/[svn]/libgig/trunk/src/gig.cpp
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revision 2402 by persson, Sat Jan 19 08:19:14 2013 UTC revision 3442 by schoenebeck, Sat Dec 22 18:59:29 2018 UTC
# Line 2  Line 2 
2   *                                                                         *   *                                                                         *
3   *   libgig - C++ cross-platform Gigasampler format file access library    *   *   libgig - C++ cross-platform Gigasampler format file access library    *
4   *                                                                         *   *                                                                         *
5   *   Copyright (C) 2003-2013 by Christian Schoenebeck                      *   *   Copyright (C) 2003-2018 by Christian Schoenebeck                      *
6   *                              <cuse@users.sourceforge.net>               *   *                              <cuse@users.sourceforge.net>               *
7   *                                                                         *   *                                                                         *
8   *   This library is free software; you can redistribute it and/or modify  *   *   This library is free software; you can redistribute it and/or modify  *
# Line 24  Line 24 
24  #include "gig.h"  #include "gig.h"
25    
26  #include "helper.h"  #include "helper.h"
27    #include "Serialization.h"
28    
29  #include <algorithm>  #include <algorithm>
30  #include <math.h>  #include <math.h>
31  #include <iostream>  #include <iostream>
32    #include <assert.h>
33    
34    /// libgig's current file format version (for extending the original Giga file
35    /// format with libgig's own custom data / custom features).
36    #define GIG_FILE_EXT_VERSION    2
37    
38  /// Initial size of the sample buffer which is used for decompression of  /// Initial size of the sample buffer which is used for decompression of
39  /// compressed sample wave streams - this value should always be bigger than  /// compressed sample wave streams - this value should always be bigger than
# Line 50  Line 56 
56  #define GIG_EG_CTR_DECAY_INFLUENCE_ENCODE(x)    ((x & 0x03) << 3)  #define GIG_EG_CTR_DECAY_INFLUENCE_ENCODE(x)    ((x & 0x03) << 3)
57  #define GIG_EG_CTR_RELEASE_INFLUENCE_ENCODE(x)  ((x & 0x03) << 5)  #define GIG_EG_CTR_RELEASE_INFLUENCE_ENCODE(x)  ((x & 0x03) << 5)
58    
59  namespace gig {  #define SRLZ(member) \
60        archive->serializeMember(*this, member, #member);
 // *************** progress_t ***************  
 // *  
   
     progress_t::progress_t() {  
         callback    = NULL;  
         custom      = NULL;  
         __range_min = 0.0f;  
         __range_max = 1.0f;  
     }  
   
     // private helper function to convert progress of a subprocess into the global progress  
     static void __notify_progress(progress_t* pProgress, float subprogress) {  
         if (pProgress && pProgress->callback) {  
             const float totalrange    = pProgress->__range_max - pProgress->__range_min;  
             const float totalprogress = pProgress->__range_min + subprogress * totalrange;  
             pProgress->factor         = totalprogress;  
             pProgress->callback(pProgress); // now actually notify about the progress  
         }  
     }  
   
     // private helper function to divide a progress into subprogresses  
     static void __divide_progress(progress_t* pParentProgress, progress_t* pSubProgress, float totalTasks, float currentTask) {  
         if (pParentProgress && pParentProgress->callback) {  
             const float totalrange    = pParentProgress->__range_max - pParentProgress->__range_min;  
             pSubProgress->callback    = pParentProgress->callback;  
             pSubProgress->custom      = pParentProgress->custom;  
             pSubProgress->__range_min = pParentProgress->__range_min + totalrange * currentTask / totalTasks;  
             pSubProgress->__range_max = pSubProgress->__range_min + totalrange / totalTasks;  
         }  
     }  
61    
62    namespace gig {
63    
64  // *************** Internal functions for sample decompression ***************  // *************** Internal functions for sample decompression ***************
65  // *  // *
# Line 122  namespace { Line 99  namespace {
99      void Decompress16(int compressionmode, const unsigned char* params,      void Decompress16(int compressionmode, const unsigned char* params,
100                        int srcStep, int dstStep,                        int srcStep, int dstStep,
101                        const unsigned char* pSrc, int16_t* pDst,                        const unsigned char* pSrc, int16_t* pDst,
102                        unsigned long currentframeoffset,                        file_offset_t currentframeoffset,
103                        unsigned long copysamples)                        file_offset_t copysamples)
104      {      {
105          switch (compressionmode) {          switch (compressionmode) {
106              case 0: // 16 bit uncompressed              case 0: // 16 bit uncompressed
# Line 159  namespace { Line 136  namespace {
136    
137      void Decompress24(int compressionmode, const unsigned char* params,      void Decompress24(int compressionmode, const unsigned char* params,
138                        int dstStep, const unsigned char* pSrc, uint8_t* pDst,                        int dstStep, const unsigned char* pSrc, uint8_t* pDst,
139                        unsigned long currentframeoffset,                        file_offset_t currentframeoffset,
140                        unsigned long copysamples, int truncatedBits)                        file_offset_t copysamples, int truncatedBits)
141      {      {
142          int y, dy, ddy, dddy;          int y, dy, ddy, dddy;
143    
# Line 296  namespace { Line 273  namespace {
273       * steps.       * steps.
274       *       *
275       * Once the whole data was processed by __calculateCRC(), one should       * Once the whole data was processed by __calculateCRC(), one should
276       * call __encodeCRC() to get the final CRC result.       * call __finalizeCRC() to get the final CRC result.
277       *       *
278       * @param buf     - pointer to data the CRC shall be calculated of       * @param buf     - pointer to data the CRC shall be calculated of
279       * @param bufSize - size of the data to be processed       * @param bufSize - size of the data to be processed
280       * @param crc     - variable the CRC sum shall be stored to       * @param crc     - variable the CRC sum shall be stored to
281       */       */
282      static void __calculateCRC(unsigned char* buf, int bufSize, uint32_t& crc) {      static void __calculateCRC(unsigned char* buf, size_t bufSize, uint32_t& crc) {
283          for (int i = 0 ; i < bufSize ; i++) {          for (size_t i = 0 ; i < bufSize ; i++) {
284              crc = __CRCTable[(crc ^ buf[i]) & 0xff] ^ (crc >> 8);              crc = __CRCTable[(crc ^ buf[i]) & 0xff] ^ (crc >> 8);
285          }          }
286      }      }
# Line 313  namespace { Line 290  namespace {
290       *       *
291       * @param crc - variable previously passed to __calculateCRC()       * @param crc - variable previously passed to __calculateCRC()
292       */       */
293      inline static uint32_t __encodeCRC(const uint32_t& crc) {      inline static void __finalizeCRC(uint32_t& crc) {
294          return crc ^ 0xffffffff;          crc ^= 0xffffffff;
295      }      }
296    
297    
# Line 342  namespace { Line 319  namespace {
319    
320    
321    
322    // *************** leverage_ctrl_t ***************
323    // *
324    
325        void leverage_ctrl_t::serialize(Serialization::Archive* archive) {
326            SRLZ(type);
327            SRLZ(controller_number);
328        }
329    
330    
331    
332    // *************** crossfade_t ***************
333    // *
334    
335        void crossfade_t::serialize(Serialization::Archive* archive) {
336            SRLZ(in_start);
337            SRLZ(in_end);
338            SRLZ(out_start);
339            SRLZ(out_end);
340        }
341    
342    
343    
344    // *************** eg_opt_t ***************
345    // *
346    
347        eg_opt_t::eg_opt_t() {
348            AttackCancel     = true;
349            AttackHoldCancel = true;
350            Decay1Cancel     = true;
351            Decay2Cancel     = true;
352            ReleaseCancel    = true;
353        }
354    
355        void eg_opt_t::serialize(Serialization::Archive* archive) {
356            SRLZ(AttackCancel);
357            SRLZ(AttackHoldCancel);
358            SRLZ(Decay1Cancel);
359            SRLZ(Decay2Cancel);
360            SRLZ(ReleaseCancel);
361        }
362    
363    
364    
365  // *************** Sample ***************  // *************** Sample ***************
366  // *  // *
367    
368      unsigned int Sample::Instances = 0;      size_t       Sample::Instances = 0;
369      buffer_t     Sample::InternalDecompressionBuffer;      buffer_t     Sample::InternalDecompressionBuffer;
370    
371      /** @brief Constructor.      /** @brief Constructor.
# Line 365  namespace { Line 385  namespace {
385       *                         ('wvpl') list chunk       *                         ('wvpl') list chunk
386       * @param fileNo         - number of an extension file where this sample       * @param fileNo         - number of an extension file where this sample
387       *                         is located, 0 otherwise       *                         is located, 0 otherwise
388         * @param index          - wave pool index of sample (may be -1 on new sample)
389       */       */
390      Sample::Sample(File* pFile, RIFF::List* waveList, unsigned long WavePoolOffset, unsigned long fileNo) : DLS::Sample((DLS::File*) pFile, waveList, WavePoolOffset) {      Sample::Sample(File* pFile, RIFF::List* waveList, file_offset_t WavePoolOffset, unsigned long fileNo, int index)
391            : DLS::Sample((DLS::File*) pFile, waveList, WavePoolOffset)
392        {
393          static const DLS::Info::string_length_t fixedStringLengths[] = {          static const DLS::Info::string_length_t fixedStringLengths[] = {
394              { CHUNK_ID_INAM, 64 },              { CHUNK_ID_INAM, 64 },
395              { 0, 0 }              { 0, 0 }
# Line 376  namespace { Line 399  namespace {
399          FileNo = fileNo;          FileNo = fileNo;
400    
401          __resetCRC(crc);          __resetCRC(crc);
402            // if this is not a new sample, try to get the sample's already existing
403            // CRC32 checksum from disk, this checksum will reflect the sample's CRC32
404            // checksum of the time when the sample was consciously modified by the
405            // user for the last time (by calling Sample::Write() that is).
406            if (index >= 0) { // not a new file ...
407                try {
408                    uint32_t crc = pFile->GetSampleChecksumByIndex(index);
409                    this->crc = crc;
410                } catch (...) {}
411            }
412    
413          pCk3gix = waveList->GetSubChunk(CHUNK_ID_3GIX);          pCk3gix = waveList->GetSubChunk(CHUNK_ID_3GIX);
414          if (pCk3gix) {          if (pCk3gix) {
# Line 435  namespace { Line 468  namespace {
468          TruncatedBits     = 0;          TruncatedBits     = 0;
469          if (Compressed) {          if (Compressed) {
470              uint32_t version = ewav->ReadInt32();              uint32_t version = ewav->ReadInt32();
471              if (version == 3 && BitDepth == 24) {              if (version > 2 && BitDepth == 24) {
472                  Dithered = ewav->ReadInt32();                  Dithered = ewav->ReadInt32();
473                  ewav->SetPos(Channels == 2 ? 84 : 64);                  ewav->SetPos(Channels == 2 ? 84 : 64);
474                  TruncatedBits = ewav->ReadInt32();                  TruncatedBits = ewav->ReadInt32();
# Line 454  namespace { Line 487  namespace {
487      }      }
488    
489      /**      /**
490         * Make a (semi) deep copy of the Sample object given by @a orig (without
491         * the actual waveform data) and assign it to this object.
492         *
493         * Discussion: copying .gig samples is a bit tricky. It requires three
494         * steps:
495         * 1. Copy sample's meta informations (done by CopyAssignMeta()) including
496         *    its new sample waveform data size.
497         * 2. Saving the file (done by File::Save()) so that it gains correct size
498         *    and layout for writing the actual wave form data directly to disc
499         *    in next step.
500         * 3. Copy the waveform data with disk streaming (done by CopyAssignWave()).
501         *
502         * @param orig - original Sample object to be copied from
503         */
504        void Sample::CopyAssignMeta(const Sample* orig) {
505            // handle base classes
506            DLS::Sample::CopyAssignCore(orig);
507            
508            // handle actual own attributes of this class
509            Manufacturer = orig->Manufacturer;
510            Product = orig->Product;
511            SamplePeriod = orig->SamplePeriod;
512            MIDIUnityNote = orig->MIDIUnityNote;
513            FineTune = orig->FineTune;
514            SMPTEFormat = orig->SMPTEFormat;
515            SMPTEOffset = orig->SMPTEOffset;
516            Loops = orig->Loops;
517            LoopID = orig->LoopID;
518            LoopType = orig->LoopType;
519            LoopStart = orig->LoopStart;
520            LoopEnd = orig->LoopEnd;
521            LoopSize = orig->LoopSize;
522            LoopFraction = orig->LoopFraction;
523            LoopPlayCount = orig->LoopPlayCount;
524            
525            // schedule resizing this sample to the given sample's size
526            Resize(orig->GetSize());
527        }
528    
529        /**
530         * Should be called after CopyAssignMeta() and File::Save() sequence.
531         * Read more about it in the discussion of CopyAssignMeta(). This method
532         * copies the actual waveform data by disk streaming.
533         *
534         * @e CAUTION: this method is currently not thread safe! During this
535         * operation the sample must not be used for other purposes by other
536         * threads!
537         *
538         * @param orig - original Sample object to be copied from
539         */
540        void Sample::CopyAssignWave(const Sample* orig) {
541            const int iReadAtOnce = 32*1024;
542            char* buf = new char[iReadAtOnce * orig->FrameSize];
543            Sample* pOrig = (Sample*) orig; //HACK: remove constness for now
544            file_offset_t restorePos = pOrig->GetPos();
545            pOrig->SetPos(0);
546            SetPos(0);
547            for (file_offset_t n = pOrig->Read(buf, iReadAtOnce); n;
548                               n = pOrig->Read(buf, iReadAtOnce))
549            {
550                Write(buf, n);
551            }
552            pOrig->SetPos(restorePos);
553            delete [] buf;
554        }
555    
556        /**
557       * Apply sample and its settings to the respective RIFF chunks. You have       * Apply sample and its settings to the respective RIFF chunks. You have
558       * to call File::Save() to make changes persistent.       * to call File::Save() to make changes persistent.
