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revision 942, Tue Mar 25 11:01:48 2003 UTC revision 1041, Thu May 22 22:57:54 2003 UTC
# Line 3  Line 3 
3   * XviD Bit Rate Controller Library   * XviD Bit Rate Controller Library
4   * - VBR 2 pass bitrate controler implementation -   * - VBR 2 pass bitrate controler implementation -
5   *   *
6   * Copyright (C) 2002 Edouard Gomez <ed.gomez@wanadoo.fr>   * Copyright (C)      2002 Foxer <email?>
7     *                    2002 Dirk Knop <dknop@gwdg.de>
8     *               2002-2003 Edouard Gomez <ed.gomez@free.fr>
9     *                    2003 Pete Ross <pross@xvid.org>
10   *   *
11   * The curve treatment algorithm is the one implemented by Foxer <email?> and   * This curve treatment algorithm is the one originally implemented by Foxer
12   * Dirk Knop <dknop@gwdg.de> for the XviD vfw dynamic library.   * and tuned by Dirk Knop for the XviD vfw frontend.
13   *   *
14   * This program is free software; you can redistribute it and/or modify   * This program is free software; you can redistribute it and/or modify
15   * it under the terms of the GNU General Public License as published by   * it under the terms of the GNU General Public License as published by
# Line 22  Line 25 
25   * along with this program; if not, write to the Free Software   * along with this program; if not, write to the Free Software
26   * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA  02111-1307  USA   * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA  02111-1307  USA
27   *   *
28   * $Id: plugin_2pass2.c,v 1.1.2.1 2003-03-25 10:58:33 suxen_drol Exp $   * $Id: plugin_2pass2.c,v 1.1.2.10 2003-05-22 22:56:22 edgomez Exp $
29   *   *
30   *****************************************************************************/   *****************************************************************************/
31    
32  #include <stdio.h>  #include <stdio.h>
33  #include <math.h>  #include <math.h>
34    #include <limits.h>
35    
36  #define RAD2DEG 57.295779513082320876798154814105  #define RAD2DEG 57.295779513082320876798154814105
37  #define DEG2RAD 0.017453292519943295769236907684886  #define DEG2RAD 0.017453292519943295769236907684886
# Line 38  Line 42 
42  typedef struct {  typedef struct {
43      int type;               /* first pass type */      int type;               /* first pass type */
44      int quant;              /* first pass quant */      int quant;              /* first pass quant */
45            int blks[3];                    /* k,m,y blks */
46      int length;             /* first pass length */      int length;             /* first pass length */
47      int scaled_length;     /* scaled length */      int scaled_length;     /* scaled length */
48      int desired_length;      int desired_length;     /* desired length; calcuated during encoding */
49    
50        int zone_mode;   /* XVID_ZONE_xxx */
51        double weight;
52  } stat_t;  } stat_t;
53    
54    
# Line 54  Line 62 
62      /* constant statistical data */      /* constant statistical data */
63      int num_frames;      int num_frames;
64      int num_keyframes;      int num_keyframes;
65        uint64_t target;    /* target filesize */
66    
67      int count[3];   /* count of each frame types */      int count[3];   /* count of each frame types */
68      uint64_t tot_length[3];  /* total length of each frame types */      uint64_t tot_length[3];  /* total length of each frame types */
# Line 62  Line 71 
71      uint64_t tot_scaled_length[3];  /* total scaled length of each frame type */      uint64_t tot_scaled_length[3];  /* total scaled length of each frame type */
72      int max_length;     /* max frame size */      int max_length;     /* max frame size */
73    
74        /* zone statistical data */
75        double avg_weight;  /* average weight */
76        int64_t tot_quant;   /* total length used by XVID_ZONE_QUANT zones */
77    
78    
79      double curve_comp_scale;      double curve_comp_scale;
80      double movie_curve;      double movie_curve;
81    
# Line 88  Line 102 
102      int KFoverflow;      int KFoverflow;
103      int KFoverflow_partial;      int KFoverflow_partial;
104      int KF_idx;      int KF_idx;
105    
106        double fq_error;
107  } rc_2pass2_t;  } rc_2pass2_t;
108    
109    
# Line 110  Line 126 
126      if ((f = fopen(filename, "rt")) == NULL)      if ((f = fopen(filename, "rt")) == NULL)
127          return 0;          return 0;
128    
129      while((n = fscanf(f, "%c %d %d %d %d %d\n",      while((n = fscanf(f, "%c %d %d %d %d %d %d\n",
130          &type, &ignore, &ignore, &ignore, &ignore, &ignore)) != EOF) {          &type, &ignore, &ignore, &ignore, &ignore, &ignore, &ignore)) != EOF) {
131          if (type == 'i') {          if (type == 'i') {
132              rc->num_frames++;              rc->num_frames++;
133              rc->num_keyframes++;              rc->num_keyframes++;
# Line 126  Line 142 
142  }  }
143    
144    
145    
146  /* open stats file(s) and read into rc->stats array */  /* open stats file(s) and read into rc->stats array */
147    
148  static int load_stats(rc_2pass2_t *rc, char * filename1, char * filename2)  static int load_stats(rc_2pass2_t *rc, char * filename)
149  {  {
150      FILE * f1, *f2;      FILE * f;
151      int i;      int i, not_scaled;
152    
153    
154      if ((f1 = fopen(filename1, "rt"))==NULL)      if ((f = fopen(filename, "rt"))==NULL)
         return 0;  
   
     if ((f2 = fopen(filename2, "rt"))==NULL) {  
         fclose(f1);  
155          return 0;          return 0;
     }  
156    
157      i = 0;      i = 0;
158            not_scaled = 0;
159      while(i < rc->num_frames) {      while(i < rc->num_frames) {
160          stat_t * s = &rc->stats[i];          stat_t * s = &rc->stats[i];
161          int n, ignore;          int n;
162          char type;          char type;
163    
164          n = fscanf(f1, "%c %d %d %d %d %d\n", &type, &s->quant, &s->length, &ignore, &ignore, &ignore);                  s->scaled_length = 0;
165            n = fscanf(f, "%c %d %d %d %d %d %d\n", &type, &s->quant, &s->blks[0], &s->blks[1], &s->blks[2], &s->length, &s->scaled_length);
166          if (n == EOF) break;          if (n == EOF) break;
167                    if (n < 7) {
168                            not_scaled = 1;
