void CV_MinMaxHistTest::init_hist(int test_case_idx, int hist_i) { int i, eq = 1; CvRNG* rng = ts->get_rng(); CV_BaseHistTest::init_hist( test_case_idx, hist_i ); for(;;) { for( i = 0; i < cdims; i++ ) { min_idx0[i] = cvTsRandInt(rng) % dims[i]; max_idx0[i] = cvTsRandInt(rng) % dims[i]; eq &= min_idx0[i] == max_idx0[i]; } if( !eq || total_size == 1 ) break; } min_val0 = (float)(-cvTsRandReal(rng)*10 - FLT_EPSILON); max_val0 = (float)(cvTsRandReal(rng)*10 + FLT_EPSILON + gen_hist_max_val); if( total_size == 1 ) min_val0 = max_val0; cvSetRealND( hist[0]->bins, min_idx0, min_val0 ); cvSetRealND( hist[0]->bins, max_idx0, max_val0 ); }
void CV_MHIBaseTest::get_test_array_types_and_sizes( int test_case_idx, CvSize** sizes, int** types ) { CvRNG* rng = ts->get_rng(); CvArrTest::get_test_array_types_and_sizes( test_case_idx, sizes, types ); types[INPUT][0] = CV_8UC1; types[mhi_i][0] = types[mhi_ref_i][0] = CV_32FC1; duration = exp(cvTsRandReal(rng)*max_log_duration); timestamp = duration + cvTsRandReal(rng)*30.-10.; }
void CV_MHIGradientTest::get_test_array_types_and_sizes( int test_case_idx, CvSize** sizes, int** types ) { CvRNG* rng = ts->get_rng(); CV_MHIBaseTest::get_test_array_types_and_sizes( test_case_idx, sizes, types ); types[OUTPUT][0] = types[REF_OUTPUT][0] = CV_8UC1; types[OUTPUT][1] = types[REF_OUTPUT][1] = CV_32FC1; delta1 = exp(cvTsRandReal(rng)*delta_range_log + 1.); delta2 = exp(cvTsRandReal(rng)*delta_range_log + 1.); aperture_size = (cvTsRandInt(rng)%3)*2+3; //duration = exp(cvTsRandReal(rng)*max_log_duration); //timestamp = duration + cvTsRandReal(rng)*30.-10.; }
void CV_BaseHistTest::init_hist( int /*test_case_idx*/, int hist_i ) { if( gen_random_hist ) { CvRNG* rng = ts->get_rng(); CvArr* h = hist[hist_i]->bins; if( hist_type == CV_HIST_ARRAY ) { cvRandArr( rng, h, CV_RAND_UNI, cvScalarAll(0), cvScalarAll(gen_hist_max_val) ); } else { int i, j, total_size = 1, nz_count; int idx[CV_MAX_DIM]; for( i = 0; i < cdims; i++ ) total_size *= dims[i]; nz_count = cvTsRandInt(rng) % MAX( total_size/4, 100 ); nz_count = MIN( nz_count, total_size ); // a zero number of non-zero elements should be allowed for( i = 0; i < nz_count; i++ ) { for( j = 0; j < cdims; j++ ) idx[j] = cvTsRandInt(rng) % dims[j]; cvSetRealND( h, idx, cvTsRandReal(rng)*gen_hist_max_val ); } } } }
void CV_BaseHistTest::get_hist_params( int /*test_case_idx*/ ) { CvRNG* rng = ts->get_rng(); int i, max_dim_size, max_ni_dim_size = 31; double hist_size; cdims = cvTsRandInt(rng) % max_cdims + 1; hist_size = exp(cvTsRandReal(rng)*max_log_size*CV_LOG2); max_dim_size = cvRound(pow(hist_size,1./cdims)); total_size = 1; uniform = cvTsRandInt(rng) % 2; hist_type = cvTsRandInt(rng) % 2 ? CV_HIST_SPARSE : CV_HIST_ARRAY; for( i = 0; i < cdims; i++ ) { dims[i] = cvTsRandInt(rng) % (max_dim_size + 2) + 2; if( !uniform ) dims[i] = MIN(dims[i], max_ni_dim_size); total_size *= dims[i]; } img_type = cvTsRandInt(rng) % 2 ? CV_32F : CV_8U; img_size.width = cvRound( exp(cvRandReal(rng) * img_max_log_size*CV_LOG2) ); img_size.height = cvRound( exp(cvRandReal(rng) * img_max_log_size*CV_LOG2) ); low = cvTsMinVal(img_type); high = cvTsMaxVal(img_type); range_delta = (cvTsRandInt(rng) % 2)*(high-low)*0.05; }