559       *       *
560       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
561       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
562       *       *
563         * @param pProgress - callback function for progress notification
564       * @throws DLS::Exception if FormatTag != DLS_WAVE_FORMAT_PCM or no sample data       * @throws DLS::Exception if FormatTag != DLS_WAVE_FORMAT_PCM or no sample data
565       *                        was provided yet       *                        was provided yet
566       * @throws gig::Exception if there is any invalid sample setting       * @throws gig::Exception if there is any invalid sample setting
567       */       */
568      void Sample::UpdateChunks() {      void Sample::UpdateChunks(progress_t* pProgress) {
569          // first update base class's chunks          // first update base class's chunks
570          DLS::Sample::UpdateChunks();          DLS::Sample::UpdateChunks(pProgress);
571    
572          // make sure 'smpl' chunk exists          // make sure 'smpl' chunk exists
573          pCkSmpl = pWaveList->GetSubChunk(CHUNK_ID_SMPL);          pCkSmpl = pWaveList->GetSubChunk(CHUNK_ID_SMPL);
# Line 514  namespace { Line 615  namespace {
615          // update '3gix' chunk          // update '3gix' chunk
616          pData = (uint8_t*) pCk3gix->LoadChunkData();          pData = (uint8_t*) pCk3gix->LoadChunkData();
617          store16(&pData[0], iSampleGroup);          store16(&pData[0], iSampleGroup);
618    
619            // if the library user toggled the "Compressed" attribute from true to
620            // false, then the EWAV chunk associated with compressed samples needs
621            // to be deleted
622            RIFF::Chunk* ewav = pWaveList->GetSubChunk(CHUNK_ID_EWAV);
623            if (ewav && !Compressed) {
624                pWaveList->DeleteSubChunk(ewav);
625            }
626      }      }
627    
628      /// Scans compressed samples for mandatory informations (e.g. actual number of total sample points).      /// Scans compressed samples for mandatory informations (e.g. actual number of total sample points).
629      void Sample::ScanCompressedSample() {      void Sample::ScanCompressedSample() {
630          //TODO: we have to add some more scans here (e.g. determine compression rate)          //TODO: we have to add some more scans here (e.g. determine compression rate)
631          this->SamplesTotal = 0;          this->SamplesTotal = 0;
632          std::list<unsigned long> frameOffsets;          std::list<file_offset_t> frameOffsets;
633    
634          SamplesPerFrame = BitDepth == 24 ? 256 : 2048;          SamplesPerFrame = BitDepth == 24 ? 256 : 2048;
635          WorstCaseFrameSize = SamplesPerFrame * FrameSize + Channels; // +Channels for compression flag          WorstCaseFrameSize = SamplesPerFrame * FrameSize + Channels; // +Channels for compression flag
# Line 536  namespace { Line 645  namespace {
645                  const int mode_l = pCkData->ReadUint8();                  const int mode_l = pCkData->ReadUint8();
646                  const int mode_r = pCkData->ReadUint8();                  const int mode_r = pCkData->ReadUint8();
647                  if (mode_l > 5 || mode_r > 5) throw gig::Exception("Unknown compression mode");                  if (mode_l > 5 || mode_r > 5) throw gig::Exception("Unknown compression mode");
648                  const unsigned long frameSize = bytesPerFrame[mode_l] + bytesPerFrame[mode_r];                  const file_offset_t frameSize = bytesPerFrame[mode_l] + bytesPerFrame[mode_r];
649    
650                  if (pCkData->RemainingBytes() <= frameSize) {                  if (pCkData->RemainingBytes() <= frameSize) {
651                      SamplesInLastFrame =                      SamplesInLastFrame =
# Line 555  namespace { Line 664  namespace {
664    
665                  const int mode = pCkData->ReadUint8();                  const int mode = pCkData->ReadUint8();
666                  if (mode > 5) throw gig::Exception("Unknown compression mode");                  if (mode > 5) throw gig::Exception("Unknown compression mode");
667                  const unsigned long frameSize = bytesPerFrame[mode];                  const file_offset_t frameSize = bytesPerFrame[mode];
668    
669                  if (pCkData->RemainingBytes() <= frameSize) {                  if (pCkData->RemainingBytes() <= frameSize) {
670                      SamplesInLastFrame =                      SamplesInLastFrame =
# Line 571  namespace { Line 680  namespace {
680    
681          // Build the frames table (which is used for fast resolving of a frame's chunk offset)          // Build the frames table (which is used for fast resolving of a frame's chunk offset)
682          if (FrameTable) delete[] FrameTable;          if (FrameTable) delete[] FrameTable;
683          FrameTable = new unsigned long[frameOffsets.size()];          FrameTable = new file_offset_t[frameOffsets.size()];
684          std::list<unsigned long>::iterator end  = frameOffsets.end();          std::list<file_offset_t>::iterator end  = frameOffsets.end();
685          std::list<unsigned long>::iterator iter = frameOffsets.begin();          std::list<file_offset_t>::iterator iter = frameOffsets.begin();
686          for (int i = 0; iter != end; i++, iter++) {          for (int i = 0; iter != end; i++, iter++) {
687              FrameTable[i] = *iter;              FrameTable[i] = *iter;
688          }          }
# Line 614  namespace { Line 723  namespace {
723       *                      the cached sample data in bytes       *                      the cached sample data in bytes
724       * @see                 ReleaseSampleData(), Read(), SetPos()       * @see                 ReleaseSampleData(), Read(), SetPos()
725       */       */
726      buffer_t Sample::LoadSampleData(unsigned long SampleCount) {      buffer_t Sample::LoadSampleData(file_offset_t SampleCount) {
727          return LoadSampleDataWithNullSamplesExtension(SampleCount, 0); // 0 amount of NullSamples          return LoadSampleDataWithNullSamplesExtension(SampleCount, 0); // 0 amount of NullSamples
728      }      }
729    
# Line 673  namespace { Line 782  namespace {
782       *                           size of the cached sample data in bytes       *                           size of the cached sample data in bytes
783       * @see                      ReleaseSampleData(), Read(), SetPos()       * @see                      ReleaseSampleData(), Read(), SetPos()
784       */       */
785      buffer_t Sample::LoadSampleDataWithNullSamplesExtension(unsigned long SampleCount, uint NullSamplesCount) {      buffer_t Sample::LoadSampleDataWithNullSamplesExtension(file_offset_t SampleCount, uint NullSamplesCount) {
786          if (SampleCount > this->SamplesTotal) SampleCount = this->SamplesTotal;          if (SampleCount > this->SamplesTotal) SampleCount = this->SamplesTotal;
787          if (RAMCache.pStart) delete[] (int8_t*) RAMCache.pStart;          if (RAMCache.pStart) delete[] (int8_t*) RAMCache.pStart;
788          unsigned long allocationsize = (SampleCount + NullSamplesCount) * this->FrameSize;          file_offset_t allocationsize = (SampleCount + NullSamplesCount) * this->FrameSize;
789          SetPos(0); // reset read position to begin of sample          SetPos(0); // reset read position to begin of sample
790          RAMCache.pStart            = new int8_t[allocationsize];          RAMCache.pStart            = new int8_t[allocationsize];
791          RAMCache.Size              = Read(RAMCache.pStart, SampleCount) * this->FrameSize;          RAMCache.Size              = Read(RAMCache.pStart, SampleCount) * this->FrameSize;
# Line 740  namespace { Line 849  namespace {
849       * FormatTag must be DLS_WAVE_FORMAT_PCM. Trying to resize samples with       * FormatTag must be DLS_WAVE_FORMAT_PCM. Trying to resize samples with
850       * other formats will fail!       * other formats will fail!
851       *       *
852       * @param iNewSize - new sample wave data size in sample points (must be       * @param NewSize - new sample wave data size in sample points (must be
853       *                   greater than zero)       *                  greater than zero)
854       * @throws DLS::Excecption if FormatTag != DLS_WAVE_FORMAT_PCM       * @throws DLS::Excecption if FormatTag != DLS_WAVE_FORMAT_PCM
855       *                         or if \a iNewSize is less than 1       * @throws DLS::Exception if \a NewSize is less than 1 or unrealistic large
856       * @throws gig::Exception if existing sample is compressed       * @throws gig::Exception if existing sample is compressed
857       * @see DLS::Sample::GetSize(), DLS::Sample::FrameSize,       * @see DLS::Sample::GetSize(), DLS::Sample::FrameSize,
858       *      DLS::Sample::FormatTag, File::Save()       *      DLS::Sample::FormatTag, File::Save()
859       */       */
860      void Sample::Resize(int iNewSize) {      void Sample::Resize(file_offset_t NewSize) {
861          if (Compressed) throw gig::Exception("There is no support for modifying compressed samples (yet)");          if (Compressed) throw gig::Exception("There is no support for modifying compressed samples (yet)");
862          DLS::Sample::Resize(iNewSize);          DLS::Sample::Resize(NewSize);
863      }      }
864    
865      /**      /**
# Line 774  namespace { Line 883  namespace {
883       * @returns            the new sample position       * @returns            the new sample position
884       * @see                Read()       * @see                Read()
885       */       */
886      unsigned long Sample::SetPos(unsigned long SampleCount, RIFF::stream_whence_t Whence) {      file_offset_t Sample::SetPos(file_offset_t SampleCount, RIFF::stream_whence_t Whence) {
887          if (Compressed) {          if (Compressed) {
888              switch (Whence) {              switch (Whence) {
889                  case RIFF::stream_curpos:                  case RIFF::stream_curpos:
# Line 792  namespace { Line 901  namespace {
901              }              }
902              if (this->SamplePos > this->SamplesTotal) this->SamplePos = this->SamplesTotal;              if (this->SamplePos > this->SamplesTotal) this->SamplePos = this->SamplesTotal;
903    
904              unsigned long frame = this->SamplePos / 2048; // to which frame to jump              file_offset_t frame = this->SamplePos / 2048; // to which frame to jump
905              this->FrameOffset   = this->SamplePos % 2048; // offset (in sample points) within that frame              this->FrameOffset   = this->SamplePos % 2048; // offset (in sample points) within that frame
906              pCkData->SetPos(FrameTable[frame]);           // set chunk pointer to the start of sought frame              pCkData->SetPos(FrameTable[frame]);           // set chunk pointer to the start of sought frame
907              return this->SamplePos;              return this->SamplePos;
908          }          }
909          else { // not compressed          else { // not compressed
910              unsigned long orderedBytes = SampleCount * this->FrameSize;              file_offset_t orderedBytes = SampleCount * this->FrameSize;
911              unsigned long result = pCkData->SetPos(orderedBytes, Whence);              file_offset_t result = pCkData->SetPos(orderedBytes, Whence);
912              return (result == orderedBytes) ? SampleCount              return (result == orderedBytes) ? SampleCount
913                                              : result / this->FrameSize;                                              : result / this->FrameSize;
914          }          }
# Line 808  namespace { Line 917  namespace {
917      /**      /**
918       * Returns the current position in the sample (in sample points).       * Returns the current position in the sample (in sample points).