169                    }
170    
171          if (type == 'i') {          if (type == 'i') {
172              s->type = XVID_TYPE_IVOP;              s->type = XVID_TYPE_IVOP;
# Line 158  Line 175 
175          }else if (type == 'b') {          }else if (type == 'b') {
176              s->type = XVID_TYPE_BVOP;              s->type = XVID_TYPE_BVOP;
177          }else{  /* unknown type */          }else{  /* unknown type */
178              printf("unk\n");              DPRINTF(XVID_DEBUG_RC, "unknown stats frame type; assuming pvop\n");
179              continue;              s->type = XVID_TYPE_PVOP;
         }  
   
         n = fscanf(f2, "%c %d %d %d %d %d\n", &type, &ignore, &s->scaled_length, &ignore, &ignore, &ignore);  
         if (n == EOF) break;  
         if (type != 'i'&& type != 'p' && type != 'b' && type != 's') {  
             printf("unk\n");  
             continue; /* unknown type */  
180          }          }
181    
182          i++;          i++;
183      }      }
     rc->num_frames = i;  
184    
185        rc->num_frames = i;
186    
187      fclose(f1);          fclose(f);
     if (filename2)  
         fclose(f2);  
188    
189      return 1;      return 1;
190  }  }
191    
192    
193  /*static void internal_scale(rc_2pass2_t *rc)  
194    #if 0
195    static void print_stats(rc_2pass2_t * rc)
196  {  {
     const double avg_pvop = rc->avg_length[XVID_TYPE_PVOP-1];  
     const double avg_bvop = rc->avg_length[XVID_TYPE_BVOP-1];  
     const uint64_t tot_pvop = rc->tot_length[XVID_TYPE_PVOP-1];  
     const uint64_t tot_bvop = rc->tot_length[XVID_TYPE_BVOP-1];  
     uint64_t i_total = 0;  
         double total1,total2;  
197      int i;      int i;
198        DPRINTF(XVID_DEBUG_RC, "type quant length scaled_length\n");
199      for (i=0; i<rc->num_frames; i++) {      for (i=0; i<rc->num_frames; i++) {
200          stat_t * s = &rc->stats[i];          stat_t * s = &rc->stats[i];
201            DPRINTF(XVID_DEBUG_RC, "%d %d %d %d\n", s->type, s->quant, s->length, s->scaled_length);
                 if (s->type == XVID_TYPE_IVOP) {  
                         i_total += s->length + s->length * rc->param.keyframe_boost / 100;  
202          }          }
203          }          }
204    #endif
205    
206          // compensate for avi frame overhead  /* pre-process the statistics data
207          rc->target_size -= rc->num_frames * 24;      - for each type, count, tot_length, min_length, max_length
208        - set keyframes_locations
209    */
210    
211          // perform prepass to compensate for over/undersizing  static void
212    pre_process0(rc_2pass2_t * rc)
213    {
214        int i,j;
215    
216          if (rc->param.use_alt_curve) {      for (i=0; i<3; i++) {
217            rc->count[i]=0;
218            rc->tot_length[i] = 0;
219            rc->last_quant[i] = 0;
220                    rc->min_length[i] = INT_MAX;
221        }
222    
223          rc->alt_curve_low = avg_pvop - avg_pvop * (double)rc->param.alt_curve_low_dist / 100.0;          rc->max_length = INT_MIN;
224                  rc->alt_curve_low_diff = avg_pvop - rc->alt_curve_low;  
225                  rc->alt_curve_high = avg_pvop + avg_pvop * (double)rc->param.alt_curve_high_dist / 100.0;      for (i=j=0; i<rc->num_frames; i++) {
226                  rc->alt_curve_high_diff = rc->alt_curve_high - avg_pvop;          stat_t * s = &rc->stats[i];
227                  if (rc->alt_curve_use_auto) {  
228                          if (rc->movie_curve > 1.0) {          rc->count[s->type-1]++;
229                                  rc->param.alt_curve_min_rel_qual = (int)(100.0 - (100.0 - 100.0 / rc->movie_curve) * (double)rc->param.alt_curve_auto_str / 100.0);          rc->tot_length[s->type-1] += s->length;
230                                  if (rc->param.alt_curve_min_rel_qual < 20)  
231                                          rc->param.alt_curve_min_rel_qual = 20;          if (s->length < rc->min_length[s->type-1]) {
232              }else{              rc->min_length[s->type-1] = s->length;
                                 rc->param.alt_curve_min_rel_qual = 100;  
233              }              }
234    
235            if (s->length > rc->max_length) {
236                rc->max_length = s->length;
237                  }                  }
                 rc->alt_curve_mid_qual = (1.0 + (double)rc->param.alt_curve_min_rel_qual / 100.0) / 2.0;  
                 rc->alt_curve_qual_dev = 1.0 - rc->alt_curve_mid_qual;  
238    
239                  if (rc->param.alt_curve_low_dist > 100) {          if (s->type == XVID_TYPE_IVOP) {
240                          switch(rc->param.alt_curve_type) {              rc->keyframe_locations[j] = i;
241                          case XVID_CURVE_SINE : // Sine Curve (high aggressiveness)              j++;
                                 rc->alt_curve_qual_dev *= 2.0 / (1.0 + sin(DEG2RAD * (avg_pvop * 90.0 / rc->alt_curve_low_diff)));  
                                 rc->alt_curve_mid_qual = 1.0 - rc->alt_curve_qual_dev * sin(DEG2RAD * (avg_pvop * 90.0 / rc->alt_curve_low_diff));  
                                 break;  
                         case XVID_CURVE_LINEAR : // Linear (medium aggressiveness)  
                                 rc->alt_curve_qual_dev *= 2.0 / (1.0 + avg_pvop / rc->alt_curve_low_diff);  
                                 rc->alt_curve_mid_qual = 1.0 - rc->alt_curve_qual_dev * avg_pvop / rc->alt_curve_low_diff;  
                                 break;  
                         case XVID_CURVE_COSINE : // Cosine Curve (low aggressiveness)  
                                 rc->alt_curve_qual_dev *= 2.0 / (1.0 +  (1.0 - cos(DEG2RAD * (avg_pvop * 90.0 / rc->alt_curve_low_diff))));  
                                 rc->alt_curve_mid_qual = 1.0 - rc->alt_curve_qual_dev * (1.0 - cos(DEG2RAD * (avg_pvop * 90.0 / rc->alt_curve_low_diff)));  
242                          }                          }
243                  }                  }
244    
245            /*
246             * The "per sequence" overflow system considers a natural sequence to be
247             * formed by all frames between two iframes, so if we want to make sure
248             * the system does not go nuts during last sequence, we force the last
249             * frame to appear in the keyframe locations array.