int CV_CalcBackProjectTest::prepare_test_case( int test_case_idx ) { int code = CV_BaseHistTest::prepare_test_case( test_case_idx ); if( code > 0 ) { CvRNG* rng = ts->get_rng(); int i, j, n, img_len = img_size.width*img_size.height; for( i = 0; i < CV_MAX_DIM + 3; i++ ) { if( i < cdims ) { int nch = 1; //cvTsRandInt(rng) % 3 + 1; images[i] = cvCreateImage( img_size, img_type == CV_8U ? IPL_DEPTH_8U : IPL_DEPTH_32F, nch ); channels[i] = cvTsRandInt(rng) % nch; cvRandArr( rng, images[i], CV_RAND_UNI, cvScalarAll(low), cvScalarAll(high) ); } else if( i == CV_MAX_DIM && cvTsRandInt(rng) % 2 ) { // create mask images[i] = cvCreateImage( img_size, IPL_DEPTH_8U, 1 ); // make ~25% pixels in the mask non-zero cvRandArr( rng, images[i], CV_RAND_UNI, cvScalarAll(-2), cvScalarAll(2) ); } else if( i > CV_MAX_DIM ) { images[i] = cvCreateImage( img_size, images[0]->depth, 1 ); } } cvTsCalcHist( images, hist[0], images[CV_MAX_DIM], channels ); // now modify the images a bit to add some zeros go to the backprojection n = cvTsRandInt(rng) % (img_len/20+1); for( i = 0; i < cdims; i++ ) { char* data = images[i]->imageData; for( j = 0; j < n; j++ ) { int idx = cvTsRandInt(rng) % img_len; double val = cvTsRandReal(rng)*(high - low) + low; if( img_type == CV_8U ) ((uchar*)data)[idx] = (uchar)cvRound(val); else ((float*)data)[idx] = (float)val; } } } return code; }
void CV_CannyTest::get_test_array_types_and_sizes( int test_case_idx, CvSize** sizes, int** types ) { CvRNG* rng = ts->get_rng(); double thresh_range; CvArrTest::get_test_array_types_and_sizes( test_case_idx, sizes, types ); types[INPUT][0] = types[OUTPUT][0] = types[REF_OUTPUT][0] = CV_8U; aperture_size = cvTsRandInt(rng) % 2 ? 5 : 3; thresh_range = aperture_size == 3 ? 300 : 1000; threshold1 = cvTsRandReal(rng)*thresh_range; threshold2 = cvTsRandReal(rng)*thresh_range*0.3; if( cvTsRandInt(rng) % 2 ) CV_SWAP( threshold1, threshold2, thresh_range ); use_true_gradient = cvTsRandInt(rng) % 2; }
void CV_ThreshTest::get_test_array_types_and_sizes( int test_case_idx, CvSize** sizes, int** types ) { CvRNG* rng = ts->get_rng(); int depth = cvTsRandInt(rng) % 2, cn = cvTsRandInt(rng) % 4 + 1; CvArrTest::get_test_array_types_and_sizes( test_case_idx, sizes, types ); depth = depth == 0 ? CV_8U : CV_32F; types[INPUT][0] = types[OUTPUT][0] = types[REF_OUTPUT][0] = CV_MAKETYPE(depth,cn); thresh_type = cvTsRandInt(rng) % 5; if( depth == CV_8U ) { thresh_val = (float)(cvTsRandReal(rng)*350. - 50.); max_val = (float)(cvTsRandReal(rng)*350. - 50.); if( cvTsRandInt(rng)%4 == 0 ) max_val = 255; } else { thresh_val = (float)(cvTsRandReal(rng)*1000. - 500.); max_val = (float)(cvTsRandReal(rng)*1000. - 500.); } }