919       */       */
920      unsigned long Sample::GetPos() {      file_offset_t Sample::GetPos() const {
921          if (Compressed) return SamplePos;          if (Compressed) return SamplePos;
922          else            return pCkData->GetPos() / FrameSize;          else            return pCkData->GetPos() / FrameSize;
923      }      }
# Line 847  namespace { Line 956  namespace {
956       * @returns                number of successfully read sample points       * @returns                number of successfully read sample points
957       * @see                    CreateDecompressionBuffer()       * @see                    CreateDecompressionBuffer()
958       */       */
959      unsigned long Sample::ReadAndLoop(void* pBuffer, unsigned long SampleCount, playback_state_t* pPlaybackState,      file_offset_t Sample::ReadAndLoop(void* pBuffer, file_offset_t SampleCount, playback_state_t* pPlaybackState,
960                                        DimensionRegion* pDimRgn, buffer_t* pExternalDecompressionBuffer) {                                        DimensionRegion* pDimRgn, buffer_t* pExternalDecompressionBuffer) {
961          unsigned long samplestoread = SampleCount, totalreadsamples = 0, readsamples, samplestoloopend;          file_offset_t samplestoread = SampleCount, totalreadsamples = 0, readsamples, samplestoloopend;
962          uint8_t* pDst = (uint8_t*) pBuffer;          uint8_t* pDst = (uint8_t*) pBuffer;
963    
964          SetPos(pPlaybackState->position); // recover position from the last time          SetPos(pPlaybackState->position); // recover position from the last time
# Line 887  namespace { Line 996  namespace {
996                                  // reading, swap all sample frames so it reflects                                  // reading, swap all sample frames so it reflects
997                                  // backward playback                                  // backward playback
998    
999                                  unsigned long swapareastart       = totalreadsamples;                                  file_offset_t swapareastart       = totalreadsamples;
1000                                  unsigned long loopoffset          = GetPos() - loop.LoopStart;                                  file_offset_t loopoffset          = GetPos() - loop.LoopStart;
1001                                  unsigned long samplestoreadinloop = Min(samplestoread, loopoffset);                                  file_offset_t samplestoreadinloop = Min(samplestoread, loopoffset);
1002                                  unsigned long reverseplaybackend  = GetPos() - samplestoreadinloop;                                  file_offset_t reverseplaybackend  = GetPos() - samplestoreadinloop;
1003    
1004                                  SetPos(reverseplaybackend);                                  SetPos(reverseplaybackend);
1005    
# Line 938  namespace { Line 1047  namespace {
1047                          // reading, swap all sample frames so it reflects                          // reading, swap all sample frames so it reflects
1048                          // backward playback                          // backward playback
1049    
1050                          unsigned long swapareastart       = totalreadsamples;                          file_offset_t swapareastart       = totalreadsamples;
1051                          unsigned long loopoffset          = GetPos() - loop.LoopStart;                          file_offset_t loopoffset          = GetPos() - loop.LoopStart;
1052                          unsigned long samplestoreadinloop = (this->LoopPlayCount) ? Min(samplestoread, pPlaybackState->loop_cycles_left * loop.LoopLength - loopoffset)                          file_offset_t samplestoreadinloop = (this->LoopPlayCount) ? Min(samplestoread, pPlaybackState->loop_cycles_left * loop.LoopLength - loopoffset)
1053                                                                                    : samplestoread;                                                                                    : samplestoread;
1054                          unsigned long reverseplaybackend  = loop.LoopStart + Abs((loopoffset - samplestoreadinloop) % loop.LoopLength);                          file_offset_t reverseplaybackend  = loop.LoopStart + Abs((loopoffset - samplestoreadinloop) % loop.LoopLength);
1055    
1056                          SetPos(reverseplaybackend);                          SetPos(reverseplaybackend);
1057    
# Line 1022  namespace { Line 1131  namespace {
1131       * @returns            number of successfully read sample points       * @returns            number of successfully read sample points
1132       * @see                SetPos(), CreateDecompressionBuffer()       * @see                SetPos(), CreateDecompressionBuffer()
1133       */       */
1134      unsigned long Sample::Read(void* pBuffer, unsigned long SampleCount, buffer_t* pExternalDecompressionBuffer) {      file_offset_t Sample::Read(void* pBuffer, file_offset_t SampleCount, buffer_t* pExternalDecompressionBuffer) {
1135          if (SampleCount == 0) return 0;          if (SampleCount == 0) return 0;
1136          if (!Compressed) {          if (!Compressed) {
1137              if (BitDepth == 24) {              if (BitDepth == 24) {
# Line 1037  namespace { Line 1146  namespace {
1146          else {          else {
1147              if (this->SamplePos >= this->SamplesTotal) return 0;              if (this->SamplePos >= this->SamplesTotal) return 0;
1148              //TODO: efficiency: maybe we should test for an average compression rate              //TODO: efficiency: maybe we should test for an average compression rate
1149              unsigned long assumedsize      = GuessSize(SampleCount),              file_offset_t assumedsize      = GuessSize(SampleCount),
1150                            remainingbytes   = 0,           // remaining bytes in the local buffer                            remainingbytes   = 0,           // remaining bytes in the local buffer
1151                            remainingsamples = SampleCount,                            remainingsamples = SampleCount,
1152                            copysamples, skipsamples,                            copysamples, skipsamples,
# Line 1060  namespace { Line 1169  namespace {
1169              remainingbytes = pCkData->Read(pSrc, assumedsize, 1);              remainingbytes = pCkData->Read(pSrc, assumedsize, 1);
1170    
1171              while (remainingsamples && remainingbytes) {              while (remainingsamples && remainingbytes) {
1172                  unsigned long framesamples = SamplesPerFrame;                  file_offset_t framesamples = SamplesPerFrame;
1173                  unsigned long framebytes, rightChannelOffset = 0, nextFrameOffset;                  file_offset_t framebytes, rightChannelOffset = 0, nextFrameOffset;
1174    
1175                  int mode_l = *pSrc++, mode_r = 0;                  int mode_l = *pSrc++, mode_r = 0;
1176    
# Line 1211  namespace { Line 1320  namespace {
1320       * @throws gig::Exception if sample is compressed       * @throws gig::Exception if sample is compressed
1321       * @see DLS::LoadSampleData()       * @see DLS::LoadSampleData()
1322       */       */
1323      unsigned long Sample::Write(void* pBuffer, unsigned long SampleCount) {      file_offset_t Sample::Write(void* pBuffer, file_offset_t SampleCount) {
1324          if (Compressed) throw gig::Exception("There is no support for writing compressed gig samples (yet)");          if (Compressed) throw gig::Exception("There is no support for writing compressed gig samples (yet)");
1325    
1326          // if this is the first write in this sample, reset the          // if this is the first write in this sample, reset the
# Line 1220  namespace { Line 1329  namespace {
1329              __resetCRC(crc);              __resetCRC(crc);
1330          }          }
1331          if (GetSize() < SampleCount) throw Exception("Could not write sample data, current sample size to small");          if (GetSize() < SampleCount) throw Exception("Could not write sample data, current sample size to small");
1332          unsigned long res;          file_offset_t res;
1333          if (BitDepth == 24) {          if (BitDepth == 24) {
1334              res = pCkData->Write(pBuffer, SampleCount * FrameSize, 1) / FrameSize;              res = pCkData->Write(pBuffer, SampleCount * FrameSize, 1) / FrameSize;
1335          } else { // 16 bit          } else { // 16 bit
# Line 1232  namespace { Line 1341  namespace {
1341          // if this is the last write, update the checksum chunk in the          // if this is the last write, update the checksum chunk in the
1342          // file          // file
1343          if (pCkData->GetPos() == pCkData->GetSize()) {          if (pCkData->GetPos() == pCkData->GetSize()) {
1344                __finalizeCRC(crc);
1345              File* pFile = static_cast<File*>(GetParent());              File* pFile = static_cast<File*>(GetParent());
1346              pFile->SetSampleChecksum(this, __encodeCRC(crc));              pFile->SetSampleChecksum(this, crc);
1347          }          }
1348          return res;          return res;
1349      }      }
# Line 1254  namespace { Line 1364  namespace {
1364       * @returns allocated decompression buffer       * @returns allocated decompression buffer
1365       * @see DestroyDecompressionBuffer()       * @see DestroyDecompressionBuffer()
1366       */       */
1367      buffer_t Sample::CreateDecompressionBuffer(unsigned long MaxReadSize) {      buffer_t Sample::CreateDecompressionBuffer(file_offset_t MaxReadSize) {
1368          buffer_t result;          buffer_t result;
1369          const double worstCaseHeaderOverhead =          const double worstCaseHeaderOverhead =
1370                  (256.0 /*frame size*/ + 12.0 /*header*/ + 2.0 /*compression type flag (stereo)*/) / 256.0;                  (256.0 /*frame size*/ + 12.0 /*header*/ + 2.0 /*compression type flag (stereo)*/) / 256.0;
1371          result.Size              = (unsigned long) (double(MaxReadSize) * 3.0 /*(24 Bit)*/ * 2.0 /*stereo*/ * worstCaseHeaderOverhead);          result.Size              = (file_offset_t) (double(MaxReadSize) * 3.0 /*(24 Bit)*/ * 2.0 /*stereo*/ * worstCaseHeaderOverhead);
1372          result.pStart            = new int8_t[result.Size];          result.pStart            = new int8_t[result.Size];
1373          result.NullExtensionSize = 0;          result.NullExtensionSize = 0;
1374          return result;          return result;
# Line 1292  namespace { Line 1402  namespace {
1402          return pGroup;          return pGroup;
1403      }      }
1404    
1405        /**
1406         * Returns the CRC-32 checksum of the sample's raw wave form data at the
1407         * time when this sample's wave form data was modified for the last time
1408         * by calling Write(). This checksum only covers the raw wave form data,
1409         * not any meta informations like i.e. bit depth or loop points. Since
1410         * this method just returns the checksum stored for this sample i.e. when
1411         * the gig file was loaded, this method returns immediately. So it does no
1412         * recalcuation of the checksum with the currently available sample wave
1413         * form data.
1414         *
1415         * @see VerifyWaveData()
1416         */
1417        uint32_t Sample::GetWaveDataCRC32Checksum() {
1418            return crc;
1419        }
1420    
1421        /**
1422         * Checks the integrity of this sample's raw audio wave data. Whenever a
1423         * Sample's raw wave data is intentionally modified (i.e. by calling
1424         * Write() and supplying the new raw audio wave form data) a CRC32 checksum
1425         * is calculated and stored/updated for this sample, along to the sample's
1426         * meta informations.
1427         *
1428         * Now by calling this method the current raw audio wave data is checked
1429         * against the already stored CRC32 check sum in order to check whether the
1430         * sample data had been damaged unintentionally for some reason. Since by
1431         * calling this method always the entire raw audio wave data has to be
1432         * read, verifying all samples this way may take a long time accordingly.
1433         * And that's also the reason why the sample integrity is not checked by
1434         * default whenever a gig file is loaded. So this method must be called
1435         * explicitly to fulfill this task.
1436         *
1437         * @param pActually - (optional) if provided, will be set to the actually
1438         *                    calculated checksum of the current raw wave form data,
1439         *                    you can get the expected checksum instead by calling
1440         *                    GetWaveDataCRC32Checksum()
1441         * @returns true if sample is OK or false if the sample is damaged
1442         * @throws Exception if no checksum had been stored to disk for this
1443         *         sample yet, or on I/O issues
1444         * @see GetWaveDataCRC32Checksum()
1445         */
1446        bool Sample::VerifyWaveData(uint32_t* pActually) {
1447            //File* pFile = static_cast<File*>(GetParent());
1448            uint32_t crc = CalculateWaveDataChecksum();
1449            if (pActually) *pActually = crc;
1450            return crc == this->crc;
1451        }
1452    
1453        uint32_t Sample::CalculateWaveDataChecksum() {
1454            const size_t sz = 20*1024; // 20kB buffer size
1455            std::vector<uint8_t> buffer(sz);
1456            buffer.resize(sz);
1457    
1458            const size_t n = sz / FrameSize;
1459            SetPos(0);
1460            uint32_t crc = 0;
1461            __resetCRC(crc);
1462            while (true) {
1463                file_offset_t nRead = Read(&buffer[0], n);
1464                if (nRead <= 0) break;
1465                __calculateCRC(&buffer[0], nRead * FrameSize, crc);
1466            }
1467            __finalizeCRC(crc);
1468            return crc;
1469        }
1470    
1471      Sample::~Sample() {      Sample::~Sample() {
1472          Instances--;          Instances--;
1473          if (!Instances && InternalDecompressionBuffer.Size) {          if (!Instances && InternalDecompressionBuffer.Size) {
# Line 1308  namespace { Line 1484  namespace {
1484  // *************** DimensionRegion ***************  // *************** DimensionRegion ***************
1485  // *  // *
1486    
1487      uint                               DimensionRegion::Instances       = 0;      size_t                             DimensionRegion::Instances       = 0;
1488      DimensionRegion::VelocityTableMap* DimensionRegion::pVelocityTables = NULL;      DimensionRegion::VelocityTableMap* DimensionRegion::pVelocityTables = NULL;
1489    
1490      DimensionRegion::DimensionRegion(Region* pParent, RIFF::List* _3ewl) : DLS::Sampler(_3ewl) {      DimensionRegion::DimensionRegion(Region* pParent, RIFF::List* _3ewl) : DLS::Sampler(_3ewl) {
# Line 1502  namespace { Line 1678  namespace {
1678              EG2Attack                       = 0.0;              EG2Attack                       = 0.0;
1679              EG2Decay1                       = 0.005;              EG2Decay1                       = 0.005;
1680              EG2Sustain                      = 1000;              EG2Sustain                      = 1000;
1681              EG2Release                      = 0.3;              EG2Release                      = 60;
1682              LFO2ControlDepth                = 0;              LFO2ControlDepth                = 0;
1683              LFO2Frequency                   = 1.0;              LFO2Frequency                   = 1.0;
1684              LFO2InternalDepth               = 0;              LFO2InternalDepth               = 0;
# Line 1556  namespace { Line 1732  namespace {
1732              VCFType                         = vcf_type_lowpass;              VCFType                         = vcf_type_lowpass;
1733              memset(DimensionUpperLimits, 127, 8);              memset(DimensionUpperLimits, 127, 8);
1734          }          }
1735            // chunk for own format extensions, these will *NOT* work with Gigasampler/GigaStudio !
1736            RIFF::Chunk* lsde = _3ewl->GetSubChunk(CHUNK_ID_LSDE);
1737            if (lsde) { // format extension for EG behavior options
1738                eg_opt_t* pEGOpts[2] = { &EG1Options, &EG2Options };
1739                for (int i = 0; i < 2; ++i) { // NOTE: we reserved a 3rd byte for a potential future EG3 option
1740                    unsigned char byte = lsde->ReadUint8();
1741                    pEGOpts[i]->AttackCancel     = byte & 1;
1742                    pEGOpts[i]->AttackHoldCancel = byte & (1 << 1);
1743                    pEGOpts[i]->Decay1Cancel     = byte & (1 << 2);
1744                    pEGOpts[i]->Decay2Cancel     = byte & (1 << 3);
1745                    pEGOpts[i]->ReleaseCancel    = byte & (1 << 4);
1746                }
1747            }
1748            // format extension for sustain pedal up effect on release trigger samples
1749            if (lsde && lsde->GetSize() > 3) { // NOTE: we reserved the 3rd byte for a potential future EG3 option
1750                lsde->SetPos(3);
1751                SustainReleaseTrigger = static_cast<sust_rel_trg_t>(lsde->ReadUint8());
1752            } else SustainReleaseTrigger = sust_rel_trg_none;
1753    
1754          pVelocityAttenuationTable = GetVelocityTable(VelocityResponseCurve,          pVelocityAttenuationTable = GetVelocityTable(VelocityResponseCurve,
1755                                                       VelocityResponseDepth,                                                       VelocityResponseDepth,
# Line 1608  namespace { Line 1802  namespace {
1802       * @param orig - original DimensionRegion object to be copied from       * @param orig - original DimensionRegion object to be copied from
1803       */       */
1804      void DimensionRegion::CopyAssign(const DimensionRegion* orig) {      void DimensionRegion::CopyAssign(const DimensionRegion* orig) {
1805            CopyAssign(orig, NULL);
1806        }
1807    
1808        /**
1809         * Make a (semi) deep copy of the DimensionRegion object given by @a orig
1810         * and assign it to this object.