250             */
251        rc->keyframe_locations[j] = i;
252    
253            DPRINTF(XVID_DEBUG_RC, "Min 1st pass IFrame length: %d\n", rc->min_length[0]);
254            DPRINTF(XVID_DEBUG_RC, "Min 1st pass PFrame length: %d\n", rc->min_length[1]);
255            DPRINTF(XVID_DEBUG_RC, "Min 1st pass BFrame length: %d\n", rc->min_length[2]);
256          }          }
257    
         total1 = 0;  
         total2 = 0;  
258    
259      for (i=0; i<rc->num_frames; i++) {  /* calculate zone weight "center" */
         stat_t * s = &rc->stats[i];  
260    
261                  if (s->type != XVID_TYPE_IVOP) {  static void
262    zone_process(rc_2pass2_t *rc, const xvid_plg_create_t * create)
263    {
264        int i,j;
265        int n = 0;
266    
267              double dbytes = s->length / rc->movie_curve;      rc->avg_weight = 0.0;
268              double dbytes2;      rc->tot_quant = 0;
                         total1 += dbytes;  
269    
                         if (s->type == XVID_TYPE_BVOP)  
                                 dbytes *= avg_pvop / avg_bvop;  
270    
271                          if (rc->param.use_alt_curve) {      if (create->num_zones == 0) {
272                                  if (dbytes > avg_pvop) {          for (j = 0; j < rc->num_frames; j++) {
273                      if (dbytes >= rc->alt_curve_high) {              rc->stats[j].zone_mode = XVID_ZONE_WEIGHT;
274                                                  dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev);              rc->stats[j].weight = 1.0;
                     }else{  
                                                 switch(rc->param.alt_curve_type){  
                                                 case XVID_CURVE_SINE :  
                                                     dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev * sin(DEG2RAD * ((dbytes - avg_pvop) * 90.0 / rc->alt_curve_high_diff)));  
                                                         break;  
                                                 case XVID_CURVE_LINEAR :  
                                                     dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev * (dbytes - avg_pvop) / rc->alt_curve_high_diff);  
                                                         break;  
                                                 case XVID_CURVE_COSINE :  
                                                     dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev * (1.0 - cos(DEG2RAD * ((dbytes - avg_pvop) * 90.0 / rc->alt_curve_high_diff))));  
275                                                  }                                                  }
276            rc->avg_weight += rc->num_frames * 1.0;
277            n += rc->num_frames;
278                                          }                                          }
279                                  }else{  
280                      if (dbytes <= rc->alt_curve_low){  
281                                                  dbytes2 = dbytes;      for(i=0; i < create->num_zones; i++) {
282                      }else{  
283                                                  switch(rc->param.alt_curve_type){          int next = (i+1<create->num_zones) ? create->zones[i+1].frame : rc->num_frames;
284                                                  case XVID_CURVE_SINE :  
285                                                      dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev * sin(DEG2RAD * ((dbytes - avg_pvop) * 90.0 / rc->alt_curve_low_diff)));          if (i==0 && create->zones[i].frame > 0) {
286                                                          break;              for (j = 0; j < create->zones[i].frame && j < rc->num_frames; j++) {
287                                                  case XVID_CURVE_LINEAR :                  rc->stats[j].zone_mode = XVID_ZONE_WEIGHT;
288                                                      dbytes2 = dbytes * (rc->alt_curve_mid_qual - rc->alt_curve_qual_dev * (dbytes - avg_pvop) / rc->alt_curve_low_diff);                  rc->stats[j].weight = 1.0;
                                                         break;  
                                                 case XVID_CURVE_COSINE :  
                                                     dbytes2 = dbytes * (rc->alt_curve_mid_qual + rc->alt_curve_qual_dev * (1.0 - cos(DEG2RAD * ((dbytes - avg_pvop) * 90.0 / rc->alt_curve_low_diff))));  
289                                                  }                                                  }
290                rc->avg_weight += create->zones[i].frame * 1.0;
291                n += create->zones[i].frame;
292                                          }                                          }
293    
294            if (create->zones[i].mode == XVID_ZONE_WEIGHT) {
295                for (j = create->zones[i].frame; j < next && j < rc->num_frames; j++ ) {
296                    rc->stats[j].zone_mode = XVID_ZONE_WEIGHT;
297                    rc->stats[j].weight = (double)create->zones[i].increment / (double)create->zones[i].base;
298                                  }                                  }
299                          }else{              next -= create->zones[i].frame;
300                  if (dbytes > avg_pvop) {              rc->avg_weight += (double)(next * create->zones[i].increment) / (double)create->zones[i].base;
301                                          dbytes2 = ((double)dbytes + (avg_pvop - dbytes) *              n += next;
302                                                  rc->param.curve_compression_high / 100.0);          }else{  // XVID_ZONE_QUANT
303                                  }else{              for (j = create->zones[i].frame; j < next && j < rc->num_frames; j++ ) {
304                                          dbytes2 = ((double)dbytes + (avg_pvop - dbytes) *                  rc->stats[j].zone_mode = XVID_ZONE_QUANT;
305                                                  rc->param.curve_compression_low / 100.0);                  rc->stats[j].weight = (double)create->zones[i].increment / (double)create->zones[i].base;
306                    rc->tot_quant += rc->stats[j].length;
307                                  }                                  }
308                          }                          }
   
                         if (s->type == XVID_TYPE_BVOP) {  
                                 dbytes2 *= avg_bvop / avg_pvop;  
309              }              }
310        rc->avg_weight = n>0 ? rc->avg_weight/n : 1.0;
311    
312              if (dbytes2 < rc->min_length[s->type-1]) {      DPRINTF(XVID_DEBUG_RC, "center_weight: %f (for %i frames);   fixed_bytes: %i\n", rc->avg_weight, n, rc->tot_quant);
                 dbytes = rc->min_length[s->type-1];  
313              }              }
314    
             total2 += dbytes2;  
                 }  
         }  
315    
316          rc->curve_comp_scale = total1 / total2;  /* scale the curve */
317    
318          if (!rc->param.use_alt_curve) {  static void
319                  printf("middle frame size for asymmetric curve compression: %i",  internal_scale(rc_2pass2_t *rc)
320              (int)(avg_pvop * rc->curve_comp_scale));  {
321            int64_t target  = rc->target - rc->tot_quant;
322            int64_t pass1_length = rc->tot_length[0] + rc->tot_length[1] + rc->tot_length[2] - rc->tot_quant;
323            int min_size[3];
324            double scaler;
325            int i;
326    
327    
328            /*
329             * Perform an initial scale pass.
