elif ret_type.startswith("Ptr_"):
ret_val = type_dict[fi.ctype]["j_type"] + " retVal = new " + type_dict[ret_type]["j_type"] + "("
tail = ")"
elif ret_type == "void":
ret_val = ""
ret = "return;"
elif ret_type == "": # c-tor
if fi.classname and ci.base:
ret_val = "super( "
tail = " )"
else:
ret_val = "nativeObj = "
ret = "return;"
elif self.isWrapped(ret_type): # wrapped class
ret_val = type_dict[ret_type]["j_type"] + " retVal = new " + self.getClass(ret_type).jname + "("
tail = ")"
elif "jn_type" not in type_dict[ret_type]:
ret_val = type_dict[fi.ctype]["j_type"] + " retVal = new " + type_dict[ret_type]["j_type"] + "("
tail = ")"
static = "static"
if fi.classname:
static = fi.static
j_args = []
for a in args:
if not a.ctype: #hidden
continue
jt = type_dict[a.ctype]["j_type"]
if a.out and a.ctype in ('bool', 'int', 'long', 'float', 'double'):
jt += '[]'
j_args.append( jt + ' ' + a.name )
j_code.write( Template(\
""" public $static $j_type $j_name($j_args)
{
$prologue
$ret_val$jn_name($jn_args_call)$tail;
$epilogue
$ret
}
"""
).substitute(\
ret = ret, \
ret_val = ret_val, \
tail = tail, \
prologue = "\n ".join(j_prologue), \
epilogue = "\n ".join(j_epilogue), \
static=static, \
j_type=type_dict[fi.ctype]["j_type"], \
j_name=fi.jname, \
j_args=", ".join(j_args), \
jn_name=fi.jname + '_' + str(suffix_counter), \
jn_args_call=", ".join( [a.name for a in jn_args] ),\
)
)
# cpp part:
# jni_func(..) { _retval_ = cv_func(..); return _retval_; }
ret = "return _retval_;"
default = "return 0;"
if fi.ctype == "void":
ret = "return;"
default = "return;"
elif not fi.ctype: # c-tor
ret = "return (jlong) _retval_;"
elif fi.ctype.startswith('vector'): # c-tor
ret = "return (jlong) _retval_;"
elif fi.ctype == "String":
ret = "return env->NewStringUTF(_retval_.c_str());"
default = 'return env->NewStringUTF("");'
elif self.isWrapped(fi.ctype): # wrapped class:
ret = "return (jlong) new %s(_retval_);" % self.fullTypeName(fi.ctype)
elif fi.ctype.startswith('Ptr_'):
c_prologue.append("typedef Ptr<%s> %s;" % (self.fullTypeName(fi.ctype[4:]), fi.ctype))
ret = "return (jlong)(new %(ctype)s(_retval_));" % { 'ctype':fi.ctype }
elif self.isWrapped(ret_type): # pointer to wrapped class:
ret = "return (jlong) _retval_;"
elif type_dict[fi.ctype]["jni_type"] == "jdoubleArray":
ret = "return _da_retval_;"
# hack: replacing func call with property set/get
name = fi.name
if prop_name:
if args:
name = prop_name + " = "
else:
name = prop_name + ";//"
cvname = fi.fullName(isCPP=True)
retval = self.fullTypeName(fi.ctype) + " _retval_ = "
if fi.ctype == "void":
retval = ""
elif fi.ctype == "String":
retval = "cv::" + retval
elif fi.ctype.startswith('vector'):
retval = type_dict[fi.ctype]['jni_var'] % {"n" : '_ret_val_vector_'} + " = "
c_epilogue.append("Mat* _retval_ = new Mat();")
c_epilogue.append(fi.ctype+"_to_Mat(_ret_val_vector_, *_retval_);")
if len(fi.classname)>0:
if not fi.ctype: # c-tor
retval = fi.fullClass(isCPP=True) + "* _retval_ = "
cvname = "new " + fi.fullClass(isCPP=True)
elif fi.static:
cvname = fi.fullName(isCPP=True)
else:
cvname = ("me->" if not self.isSmartClass(fi.classname) else "(*me)->") + name
c_prologue.append(\
"%(cls)s* me = (%(cls)s*) self; //TODO: check for NULL" \
% { "cls" : self.smartWrap(fi.classname, fi.fullClass(isCPP=True))} \
)
cvargs = []
for a in args:
if a.pointer:
jni_name = "&%(n)s"
else:
jni_name = "%(n)s"
if not a.out and not "jni_var" in type_dict[a.ctype]:
# explicit cast to C type to avoid ambiguous call error on platforms (mingw)
# where jni types are different from native types (e.g. jint is not the same as int)
jni_name = "(%s)%s" % (a.ctype, jni_name)
if not a.ctype: # hidden
jni_name = a.defval
cvargs.append( type_dict[a.ctype].get("jni_name", jni_name) % {"n" : a.name})
if "vector" not in a.ctype :
if ("I" in a.out or not a.out or self.isWrapped(a.ctype)) and "jni_var" in type_dict[a.ctype]: # complex type
c_prologue.append(type_dict[a.ctype]["jni_var"] % {"n" : a.name} + ";")
if a.out and "I" not in a.out and not self.isWrapped(a.ctype) and a.ctype:
c_prologue.append("%s %s;" % (a.ctype, a.name))
rtype = type_dict[fi.ctype].get("jni_type", "jdoubleArray")
clazz = ci.jname
cpp_code.write ( Template( \
"""
JNIEXPORT $rtype JNICALL Java_org_opencv_${module}_${clazz}_$fname ($argst);
JNIEXPORT $rtype JNICALL Java_org_opencv_${module}_${clazz}_$fname
($args)
{