1811         *
1812         * @param orig - original DimensionRegion object to be copied from
1813         * @param mSamples - crosslink map between the foreign file's samples and
1814         *                   this file's samples
1815         */
1816        void DimensionRegion::CopyAssign(const DimensionRegion* orig, const std::map<Sample*,Sample*>* mSamples) {
1817          // delete all allocated data first          // delete all allocated data first
1818          if (VelocityTable) delete [] VelocityTable;          if (VelocityTable) delete [] VelocityTable;
1819          if (pSampleLoops) delete [] pSampleLoops;          if (pSampleLoops) delete [] pSampleLoops;
# Line 1615  namespace { Line 1821  namespace {
1821          // backup parent list pointer          // backup parent list pointer
1822          RIFF::List* p = pParentList;          RIFF::List* p = pParentList;
1823                    
1824            gig::Sample* pOriginalSample = pSample;
1825            gig::Region* pOriginalRegion = pRegion;
1826            
1827          //NOTE: copy code copied from assignment constructor above, see comment there as well          //NOTE: copy code copied from assignment constructor above, see comment there as well
1828                    
1829          *this = *orig; // default memberwise shallow copy of all parameters          *this = *orig; // default memberwise shallow copy of all parameters
1830            
1831            // restore members that shall not be altered
1832          pParentList = p; // restore the chunk pointer          pParentList = p; // restore the chunk pointer
1833            pRegion = pOriginalRegion;
1834            
1835            // only take the raw sample reference reference if the
1836            // two DimensionRegion objects are part of the same file
1837            if (pOriginalRegion->GetParent()->GetParent() != orig->pRegion->GetParent()->GetParent()) {
1838                pSample = pOriginalSample;
1839            }
1840            
1841            if (mSamples && mSamples->count(orig->pSample)) {
1842                pSample = mSamples->find(orig->pSample)->second;
1843            }
1844    
1845          // deep copy of owned structures          // deep copy of owned structures
1846          if (orig->VelocityTable) {          if (orig->VelocityTable) {
# Line 1633  namespace { Line 1855  namespace {
1855          }          }
1856      }      }
1857    
1858        void DimensionRegion::serialize(Serialization::Archive* archive) {
1859            // in case this class will become backward incompatible one day,
1860            // then set a version and minimum version for this class like:
1861            //archive->setVersion(*this, 2);
1862            //archive->setMinVersion(*this, 1);
1863    
1864            SRLZ(VelocityUpperLimit);
1865            SRLZ(EG1PreAttack);
1866            SRLZ(EG1Attack);
1867            SRLZ(EG1Decay1);
1868            SRLZ(EG1Decay2);
1869            SRLZ(EG1InfiniteSustain);
1870            SRLZ(EG1Sustain);
1871            SRLZ(EG1Release);
1872            SRLZ(EG1Hold);
1873            SRLZ(EG1Controller);
1874            SRLZ(EG1ControllerInvert);
1875            SRLZ(EG1ControllerAttackInfluence);
1876            SRLZ(EG1ControllerDecayInfluence);
1877            SRLZ(EG1ControllerReleaseInfluence);
1878            SRLZ(LFO1Frequency);
1879            SRLZ(LFO1InternalDepth);
1880            SRLZ(LFO1ControlDepth);
1881            SRLZ(LFO1Controller);
1882            SRLZ(LFO1FlipPhase);
1883            SRLZ(LFO1Sync);
1884            SRLZ(EG2PreAttack);
1885            SRLZ(EG2Attack);
1886            SRLZ(EG2Decay1);
1887            SRLZ(EG2Decay2);
1888            SRLZ(EG2InfiniteSustain);
1889            SRLZ(EG2Sustain);
1890            SRLZ(EG2Release);
1891            SRLZ(EG2Controller);
1892            SRLZ(EG2ControllerInvert);
1893            SRLZ(EG2ControllerAttackInfluence);
1894            SRLZ(EG2ControllerDecayInfluence);
1895            SRLZ(EG2ControllerReleaseInfluence);
1896            SRLZ(LFO2Frequency);
1897            SRLZ(LFO2InternalDepth);
1898            SRLZ(LFO2ControlDepth);
1899            SRLZ(LFO2Controller);
1900            SRLZ(LFO2FlipPhase);
1901            SRLZ(LFO2Sync);
1902            SRLZ(EG3Attack);
1903            SRLZ(EG3Depth);
1904            SRLZ(LFO3Frequency);
1905            SRLZ(LFO3InternalDepth);
1906            SRLZ(LFO3ControlDepth);
1907            SRLZ(LFO3Controller);
1908            SRLZ(LFO3Sync);
1909            SRLZ(VCFEnabled);
1910            SRLZ(VCFType);
1911            SRLZ(VCFCutoffController);
1912            SRLZ(VCFCutoffControllerInvert);
1913            SRLZ(VCFCutoff);
1914            SRLZ(VCFVelocityCurve);
1915            SRLZ(VCFVelocityScale);
1916            SRLZ(VCFVelocityDynamicRange);
1917            SRLZ(VCFResonance);
1918            SRLZ(VCFResonanceDynamic);
1919            SRLZ(VCFResonanceController);
1920            SRLZ(VCFKeyboardTracking);
1921            SRLZ(VCFKeyboardTrackingBreakpoint);
1922            SRLZ(VelocityResponseCurve);
1923            SRLZ(VelocityResponseDepth);
1924            SRLZ(VelocityResponseCurveScaling);
1925            SRLZ(ReleaseVelocityResponseCurve);
1926            SRLZ(ReleaseVelocityResponseDepth);
1927            SRLZ(ReleaseTriggerDecay);
1928            SRLZ(Crossfade);
1929            SRLZ(PitchTrack);
1930            SRLZ(DimensionBypass);
1931            SRLZ(Pan);
1932            SRLZ(SelfMask);
1933            SRLZ(AttenuationController);
1934            SRLZ(InvertAttenuationController);
1935            SRLZ(AttenuationControllerThreshold);
1936            SRLZ(ChannelOffset);
1937            SRLZ(SustainDefeat);
1938            SRLZ(MSDecode);
1939            //SRLZ(SampleStartOffset);
1940            SRLZ(SampleAttenuation);
1941            SRLZ(EG1Options);
1942            SRLZ(EG2Options);
1943            SRLZ(SustainReleaseTrigger);
1944    
1945            // derived attributes from DLS::Sampler
1946            SRLZ(FineTune);
1947            SRLZ(Gain);
1948        }
1949    
1950      /**      /**
1951       * Updates the respective member variable and updates @c SampleAttenuation       * Updates the respective member variable and updates @c SampleAttenuation
1952       * which depends on this value.       * which depends on this value.
# Line 1648  namespace { Line 1962  namespace {
1962       *       *
1963       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
1964       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
1965         *
1966         * @param pProgress - callback function for progress notification
1967       */       */
1968      void DimensionRegion::UpdateChunks() {      void DimensionRegion::UpdateChunks(progress_t* pProgress) {
1969          // first update base class's chunk          // first update base class's chunk
1970          DLS::Sampler::UpdateChunks();          DLS::Sampler::UpdateChunks(pProgress);
1971    
1972          RIFF::Chunk* wsmp = pParentList->GetSubChunk(CHUNK_ID_WSMP);          RIFF::Chunk* wsmp = pParentList->GetSubChunk(CHUNK_ID_WSMP);
1973          uint8_t* pData = (uint8_t*) wsmp->LoadChunkData();          uint8_t* pData = (uint8_t*) wsmp->LoadChunkData();
# Line 1664  namespace { Line 1980  namespace {
1980          RIFF::Chunk* _3ewa = pParentList->GetSubChunk(CHUNK_ID_3EWA);          RIFF::Chunk* _3ewa = pParentList->GetSubChunk(CHUNK_ID_3EWA);
1981          if (!_3ewa) {          if (!_3ewa) {
1982              File* pFile = (File*) GetParent()->GetParent()->GetParent();              File* pFile = (File*) GetParent()->GetParent()->GetParent();
1983              bool version3 = pFile->pVersion && pFile->pVersion->major == 3;              bool versiongt2 = pFile->pVersion && pFile->pVersion->major > 2;
1984              _3ewa = pParentList->AddSubChunk(CHUNK_ID_3EWA, version3 ? 148 : 140);              _3ewa = pParentList->AddSubChunk(CHUNK_ID_3EWA, versiongt2 ? 148 : 140);
1985          }          }
1986          pData = (uint8_t*) _3ewa->LoadChunkData();          pData = (uint8_t*) _3ewa->LoadChunkData();
1987    
1988          // update '3ewa' chunk with DimensionRegion's current settings          // update '3ewa' chunk with DimensionRegion's current settings
1989    
1990          const uint32_t chunksize = _3ewa->GetNewSize();          const uint32_t chunksize = (uint32_t) _3ewa->GetNewSize();
1991          store32(&pData[0], chunksize); // unknown, always chunk size?          store32(&pData[0], chunksize); // unknown, always chunk size?
1992    
1993          const int32_t lfo3freq = (int32_t) GIG_EXP_ENCODE(LFO3Frequency);          const int32_t lfo3freq = (int32_t) GIG_EXP_ENCODE(LFO3Frequency);
# Line 1931  namespace { Line 2247  namespace {
2247          if (chunksize >= 148) {          if (chunksize >= 148) {
2248              memcpy(&pData[140], DimensionUpperLimits, 8);              memcpy(&pData[140], DimensionUpperLimits, 8);
2249          }          }
2250    
2251            // chunk for own format extensions, these will *NOT* work with
2252            // Gigasampler/GigaStudio !
2253            RIFF::Chunk* lsde = pParentList->GetSubChunk(CHUNK_ID_LSDE);
2254            const int lsdeSize = 4; // NOTE: we reserved the 3rd byte for a potential future EG3 option
2255            if (!lsde) {
2256                // only add this "LSDE" chunk if either EG options or sustain
2257                // release trigger option deviate from their default behaviour
2258                eg_opt_t defaultOpt;
2259                if (memcmp(&EG1Options, &defaultOpt, sizeof(eg_opt_t)) ||
2260                    memcmp(&EG2Options, &defaultOpt, sizeof(eg_opt_t)) ||
2261                    SustainReleaseTrigger)
2262                {
2263                    lsde = pParentList->AddSubChunk(CHUNK_ID_LSDE, lsdeSize);
2264                    // move LSDE chunk to the end of parent list
2265                    pParentList->MoveSubChunk(lsde, (RIFF::Chunk*)NULL);
2266                }
2267            }
2268            if (lsde) {
2269                if (lsde->GetNewSize() < lsdeSize)
2270                    lsde->Resize(lsdeSize);
2271                // format extension for EG behavior options
2272                unsigned char* pData = (unsigned char*) lsde->LoadChunkData();
2273                eg_opt_t* pEGOpts[2] = { &EG1Options, &EG2Options };
2274                for (int i = 0; i < 2; ++i) { // NOTE: we reserved the 3rd byte for a potential future EG3 option
2275                    pData[i] =
2276                        (pEGOpts[i]->AttackCancel     ? 1 : 0) |
2277                        (pEGOpts[i]->AttackHoldCancel ? (1<<1) : 0) |
2278                        (pEGOpts[i]->Decay1Cancel     ? (1<<2) : 0) |
2279                        (pEGOpts[i]->Decay2Cancel     ? (1<<3) : 0) |
2280                        (pEGOpts[i]->ReleaseCancel    ? (1<<4) : 0);
2281                }
2282                // format extension for effect of sustain pedal up event on release trigger samples
2283                pData[3] = static_cast<uint8_t>(SustainReleaseTrigger);
2284            }
2285      }      }
2286    
2287      double* DimensionRegion::GetReleaseVelocityTable(curve_type_t releaseVelocityResponseCurve, uint8_t releaseVelocityResponseDepth) {      double* DimensionRegion::GetReleaseVelocityTable(curve_type_t releaseVelocityResponseCurve, uint8_t releaseVelocityResponseDepth) {
# Line 1970  namespace { Line 2321  namespace {
2321      // get the corresponding velocity table from the table map or create & calculate that table if it doesn't exist yet      // get the corresponding velocity table from the table map or create & calculate that table if it doesn't exist yet
2322      double* DimensionRegion::GetVelocityTable(curve_type_t curveType, uint8_t depth, uint8_t scaling)      double* DimensionRegion::GetVelocityTable(curve_type_t curveType, uint8_t depth, uint8_t scaling)
2323      {      {
2324            // sanity check input parameters
2325            // (fallback to some default parameters on ill input)
2326            switch (curveType) {
2327                case curve_type_nonlinear:
2328                case curve_type_linear:
2329                    if (depth > 4) {
2330                        printf("Warning: Invalid depth (0x%x) for velocity curve type (0x%x).\n", depth, curveType);
2331                        depth   = 0;
2332                        scaling = 0;
2333                    }
2334                    break;
2335                case curve_type_special:
2336                    if (depth > 5) {
2337                        printf("Warning: Invalid depth (0x%x) for velocity curve type 'special'.\n", depth);
2338                        depth   = 0;
2339                        scaling = 0;
2340                    }
2341                    break;
2342                case curve_type_unknown:
2343                default:
2344                    printf("Warning: Unknown velocity curve type (0x%x).\n", curveType);
2345                    curveType = curve_type_linear;
2346                    depth     = 0;
2347                    scaling   = 0;
2348                    break;
2349            }
2350    
2351          double* table;          double* table;
2352          uint32_t tableKey = (curveType<<16) | (depth<<8) | scaling;          uint32_t tableKey = (curveType<<16) | (depth<<8) | scaling;
2353          if (pVelocityTables->count(tableKey)) { // if key exists          if (pVelocityTables->count(tableKey)) { // if key exists
# Line 1986  namespace { Line 2364  namespace {
2364          return pRegion;          return pRegion;
2365      }      }
2366    
2367    // show error if some _lev_ctrl_* enum entry is not listed in the following function
2368    // (commented out for now, because "diagnostic push" not supported prior GCC 4.6)
2369    // TODO: uncomment and add a GCC version check (see also commented "#pragma GCC diagnostic pop" below)
2370    //#pragma GCC diagnostic push
2371    //#pragma GCC diagnostic error "-Wswitch"
2372    
2373      leverage_ctrl_t DimensionRegion::DecodeLeverageController(_lev_ctrl_t EncodedController) {      leverage_ctrl_t DimensionRegion::DecodeLeverageController(_lev_ctrl_t EncodedController) {
2374          leverage_ctrl_t decodedcontroller;          leverage_ctrl_t decodedcontroller;
2375          switch (EncodedController) {          switch (EncodedController) {
# Line 2097  namespace { Line 2481  namespace {
2481                  decodedcontroller.controller_number = 95;                  decodedcontroller.controller_number = 95;
2482                  break;                  break;
2483    
2484                // format extension (these controllers are so far only supported by
2485                // LinuxSampler & gigedit) they will *NOT* work with
2486                // Gigasampler/GigaStudio !
