create_openjpeg_container ();
- int const size = _out_size.width * _out_size.height;
-
struct {
double r, g, b;
} s;
/* Copy our RGB into the openjpeg container, converting to XYZ in the process */
- uint8_t* p = prepared->data()[0];
- for (int i = 0; i < size; ++i) {
- /* In gamma LUT (converting 8-bit input to 12-bit) */
- s.r = lut_in[_colour_lut_index][*p++ << 4];
- s.g = lut_in[_colour_lut_index][*p++ << 4];
- s.b = lut_in[_colour_lut_index][*p++ << 4];
-
- /* RGB to XYZ Matrix */
- d.x = ((s.r * color_matrix[_colour_lut_index][0][0]) + (s.g * color_matrix[_colour_lut_index][0][1]) + (s.b * color_matrix[_colour_lut_index][0][2]));
- d.y = ((s.r * color_matrix[_colour_lut_index][1][0]) + (s.g * color_matrix[_colour_lut_index][1][1]) + (s.b * color_matrix[_colour_lut_index][1][2]));
- d.z = ((s.r * color_matrix[_colour_lut_index][2][0]) + (s.g * color_matrix[_colour_lut_index][2][1]) + (s.b * color_matrix[_colour_lut_index][2][2]));
-
- /* DCI companding */
- d.x = d.x * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
- d.y = d.y * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
- d.z = d.z * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
-
- /* Out gamma LUT */
- _image->comps[0].data[i] = lut_out[LO_DCI][(int) d.x];
- _image->comps[1].data[i] = lut_out[LO_DCI][(int) d.y];
- _image->comps[2].data[i] = lut_out[LO_DCI][(int) d.z];
+ int jn = 0;
+ for (int y = 0; y < _out_size.height; ++y) {
+ uint8_t* p = prepared->data()[0] + y * prepared->line_size()[0];
+ for (int x = 0; x < _out_size.width; ++x) {
+
+ /* In gamma LUT (converting 8-bit input to 12-bit) */
+ s.r = lut_in[_colour_lut_index][*p++ << 4];
+ s.g = lut_in[_colour_lut_index][*p++ << 4];
+ s.b = lut_in[_colour_lut_index][*p++ << 4];
+
+ /* RGB to XYZ Matrix */
+ d.x = ((s.r * color_matrix[_colour_lut_index][0][0]) +
+ (s.g * color_matrix[_colour_lut_index][0][1]) +
+ (s.b * color_matrix[_colour_lut_index][0][2]));
+
+ d.y = ((s.r * color_matrix[_colour_lut_index][1][0]) +
+ (s.g * color_matrix[_colour_lut_index][1][1]) +
+ (s.b * color_matrix[_colour_lut_index][1][2]));
+
+ d.z = ((s.r * color_matrix[_colour_lut_index][2][0]) +
+ (s.g * color_matrix[_colour_lut_index][2][1]) +
+ (s.b * color_matrix[_colour_lut_index][2][2]));
+
+ /* DCI companding */
+ d.x = d.x * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
+ d.y = d.y * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
+ d.z = d.z * DCI_COEFFICENT * (DCI_LUT_SIZE - 1);
+
+ /* Out gamma LUT */
+ _image->comps[0].data[jn] = lut_out[LO_DCI][(int) d.x];
+ _image->comps[1].data[jn] = lut_out[LO_DCI][(int) d.y];
+ _image->comps[2].data[jn] = lut_out[LO_DCI][(int) d.z];
+
+ ++jn;
+ }
}
/* Set the max image and component sizes based on frame_rate */
_filters.push_back (new Filter ("ppl5", "FIR low-pass deinterlacer", "", "l5"));
_filters.push_back (new Filter ("mcdeint", "Motion compensating deinterlacer", "mcdeint", ""));
_filters.push_back (new Filter ("kerndeint", "Kernel deinterlacer", "kerndeint", ""));
+ _filters.push_back (new Filter ("yadif", "Yet Another Deinterlacing Filter", "yadif", ""));
_filters.push_back (new Filter ("pptn", "Temporal noise reducer", "", "tn"));
_filters.push_back (new Filter ("ppfq", "Force quantizer", "", "fq"));
_filters.push_back (new Filter ("gradfun", "Gradient debander", "gradfun", ""));
switch (p) {
case PIX_FMT_RGB24:
- _line_size[0] = s.width * 3;
+ _line_size[0] = round_up (s.width * 3, 32);
break;
case PIX_FMT_RGBA:
- _line_size[0] = s.width * 4;
+ _line_size[0] = round_up (s.width * 4, 32);
break;
case PIX_FMT_YUV420P:
- _line_size[0] = s.width;
- _line_size[1] = s.width / 2;
- _line_size[2] = s.width / 2;
+ _line_size[0] = round_up (s.width, 32);
+ _line_size[1] = round_up (s.width / 2, 32);
+ _line_size[2] = round_up (s.width / 2, 32);
break;
default:
assert (false);