330             * if a frame size is scaled underneath our hardcoded minimums, then we
331             * force the frame size to the minimum, and deduct the original & scaled
332             * frame length from the original and target total lengths
333             */
334    
335            min_size[0] = ((rc->stats[0].blks[0]*22) + 240) / 8;
336            min_size[1] = (rc->stats[0].blks[0] + 88) / 8;
337            min_size[2] = 8;
338    
339            scaler = (double)target / (double)pass1_length;
340    
341            if (target <= 0 || pass1_length <= 0 || target >= pass1_length) {
342                    DPRINTF(XVID_DEBUG_RC, "undersize warning\n");
343            scaler = 1.0;
344          }          }
 }*/  
345    
346        DPRINTF(XVID_DEBUG_RC,
347                            "Before any correction: target=%i, tot_length=%i, scaler=%f\n",
348                            (int)target, (int)pass1_length, scaler);
349    
350            for (i=0; i<rc->num_frames; i++) {
351                    stat_t * s = &rc->stats[i];
352                    int len;
353    
354            if (s->zone_mode == XVID_ZONE_QUANT) {
355                s->scaled_length = s->length;
356            }else {
357                        len = (int)((double)s->length * scaler * s->weight / rc->avg_weight);
358                        if (len < min_size[s->type-1]) {            /* force frame size */
359                                s->scaled_length = min_size[s->type-1];
360                                target -= s->scaled_length;
361                                pass1_length -= s->length;
362                        }else{
363                                s->scaled_length = 0;
364                        }
365            }
366            }
367    
368        scaler = (double)target / (double)pass1_length;
369        if (target <= 0 || pass1_length <= 0 || target >= pass1_length) {
370                    DPRINTF(XVID_DEBUG_RC,"undersize warning\n");
371                    scaler = 1.0;
372            }
373    
374            DPRINTF(XVID_DEBUG_RC,
375                            "After correction: target=%i, tot_length=%i, scaler=%f\n",
376                            (int)target, (int)pass1_length, scaler);
377    
 static void print_stats(rc_2pass2_t * rc)  
 {  
     int i;  
378      for (i = 0; i < rc->num_frames; i++) {      for (i = 0; i < rc->num_frames; i++) {
379          stat_t * s = &rc->stats[i];          stat_t * s = &rc->stats[i];
         printf("%i %i %i %i\n", s->type, s->quant, s->length, s->scaled_length);  
380    
381                    if (s->scaled_length==0) {      /* ignore frame with forced frame sizes */
382                            s->scaled_length = (int)((double)s->length * scaler * s->weight / rc->avg_weight);
383                    }
384      }      }
385  }  }
386    
387    
 /* pre-process the statistics data  
     this is a clone of vfw/src/2pass.c:codec_2pass_init minus file reading, alt_curve, internal scale  
 */  
388    
389  void pre_process(rc_2pass2_t * rc)  
390    static void
391    pre_process1(rc_2pass2_t * rc)
392  {  {
393      int i,j;      int i;
394      double total1, total2;      double total1, total2;
395      uint64_t ivop_boost_total;      uint64_t ivop_boost_total;
396    
# Line 345  Line 398 
398      rc->curve_comp_error = 0;      rc->curve_comp_error = 0;
399    
400      for (i=0; i<3; i++) {      for (i=0; i<3; i++) {
         rc->count[i]=0;  
         rc->tot_length[i] = 0;  
401          rc->tot_scaled_length[i] = 0;          rc->tot_scaled_length[i] = 0;
         rc->last_quant[i] = 0;  
402      }      }
403    
404      for (i=0; i<32;i++) {      for (i=0; i<rc->num_frames; i++) {
         rc->pquant_error[i] = 0;  
         rc->bquant_error[i] = 0;  
         rc->quant_count[i] = 0;  
     }  
   
     for (i=j=0; i<rc->num_frames; i++) {  
405          stat_t * s = &rc->stats[i];          stat_t * s = &rc->stats[i];
406    
         rc->count[s->type-1]++;  
         rc->tot_length[s->type-1] += s->length;  
407          rc->tot_scaled_length[s->type-1] += s->scaled_length;          rc->tot_scaled_length[s->type-1] += s->scaled_length;
408    
         if (i == 0 || s->length < rc->min_length[s->type-1]) {  
             rc->min_length[s->type-1] = s->length;  
         }  
   
         if (i == 0 || s->length > rc->max_length) {  
             rc->max_length = s->length;  
         }  
   
409          if (s->type == XVID_TYPE_IVOP) {          if (s->type == XVID_TYPE_IVOP) {
410              ivop_boost_total += s->scaled_length * rc->param.keyframe_boost / 100;              ivop_boost_total += s->scaled_length * rc->param.keyframe_boost / 100;
             rc->keyframe_locations[j] = i;  
             j++;  
411          }          }
412      }      }
     rc->keyframe_locations[j] = i;  
413    
414      rc->movie_curve = ((double)(rc->tot_scaled_length[XVID_TYPE_PVOP-1] + rc->tot_scaled_length[XVID_TYPE_BVOP-1] + ivop_boost_total) /      rc->movie_curve = ((double)(rc->tot_scaled_length[XVID_TYPE_PVOP-1] + rc->tot_scaled_length[XVID_TYPE_BVOP-1] + ivop_boost_total) /
415                                          (rc->tot_scaled_length[XVID_TYPE_PVOP-1] + rc->tot_scaled_length[XVID_TYPE_BVOP-1]));                                          (rc->tot_scaled_length[XVID_TYPE_PVOP-1] + rc->tot_scaled_length[XVID_TYPE_BVOP-1]));
# Line 391  Line 422 
422          }          }
423      }      }
424    
     printf("--\n");  
425      /* alt curve stuff here */      /* alt curve stuff here */
426    
