Homepage: <http://handbrake.fr/>.
It may be used under the terms of the GNU General Public License.
- The yadif algorithm was created by Michael Niedermayer. */
+ The yadif algorithm was created by Michael Niedermayer.
+ Tritical's work inspired much of the comb detection code:
+ http://web.missouri.edu/~kes25c/
+*/
+
#include "hb.h"
#include "hbffmpeg.h"
#include "mpeg2dec/mpeg2.h"
+#include "eedi2.h"
#define SUPPRESS_AV_LOG
#define MIN3(a,b,c) MIN(MIN(a,b),c)
#define MAX3(a,b,c) MAX(MAX(a,b),c)
-typedef struct yadif_arguments_s {
+// Some names to correspond to the pv->eedi_half array's contents
+#define SRCPF 0
+#define MSKPF 1
+#define TMPPF 2
+#define DSTPF 3
+// Some names to correspond to the pv->eedi_full array's contents
+#define DST2PF 0
+#define TMP2PF2 1
+#define MSK2PF 2
+#define TMP2PF 3
+#define DST2MPF 4
+
+struct yadif_arguments_s {
uint8_t **dst;
int parity;
int tff;
int stop;
int is_combed;
-} yadif_arguments_t;
+};
+
+struct decomb_arguments_s {
+ int stop;
+};
-typedef struct decomb_arguments_s {
+struct eedi2_arguments_s {
int stop;
-} decomb_arguments_t;
+};
+
+typedef struct yadif_arguments_s yadif_arguments_t;
+typedef struct decomb_arguments_s decomb_arguments_t;
+typedef struct eedi2_arguments_s eedi2_arguments_t;
+
+typedef struct eedi2_thread_arg_s {
+ hb_filter_private_t *pv;
+ int plane;
+} eedi2_thread_arg_t;
+
+typedef struct decomb_thread_arg_s {
+ hb_filter_private_t *pv;
+ int segment;
+} decomb_thread_arg_t;
+
+typedef struct yadif_thread_arg_s {
+ hb_filter_private_t *pv;
+ int segment;
+} yadif_thread_arg_t;
struct hb_filter_private_s
{
int width[3];
int height[3];
+ // Decomb parameters
int mode;
int spatial_metric;
int motion_threshold;
int block_threshold;
int block_width;
int block_height;
+
+ // EEDI2 parameters
+ int magnitude_threshold;
+ int variance_threshold;
+ int laplacian_threshold;
+ int dilation_threshold;
+ int erosion_threshold;
+ int noise_threshold;
+ int maximum_search_distance;
+ int post_processing;
int parity;
+ int tff;
int yadif_ready;
/* Make a buffer to store a comb mask. */
uint8_t * mask[3];
+ uint8_t * eedi_half[4][3];
+ uint8_t * eedi_full[5][3];
+ int * cx2;
+ int * cy2;
+ int * cxy;
+ int * tmpc;
+
AVPicture pic_in;
AVPicture pic_out;
hb_buffer_t * buf_out[2];
hb_lock_t ** decomb_begin_lock; // Thread has work
hb_lock_t ** decomb_complete_lock; // Thread has completed work
decomb_arguments_t *decomb_arguments; // Arguments to thread for work
+
+ hb_thread_t ** eedi2_threads; // Threads for eedi2 - one per plane
+ hb_lock_t ** eedi2_begin_lock; // Thread has work
+ hb_lock_t ** eedi2_complete_lock; // Thread has completed work
+ eedi2_arguments_t *eedi2_arguments; // Arguments to thread for work
};
hb_filter_object_t hb_filter_decomb =
{
FILTER_DECOMB,
- "Deinterlaces selectively with yadif/mcdeint and lowpass5 blending",
+ "Decomb",
NULL,
hb_decomb_init,
hb_decomb_work,
}
}
-typedef struct decomb_thread_arg_s {
- hb_filter_private_t *pv;
- int segment;
-} decomb_thread_arg_t;
+// This function calls all the eedi2 filters in sequence for a given plane.
+// It outputs the final interpolated image to pv->eedi_full[DST2PF].