void CV_MHIGlobalOrientTest::get_test_array_types_and_sizes( int test_case_idx, CvSize** sizes, int** types ) { CvRNG* rng = ts->get_rng(); CV_MHIBaseTest::get_test_array_types_and_sizes( test_case_idx, sizes, types ); CvSize size = sizes[INPUT][0]; size.width = MAX( size.width, 8 ); size.height = MAX( size.height, 8 ); sizes[INPUT][0] = sizes[INPUT][1] = sizes[INPUT][2] = size; types[INPUT][1] = CV_8UC1; // mask types[INPUT][2] = CV_32FC1; // orientation min_angle = cvTsRandReal(rng)*359.9; max_angle = cvTsRandReal(rng)*359.9; if( min_angle >= max_angle ) { double t; CV_SWAP( min_angle, max_angle, t ); } max_angle += 0.1; duration = exp(cvTsRandReal(rng)*max_log_duration); timestamp = duration + cvTsRandReal(rng)*30.-10.; }
int CV_NormHistTest::prepare_test_case( int test_case_idx ) { int code = CV_BaseHistTest::prepare_test_case( test_case_idx ); if( code > 0 ) { CvRNG* rng = ts->get_rng(); factor = cvTsRandReal(rng)*10 + 0.1; if( hist_type == CV_HIST_SPARSE && ((CvSparseMat*)hist[0]->bins)->heap->active_count == 0 ) factor = 0; } return code; }
int CV_ThreshHistTest::prepare_test_case( int test_case_idx ) { int code = CV_BaseHistTest::prepare_test_case( test_case_idx ); if( code > 0 ) { CvRNG* rng = ts->get_rng(); threshold = cvTsRandReal(rng)*gen_hist_max_val; if( hist_type == CV_HIST_ARRAY ) { orig_nz_count = total_size; values = cvCreateMat( 1, total_size, CV_32F ); memcpy( values->data.fl, cvPtr1D( hist[0]->bins, 0 ), total_size*sizeof(float) ); } else { CvSparseMat* sparse = (CvSparseMat*)hist[0]->bins; CvSparseMatIterator iterator; CvSparseNode* node; int i, k; orig_nz_count = sparse->heap->active_count; values = cvCreateMat( 1, orig_nz_count+1, CV_32F ); indices = cvCreateMat( 1, (orig_nz_count+1)*cdims, CV_32S ); for( node = cvInitSparseMatIterator( sparse, &iterator ), i = 0; node != 0; node = cvGetNextSparseNode( &iterator ), i++ ) { const int* idx = CV_NODE_IDX(sparse,node); OPENCV_ASSERT( i < orig_nz_count, "CV_ThreshHistTest::prepare_test_case", "Buffer overflow" ); values->data.fl[i] = *(float*)CV_NODE_VAL(sparse,node); for( k = 0; k < cdims; k++ ) indices->data.i[i*cdims + k] = idx[k]; } OPENCV_ASSERT( i == orig_nz_count, "Unmatched buffer size", "CV_ThreshHistTest::prepare_test_case" ); } } return code; }
void CV_POSITTest::run( int start_from ) { int code = CvTS::OK; /* fixed parameters output */ /*float rot[3][3]={ 0.49010f, 0.85057f, 0.19063f, -0.56948f, 0.14671f, 0.80880f, 0.65997f, -0.50495f, 0.55629f }; float trans[3] = { 0.0f, 0.0f, 40.02637f }; */ /* Some variables */ int i, counter; CvTermCriteria criteria; CvPoint3D32f* obj_points; CvPoint2D32f* img_points; CvPOSITObject* object; float angleX, angleY, angleZ; CvRNG* rng = ts->get_rng(); int progress = 0; CvMat* true_rotationX = cvCreateMat( 3, 3, CV_32F ); CvMat* true_rotationY = cvCreateMat( 3, 3, CV_32F ); CvMat* true_rotationZ = cvCreateMat( 3, 3, CV_32F ); CvMat* tmp_matrix = cvCreateMat( 3, 3, CV_32F ); CvMat* true_rotation = cvCreateMat( 3, 3, CV_32F ); CvMat* rotation = cvCreateMat( 3, 3, CV_32F ); CvMat* translation = cvCreateMat( 3, 1, CV_32F ); CvMat* true_translation = cvCreateMat( 3, 1, CV_32F ); const float flFocalLength = 760.f; const float flEpsilon = 0.1f; /* Initilization */ criteria.type = CV_TERMCRIT_EPS|CV_TERMCRIT_ITER; criteria.epsilon = flEpsilon; criteria.max_iter = 10000; /* Allocating source arrays; */ obj_points = (CvPoint3D32f*)cvAlloc( 8 * sizeof(CvPoint3D32f) ); img_points = (CvPoint2D32f*)cvAlloc( 8 * sizeof(CvPoint2D32f) ); /* Fill points arrays with values */ /* cube model with edge size 10 */ obj_points[0].x = 0; obj_points[0].y = 0; obj_points[0].z = 0; obj_points[1].x = 10; obj_points[1].y = 0; obj_points[1].z = 0; obj_points[2].x = 10; obj_points[2].y = 10; obj_points[2].z = 0; obj_points[3].x = 0; obj_points[3].y = 10; obj_points[3].z = 0; obj_points[4].x = 0; obj_points[4].y = 0; obj_points[4].z = 10; obj_points[5].x = 10; obj_points[5].y = 0; obj_points[5].z = 10; obj_points[6].x = 10; obj_points[6].y = 10; obj_points[6].z = 10; obj_points[7].x = 0; obj_points[7].y = 10; obj_points[7].z = 10; /* Loop for test some random object positions */ for( counter = start_from; counter < test_case_count; counter++ ) { ts->update_context( this, counter, true ); progress = update_progress( progress, counter, test_case_count, 0 ); /* set all rotation matrix to zero */ cvZero( true_rotationX ); cvZero( true_rotationY ); cvZero( true_rotationZ ); /* fill random rotation matrix */ angleX = (float)(cvTsRandReal(rng)*2*CV_PI); angleY = (float)(cvTsRandReal(rng)*2*CV_PI); angleZ = (float)(cvTsRandReal(rng)*2*CV_PI); true_rotationX->data.fl[0 *3+ 0] = 1; true_rotationX->data.fl[1 *3+ 1] = (float)cos(angleX); true_rotationX->data.fl[2 *3+ 2] = true_rotationX->data.fl[1 *3+ 1]; true_rotationX->data.fl[1 *3+ 2] = -(float)sin(angleX); true_rotationX->data.fl[2 *3+ 1] = -true_rotationX->data.fl[1 *3+ 2]; true_rotationY->data.fl[1 *3+ 1] = 1; true_rotationY->data.fl[0 *3+ 0] = (float)cos(angleY); true_rotationY->data.fl[2 *3+ 2] = true_rotationY->data.fl[0 *3+ 0]; true_rotationY->data.fl[0 *3+ 2] = -(float)sin(angleY); true_rotationY->data.fl[2 *3+ 0] = -true_rotationY->data.fl[0 *3+ 2]; true_rotationZ->data.fl[2 *3+ 2] = 1; true_rotationZ->data.fl[0 *3+ 0] = (float)cos(angleZ); true_rotationZ->data.fl[1 *3+ 1] = true_rotationZ->data.fl[0 *3+ 0]; true_rotationZ->data.fl[0 *3+ 1] = -(float)sin(angleZ); true_rotationZ->data.fl[1 *3+ 0] = -true_rotationZ->data.fl[0 *3+ 1]; cvMatMul( true_rotationX, true_rotationY, tmp_matrix); cvMatMul( tmp_matrix, true_rotationZ, true_rotation); /* fill translation vector */ true_translation->data.fl[2] = (float)(cvRandReal(rng)*(2*flFocalLength-40) + 40); true_translation->data.fl[0] = (float)((cvRandReal(rng)*2-1)*true_translation->data.fl[2]); true_translation->data.fl[1] = (float)((cvRandReal(rng)*2-1)*true_translation->data.fl[2]); /* calculate perspective projection */ for ( i = 0; i < 8; i++ ) { float vec[3]; CvMat Vec = cvMat( 