427      if (rc->param.use_alt_curve) {      if (rc->param.use_alt_curve) {
# Line 440  Line 470 
470    
471    
472      total1=total2=0;      total1=total2=0;
473      for (i=j=0; i<rc->num_frames; i++) {      for (i=0; i<rc->num_frames; i++) {
474          stat_t * s = &rc->stats[i];          stat_t * s = &rc->stats[i];
475    
476          if (s->type != XVID_TYPE_IVOP) {          if (s->type != XVID_TYPE_IVOP) {
# Line 511  Line 541 
541      rc->curve_comp_scale = total1 / total2;      rc->curve_comp_scale = total1 / total2;
542    
543      if (!rc->param.use_alt_curve) {      if (!rc->param.use_alt_curve) {
544          printf("middle frame size for asymmetric curve compression: %i\n",          DPRINTF(XVID_DEBUG_RC, "middle frame size for asymmetric curve compression: %i\n",
545              (int)(rc->avg_length[XVID_TYPE_PVOP-1] * rc->curve_comp_scale));              (int)(rc->avg_length[XVID_TYPE_PVOP-1] * rc->curve_comp_scale));
546      }      }
547    
# Line 528  Line 558 
558    
559          /* special info for alt curve:  bias bonus and quantizer thresholds */          /* special info for alt curve:  bias bonus and quantizer thresholds */
560    
561                  printf("avg scaled framesize:%i", (int)rc->avg_length[XVID_TYPE_PVOP-1]);                  DPRINTF(XVID_DEBUG_RC, "avg scaled framesize:%i\n", (int)rc->avg_length[XVID_TYPE_PVOP-1]);
562                  printf("bias bonus:%i bytes", (int)rc->alt_curve_curve_bias_bonus);                  DPRINTF(XVID_DEBUG_RC, "bias bonus:%i bytes\n", (int)rc->alt_curve_curve_bias_bonus);
563    
564                  for (i=1; i <= (int)(rc->alt_curve_high*2)+1; i++) {                  for (i=1; i <= (int)(rc->alt_curve_high*2)+1; i++) {
565              double curve_temp, dbytes;              double curve_temp, dbytes;
# Line 578  Line 608 
608                                  if (newquant != oldquant) {                                  if (newquant != oldquant) {
609                      int percent = (int)((i - rc->avg_length[XVID_TYPE_PVOP-1]) * 100.0 / rc->avg_length[XVID_TYPE_PVOP-1]);                      int percent = (int)((i - rc->avg_length[XVID_TYPE_PVOP-1]) * 100.0 / rc->avg_length[XVID_TYPE_PVOP-1]);
610                                          oldquant = newquant;                                          oldquant = newquant;
611                                          printf("quant:%i threshold at %i : %i percent", newquant, i, percent);                                          DPRINTF(XVID_DEBUG_RC, "quant:%i threshold at %i : %i percent\n", newquant, i, percent);
612                                  }                                  }
613                          }                          }
614                  }                  }
# Line 598  Line 628 
628  {  {
629      xvid_plugin_2pass2_t * param = (xvid_plugin_2pass2_t *)create->param;      xvid_plugin_2pass2_t * param = (xvid_plugin_2pass2_t *)create->param;
630      rc_2pass2_t * rc;      rc_2pass2_t * rc;
631        int i;
632    
633      rc = malloc(sizeof(rc_2pass2_t));      rc = malloc(sizeof(rc_2pass2_t));
634      if (rc == NULL)      if (rc == NULL)
# Line 612  Line 643 
643      if (rc->param.curve_compression_low <= 0) rc->param.curve_compression_low = 0;      if (rc->param.curve_compression_low <= 0) rc->param.curve_compression_low = 0;
644      if (rc->param.max_overflow_improvement <= 0) rc->param.max_overflow_improvement = 60;      if (rc->param.max_overflow_improvement <= 0) rc->param.max_overflow_improvement = 60;
645      if (rc->param.max_overflow_degradation <= 0) rc->param.max_overflow_degradation = 60;      if (rc->param.max_overflow_degradation <= 0) rc->param.max_overflow_degradation = 60;
     if (rc->param.min_quant[0] <= 0) rc->param.min_quant[0] = 2;  
     if (rc->param.max_quant[0] <= 0) rc->param.max_quant[0] = 31;  
     if (rc->param.min_quant[1] <= 0) rc->param.min_quant[1] = 2;  
     if (rc->param.max_quant[1] <= 0) rc->param.max_quant[1] = 31;  
     if (rc->param.min_quant[2] <= 0) rc->param.min_quant[2] = 2;  
     if (rc->param.max_quant[2] <= 0) rc->param.max_quant[2] = 31;  
646    
647      if (rc->param.use_alt_curve <= 0) rc->param.use_alt_curve = 0;      if (rc->param.use_alt_curve <= 0) rc->param.use_alt_curve = 0;
648      if (rc->param.alt_curve_high_dist <= 0) rc->param.alt_curve_high_dist = 500;      if (rc->param.alt_curve_high_dist <= 0) rc->param.alt_curve_high_dist = 500;
# Line 633  Line 658 
658      if (rc->param.kfreduction <= 0) rc->param.kfreduction = 20;      if (rc->param.kfreduction <= 0) rc->param.kfreduction = 20;
659      if (rc->param.min_key_interval <= 0) rc->param.min_key_interval = 300;      if (rc->param.min_key_interval <= 0) rc->param.min_key_interval = 300;
660    
661      if (!det_stats_length(rc, param->filename1)){      if (!det_stats_length(rc, param->filename)){
662          DPRINTF(DPRINTF_RC,"fopen %s failed\n", param->filename1);          DPRINTF(XVID_DEBUG_RC,"fopen %s failed\n", param->filename);
663          free(rc);          free(rc);
664          return XVID_ERR_FAIL;          return XVID_ERR_FAIL;
665      }      }
# Line 644  Line 669 
669          return XVID_ERR_MEMORY;          return XVID_ERR_MEMORY;
670      }      }
671    
672      /* XXX: do we need an addition location */      /*
673             * We need an extra location because we do as if the last frame were an
674             * IFrame. This is needed because our code consider that frames between
675             * 2 IFrames form a natural sequence. So we store last frame as a
676             * keyframe location.