+void eedi2_interpolate_plane( hb_filter_private_t * pv, int k )
+{
+ /* We need all these pointers. No, seriously.
+ I swear. It's not a joke. They're used.
+ All nine of them. */
+ uint8_t * mskp = pv->eedi_half[MSKPF][k];
+ uint8_t * srcp = pv->eedi_half[SRCPF][k];
+ uint8_t * tmpp = pv->eedi_half[TMPPF][k];
+ uint8_t * dstp = pv->eedi_half[DSTPF][k];
+ uint8_t * dst2p = pv->eedi_full[DST2PF][k];
+ uint8_t * tmp2p2 = pv->eedi_full[TMP2PF2][k];
+ uint8_t * msk2p = pv->eedi_full[MSK2PF][k];
+ uint8_t * tmp2p = pv->eedi_full[TMP2PF][k];
+ uint8_t * dst2mp = pv->eedi_full[DST2MPF][k];
+ int * cx2 = pv->cx2;
+ int * cy2 = pv->cy2;
+ int * cxy = pv->cxy;
+ int * tmpc = pv->tmpc;
+
+ int pitch = pv->ref_stride[k];
+ int height = pv->height[k]; int width = pv->width[k];
+ int half_height = height / 2;
+
+ // edge mask
+ eedi2_build_edge_mask( mskp, pitch, srcp, pitch,
+ pv->magnitude_threshold, pv->variance_threshold, pv->laplacian_threshold,
+ half_height, width );
+ eedi2_erode_edge_mask( mskp, pitch, tmpp, pitch, pv->erosion_threshold, half_height, width );
+ eedi2_dilate_edge_mask( tmpp, pitch, mskp, pitch, pv->dilation_threshold, half_height, width );
+ eedi2_erode_edge_mask( mskp, pitch, tmpp, pitch, pv->erosion_threshold, half_height, width );
+ eedi2_remove_small_gaps( tmpp, pitch, mskp, pitch, half_height, width );
+
+ // direction mask
+ eedi2_calc_directions( k, mskp, pitch, srcp, pitch, tmpp, pitch,
+ pv->maximum_search_distance, pv->noise_threshold,
+ half_height, width );
+ eedi2_filter_dir_map( mskp, pitch, tmpp, pitch, dstp, pitch, half_height, width );
+ eedi2_expand_dir_map( mskp, pitch, dstp, pitch, tmpp, pitch, half_height, width );
+ eedi2_filter_map( mskp, pitch, tmpp, pitch, dstp, pitch, half_height, width );
+
+ // upscale 2x vertically
+ eedi2_upscale_by_2( srcp, dst2p, half_height, pitch );
+ eedi2_upscale_by_2( dstp, tmp2p2, half_height, pitch );
+ eedi2_upscale_by_2( mskp, msk2p, half_height, pitch );
+
+ // upscale the direction mask
+ eedi2_mark_directions_2x( msk2p, pitch, tmp2p2, pitch, tmp2p, pitch, pv->tff, height, width );
+ eedi2_filter_dir_map_2x( msk2p, pitch, tmp2p, pitch, dst2mp, pitch, pv->tff, height, width );
+ eedi2_expand_dir_map_2x( msk2p, pitch, dst2mp, pitch, tmp2p, pitch, pv->tff, height, width );
+ eedi2_fill_gaps_2x( msk2p, pitch, tmp2p, pitch, dst2mp, pitch, pv->tff, height, width );
+ eedi2_fill_gaps_2x( msk2p, pitch, dst2mp, pitch, tmp2p, pitch, pv->tff, height, width );
+
+ // interpolate a full-size plane
+ eedi2_interpolate_lattice( k, tmp2p, pitch, dst2p, pitch, tmp2p2, pitch, pv->tff,
+ pv->noise_threshold, height, width );
+
+ if( pv->post_processing == 1 || pv->post_processing == 3 )
+ {
+ // make sure the edge directions are consistent
+ eedi2_bit_blit( tmp2p2, pitch, tmp2p, pitch, pv->width[k], pv->height[k] );