3, 1, CV_MAT32F, vec ); CvMat Obj_point = cvMat( 3, 1, CV_MAT32F, &obj_points[i].x ); cvMatMul( true_rotation, &Obj_point, &Vec ); vec[0] += true_translation->data.fl[0]; vec[1] += true_translation->data.fl[1]; vec[2] += true_translation->data.fl[2]; img_points[i].x = flFocalLength * vec[0] / vec[2]; img_points[i].y = flFocalLength * vec[1] / vec[2]; } /*img_points[0].x = 0 ; img_points[0].y = 0; img_points[1].x = 80; img_points[1].y = -93; img_points[2].x = 245;img_points[2].y = -77; img_points[3].x = 185;img_points[3].y = 32; img_points[4].x = 32; img_points[4].y = 135; img_points[5].x = 99; img_points[5].y = 35; img_points[6].x = 247; img_points[6].y = 62; img_points[7].x = 195; img_points[7].y = 179; */ object = cvCreatePOSITObject( obj_points, 8 ); cvPOSIT( object, img_points, flFocalLength, criteria, rotation->data.fl, translation->data.fl ); cvReleasePOSITObject( &object ); code = cvTsCmpEps2( ts, rotation, true_rotation, flEpsilon, false, "rotation matrix" ); if( code < 0 ) goto _exit_; code = cvTsCmpEps2( ts, translation, true_translation, flEpsilon, false, "translation vector" ); if( code < 0 ) goto _exit_; } _exit_: cvFree( &obj_points ); cvFree( &img_points ); cvReleaseMat( &true_rotationX ); cvReleaseMat( &true_rotationY ); cvReleaseMat( &true_rotationZ ); cvReleaseMat( &tmp_matrix ); cvReleaseMat( &true_rotation ); cvReleaseMat( &rotation ); cvReleaseMat( &translation ); cvReleaseMat( &true_translation ); if( code < 0 ) ts->set_failed_test_info( code ); }
int CV_CalcBackProjectPatchTest::prepare_test_case( int test_case_idx ) { int code = CV_BaseHistTest::prepare_test_case( test_case_idx ); if( code > 0 ) { CvRNG* rng = ts->get_rng(); int i, j, n, img_len = img_size.width*img_size.height; patch_size.width = cvTsRandInt(rng) % img_size.width + 1; patch_size.height = cvTsRandInt(rng) % img_size.height + 1; patch_size.width = MIN( patch_size.width, 30 ); patch_size.height = MIN( patch_size.height, 30 ); factor = 1.; method = cvTsRandInt(rng) % CV_CompareHistTest::MAX_METHOD; for( i = 0; i < CV_MAX_DIM + 2; i++ ) { if( i < cdims ) { int nch = 1; //cvTsRandInt(rng) % 3 + 1; images[i] = cvCreateImage( img_size, img_type == CV_8U ? IPL_DEPTH_8U : IPL_DEPTH_32F, nch ); channels[i] = cvTsRandInt(rng) % nch; cvRandArr( rng, images[i], CV_RAND_UNI, cvScalarAll(low), cvScalarAll(high) ); } else if( i >= CV_MAX_DIM ) { images[i] = cvCreateImage( cvSize(img_size.width - patch_size.width + 1, img_size.height - patch_size.height + 1), IPL_DEPTH_32F, 1 ); } } cvTsCalcHist( images, hist[0], 0, channels ); cvNormalizeHist( hist[0], factor ); // now modify the images a bit n = cvTsRandInt(rng) % (img_len/10+1); for( i = 0; i < cdims; i++ ) { char* data = images[i]->imageData; for( j = 0; j < n; j++ ) { int idx = cvTsRandInt(rng) % img_len; double val = cvTsRandReal(rng)*(high - low) + low; if( img_type == CV_8U ) ((uchar*)data)[idx] = (uchar)cvRound(val); else ((float*)data)[idx] = (float)val; } } } return code; }