677             */
678      if ((rc->keyframe_locations = malloc((rc->num_keyframes + 1) * sizeof(int))) == NULL) {      if ((rc->keyframe_locations = malloc((rc->num_keyframes + 1) * sizeof(int))) == NULL) {
679          free(rc->stats);          free(rc->stats);
680          free(rc);          free(rc);
681          return XVID_ERR_MEMORY;          return XVID_ERR_MEMORY;
682      }      }
683    
684      if (!load_stats(rc, param->filename1, param->filename2)) {      if (!load_stats(rc, param->filename)) {
685          DPRINTF(DPRINTF_RC,"fopen %s,%s failed\n", param->filename1, param->filename2);          DPRINTF(XVID_DEBUG_RC,"fopen %s failed\n", param->filename);
686          free(rc->keyframe_locations);          free(rc->keyframe_locations);
687          free(rc->stats);          free(rc->stats);
688          free(rc);          free(rc);
# Line 660  Line 690 
690      }      }
691    
692      /* pre-process our stats */      /* pre-process our stats */
693      pre_process(rc);  
694            if (rc->num_frames  < create->fbase/create->fincr) {
695                    rc->target = rc->param.bitrate / 8;     /* one second */
696            }else{
697                    rc->target =
698                            ((uint64_t)rc->param.bitrate * (uint64_t)rc->num_frames * (uint64_t)create->fincr) / \
699                            ((uint64_t)create->fbase * 8);
700            }
701    
702        DPRINTF(XVID_DEBUG_RC, "Number of frames: %d\n", rc->num_frames);
703            DPRINTF(XVID_DEBUG_RC, "Frame rate: %d/%d\n", create->fbase, create->fincr);
704            DPRINTF(XVID_DEBUG_RC, "Target bitrate: %ld\n", rc->param.bitrate);
705            DPRINTF(XVID_DEBUG_RC, "Target filesize: %lld\n", rc->target);
706    
707            /* Compensate the mean frame overhead caused by the container */
708            rc->target -= rc->num_frames*rc->param.container_frame_overhead;
709            DPRINTF(XVID_DEBUG_RC, "Container Frame overhead: %d\n", rc->param.container_frame_overhead);
710            DPRINTF(XVID_DEBUG_RC, "Target filesize (after container compensation): %lld\n", rc->target);
711    
712            pre_process0(rc);
713    
714            if (rc->param.bitrate) {
715            zone_process(rc, create);
716                    internal_scale(rc);
717        }else{
718            /* external scaler: ignore zone */
719            for (i=0;i<rc->num_frames;i++) {
720                rc->stats[i].zone_mode = XVID_ZONE_WEIGHT;
721                rc->stats[i].weight = 1.0;
722            }
723            rc->avg_weight = 1.0;
724            rc->tot_quant = 0;
725        }
726            pre_process1(rc);
727    
728        for (i=0; i<32;i++) {
729            rc->pquant_error[i] = 0;
730            rc->bquant_error[i] = 0;
731            rc->quant_count[i] = 0;
732        }
733    
734        rc->fq_error = 0;
735    
736      *handle = rc;      *handle = rc;
737          return(0);          return(0);
# Line 686  Line 757 
757      double curve_temp;      double curve_temp;
758      int capped_to_max_framesize = 0;      int capped_to_max_framesize = 0;
759    
760      if (data->frame_num >= rc->num_frames) {          /*
761          /* insufficent stats data */           * This function is quite long but easy to understand. In order to simplify
762          return 0;           * the code path (a bit), we treat 3 cases that can return immediatly.
763             */
764    
765            /* First case: Another plugin has already set a quantizer */
766        if (data->quant > 0)
767                    return(0);
768    
769            /* Second case: We are in a Quant zone */
770            if (s->zone_mode == XVID_ZONE_QUANT) {
771    
772                    rc->fq_error += s->weight;
773                    data->quant = (int)rc->fq_error;
774                    rc->fq_error -= data->quant;
775    
776                    s->desired_length = s->length;
777    
778                    return(0);
779    
780      }      }
781    
782      overflow = rc->overflow / 8;        /* XXX: why by 8 */          /* Third case: insufficent stats data */
783            if (data->frame_num >= rc->num_frames)
784                    return 0;
785    
786            /*
787             * The last case is the one every normal minded developer should fear to
788             * maintain in a project :-)
789             */
790    
791            /* XXX: why by 8 */
792            overflow = rc->overflow / 8;
793    
794      if (s->type == XVID_TYPE_IVOP) {        /* XXX: why */          /*
795             * The rc->overflow field represents the overflow in current scene (between two
796             * IFrames) so we must not forget to reset it if we are enetring a new scene
797             */
798            if (s->type == XVID_TYPE_IVOP) {
799          overflow = 0;          overflow = 0;
800      }      }
801    
# Line 705  Line 807 
807      }      }
808      dbytes /= rc->movie_curve;      dbytes /= rc->movie_curve;
809    
810            /*
811             * We are now entering in the hard part of the algo, it was first designed
812             * to work with i/pframes only streams, so the way it computes things is
813             * adapted to pframes only. However we can use it if we just take care to
814             * scale the bframes sizes to pframes sizes using the ratio avg_p/avg_p and
815             * then before really using values depending on frame sizes, scaling the
816             * value again with the inverse ratio
817             */
818      if (s->type == XVID_TYPE_BVOP) {      if (s->type == XVID_TYPE_BVOP) {
819          dbytes *= rc->avg_length[XVID_TYPE_PVOP-1] / rc->avg_length[XVID_TYPE_BVOP-1];          dbytes *= rc->avg_length[XVID_TYPE_PVOP-1] / rc->avg_length[XVID_TYPE_BVOP-1];
820      }      }
821    
822            /*
823             * Apply user's choosen Payback method. Payback helps bitrate to follow the
824             * scaled curve "paying back" past errors in curve previsions.