+ eedi2_filter_dir_map_2x( msk2p, pitch, tmp2p, pitch, dst2mp, pitch, pv->tff, height, width );
+ eedi2_expand_dir_map_2x( msk2p, pitch, dst2mp, pitch, tmp2p, pitch, pv->tff, height, width );
+ eedi2_post_process( tmp2p, pitch, tmp2p2, pitch, dst2p, pitch, pv->tff, height, width );
+ }
+ if( pv->post_processing == 2 || pv->post_processing == 3 )
+ {
+ // filter junctions and corners
+ eedi2_gaussian_blur1( srcp, pitch, tmpp, pitch, srcp, pitch, half_height, width );
+ eedi2_calc_derivatives( srcp, pitch, half_height, width, cx2, cy2, cxy );
+ eedi2_gaussian_blur_sqrt2( cx2, tmpc, cx2, pitch, half_height, width);
+ eedi2_gaussian_blur_sqrt2( cy2, tmpc, cy2, pitch, half_height, width);
+ eedi2_gaussian_blur_sqrt2( cxy, tmpc, cxy, pitch, half_height, width);
+ eedi2_post_process_corner( cx2, cy2, cxy, pitch, tmp2p2, pitch, dst2p, pitch, height, width, pv->tff );
+ }
+}
+
+/*
+ * eedi2 interpolate this plane in a single thread.
+ */
+void eedi2_filter_thread( void *thread_args_v )
+{
+ eedi2_arguments_t *eedi2_work = NULL;
+ hb_filter_private_t * pv;
+ int run = 1;
+ int plane;
+ eedi2_thread_arg_t *thread_args = thread_args_v;
+
+ pv = thread_args->pv;
+ plane = thread_args->plane;
+
+ hb_log("eedi2 thread started for plane %d", plane);
+
+ while( run )
+ {
+ /*
+ * Wait here until there is work to do. hb_lock() blocks until
+ * render releases it to say that there is more work to do.
+ */
+ hb_lock( pv->eedi2_begin_lock[plane] );
+
+ eedi2_work = &pv->eedi2_arguments[plane];
+
+ if( eedi2_work->stop )
+ {
+ /*
+ * No more work to do, exit this thread.
+ */
+ run = 0;
+ continue;
+ }
+
+ /*
+ * Process plane
+ */
+ eedi2_interpolate_plane( pv, plane );
+
+ /*
+ * Finished this segment, let everyone know.
+ */
+ hb_unlock( pv->eedi2_complete_lock[plane] );
+ }
+ free( thread_args_v );
+}
+
+// Sets up the input field planes for EEDI2 in pv->eedi_half[SRCPF]
+// and then runs eedi2_filter_thread for each plane.
+void eedi2_planer( hb_filter_private_t * pv )
+{
+ /* Copy the first field from the source to a half-height frame. */
+ int i;
+ for( i = 0; i < 3; i++ )
+ {
+ int pitch = pv->ref_stride[i];
+ int start_line = !pv->tff;
+ eedi2_fill_half_height_buffer_plane( &pv->ref[1][i][pitch*start_line], pv->eedi_half[SRCPF][i], pitch, pv->height[i] );
+ }
+
+ int plane;
+ for( plane = 0; plane < 3; plane++ )
+ {
+ /*
+ * Let the thread for this plane know that we've setup work
+ * for it by releasing the begin lock (ensuring that the
+ * complete lock is already locked so that we block when
+ * we try to lock it again below).
+ */
+ hb_lock( pv->eedi2_complete_lock[plane] );
+ hb_unlock( pv->eedi2_begin_lock[plane] );
+ }
+
+ /*
+ * Wait until all three threads have completed by trying to get
+ * the complete lock that we locked earlier for each thread, which
+ * will block until that thread has completed the work on that
+ * plane.