2487                case _lev_ctrl_CC3_EXT:
2488                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2489                    decodedcontroller.controller_number = 3;
2490                    break;
2491                case _lev_ctrl_CC6_EXT:
2492                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2493                    decodedcontroller.controller_number = 6;
2494                    break;
2495                case _lev_ctrl_CC7_EXT:
2496                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2497                    decodedcontroller.controller_number = 7;
2498                    break;
2499                case _lev_ctrl_CC8_EXT:
2500                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2501                    decodedcontroller.controller_number = 8;
2502                    break;
2503                case _lev_ctrl_CC9_EXT:
2504                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2505                    decodedcontroller.controller_number = 9;
2506                    break;
2507                case _lev_ctrl_CC10_EXT:
2508                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2509                    decodedcontroller.controller_number = 10;
2510                    break;
2511                case _lev_ctrl_CC11_EXT:
2512                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2513                    decodedcontroller.controller_number = 11;
2514                    break;
2515                case _lev_ctrl_CC14_EXT:
2516                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2517                    decodedcontroller.controller_number = 14;
2518                    break;
2519                case _lev_ctrl_CC15_EXT:
2520                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2521                    decodedcontroller.controller_number = 15;
2522                    break;
2523                case _lev_ctrl_CC20_EXT:
2524                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2525                    decodedcontroller.controller_number = 20;
2526                    break;
2527                case _lev_ctrl_CC21_EXT:
2528                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2529                    decodedcontroller.controller_number = 21;
2530                    break;
2531                case _lev_ctrl_CC22_EXT:
2532                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2533                    decodedcontroller.controller_number = 22;
2534                    break;
2535                case _lev_ctrl_CC23_EXT:
2536                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2537                    decodedcontroller.controller_number = 23;
2538                    break;
2539                case _lev_ctrl_CC24_EXT:
2540                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2541                    decodedcontroller.controller_number = 24;
2542                    break;
2543                case _lev_ctrl_CC25_EXT:
2544                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2545                    decodedcontroller.controller_number = 25;
2546                    break;
2547                case _lev_ctrl_CC26_EXT:
2548                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2549                    decodedcontroller.controller_number = 26;
2550                    break;
2551                case _lev_ctrl_CC27_EXT:
2552                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2553                    decodedcontroller.controller_number = 27;
2554                    break;
2555                case _lev_ctrl_CC28_EXT:
2556                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2557                    decodedcontroller.controller_number = 28;
2558                    break;
2559                case _lev_ctrl_CC29_EXT:
2560                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2561                    decodedcontroller.controller_number = 29;
2562                    break;
2563                case _lev_ctrl_CC30_EXT:
2564                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2565                    decodedcontroller.controller_number = 30;
2566                    break;
2567                case _lev_ctrl_CC31_EXT:
2568                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2569                    decodedcontroller.controller_number = 31;
2570                    break;
2571                case _lev_ctrl_CC68_EXT:
2572                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2573                    decodedcontroller.controller_number = 68;
2574                    break;
2575                case _lev_ctrl_CC69_EXT:
2576                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2577                    decodedcontroller.controller_number = 69;
2578                    break;
2579                case _lev_ctrl_CC70_EXT:
2580                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2581                    decodedcontroller.controller_number = 70;
2582                    break;
2583                case _lev_ctrl_CC71_EXT:
2584                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2585                    decodedcontroller.controller_number = 71;
2586                    break;
2587                case _lev_ctrl_CC72_EXT:
2588                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2589                    decodedcontroller.controller_number = 72;
2590                    break;
2591                case _lev_ctrl_CC73_EXT:
2592                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2593                    decodedcontroller.controller_number = 73;
2594                    break;
2595                case _lev_ctrl_CC74_EXT:
2596                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2597                    decodedcontroller.controller_number = 74;
2598                    break;
2599                case _lev_ctrl_CC75_EXT:
2600                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2601                    decodedcontroller.controller_number = 75;
2602                    break;
2603                case _lev_ctrl_CC76_EXT:
2604                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2605                    decodedcontroller.controller_number = 76;
2606                    break;
2607                case _lev_ctrl_CC77_EXT:
2608                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2609                    decodedcontroller.controller_number = 77;
2610                    break;
2611                case _lev_ctrl_CC78_EXT:
2612                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2613                    decodedcontroller.controller_number = 78;
2614                    break;
2615                case _lev_ctrl_CC79_EXT:
2616                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2617                    decodedcontroller.controller_number = 79;
2618                    break;
2619                case _lev_ctrl_CC84_EXT:
2620                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2621                    decodedcontroller.controller_number = 84;
2622                    break;
2623                case _lev_ctrl_CC85_EXT:
2624                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2625                    decodedcontroller.controller_number = 85;
2626                    break;
2627                case _lev_ctrl_CC86_EXT:
2628                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2629                    decodedcontroller.controller_number = 86;
2630                    break;
2631                case _lev_ctrl_CC87_EXT:
2632                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2633                    decodedcontroller.controller_number = 87;
2634                    break;
2635                case _lev_ctrl_CC89_EXT:
2636                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2637                    decodedcontroller.controller_number = 89;
2638                    break;
2639                case _lev_ctrl_CC90_EXT:
2640                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2641                    decodedcontroller.controller_number = 90;
2642                    break;
2643                case _lev_ctrl_CC96_EXT:
2644                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2645                    decodedcontroller.controller_number = 96;
2646                    break;
2647                case _lev_ctrl_CC97_EXT:
2648                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2649                    decodedcontroller.controller_number = 97;
2650                    break;
2651                case _lev_ctrl_CC102_EXT:
2652                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2653                    decodedcontroller.controller_number = 102;
2654                    break;
2655                case _lev_ctrl_CC103_EXT:
2656                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2657                    decodedcontroller.controller_number = 103;
2658                    break;
2659                case _lev_ctrl_CC104_EXT:
2660                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2661                    decodedcontroller.controller_number = 104;
2662                    break;
2663                case _lev_ctrl_CC105_EXT:
2664                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2665                    decodedcontroller.controller_number = 105;
2666                    break;
2667                case _lev_ctrl_CC106_EXT:
2668                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2669                    decodedcontroller.controller_number = 106;
2670                    break;
2671                case _lev_ctrl_CC107_EXT:
2672                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2673                    decodedcontroller.controller_number = 107;
2674                    break;
2675                case _lev_ctrl_CC108_EXT:
2676                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2677                    decodedcontroller.controller_number = 108;
2678                    break;
2679                case _lev_ctrl_CC109_EXT:
2680                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2681                    decodedcontroller.controller_number = 109;
2682                    break;
2683                case _lev_ctrl_CC110_EXT:
2684                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2685                    decodedcontroller.controller_number = 110;
2686                    break;
2687                case _lev_ctrl_CC111_EXT:
2688                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2689                    decodedcontroller.controller_number = 111;
2690                    break;
2691                case _lev_ctrl_CC112_EXT:
2692                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2693                    decodedcontroller.controller_number = 112;
2694                    break;
2695                case _lev_ctrl_CC113_EXT:
2696                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2697                    decodedcontroller.controller_number = 113;
2698                    break;
2699                case _lev_ctrl_CC114_EXT:
2700                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2701                    decodedcontroller.controller_number = 114;
2702                    break;
2703                case _lev_ctrl_CC115_EXT:
2704                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2705                    decodedcontroller.controller_number = 115;
2706                    break;
2707                case _lev_ctrl_CC116_EXT:
2708                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2709                    decodedcontroller.controller_number = 116;
2710                    break;
2711                case _lev_ctrl_CC117_EXT:
2712                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2713                    decodedcontroller.controller_number = 117;
2714                    break;
2715                case _lev_ctrl_CC118_EXT:
2716                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2717                    decodedcontroller.controller_number = 118;
2718                    break;
2719                case _lev_ctrl_CC119_EXT:
2720                    decodedcontroller.type = leverage_ctrl_t::type_controlchange;
2721                    decodedcontroller.controller_number = 119;
2722                    break;
2723    
2724              // unknown controller type              // unknown controller type
2725              default:              default:
2726                  throw gig::Exception("Unknown leverage controller type.");                  decodedcontroller.type = leverage_ctrl_t::type_none;
2727                    decodedcontroller.controller_number = 0;
2728                    printf("Warning: Unknown leverage controller type (0x%x).\n", EncodedController);
2729                    break;
2730          }          }
2731          return decodedcontroller;          return decodedcontroller;
2732      }      }
2733        
2734    // see above (diagnostic push not supported prior GCC 4.6)
2735    //#pragma GCC diagnostic pop
2736    
2737      DimensionRegion::_lev_ctrl_t DimensionRegion::EncodeLeverageController(leverage_ctrl_t DecodedController) {      DimensionRegion::_lev_ctrl_t DimensionRegion::EncodeLeverageController(leverage_ctrl_t DecodedController) {
2738          _lev_ctrl_t encodedcontroller;          _lev_ctrl_t encodedcontroller;
# Line 2190  namespace { Line 2820  namespace {
2820                      case 95:                      case 95:
2821                          encodedcontroller = _lev_ctrl_effect5depth;                          encodedcontroller = _lev_ctrl_effect5depth;
2822                          break;                          break;
2823    
2824                        // format extension (these controllers are so far only
2825                        // supported by LinuxSampler & gigedit) they will *NOT*
2826                        // work with Gigasampler/GigaStudio !
2827                        case 3:
2828                            encodedcontroller = _lev_ctrl_CC3_EXT;
2829                            break;
2830                        case 6:
2831                            encodedcontroller = _lev_ctrl_CC6_EXT;
2832                            break;
2833                        case 7:
2834                            encodedcontroller = _lev_ctrl_CC7_EXT;
2835                            break;
2836                        case 8:
2837                            encodedcontroller = _lev_ctrl_CC8_EXT;
2838                            break;
2839                        case 9:
2840                            encodedcontroller = _lev_ctrl_CC9_EXT;
2841                            break;
2842                        case 10:
2843                            encodedcontroller = _lev_ctrl_CC10_EXT;
2844                            break;
2845                        case 11:
2846                            encodedcontroller = _lev_ctrl_CC11_EXT;
2847                            break;
2848                        case 14:
2849                            encodedcontroller = _lev_ctrl_CC14_EXT;
2850                            break;
2851                        case 15:
2852                            encodedcontroller = _lev_ctrl_CC15_EXT;
2853                            break;
2854                        case 20:
2855                            encodedcontroller = _lev_ctrl_CC20_EXT;
2856                            break;
2857                        case 21:
2858                            encodedcontroller = _lev_ctrl_CC21_EXT;
2859                            break;
2860                        case 22:
2861                            encodedcontroller = _lev_ctrl_CC22_EXT;
2862                            break;
2863                        case 23:
2864                            encodedcontroller = _lev_ctrl_CC23_EXT;
2865                            break;
2866                        case 24:
2867                            encodedcontroller = _lev_ctrl_CC24_EXT;
2868                            break;
2869                        case 25:
2870                            encodedcontroller = _lev_ctrl_CC25_EXT;
2871                            break;
2872                        case 26:
2873                            encodedcontroller = _lev_ctrl_CC26_EXT;
2874                            break;
2875                        case 27:
2876                            encodedcontroller = _lev_ctrl_CC27_EXT;
2877                            break;
2878                        case 28:
2879                            encodedcontroller = _lev_ctrl_CC28_EXT;
2880                            break;
2881                        case 29:
2882                            encodedcontroller = _lev_ctrl_CC29_EXT;
2883                            break;
2884                        case 30:
2885                            encodedcontroller = _lev_ctrl_CC30_EXT;
2886                            break;
2887                        case 31:
2888                            encodedcontroller = _lev_ctrl_CC31_EXT;
2889                            break;
2890                        case 68:
2891                            encodedcontroller = _lev_ctrl_CC68_EXT;
2892                            break;
2893                        case 69:
2894                            encodedcontroller = _lev_ctrl_CC69_EXT;
2895                            break;
2896                        case 70:
2897                            encodedcontroller = _lev_ctrl_CC70_EXT;
2898                            break;
2899                        case 71:
2900                            encodedcontroller = _lev_ctrl_CC71_EXT;
2901                            break;
2902                        case 72:
2903                            encodedcontroller = _lev_ctrl_CC72_EXT;
2904                            break;
2905                        case 73:
2906                            encodedcontroller = _lev_ctrl_CC73_EXT;
2907                            break;
2908                        case 74:
2909                            encodedcontroller = _lev_ctrl_CC74_EXT;