825             */
826      if (rc->param.payback_method == XVID_PAYBACK_BIAS) {      if (rc->param.payback_method == XVID_PAYBACK_BIAS) {
827          desired =(int)(rc->curve_comp_error / rc->param.bitrate_payback_delay);          desired =(int)(rc->curve_comp_error / rc->param.bitrate_payback_delay);
828      }else{      }else{
# Line 722  Line 836 
836    
837      rc->curve_comp_error -= desired;      rc->curve_comp_error -= desired;
838    
839      /* alt curve */          /*
840             * Alt curve treatment is not that hard to understand though the formulas
841             * seem to be huge. Alt treatment is basically a way to soft/harden the
842             * curve flux applying sine/linear/cosine ratios
843             */
844    
845      curve_temp = 0; /* XXX: warning */          /* XXX: warning */
846            curve_temp = 0;
847    
848      if (rc->param.use_alt_curve) {      if (rc->param.use_alt_curve) {
849          if (s->type != XVID_TYPE_IVOP)  {          if (s->type != XVID_TYPE_IVOP)  {
# Line 759  Line 878 
878                      }                      }
879                                  }                                  }
880                          }                          }
881    
882                            /*
883                             * End of code path for curve_temp, as told earlier, we are now
884                             * obliged to scale the value to a bframe one using the inverse
885                             * ratio applied earlier
886                             */
887                          if (s->type == XVID_TYPE_BVOP)                          if (s->type == XVID_TYPE_BVOP)
888                                  curve_temp *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];                                  curve_temp *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];
889    
# Line 767  Line 892 
892                          desired += ((int)curve_temp);                          desired += ((int)curve_temp);
893                          rc->curve_comp_error += curve_temp - (int)curve_temp;                          rc->curve_comp_error += curve_temp - (int)curve_temp;
894                  }else{                  }else{
895                            /*
896                             * End of code path for dbytes, as told earlier, we are now
897                             * obliged to scale the value to a bframe one using the inverse
898                             * ratio applied earlier
899                             */
900                          if (s->type == XVID_TYPE_BVOP)                          if (s->type == XVID_TYPE_BVOP)
901                                  dbytes *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];                                  dbytes *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];
902    
# Line 783  Line 913 
913              curve_temp *= ((double)dbytes + (rc->avg_length[XVID_TYPE_PVOP-1] - dbytes) * rc->param.curve_compression_low / 100.0);              curve_temp *= ((double)dbytes + (rc->avg_length[XVID_TYPE_PVOP-1] - dbytes) * rc->param.curve_compression_low / 100.0);
914          }          }
915    
916          if (s->type == XVID_TYPE_BVOP){                  /*
917                     * End of code path for curve_temp, as told earlier, we are now
918                     * obliged to scale the value to a bframe one using the inverse
919                     * ratio applied earlier
920                     */
921                    if (s->type == XVID_TYPE_BVOP)
922              curve_temp *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];              curve_temp *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];
         }  
923    
924          desired += (int)curve_temp;          desired += (int)curve_temp;
925          rc->curve_comp_error += curve_temp - (int)curve_temp;          rc->curve_comp_error += curve_temp - (int)curve_temp;
926      }else{      }else{
927                    /*
928                     * End of code path for dbytes, as told earlier, we are now
929                     * obliged to scale the value to a bframe one using the inverse
930                     * ratio applied earlier
931                     */
932          if (s->type == XVID_TYPE_BVOP){          if (s->type == XVID_TYPE_BVOP){
933                          dbytes *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];                          dbytes *= rc->avg_length[XVID_TYPE_BVOP-1] / rc->avg_length[XVID_TYPE_PVOP-1];
934          }          }
# Line 798  Line 937 
937                  rc->curve_comp_error += dbytes - (int)dbytes;                  rc->curve_comp_error += dbytes - (int)dbytes;
938      }      }
939    
940    
941            /*
942             * We can't do bigger frames than first pass, this would be stupid as first
943             * pass is quant=2 and that reaching quant=1 is not worth it. We would lose
944             * many bytes and we would not not gain much quality.
945             */
946          if (desired > s->length){          if (desired > s->length){
947                  rc->curve_comp_error += desired - s->length;                  rc->curve_comp_error += desired - s->length;
948                  desired = s->length;                  desired = s->length;
# Line 841  Line 986 
986    
987      overflow = (int)((double)overflow * desired / rc->avg_length[XVID_TYPE_PVOP-1]);      overflow = (int)((double)overflow * desired / rc->avg_length[XVID_TYPE_PVOP-1]);
988    
989          // Foxer: reign in overflow with huge frames          /* Reign in overflow with huge frames */
990          if (labs(overflow) > labs(rc->overflow)) {          if (labs(overflow) > labs(rc->overflow)) {
991                  overflow = rc->overflow;                  overflow = rc->overflow;
992          }          }
993    
994      // Foxer: make sure overflow doesn't run away          /* Make sure overflow doesn't run away */
   
995          if (overflow > desired * rc->param.max_overflow_improvement / 100) {          if (overflow > desired * rc->param.max_overflow_improvement / 100) {
996                  desired += (overflow <= desired) ? desired * rc->param.max_overflow_improvement / 100 :                  desired += (overflow <= desired) ? desired * rc->param.max_overflow_improvement / 100 :
997                          overflow * rc->param.max_overflow_improvement / 100;                          overflow * rc->param.max_overflow_improvement / 100;
# Line 857  Line 1001 
1001                  desired += overflow;                  desired += overflow;
1002          }          }
1003    
1004            /* Make sure we are not higher than desired frame size */
1005      if (desired > rc->max_length) {      if (desired > rc->max_length) {
1006                  capped_to_max_framesize = 1;                  capped_to_max_framesize = 1;
1007                  desired = rc->max_length;                  desired = rc->max_length;