+ */
+ for( plane = 0; plane < 3; plane++ )
+ {
+ hb_lock( pv->eedi2_complete_lock[plane] );
+ hb_unlock( pv->eedi2_complete_lock[plane] );
+ }
+}
+
/*
* comb detect this segment of all three planes in a single thread.
to the other field in the current frame--the one not being filtered. */
uint8_t *prev2 = parity ? prev : cur ;
uint8_t *next2 = parity ? cur : next;
+
int w = pv->width[plane];
int refs = pv->ref_stride[plane];
int x;
+ int eedi2_mode = (pv->mode == 5);
+ /* We can replace spatial_pred with this interpolation*/
+ uint8_t * eedi2_guess = &pv->eedi_full[DST2PF][plane][y*refs];
+
/* Decomb's cubic interpolation can only function when there are
three samples above and below, so regress to yadif's traditional
two-tap interpolation when filtering at the top and bottom edges. */
int temporal_diff2 = ( ABS(next[-refs] - cur[-refs]) + ABS(next[+refs] - cur[+refs]) ) >> 1;
/* For the actual difference, use the largest of the previous average diffs. */
int diff = MAX3(temporal_diff0>>1, temporal_diff1, temporal_diff2);
-
- /* SAD of how the pixel-1, the pixel, and the pixel+1 change from the line above to below. */
- int spatial_score = ABS(cur[-refs-1] - cur[+refs-1]) + ABS(cur[-refs]-cur[+refs]) +
- ABS(cur[-refs+1] - cur[+refs+1]) - 1;
+
int spatial_pred;
-
- /* Spatial pred is either a bilinear or cubic vertical interpolation. */
- if( pv->mode > 0 && !edge)
+
+ if( eedi2_mode )
{
- spatial_pred = cubic_interpolate( cur[-3*refs], cur[-refs], cur[+refs], cur[3*refs] );
+ /* Who needs yadif's spatial predictions when we can have EEDI2's? */
+ spatial_pred = eedi2_guess[0];
+ eedi2_guess++;
}
- else
+ else // Yadif spatial interpolation
{
- spatial_pred = (c+e)>>1;
+ /* SAD of how the pixel-1, the pixel, and the pixel+1 change from the line above to below. */
+ int spatial_score = ABS(cur[-refs-1] - cur[+refs-1]) + ABS(cur[-refs]-cur[+refs]) +
+ ABS(cur[-refs+1] - cur[+refs+1]) - 1;
+
+ /* Spatial pred is either a bilinear or cubic vertical interpolation. */
+ if( pv->mode > 0 && !edge)
+ {
+ spatial_pred = cubic_interpolate( cur[-3*refs], cur[-refs], cur[+refs], cur[3*refs] );
+ }
+ else
+ {
+ spatial_pred = (c+e)>>1;
+ }
+
+ /* EDDI: Edge Directed Deinterlacing Interpolation
+ Checks 4 different slopes to see if there is more similarity along a diagonal
+ than there was vertically. If a diagonal is more similar, then it indicates
+ an edge, so interpolate along that instead of a vertical line, using either
+ linear or cubic interpolation depending on mode. */
+ #define YADIF_CHECK(j)\
+ { int score = ABS(cur[-refs-1+j] - cur[+refs-1-j])\
+ + ABS(cur[-refs +j] - cur[+refs -j])\
+ + ABS(cur[-refs+1+j] - cur[+refs+1-j]);\
+ if( score < spatial_score ){\
+ spatial_score = score;\
+ if( pv->mode > 0 && !edge )\
+ {\
+ switch(j)\
+ {\
+ case -1:\
+ spatial_pred = cubic_interpolate(cur[-3 * refs - 3], cur[-refs -1], cur[+refs + 1], cur[3* refs + 3] );\
+ break;\
+ case -2:\
+ spatial_pred = cubic_interpolate( ( ( cur[-3*refs - 4] + cur[-refs - 4] ) / 2 ) , cur[-refs -2], cur[+refs + 2], ( ( cur[3*refs + 4] + cur[refs + 4] ) / 2 ) );\
+ break;\
+ case 1:\
+ spatial_pred = cubic_interpolate(cur[-3 * refs +3], cur[-refs +1], cur[+refs - 1], cur[3* refs -3] );\
+ break;\
+ case 2:\
+ spatial_pred = cubic_interpolate(( ( cur[-3*refs + 4] + cur[-refs + 4] ) / 2 ), cur[-refs +2], cur[+refs - 2], ( ( cur[3*refs - 4] + cur[refs - 4] ) / 2 ) );\
+ break;\
+ }\
+ }\
+ else\
+ {\
+ spatial_pred = ( cur[-refs +j] + cur[+refs -j] ) >>1;\
+ }\
+
+ YADIF_CHECK(-1) YADIF_CHECK(-2) }} }}
+ YADIF_CHECK( 1) YADIF_CHECK( 2) }} }}
}
-/* EDDI: Edge Directed Deinterlacing Interpolation
- Uses the Martinez-Lim Line Shift Parametric Modeling algorithm...I think.