2910                            break;
2911                        case 75:
2912                            encodedcontroller = _lev_ctrl_CC75_EXT;
2913                            break;
2914                        case 76:
2915                            encodedcontroller = _lev_ctrl_CC76_EXT;
2916                            break;
2917                        case 77:
2918                            encodedcontroller = _lev_ctrl_CC77_EXT;
2919                            break;
2920                        case 78:
2921                            encodedcontroller = _lev_ctrl_CC78_EXT;
2922                            break;
2923                        case 79:
2924                            encodedcontroller = _lev_ctrl_CC79_EXT;
2925                            break;
2926                        case 84:
2927                            encodedcontroller = _lev_ctrl_CC84_EXT;
2928                            break;
2929                        case 85:
2930                            encodedcontroller = _lev_ctrl_CC85_EXT;
2931                            break;
2932                        case 86:
2933                            encodedcontroller = _lev_ctrl_CC86_EXT;
2934                            break;
2935                        case 87:
2936                            encodedcontroller = _lev_ctrl_CC87_EXT;
2937                            break;
2938                        case 89:
2939                            encodedcontroller = _lev_ctrl_CC89_EXT;
2940                            break;
2941                        case 90:
2942                            encodedcontroller = _lev_ctrl_CC90_EXT;
2943                            break;
2944                        case 96:
2945                            encodedcontroller = _lev_ctrl_CC96_EXT;
2946                            break;
2947                        case 97:
2948                            encodedcontroller = _lev_ctrl_CC97_EXT;
2949                            break;
2950                        case 102:
2951                            encodedcontroller = _lev_ctrl_CC102_EXT;
2952                            break;
2953                        case 103:
2954                            encodedcontroller = _lev_ctrl_CC103_EXT;
2955                            break;
2956                        case 104:
2957                            encodedcontroller = _lev_ctrl_CC104_EXT;
2958                            break;
2959                        case 105:
2960                            encodedcontroller = _lev_ctrl_CC105_EXT;
2961                            break;
2962                        case 106:
2963                            encodedcontroller = _lev_ctrl_CC106_EXT;
2964                            break;
2965                        case 107:
2966                            encodedcontroller = _lev_ctrl_CC107_EXT;
2967                            break;
2968                        case 108:
2969                            encodedcontroller = _lev_ctrl_CC108_EXT;
2970                            break;
2971                        case 109:
2972                            encodedcontroller = _lev_ctrl_CC109_EXT;
2973                            break;
2974                        case 110:
2975                            encodedcontroller = _lev_ctrl_CC110_EXT;
2976                            break;
2977                        case 111:
2978                            encodedcontroller = _lev_ctrl_CC111_EXT;
2979                            break;
2980                        case 112:
2981                            encodedcontroller = _lev_ctrl_CC112_EXT;
2982                            break;
2983                        case 113:
2984                            encodedcontroller = _lev_ctrl_CC113_EXT;
2985                            break;
2986                        case 114:
2987                            encodedcontroller = _lev_ctrl_CC114_EXT;
2988                            break;
2989                        case 115:
2990                            encodedcontroller = _lev_ctrl_CC115_EXT;
2991                            break;
2992                        case 116:
2993                            encodedcontroller = _lev_ctrl_CC116_EXT;
2994                            break;
2995                        case 117:
2996                            encodedcontroller = _lev_ctrl_CC117_EXT;
2997                            break;
2998                        case 118:
2999                            encodedcontroller = _lev_ctrl_CC118_EXT;
3000                            break;
3001                        case 119:
3002                            encodedcontroller = _lev_ctrl_CC119_EXT;
3003                            break;
3004    
3005                      default:                      default:
3006                          throw gig::Exception("leverage controller number is not supported by the gig format");                          throw gig::Exception("leverage controller number is not supported by the gig format");
3007                  }                  }
# Line 2408  namespace { Line 3220  namespace {
3220          }          }
3221          Layers = 1;          Layers = 1;
3222          File* file = (File*) GetParent()->GetParent();          File* file = (File*) GetParent()->GetParent();
3223          int dimensionBits = (file->pVersion && file->pVersion->major == 3) ? 8 : 5;          int dimensionBits = (file->pVersion && file->pVersion->major > 2) ? 8 : 5;
3224    
3225          // Actual Loading          // Actual Loading
3226    
# Line 2452  namespace { Line 3264  namespace {
3264              UpdateVelocityTable();              UpdateVelocityTable();
3265    
3266              // jump to start of the wave pool indices (if not already there)              // jump to start of the wave pool indices (if not already there)
3267              if (file->pVersion && file->pVersion->major == 3)              if (file->pVersion && file->pVersion->major > 2)
3268                  _3lnk->SetPos(68); // version 3 has a different 3lnk structure                  _3lnk->SetPos(68); // version 3 has a different 3lnk structure
3269              else              else
3270                  _3lnk->SetPos(44);                  _3lnk->SetPos(44);
# Line 2461  namespace { Line 3273  namespace {
3273              if (file->GetAutoLoad()) {              if (file->GetAutoLoad()) {
3274                  for (uint i = 0; i < DimensionRegions; i++) {                  for (uint i = 0; i < DimensionRegions; i++) {
3275                      uint32_t wavepoolindex = _3lnk->ReadUint32();                      uint32_t wavepoolindex = _3lnk->ReadUint32();
3276                      if (file->pWavePoolTable) pDimensionRegions[i]->pSample = GetSampleFromWavePool(wavepoolindex);                      if (file->pWavePoolTable && pDimensionRegions[i])
3277                            pDimensionRegions[i]->pSample = GetSampleFromWavePool(wavepoolindex);
3278                  }                  }
3279                  GetSample(); // load global region sample reference                  GetSample(); // load global region sample reference
3280              }              }
# Line 2491  namespace { Line 3304  namespace {
3304       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
3305       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
3306       *       *
3307         * @param pProgress - callback function for progress notification
3308       * @throws gig::Exception if samples cannot be dereferenced       * @throws gig::Exception if samples cannot be dereferenced
3309       */       */
3310      void Region::UpdateChunks() {      void Region::UpdateChunks(progress_t* pProgress) {
3311          // in the gig format we don't care about the Region's sample reference          // in the gig format we don't care about the Region's sample reference
3312          // but we still have to provide some existing one to not corrupt the          // but we still have to provide some existing one to not corrupt the
3313          // file, so to avoid the latter we simply always assign the sample of          // file, so to avoid the latter we simply always assign the sample of
# Line 2501  namespace { Line 3315  namespace {
3315          pSample = pDimensionRegions[0]->pSample;          pSample = pDimensionRegions[0]->pSample;
3316    
3317          // first update base class's chunks          // first update base class's chunks
3318          DLS::Region::UpdateChunks();          DLS::Region::UpdateChunks(pProgress);
3319    
3320          // update dimension region's chunks          // update dimension region's chunks
3321          for (int i = 0; i < DimensionRegions; i++) {          for (int i = 0; i < DimensionRegions; i++) {
3322              pDimensionRegions[i]->UpdateChunks();              pDimensionRegions[i]->UpdateChunks(pProgress);
3323          }          }
3324    
3325          File* pFile = (File*) GetParent()->GetParent();          File* pFile = (File*) GetParent()->GetParent();
3326          bool version3 = pFile->pVersion && pFile->pVersion->major == 3;          bool versiongt2 = pFile->pVersion && pFile->pVersion->major > 2;
3327          const int iMaxDimensions =  version3 ? 8 : 5;          const int iMaxDimensions =  versiongt2 ? 8 : 5;
3328          const int iMaxDimensionRegions = version3 ? 256 : 32;          const int iMaxDimensionRegions = versiongt2 ? 256 : 32;
3329    
3330          // make sure '3lnk' chunk exists          // make sure '3lnk' chunk exists
3331          RIFF::Chunk* _3lnk = pCkRegion->GetSubChunk(CHUNK_ID_3LNK);          RIFF::Chunk* _3lnk = pCkRegion->GetSubChunk(CHUNK_ID_3LNK);
3332          if (!_3lnk) {          if (!_3lnk) {
3333              const int _3lnkChunkSize = version3 ? 1092 : 172;              const int _3lnkChunkSize = versiongt2 ? 1092 : 172;
3334              _3lnk = pCkRegion->AddSubChunk(CHUNK_ID_3LNK, _3lnkChunkSize);              _3lnk = pCkRegion->AddSubChunk(CHUNK_ID_3LNK, _3lnkChunkSize);
3335              memset(_3lnk->LoadChunkData(), 0, _3lnkChunkSize);              memset(_3lnk->LoadChunkData(), 0, _3lnkChunkSize);
3336    
3337              // move 3prg to last position              // move 3prg to last position
3338              pCkRegion->MoveSubChunk(pCkRegion->GetSubList(LIST_TYPE_3PRG), 0);              pCkRegion->MoveSubChunk(pCkRegion->GetSubList(LIST_TYPE_3PRG), (RIFF::Chunk*)NULL);
3339          }          }
3340    
3341          // update dimension definitions in '3lnk' chunk          // update dimension definitions in '3lnk' chunk
# Line 2540  namespace { Line 3354  namespace {
3354          }          }
3355    
3356          // update wave pool table in '3lnk' chunk          // update wave pool table in '3lnk' chunk
3357          const int iWavePoolOffset = version3 ? 68 : 44;          const int iWavePoolOffset = versiongt2 ? 68 : 44;
3358          for (uint i = 0; i < iMaxDimensionRegions; i++) {          for (uint i = 0; i < iMaxDimensionRegions; i++) {
3359              int iWaveIndex = -1;              int iWaveIndex = -1;
3360              if (i < DimensionRegions) {              if (i < DimensionRegions) {
# Line 2595  namespace { Line 3409  namespace {
3409          int step = 1;          int step = 1;
3410          for (int i = 0 ; i < veldim ; i++) step <<= pDimensionDefinitions[i].bits;          for (int i = 0 ; i < veldim ; i++) step <<= pDimensionDefinitions[i].bits;
3411          int skipveldim = (step << pDimensionDefinitions[veldim].bits) - step;          int skipveldim = (step << pDimensionDefinitions[veldim].bits) - step;
         int end = step * pDimensionDefinitions[veldim].zones;  
3412    
3413          // loop through all dimension regions for all dimensions except the velocity dimension          // loop through all dimension regions for all dimensions except the velocity dimension
3414          int dim[8] = { 0 };          int dim[8] = { 0 };
3415          for (int i = 0 ; i < DimensionRegions ; i++) {          for (int i = 0 ; i < DimensionRegions ; i++) {
3416                const int end = i + step * pDimensionDefinitions[veldim].zones;
3417    
3418                // create a velocity table for all cases where the velocity zone is zero
3419              if (pDimensionRegions[i]->DimensionUpperLimits[veldim] ||              if (pDimensionRegions[i]->DimensionUpperLimits[veldim] ||
3420                  pDimensionRegions[i]->VelocityUpperLimit) {                  pDimensionRegions[i]->VelocityUpperLimit) {
3421                  // create the velocity table                  // create the velocity table
# Line 2631  namespace { Line 3446  namespace {
3446                  }                  }
3447              }              }
3448    
3449                // jump to the next case where the velocity zone is zero
3450              int j;              int j;
3451              int shift = 0;              int shift = 0;
3452              for (j = 0 ; j < Dimensions ; j++) {              for (j = 0 ; j < Dimensions ; j++) {
# Line 2667  namespace { Line 3483  namespace {
3483       *                        dimension bits limit is violated       *                        dimension bits limit is violated
3484       */       */
3485      void Region::AddDimension(dimension_def_t* pDimDef) {      void Region::AddDimension(dimension_def_t* pDimDef) {
3486            // some initial sanity checks of the given dimension definition
3487            if (pDimDef->zones < 2)
3488                throw gig::Exception("Could not add new dimension, amount of requested zones must always be at least two");
3489            if (pDimDef->bits < 1)
3490                throw gig::Exception("Could not add new dimension, amount of requested requested zone bits must always be at least one");
3491            if (pDimDef->dimension == dimension_samplechannel) {
3492                if (pDimDef->zones != 2)
3493                    throw gig::Exception("Could not add new 'sample channel' dimensions, the requested amount of zones must always be 2 for this dimension type");
3494                if (pDimDef->bits != 1)
3495                    throw gig::Exception("Could not add new 'sample channel' dimensions, the requested amount of zone bits must always be 1 for this dimension type");
3496            }
3497    
3498          // check if max. amount of dimensions reached          // check if max. amount of dimensions reached
3499          File* file = (File*) GetParent()->GetParent();          File* file = (File*) GetParent()->GetParent();
3500          const int iMaxDimensions = (file->pVersion && file->pVersion->major == 3) ? 8 : 5;          const int iMaxDimensions = (file->pVersion && file->pVersion->major > 2) ? 8 : 5;
3501          if (Dimensions >= iMaxDimensions)          if (Dimensions >= iMaxDimensions)
3502              throw gig::Exception("Could not add new dimension, max. amount of " + ToString(iMaxDimensions) + " dimensions already reached");              throw gig::Exception("Could not add new dimension, max. amount of " + ToString(iMaxDimensions) + " dimensions already reached");
3503          // check if max. amount of dimension bits reached          // check if max. amount of dimension bits reached
# Line 2842  namespace { Line 3670  namespace {
3670          if (pDimDef->dimension == dimension_layer) Layers = 1;          if (pDimDef->dimension == dimension_layer) Layers = 1;
3671      }      }
3672    
3673        /** @brief Delete one split zone of a dimension (decrement zone amount).
3674         *
3675         * Instead of deleting an entire dimensions, this method will only delete
3676         * one particular split zone given by @a zone of the Region's dimension
3677         * given by @a type. So this method will simply decrement the amount of
3678         * zones by one of the dimension in question. To be able to do that, the
3679         * respective dimension must exist on this Region and it must have at least
3680         * 3 zones. All DimensionRegion objects associated with the zone will be
3681         * deleted.
3682         *
3683         * @param type - identifies the dimension where a zone shall be deleted
3684         * @param zone - index of the dimension split zone that shall be deleted
3685         * @throws gig::Exception if requested zone could not be deleted
3686         */
3687        void Region::DeleteDimensionZone(dimension_t type, int zone) {
3688            dimension_def_t* oldDef = GetDimensionDefinition(type);
3689            if (!oldDef)
3690                throw gig::Exception("Could not delete dimension zone, no such dimension of given type");
3691            if (oldDef->zones <= 2)
3692                throw gig::Exception("Could not delete dimension zone, because it would end up with only one zone.");
3693            if (zone < 0 || zone >= oldDef->zones)
3694                throw gig::Exception("Could not delete dimension zone, requested zone index out of bounds.");
3695    
3696            const int newZoneSize = oldDef->zones - 1;
3697    
3698            // create a temporary Region which just acts as a temporary copy
3699            // container and will be deleted at the end of this function and will
3700            // also not be visible through the API during this process
3701            gig::Region* tempRgn = NULL;
3702            {
3703                // adding these temporary chunks is probably not even necessary
3704                Instrument* instr = static_cast<Instrument*>(GetParent());
3705                RIFF::List* pCkInstrument = instr->pCkInstrument;
3706                RIFF::List* lrgn = pCkInstrument->GetSubList(LIST_TYPE_LRGN);
3707                if (!lrgn)  lrgn = pCkInstrument->AddSubList(LIST_TYPE_LRGN);
3708                RIFF::List* rgn = lrgn->AddSubList(LIST_TYPE_RGN);
3709                tempRgn = new Region(instr, rgn);
3710            }
3711    
3712            // copy this region's dimensions (with already the dimension split size
3713            // requested by the arguments of this method call) to the temporary
3714            // region, and don't use Region::CopyAssign() here for this task, since
3715            // it would also alter fast lookup helper variables here and there
3716            dimension_def_t newDef;
3717            for (int i = 0; i < Dimensions; ++i) {
3718                dimension_def_t def = pDimensionDefinitions[i]; // copy, don't reference
3719                // is this the dimension requested by the method arguments? ...