1008                    DPRINTF(XVID_DEBUG_RC,"[%i] Capped to maximum frame size\n",
1009                                    data->frame_num);
1010          }          }
1011    
1012      // make sure to not scale below the minimum framesize          /* Make sure to not scale below the minimum framesize */
1013      if (desired < rc->min_length[s->type-1]) {      if (desired < rc->min_length[s->type-1]) {
1014          desired = rc->min_length[s->type-1];          desired = rc->min_length[s->type-1];
1015                    DPRINTF(XVID_DEBUG_RC,"[%i] Capped to minimum frame size\n",
1016                                    data->frame_num);
1017      }      }
1018    
1019            /*
1020      // very 'simple' quant<->filesize relationship           * Don't laugh at this very 'simple' quant<->filesize relationship, it
1021             * proves to be acurate enough for our algorithm
1022             */
1023      data->quant= (s->quant * s->length) / desired;      data->quant= (s->quant * s->length) / desired;
1024    
1025            /* Let's clip the computed quantizer, if needed */
1026          if (data->quant < 1) {          if (data->quant < 1) {
1027                  data->quant = 1;                  data->quant = 1;
1028      } else if (data->quant > 31) {      } else if (data->quant > 31) {
1029                  data->quant = 31;                  data->quant = 31;
1030          }          } else if (s->type != XVID_TYPE_IVOP) {
1031          else if (s->type != XVID_TYPE_IVOP)  
1032          {                  /*
1033                  // Foxer: aid desired quantizer precision by accumulating decision error                   * The frame quantizer has not been clipped, this appear to be a good
1034                     * computed quantizer, however past frames give us some info about how
1035                     * this quantizer performs against the algo prevision. Let's use this
1036                     * prevision to increase the quantizer when we observe a too big
1037                     * accumulated error
1038                     */
1039                  if (s->type== XVID_TYPE_BVOP) {                  if (s->type== XVID_TYPE_BVOP) {
1040                          rc->bquant_error[data->quant] += ((double)(s->quant * s->length) / desired) - data->quant;                          rc->bquant_error[data->quant] += ((double)(s->quant * s->length) / desired) - data->quant;
1041    
# Line 896  Line 1053 
1053                  }                  }
1054          }          }
1055    
1056      /* cap to min/max quant */          /*
1057             * Now we have a computed quant that is in the right quante range, with a
1058      if (data->quant < rc->param.min_quant[s->type-1]) {           * possible +1 correction due to cumulated error. We can now safely clip
1059          data->quant = rc->param.min_quant[s->type-1];           * the quantizer again with user's quant ranges. "Safely" means the Rate
1060      }else if (data->quant > rc->param.max_quant[s->type-1]) {           * Control could learn more about this quantizer, this knowledge is useful
1061          data->quant = rc->param.max_quant[s->type-1];           * for future frames even if it this quantizer won't be really used atm,
1062             * that's why we don't perform this clipping earlier.
1063             */
1064            if (data->quant < data->min_quant[s->type-1]) {
1065                    data->quant = data->min_quant[s->type-1];
1066            } else if (data->quant > data->max_quant[s->type-1]) {
1067                    data->quant = data->max_quant[s->type-1];
1068      }      }
1069    
1070      /* subsequent p/b frame quants can only be +- 2 */          /*
1071             * To avoid big quality jumps from frame to frame, we apply a "security"
1072             * rule that makes |last_quant - new_quant| <= 2. This rule only applies
1073             * to predicted frames (P and B)
1074             */
1075          if (s->type != XVID_TYPE_IVOP && rc->last_quant[s->type-1] && capped_to_max_framesize == 0) {          if (s->type != XVID_TYPE_IVOP && rc->last_quant[s->type-1] && capped_to_max_framesize == 0) {
1076    
1077                  if (data->quant > rc->last_quant[s->type-1] + 2) {                  if (data->quant > rc->last_quant[s->type-1] + 2) {
1078                          data->quant = rc->last_quant[s->type-1] + 2;                          data->quant = rc->last_quant[s->type-1] + 2;
1079                          DPRINTF(DPRINTF_RC, "p/b-frame quantizer prevented from rising too steeply");                          DPRINTF(XVID_DEBUG_RC,
1080                                            "[%i] p/b-frame quantizer prevented from rising too steeply\n",
1081                                            data->frame_num);
1082                  }                  }
1083                  if (data->quant < rc->last_quant[s->type-1] - 2) {                  if (data->quant < rc->last_quant[s->type-1] - 2) {
1084                          data->quant = rc->last_quant[s->type-1] - 2;                          data->quant = rc->last_quant[s->type-1] - 2;
1085                          DPRINTF(DPRINTF_RC, "p/b-frame quantizer prevented from falling too steeply");                          DPRINTF(XVID_DEBUG_RC,
1086                                            "[%i] p/b-frame quantizer prevented from falling too steeply\n",
1087                                            data->frame_num);
1088                  }                  }
1089          }          }
1090    
1091            /*
1092             * We don't want to pollute the RC history results when our computed quant
1093             * has been computed from a capped frame size
1094             */
1095          if (capped_to_max_framesize == 0) {          if (capped_to_max_framesize == 0) {
1096          rc->last_quant[s->type-1] = data->quant;          rc->last_quant[s->type-1] = data->quant;
1097          }          }
# Line 930  Line 1105 
1105  {  {
1106      stat_t * s = &rc->stats[data->frame_num];      stat_t * s = &rc->stats[data->frame_num];
1107    
1108      if (data->frame_num >= rc->num_frames) {          /* Insufficent stats data */
1109          /* insufficent stats data */      if (data->frame_num >= rc->num_frames)
1110          return 0;          return 0;
     }  
1111    
1112      rc->quant_count[data->quant]++;      rc->quant_count[data->quant]++;
1113    
# Line 957  Line 1131 
1131          rc->KFoverflow -= rc->KFoverflow_partial;          rc->KFoverflow -= rc->KFoverflow_partial;
1132      }      }
1133    
1134      printf("[%i] quant:%i stats1:%i scaled:%i actual:%i overflow:%i\n",      DPRINTF(XVID_DEBUG_RC, "[%i] quant:%i stats1:%i scaled:%i actual:%i overflow:%i\n",
1135          data->frame_num,          data->frame_num,
1136          data->quant,          data->quant,
1137          s->length,          s->length,
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