- Checks 4 different slopes to see if there is more similarity along a diagonal
- than there was vertically. If a diagonal is more similar, then it indicates
- an edge, so interpolate along that instead of a vertical line, using either
- linear or cubic interpolation depending on mode. */
-#define YADIF_CHECK(j)\
- { int score = ABS(cur[-refs-1+j] - cur[+refs-1-j])\
- + ABS(cur[-refs +j] - cur[+refs -j])\
- + ABS(cur[-refs+1+j] - cur[+refs+1-j]);\
- if( score < spatial_score ){\
- spatial_score = score;\
- if( pv->mode > 0 && !edge )\
- {\
- switch(j)\
- {\
- case -1:\
- spatial_pred = cubic_interpolate(cur[-3 * refs - 3], cur[-refs -1], cur[+refs + 1], cur[3* refs + 3] );\
- break;\
- case -2:\
- spatial_pred = cubic_interpolate( ( ( cur[-3*refs - 4] + cur[-refs - 4] ) / 2 ) , cur[-refs -2], cur[+refs + 2], ( ( cur[3*refs + 4] + cur[refs + 4] ) / 2 ) );\
- break;\
- case 1:\
- spatial_pred = cubic_interpolate(cur[-3 * refs +3], cur[-refs +1], cur[+refs - 1], cur[3* refs -3] );\
- break;\
- case 2:\
- spatial_pred = cubic_interpolate(( ( cur[-3*refs + 4] + cur[-refs + 4] ) / 2 ), cur[-refs +2], cur[+refs - 2], ( ( cur[3*refs - 4] + cur[refs - 4] ) / 2 ) );\
- break;\
- }\
- }\
- else\
- {\
- spatial_pred = ( cur[-refs +j] + cur[+refs -j] ) >>1;\
- }\
-
- YADIF_CHECK(-1) YADIF_CHECK(-2) }} }}
- YADIF_CHECK( 1) YADIF_CHECK( 2) }} }}
-
/* Temporally adjust the spatial prediction by
comparing against lines in the adjacent fields. */
int b = (prev2[-2*refs] + next2[-2*refs])>>1;
}
}
-typedef struct yadif_thread_arg_s {
- hb_filter_private_t *pv;
- int segment;
-} yadif_thread_arg_t;
-
/*
* deinterlace this segment of all three planes in a single thread.