static const char method_name[] = "$module::$fname()";
try {
LOGD("%s", method_name);
$prologue
$retval$cvname( $cvargs );
$epilogue$ret
} catch(const std::exception &e) {
throwJavaException(env, &e, method_name);
} catch (...) {
throwJavaException(env, 0, method_name);
}
$default
}
""" ).substitute( \
rtype = rtype, \
module = self.module, \
clazz = clazz.replace('_', '_1'), \
fname = (fi.jname + '_' + str(suffix_counter)).replace('_', '_1'), \
args = ", ".join(["%s %s" % (type_dict[a.ctype].get("jni_type"), a.name) for a in jni_args]), \
argst = ", ".join([type_dict[a.ctype].get("jni_type") for a in jni_args]), \
prologue = "\n ".join(c_prologue), \
epilogue = " ".join(c_epilogue) + ("\n " if c_epilogue else ""), \
ret = ret, \
cvname = cvname, \
cvargs = ", ".join(cvargs), \
default = default, \
retval = retval, \
) )
# processing args with default values
if not args or not args[-1].defval:
break
while args and args[-1].defval:
# 'smart' overloads filtering
a = args.pop()
if a.name in ('mask', 'dtype', 'ddepth', 'lineType', 'borderType', 'borderMode', 'criteria'):
break
def gen_class(self, ci):
logging.info("%s", ci)
# constants
if ci.private_consts:
logging.info("%s", ci.private_consts)
ci.j_code.write("""
private static final int
%s;\n\n""" % (",\n"+" "*12).join(["%s = %s" % (c.name, c.value) for c in ci.private_consts])
)
if ci.consts:
logging.info("%s", ci.consts)
ci.j_code.write("""
public static final int
%s;\n\n""" % (",\n"+" "*12).join(["%s = %s" % (c.name, c.value) for c in ci.consts])
)
# methods
for fi in ci.getAllMethods():
self.gen_func(ci, fi)
# props
for pi in ci.props:
# getter
getter_name = ci.fullName() + ".get_" + pi.name
fi = FuncInfo( [getter_name, pi.ctype, [], []], self.namespaces ) # [ funcname, return_ctype, [modifiers], [args] ]
self.gen_func(ci, fi, pi.name)
if pi.rw:
#setter
setter_name = ci.fullName() + ".set_" + pi.name
fi = FuncInfo( [ setter_name, "void", [], [ [pi.ctype, pi.name, "", [], ""] ] ], self.namespaces)
self.gen_func(ci, fi, pi.name)
# manual ports
if ci.name in ManualFuncs:
for func in ManualFuncs[ci.name].keys():
ci.j_code.write ( ManualFuncs[ci.name][func]["j_code"] )
ci.jn_code.write( ManualFuncs[ci.name][func]["jn_code"] )
ci.cpp_code.write( ManualFuncs[ci.name][func]["cpp_code"] )
if ci.name != self.Module:
# finalize()
ci.j_code.write(
"""
@Override
protected void finalize() throws Throwable {
delete(nativeObj);
}
""" )
ci.jn_code.write(
"""
// native support for java finalize()
private static native void delete(long nativeObj);
""" )
# native support for java finalize()
ci.cpp_code.write( \
"""
//
// native support for java finalize()
// static void %(cls)s::delete( __int64 self )
//
JNIEXPORT void JNICALL Java_org_opencv_%(module)s_%(j_cls)s_delete(JNIEnv*, jclass, jlong);
JNIEXPORT void JNICALL Java_org_opencv_%(module)s_%(j_cls)s_delete
(JNIEnv*, jclass, jlong self)
{
delete (%(cls)s*) self;
}
""" % {"module" : module, "cls" : self.smartWrap(ci.name, ci.fullName(isCPP=True)), "j_cls" : ci.jname.replace('_', '_1')}
)
def getClass(self, classname):
return self.classes[classname or self.Module]
def isWrapped(self, classname):
name = classname or self.Module
return name in self.classes
def isSmartClass(self, classname):
'''
Check if class stores Ptr<T>* instead of T* in nativeObj field
'''
return self.isWrapped(classname) and self.classes[classname].base
def smartWrap(self, name, fullname):
'''
Wraps fullname with Ptr<> if needed
'''
if self.isSmartClass(name):
return "Ptr<" + fullname + ">"
return fullname
if __name__ == "__main__":
if len(sys.argv) < 4:
print("Usage:\n", \
os.path.basename(sys.argv[0]), \
"<full path to hdr_parser.py> <module name> <C++ header> [<C++ header>...]")
print("Current args are: ", ", ".join(["'"+a+"'" for a in sys.argv]))
exit(0)
dstdir = "."
hdr_parser_path = os.path.abspath(sys.argv[1])
if hdr_parser_path.endswith(".py"):
hdr_parser_path = os.path.dirname(hdr_parser_path)
sys.path.append(hdr_parser_path)
import hdr_parser
module = sys.argv[2]
srcfiles = sys.argv[3:]
logging.basicConfig(filename='%s/%s.log' % (dstdir, module), format=None, filemode='w', level=logging.INFO)
handler = logging.StreamHandler()
handler.setLevel(logging.WARNING)
logging.getLogger().addHandler(handler)
#print("Generating module '" + module + "' from headers:\n\t" + "\n\t".join(srcfiles))
generator = JavaWrapperGenerator()
generator.gen(srcfiles, module, dstdir)