3720                if (def.dimension == type) { // ... if yes, decrement zone amount by one
3721                    def.zones = newZoneSize;
3722                    if ((1 << (def.bits - 1)) == def.zones) def.bits--;
3723                    newDef = def;
3724                }
3725                tempRgn->AddDimension(&def);
3726            }
3727    
3728            // find the dimension index in the tempRegion which is the dimension
3729            // type passed to this method (paranoidly expecting different order)
3730            int tempReducedDimensionIndex = -1;
3731            for (int d = 0; d < tempRgn->Dimensions; ++d) {
3732                if (tempRgn->pDimensionDefinitions[d].dimension == type) {
3733                    tempReducedDimensionIndex = d;
3734                    break;
3735                }
3736            }
3737    
3738            // copy dimension regions from this region to the temporary region
3739            for (int iDst = 0; iDst < 256; ++iDst) {
3740                DimensionRegion* dstDimRgn = tempRgn->pDimensionRegions[iDst];
3741                if (!dstDimRgn) continue;
3742                std::map<dimension_t,int> dimCase;
3743                bool isValidZone = true;
3744                for (int d = 0, baseBits = 0; d < tempRgn->Dimensions; ++d) {
3745                    const int dstBits = tempRgn->pDimensionDefinitions[d].bits;
3746                    dimCase[tempRgn->pDimensionDefinitions[d].dimension] =
3747                        (iDst >> baseBits) & ((1 << dstBits) - 1);
3748                    baseBits += dstBits;
3749                    // there are also DimensionRegion objects of unused zones, skip them
3750                    if (dimCase[tempRgn->pDimensionDefinitions[d].dimension] >= tempRgn->pDimensionDefinitions[d].zones) {
3751                        isValidZone = false;
3752                        break;
3753                    }
3754                }
3755                if (!isValidZone) continue;
3756                // a bit paranoid: cope with the chance that the dimensions would
3757                // have different order in source and destination regions
3758                const bool isLastZone = (dimCase[type] == newZoneSize - 1);
3759                if (dimCase[type] >= zone) dimCase[type]++;
3760                DimensionRegion* srcDimRgn = GetDimensionRegionByBit(dimCase);
3761                dstDimRgn->CopyAssign(srcDimRgn);
3762                // if this is the upper most zone of the dimension passed to this
3763                // method, then correct (raise) its upper limit to 127
3764                if (newDef.split_type == split_type_normal && isLastZone)
3765                    dstDimRgn->DimensionUpperLimits[tempReducedDimensionIndex] = 127;
3766            }
3767    
3768            // now tempRegion's dimensions and DimensionRegions basically reflect
3769            // what we wanted to get for this actual Region here, so we now just
3770            // delete and recreate the dimension in question with the new amount
3771            // zones and then copy back from tempRegion      
3772            DeleteDimension(oldDef);
3773            AddDimension(&newDef);
3774            for (int iSrc = 0; iSrc < 256; ++iSrc) {
3775                DimensionRegion* srcDimRgn = tempRgn->pDimensionRegions[iSrc];
3776                if (!srcDimRgn) continue;
3777                std::map<dimension_t,int> dimCase;
3778                for (int d = 0, baseBits = 0; d < tempRgn->Dimensions; ++d) {
3779                    const int srcBits = tempRgn->pDimensionDefinitions[d].bits;
3780                    dimCase[tempRgn->pDimensionDefinitions[d].dimension] =
3781                        (iSrc >> baseBits) & ((1 << srcBits) - 1);
3782                    baseBits += srcBits;
3783                }
3784                // a bit paranoid: cope with the chance that the dimensions would
3785                // have different order in source and destination regions
3786                DimensionRegion* dstDimRgn = GetDimensionRegionByBit(dimCase);
3787                if (!dstDimRgn) continue;
3788                dstDimRgn->CopyAssign(srcDimRgn);
3789            }
3790    
3791            // delete temporary region
3792            delete tempRgn;
3793    
3794            UpdateVelocityTable();
3795        }
3796    
3797        /** @brief Divide split zone of a dimension in two (increment zone amount).
3798         *
3799         * This will increment the amount of zones for the dimension (given by
3800         * @a type) by one. It will do so by dividing the zone (given by @a zone)
3801         * in the middle of its zone range in two. So the two zones resulting from
3802         * the zone being splitted, will be an equivalent copy regarding all their
3803         * articulation informations and sample reference. The two zones will only
3804         * differ in their zone's upper limit
3805         * (DimensionRegion::DimensionUpperLimits).
3806         *
3807         * @param type - identifies the dimension where a zone shall be splitted
3808         * @param zone - index of the dimension split zone that shall be splitted
3809         * @throws gig::Exception if requested zone could not be splitted
3810         */
3811        void Region::SplitDimensionZone(dimension_t type, int zone) {
3812            dimension_def_t* oldDef = GetDimensionDefinition(type);
3813            if (!oldDef)
3814                throw gig::Exception("Could not split dimension zone, no such dimension of given type");
3815            if (zone < 0 || zone >= oldDef->zones)
3816                throw gig::Exception("Could not split dimension zone, requested zone index out of bounds.");
3817    
3818            const int newZoneSize = oldDef->zones + 1;
3819    
3820            // create a temporary Region which just acts as a temporary copy
3821            // container and will be deleted at the end of this function and will
3822            // also not be visible through the API during this process
3823            gig::Region* tempRgn = NULL;
3824            {
3825                // adding these temporary chunks is probably not even necessary
3826                Instrument* instr = static_cast<Instrument*>(GetParent());
3827                RIFF::List* pCkInstrument = instr->pCkInstrument;
3828                RIFF::List* lrgn = pCkInstrument->GetSubList(LIST_TYPE_LRGN);
3829                if (!lrgn)  lrgn = pCkInstrument->AddSubList(LIST_TYPE_LRGN);
3830                RIFF::List* rgn = lrgn->AddSubList(LIST_TYPE_RGN);
3831                tempRgn = new Region(instr, rgn);
3832            }
3833    
3834            // copy this region's dimensions (with already the dimension split size
3835            // requested by the arguments of this method call) to the temporary
3836            // region, and don't use Region::CopyAssign() here for this task, since
3837            // it would also alter fast lookup helper variables here and there
3838            dimension_def_t newDef;
3839            for (int i = 0; i < Dimensions; ++i) {
3840                dimension_def_t def = pDimensionDefinitions[i]; // copy, don't reference
3841                // is this the dimension requested by the method arguments? ...
3842                if (def.dimension == type) { // ... if yes, increment zone amount by one
3843                    def.zones = newZoneSize;
3844                    if ((1 << oldDef->bits) < newZoneSize) def.bits++;
3845                    newDef = def;
3846                }
3847                tempRgn->AddDimension(&def);
3848            }
3849    
3850            // find the dimension index in the tempRegion which is the dimension
3851            // type passed to this method (paranoidly expecting different order)
3852            int tempIncreasedDimensionIndex = -1;
3853            for (int d = 0; d < tempRgn->Dimensions; ++d) {
3854                if (tempRgn->pDimensionDefinitions[d].dimension == type) {
3855                    tempIncreasedDimensionIndex = d;
3856                    break;
3857                }
3858            }
3859    
3860            // copy dimension regions from this region to the temporary region
3861            for (int iSrc = 0; iSrc < 256; ++iSrc) {
3862                DimensionRegion* srcDimRgn = pDimensionRegions[iSrc];
3863                if (!srcDimRgn) continue;
3864                std::map<dimension_t,int> dimCase;
3865                bool isValidZone = true;
3866                for (int d = 0, baseBits = 0; d < Dimensions; ++d) {
3867                    const int srcBits = pDimensionDefinitions[d].bits;
3868                    dimCase[pDimensionDefinitions[d].dimension] =
3869                        (iSrc >> baseBits) & ((1 << srcBits) - 1);
3870                    // there are also DimensionRegion objects for unused zones, skip them
3871                    if (dimCase[pDimensionDefinitions[d].dimension] >= pDimensionDefinitions[d].zones) {
3872                        isValidZone = false;
3873                        break;
3874                    }
3875                    baseBits += srcBits;
3876                }
3877                if (!isValidZone) continue;
3878                // a bit paranoid: cope with the chance that the dimensions would
3879                // have different order in source and destination regions            
3880                if (dimCase[type] > zone) dimCase[type]++;
3881                DimensionRegion* dstDimRgn = tempRgn->GetDimensionRegionByBit(dimCase);
3882                dstDimRgn->CopyAssign(srcDimRgn);
3883                // if this is the requested zone to be splitted, then also copy
3884                // the source DimensionRegion to the newly created target zone
3885                // and set the old zones upper limit lower
3886                if (dimCase[type] == zone) {
3887                    // lower old zones upper limit
3888                    if (newDef.split_type == split_type_normal) {
3889                        const int high =
3890                            dstDimRgn->DimensionUpperLimits[tempIncreasedDimensionIndex];
3891                        int low = 0;
3892                        if (zone > 0) {
3893                            std::map<dimension_t,int> lowerCase = dimCase;
3894                            lowerCase[type]--;
3895                            DimensionRegion* dstDimRgnLow = tempRgn->GetDimensionRegionByBit(lowerCase);
3896                            low = dstDimRgnLow->DimensionUpperLimits[tempIncreasedDimensionIndex];
3897                        }
3898                        dstDimRgn->DimensionUpperLimits[tempIncreasedDimensionIndex] = low + (high - low) / 2;
3899                    }
3900                    // fill the newly created zone of the divided zone as well
3901                    dimCase[type]++;
3902                    dstDimRgn = tempRgn->GetDimensionRegionByBit(dimCase);
3903                    dstDimRgn->CopyAssign(srcDimRgn);
3904                }
3905            }
3906    
3907            // now tempRegion's dimensions and DimensionRegions basically reflect
3908            // what we wanted to get for this actual Region here, so we now just
3909            // delete and recreate the dimension in question with the new amount
3910            // zones and then copy back from tempRegion      
3911            DeleteDimension(oldDef);
3912            AddDimension(&newDef);
3913            for (int iSrc = 0; iSrc < 256; ++iSrc) {
3914                DimensionRegion* srcDimRgn = tempRgn->pDimensionRegions[iSrc];
3915                if (!srcDimRgn) continue;
3916                std::map<dimension_t,int> dimCase;
3917                for (int d = 0, baseBits = 0; d < tempRgn->Dimensions; ++d) {
3918                    const int srcBits = tempRgn->pDimensionDefinitions[d].bits;
3919                    dimCase[tempRgn->pDimensionDefinitions[d].dimension] =
3920                        (iSrc >> baseBits) & ((1 << srcBits) - 1);
3921                    baseBits += srcBits;
3922                }
3923                // a bit paranoid: cope with the chance that the dimensions would
3924                // have different order in source and destination regions
3925                DimensionRegion* dstDimRgn = GetDimensionRegionByBit(dimCase);
3926                if (!dstDimRgn) continue;
3927                dstDimRgn->CopyAssign(srcDimRgn);
3928            }
3929    
3930            // delete temporary region
3931            delete tempRgn;
3932    
3933            UpdateVelocityTable();
3934        }
3935    
3936        /** @brief Change type of an existing dimension.
3937         *
3938         * Alters the dimension type of a dimension already existing on this
3939         * region. If there is currently no dimension on this Region with type
3940         * @a oldType, then this call with throw an Exception. Likewise there are
3941         * cases where the requested dimension type cannot be performed. For example
3942         * if the new dimension type shall be gig::dimension_samplechannel, and the
3943         * current dimension has more than 2 zones. In such cases an Exception is
3944         * thrown as well.
3945         *
3946         * @param oldType - identifies the existing dimension to be changed
3947         * @param newType - to which dimension type it should be changed to
3948         * @throws gig::Exception if requested change cannot be performed
3949         */
3950        void Region::SetDimensionType(dimension_t oldType, dimension_t newType) {
3951            if (oldType == newType) return;
3952            dimension_def_t* def = GetDimensionDefinition(oldType);
3953            if (!def)
3954                throw gig::Exception("No dimension with provided old dimension type exists on this region");
3955            if (newType == dimension_samplechannel && def->zones != 2)
3956                throw gig::Exception("Cannot change to dimension type 'sample channel', because existing dimension does not have 2 zones");
3957            if (GetDimensionDefinition(newType))
3958                throw gig::Exception("There is already a dimension with requested new dimension type on this region");
3959            def->dimension  = newType;
3960            def->split_type = __resolveSplitType(newType);
3961        }
3962    
3963        DimensionRegion* Region::GetDimensionRegionByBit(const std::map<dimension_t,int>& DimCase) {
3964            uint8_t bits[8] = {};
3965            for (std::map<dimension_t,int>::const_iterator it = DimCase.begin();
3966                 it != DimCase.end(); ++it)
3967            {
3968                for (int d = 0; d < Dimensions; ++d) {
3969                    if (pDimensionDefinitions[d].dimension == it->first) {
3970                        bits[d] = it->second;
3971                        goto nextDimCaseSlice;
3972                    }
3973                }
3974                assert(false); // do crash ... too harsh maybe ? ignore it instead ?
3975                nextDimCaseSlice:
3976                ; // noop
3977            }
3978            return GetDimensionRegionByBit(bits);
3979        }
3980    
3981        /**
3982         * Searches in the current Region for a dimension of the given dimension
3983         * type and returns the precise configuration of that dimension in this
3984         * Region.
3985         *
3986         * @param type - dimension type of the sought dimension
3987         * @returns dimension definition or NULL if there is no dimension with
3988         *          sought type in this Region.