*/
int tff,
hb_filter_private_t * pv )
{
-
- int is_combed = comb_segmenter( pv );
-
+ /* If we're running comb detection, do it now, otherwise blend if mode 4 and interpolate if not. */
+ int is_combed = pv->spatial_metric >= 0 ? comb_segmenter( pv ) : pv->mode == 4 ? 2 : 1;
+
if( is_combed == 1 )
{
pv->yadif_deinterlaced_frames++;
pv->unfiltered_frames++;
}
+ if( is_combed == 1 && pv->mode == 5 )
+ {
+ /* Generate an EEDI2 interpolation */
+ eedi2_planer( pv );
+ }
+
if( is_combed )
{
int segment;
pv->block_width = 16;
pv->block_height = 16;
+ pv->magnitude_threshold = 10;
+ pv->variance_threshold = 20;
+ pv->laplacian_threshold = 20;
+ pv->dilation_threshold = 4;
+ pv->erosion_threshold = 2;
+ pv->noise_threshold = 50;
+ pv->maximum_search_distance = 24;
+ pv->post_processing = 1;
+
pv->parity = PARITY_DEFAULT;
pv->mcdeint_mode = MCDEINT_MODE_DEFAULT;
if( settings )
{
- sscanf( settings, "%d:%d:%d:%d:%d:%d:%d",
+ sscanf( settings, "%d:%d:%d:%d:%d:%d:%d:%d:%d:%d:%d:%d:%d:%d:%d",
&pv->mode,
&pv->spatial_metric,
&pv->motion_threshold,
&pv->spatial_threshold,
&pv->block_threshold,
&pv->block_width,
- &pv->block_height );
+ &pv->block_height,
+ &pv->magnitude_threshold,
+ &pv->variance_threshold,
+ &pv->laplacian_threshold,
+ &pv->dilation_threshold,
+ &pv->erosion_threshold,
+ &pv->noise_threshold,
+ &pv->maximum_search_distance,
+ &pv->post_processing );
}
pv->cpu_count = hb_get_cpu_count();
pv->mask[i] = calloc( 1, w*h*sizeof(uint8_t) ) + 3*w;
}
+
+ if( pv->mode == 5 )
+ {
+ /* Allocate half-height eedi2 buffers */
+ height = pv->height[0] / 2;
+ for( i = 0; i < 3; i++ )
+ {
+ int is_chroma = !!i;
+ int w = ((width + 31) & (~31))>>is_chroma;
+ int h = ((height+6+ 31) & (~31))>>is_chroma;
+ for( j = 0; j < 4; j++ )
+ {
+ pv->eedi_half[j][i] = malloc( w*h*sizeof(uint8_t) ) + 3*w;
+ }
+ }
+
+ /* Allocate full-height eedi2 buffers */
+ height = pv->height[0];
+ for( i = 0; i < 3; i++ )
+ {
+ int is_chroma = !!i;
+ int w = ((width + 31) & (~31))>>is_chroma;
+ int h = ((height+6+ 31) & (~31))>>is_chroma;
+
+ for( j = 0; j < 5; j++ )
+ {
+ pv->eedi_full[j][i] = malloc( w*h*sizeof(uint8_t) ) + 3*w;
+ }
+ }
+ }
+
/*
* Create yadif threads and locks.
*/
hb_error( "decomb could not create threads" );
}
}
+
+ if( pv->mode == 5 )
+ {
+ /*
+ * Create eedi2 threads and locks.
+ */
+ pv->eedi2_threads = malloc( sizeof( hb_thread_t* ) * 3 );
+ pv->eedi2_begin_lock = malloc( sizeof( hb_lock_t * ) * 3 );
+ pv->eedi2_complete_lock = malloc( sizeof( hb_lock_t * ) * 3 );
+ pv->eedi2_arguments = malloc( sizeof( eedi2_arguments_t ) * 3 );
+
+ if( pv->post_processing > 1 )
+ {
+ pv->cx2 = (int*)eedi2_aligned_malloc(pv->height[0]*pv->ref_stride[0]*sizeof(int), 16);
+ pv->cy2 = (int*)eedi2_aligned_malloc(pv->height[0]*pv->ref_stride[0]*sizeof(int), 16);
+ pv->cxy = (int*)eedi2_aligned_malloc(pv->height[0]*pv->ref_stride[0]*sizeof(int), 16);
+ pv->tmpc = (int*)eedi2_aligned_malloc(pv->height[0]*pv->ref_stride[0]*sizeof(int), 16);
+ if( !pv->cx2 || !pv->cy2 || !pv->cxy || !pv->tmpc )
+ hb_log("EEDI2: failed to malloc derivative arrays");
+ else
+ hb_log("EEDI2: successfully mallloced derivative arrays");
+ }
+
+ for( i = 0; i < 3; i++ )
+ {
+ eedi2_thread_arg_t *eedi2_thread_args;
+
+ eedi2_thread_args = malloc( sizeof( eedi2_thread_arg_t ) );
+
+ if( eedi2_thread_args )
+ {
+ eedi2_thread_args->pv = pv;
+ eedi2_thread_args->plane = i;
+
+ pv->eedi2_begin_lock[i] = hb_lock_init();
+ pv->eedi2_complete_lock[i] = hb_lock_init();
+
+ /*
+ * Important to start off with the threads locked waiting
+ * on input.
+ */
+ hb_lock( pv->eedi2_begin_lock[i] );
+ pv->eedi2_arguments[i].stop = 0;
+
+ pv->eedi2_threads[i] = hb_thread_init( "eedi2_filter_segment",
+ eedi2_filter_thread,
+ eedi2_thread_args,
+ HB_NORMAL_PRIORITY );
+ }
+ else
+ {
+ hb_error( "eedi2 could not create threads" );
+ }
+ }
+ }
/* Allocate mcdeint specific buffers */
return;
}
- hb_log("decomb: yadif deinterlaced %i | blend deinterlaced %i | unfiltered %i | total %i", pv->yadif_deinterlaced_frames, pv->blend_deinterlaced_frames, pv->unfiltered_frames, pv->yadif_deinterlaced_frames + pv->blend_deinterlaced_frames + pv->unfiltered_frames);
+ hb_log("decomb: %s deinterlaced %i | blend deinterlaced %i | unfiltered %i | total %i", pv->mode == 5 ? "yadif+eedi2" : "yadif", pv->yadif_deinterlaced_frames, pv->blend_deinterlaced_frames, pv->unfiltered_frames, pv->yadif_deinterlaced_frames + pv->blend_deinterlaced_frames + pv->unfiltered_frames);
/* Cleanup frame buffers */
if( pv->buf_out[0] )
}
}
+ if( pv->mode == 5 )
+ {
+ /* Cleanup eedi-half buffers */
+ int j;
+ for( i = 0; i<3; i++ )
+ {
+ for( j = 0; j < 4; j++ )
+ {
+ uint8_t **p = &pv->eedi_half[j][i];
+ if (*p)
+ {
+ free( *p - 3*pv->ref_stride[i] );
+ *p = NULL;
+ }
+ }
+ }
+
+ /* Cleanup eedi-full buffers */
+ for( i = 0; i<3; i++ )
+ {
+ for( j = 0; j < 5; j++ )
+ {
+ uint8_t **p = &pv->eedi_full[j][i];
+ if (*p)
+ {
+ free( *p - 3*pv->ref_stride[i] );
+ *p = NULL;
+ }
+ }
+ }
+ }
+
+ if( pv->post_processing > 1 && pv->mode == 5 )
+ {
+ if (pv->cx2) eedi2_aligned_free(pv->cx2);
+ if (pv->cy2) eedi2_aligned_free(pv->cy2);
+ if (pv->cxy) eedi2_aligned_free(pv->cxy);
+ if (pv->tmpc) eedi2_aligned_free(pv->tmpc);
+ }
+
for( i = 0; i < pv->cpu_count; i++)
{
/*
free( pv->decomb_complete_lock );
free( pv->decomb_arguments );
+ if( pv->mode == 5 )
+ {
+ for( i = 0; i < 3; i++)
+ {
+ /*
+ * Tell each eedi2 thread to stop, and then cleanup.
+ */
+ pv->eedi2_arguments[i].stop = 1;
+ hb_unlock( pv->eedi2_begin_lock[i] );
+
+ hb_thread_close( &pv->eedi2_threads[i] );
+ hb_lock_close( &pv->eedi2_begin_lock[i] );
+ hb_lock_close( &pv->eedi2_complete_lock[i] );
+ }
+
+ /*
+ * free memory for eedi2 structs
+ */
+ free( pv->eedi2_threads );
+ free( pv->eedi2_begin_lock );
+ free( pv->eedi2_complete_lock );
+ free( pv->eedi2_arguments );
+ }
+
/* Cleanup mcdeint specific buffers */
if( pv->mcdeint_mode >= 0 )
{
tff = (pv->parity & 1) ^ 1;
}
+ pv->tff = tff;
+
/* Store current frame in yadif cache */
store_ref( (const uint8_t**)pv->pic_in.data, pv );
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