3989         */
3990        dimension_def_t* Region::GetDimensionDefinition(dimension_t type) {
3991            for (int i = 0; i < Dimensions; ++i)
3992                if (pDimensionDefinitions[i].dimension == type)
3993                    return &pDimensionDefinitions[i];
3994            return NULL;
3995        }
3996    
3997      Region::~Region() {      Region::~Region() {
3998          for (int i = 0; i < 256; i++) {          for (int i = 0; i < 256; i++) {
3999              if (pDimensionRegions[i]) delete pDimensionRegions[i];              if (pDimensionRegions[i]) delete pDimensionRegions[i];
# Line 2869  namespace { Line 4021  namespace {
4021      DimensionRegion* Region::GetDimensionRegionByValue(const uint DimValues[8]) {      DimensionRegion* Region::GetDimensionRegionByValue(const uint DimValues[8]) {
4022          uint8_t bits;          uint8_t bits;
4023          int veldim = -1;          int veldim = -1;
4024          int velbitpos;          int velbitpos = 0;
4025          int bitpos = 0;          int bitpos = 0;
4026          int dimregidx = 0;          int dimregidx = 0;
4027          for (uint i = 0; i < Dimensions; i++) {          for (uint i = 0; i < Dimensions; i++) {
# Line 2899  namespace { Line 4051  namespace {
4051              }              }
4052              bitpos += pDimensionDefinitions[i].bits;              bitpos += pDimensionDefinitions[i].bits;
4053          }          }
4054          DimensionRegion* dimreg = pDimensionRegions[dimregidx];          DimensionRegion* dimreg = pDimensionRegions[dimregidx & 255];
4055            if (!dimreg) return NULL;
4056          if (veldim != -1) {          if (veldim != -1) {
4057              // (dimreg is now the dimension region for the lowest velocity)              // (dimreg is now the dimension region for the lowest velocity)
4058              if (dimreg->VelocityTable) // custom defined zone ranges              if (dimreg->VelocityTable) // custom defined zone ranges
4059                  bits = dimreg->VelocityTable[DimValues[veldim]];                  bits = dimreg->VelocityTable[DimValues[veldim] & 127];
4060              else // normal split type              else // normal split type
4061                  bits = uint8_t(DimValues[veldim] / pDimensionDefinitions[veldim].zone_size);                  bits = uint8_t((DimValues[veldim] & 127) / pDimensionDefinitions[veldim].zone_size);
4062    
4063              dimregidx |= bits << velbitpos;              const uint8_t limiter_mask = (1 << pDimensionDefinitions[veldim].bits) - 1;
4064              dimreg = pDimensionRegions[dimregidx];              dimregidx |= (bits & limiter_mask) << velbitpos;
4065                dimreg = pDimensionRegions[dimregidx & 255];
4066          }          }
4067          return dimreg;          return dimreg;
4068      }      }
4069    
4070        int Region::GetDimensionRegionIndexByValue(const uint DimValues[8]) {
4071            uint8_t bits;
4072            int veldim = -1;
4073            int velbitpos = 0;
4074            int bitpos = 0;
4075            int dimregidx = 0;
4076            for (uint i = 0; i < Dimensions; i++) {
4077                if (pDimensionDefinitions[i].dimension == dimension_velocity) {
4078                    // the velocity dimension must be handled after the other dimensions
4079                    veldim = i;
4080                    velbitpos = bitpos;
4081                } else {
4082                    switch (pDimensionDefinitions[i].split_type) {
4083                        case split_type_normal:
4084                            if (pDimensionRegions[0]->DimensionUpperLimits[i]) {
4085                                // gig3: all normal dimensions (not just the velocity dimension) have custom zone ranges
4086                                for (bits = 0 ; bits < pDimensionDefinitions[i].zones ; bits++) {
4087                                    if (DimValues[i] <= pDimensionRegions[bits << bitpos]->DimensionUpperLimits[i]) break;
4088                                }
4089                            } else {
4090                                // gig2: evenly sized zones
4091                                bits = uint8_t(DimValues[i] / pDimensionDefinitions[i].zone_size);
4092                            }
4093                            break;
4094                        case split_type_bit: // the value is already the sought dimension bit number
4095                            const uint8_t limiter_mask = (0xff << pDimensionDefinitions[i].bits) ^ 0xff;
4096                            bits = DimValues[i] & limiter_mask; // just make sure the value doesn't use more bits than allowed
4097                            break;
4098                    }
4099                    dimregidx |= bits << bitpos;
4100                }
4101                bitpos += pDimensionDefinitions[i].bits;
4102            }
4103            dimregidx &= 255;
4104            DimensionRegion* dimreg = pDimensionRegions[dimregidx];
4105            if (!dimreg) return -1;
4106            if (veldim != -1) {
4107                // (dimreg is now the dimension region for the lowest velocity)
4108                if (dimreg->VelocityTable) // custom defined zone ranges
4109                    bits = dimreg->VelocityTable[DimValues[veldim] & 127];
4110                else // normal split type
4111                    bits = uint8_t((DimValues[veldim] & 127) / pDimensionDefinitions[veldim].zone_size);
4112    
4113                const uint8_t limiter_mask = (1 << pDimensionDefinitions[veldim].bits) - 1;
4114                dimregidx |= (bits & limiter_mask) << velbitpos;
4115                dimregidx &= 255;
4116            }
4117            return dimregidx;
4118        }
4119    
4120      /**      /**
4121       * Returns the appropriate DimensionRegion for the given dimension bit       * Returns the appropriate DimensionRegion for the given dimension bit
4122       * numbers (zone index). You usually use <i>GetDimensionRegionByValue</i>       * numbers (zone index). You usually use <i>GetDimensionRegionByValue</i>
# Line 2951  namespace { Line 4155  namespace {
4155          if ((int32_t)WavePoolTableIndex == -1) return NULL;          if ((int32_t)WavePoolTableIndex == -1) return NULL;
4156          File* file = (File*) GetParent()->GetParent();          File* file = (File*) GetParent()->GetParent();
4157          if (!file->pWavePoolTable) return NULL;          if (!file->pWavePoolTable) return NULL;
4158          unsigned long soughtoffset = file->pWavePoolTable[WavePoolTableIndex];          if (WavePoolTableIndex + 1 > file->WavePoolCount) return NULL;
4159          unsigned long soughtfileno = file->pWavePoolTableHi[WavePoolTableIndex];          // for new files or files >= 2 GB use 64 bit wave pool offsets
4160          Sample* sample = file->GetFirstSample(pProgress);          if (file->pRIFF->IsNew() || (file->pRIFF->GetCurrentFileSize() >> 31)) {
4161          while (sample) {              // use 64 bit wave pool offsets (treating this as large file)
4162              if (sample->ulWavePoolOffset == soughtoffset &&              uint64_t soughtoffset =
4163                  sample->FileNo == soughtfileno) return static_cast<gig::Sample*>(sample);                  uint64_t(file->pWavePoolTable[WavePoolTableIndex]) |
4164              sample = file->GetNextSample();                  uint64_t(file->pWavePoolTableHi[WavePoolTableIndex]) << 32;
4165                Sample* sample = file->GetFirstSample(pProgress);
4166                while (sample) {
4167                    if (sample->ullWavePoolOffset == soughtoffset)
4168                        return static_cast<gig::Sample*>(sample);
4169                    sample = file->GetNextSample();
4170                }
4171            } else {
4172                // use extension files and 32 bit wave pool offsets
4173                file_offset_t soughtoffset = file->pWavePoolTable[WavePoolTableIndex];
4174                file_offset_t soughtfileno = file->pWavePoolTableHi[WavePoolTableIndex];
4175                Sample* sample = file->GetFirstSample(pProgress);
4176                while (sample) {
4177                    if (sample->ullWavePoolOffset == soughtoffset &&
4178                        sample->FileNo == soughtfileno) return static_cast<gig::Sample*>(sample);
4179                    sample = file->GetNextSample();
4180                }
4181          }          }
4182          return NULL;          return NULL;
4183      }      }
# Line 2972  namespace { Line 4192  namespace {
4192       * @param orig - original Region object to be copied from       * @param orig - original Region object to be copied from
4193       */       */
4194      void Region::CopyAssign(const Region* orig) {      void Region::CopyAssign(const Region* orig) {
4195            CopyAssign(orig, NULL);
4196        }
4197        
4198        /**
4199         * Make a (semi) deep copy of the Region object given by @a orig and
4200         * assign it to this object
4201         *
4202         * @param mSamples - crosslink map between the foreign file's samples and
4203         *                   this file's samples
4204         */
4205        void Region::CopyAssign(const Region* orig, const std::map<Sample*,Sample*>* mSamples) {
4206          // handle base classes          // handle base classes
4207          DLS::Region::CopyAssign(orig);          DLS::Region::CopyAssign(orig);
4208                    
4209            if (mSamples && mSamples->count((gig::Sample*)orig->pSample)) {
4210                pSample = mSamples->find((gig::Sample*)orig->pSample)->second;
4211            }
4212            
4213          // handle own member variables          // handle own member variables
4214          for (int i = Dimensions - 1; i >= 0; --i) {          for (int i = Dimensions - 1; i >= 0; --i) {
4215              DeleteDimension(&pDimensionDefinitions[i]);              DeleteDimension(&pDimensionDefinitions[i]);
# Line 2989  namespace { Line 4224  namespace {
4224          for (int i = 0; i < 256; i++) {          for (int i = 0; i < 256; i++) {
4225              if (pDimensionRegions[i] && orig->pDimensionRegions[i]) {              if (pDimensionRegions[i] && orig->pDimensionRegions[i]) {
4226                  pDimensionRegions[i]->CopyAssign(                  pDimensionRegions[i]->CopyAssign(
4227                      orig->pDimensionRegions[i]                      orig->pDimensionRegions[i],
4228                        mSamples
4229                  );                  );
4230              }              }
4231          }          }
# Line 3000  namespace { Line 4236  namespace {
4236  // *************** MidiRule ***************  // *************** MidiRule ***************
4237  // *  // *
4238    
4239  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger(RIFF::Chunk* _3ewg) {      MidiRuleCtrlTrigger::MidiRuleCtrlTrigger(RIFF::Chunk* _3ewg) {
4240      _3ewg->SetPos(36);          _3ewg->SetPos(36);
4241      Triggers = _3ewg->ReadUint8();          Triggers = _3ewg->ReadUint8();
4242      _3ewg->SetPos(40);          _3ewg->SetPos(40);
4243      ControllerNumber = _3ewg->ReadUint8();          ControllerNumber = _3ewg->ReadUint8();
4244      _3ewg->SetPos(46);          _3ewg->SetPos(46);
4245      for (int i = 0 ; i < Triggers ; i++) {          for (int i = 0 ; i < Triggers ; i++) {
4246          pTriggers[i].TriggerPoint = _3ewg->ReadUint8();              pTriggers[i].TriggerPoint = _3ewg->ReadUint8();
4247          pTriggers[i].Descending = _3ewg->ReadUint8();              pTriggers[i].Descending = _3ewg->ReadUint8();
4248          pTriggers[i].VelSensitivity = _3ewg->ReadUint8();              pTriggers[i].VelSensitivity = _3ewg->ReadUint8();
4249          pTriggers[i].Key = _3ewg->ReadUint8();              pTriggers[i].Key = _3ewg->ReadUint8();
4250          pTriggers[i].NoteOff = _3ewg->ReadUint8();              pTriggers[i].NoteOff = _3ewg->ReadUint8();
4251          pTriggers[i].Velocity = _3ewg->ReadUint8();              pTriggers[i].Velocity = _3ewg->ReadUint8();
4252          pTriggers[i].OverridePedal = _3ewg->ReadUint8();              pTriggers[i].OverridePedal = _3ewg->ReadUint8();
4253          _3ewg->ReadUint8();              _3ewg->ReadUint8();
4254            }
4255        }
4256    
4257        MidiRuleCtrlTrigger::MidiRuleCtrlTrigger() :
4258            ControllerNumber(0),
4259            Triggers(0) {
4260        }
4261    
4262        void MidiRuleCtrlTrigger::UpdateChunks(uint8_t* pData) const {
4263            pData[32] = 4;
4264            pData[33] = 16;
4265            pData[36] = Triggers;
4266            pData[40] = ControllerNumber;
4267            for (int i = 0 ; i < Triggers ; i++) {
4268                pData[46 + i * 8] = pTriggers[i].TriggerPoint;
4269                pData[47 + i * 8] = pTriggers[i].Descending;
4270                pData[48 + i * 8] = pTriggers[i].VelSensitivity;
4271                pData[49 + i * 8] = pTriggers[i].Key;
4272                pData[50 + i * 8] = pTriggers[i].NoteOff;
4273                pData[51 + i * 8] = pTriggers[i].Velocity;
4274                pData[52 + i * 8] = pTriggers[i].OverridePedal;
4275            }
4276        }
4277    
4278        MidiRuleLegato::MidiRuleLegato(RIFF::Chunk* _3ewg) {
4279            _3ewg->SetPos(36);
4280            LegatoSamples = _3ewg->ReadUint8(); // always 12
4281            _3ewg->SetPos(40);
4282            BypassUseController = _3ewg->ReadUint8();
4283            BypassKey = _3ewg->ReadUint8();
4284            BypassController = _3ewg->ReadUint8();
4285            ThresholdTime = _3ewg->ReadUint16();
4286            _3ewg->ReadInt16();
4287            ReleaseTime = _3ewg->ReadUint16();
4288            _3ewg->ReadInt16();
4289            KeyRange.low = _3ewg->ReadUint8();
4290            KeyRange.high = _3ewg->ReadUint8();
4291            _3ewg->SetPos(64);
4292            ReleaseTriggerKey = _3ewg->ReadUint8();
4293            AltSustain1Key = _3ewg->ReadUint8();
4294            AltSustain2Key = _3ewg->ReadUint8();
4295        }
4296    
4297        MidiRuleLegato::MidiRuleLegato() :
4298            LegatoSamples(12),
4299            BypassUseController(false),
4300            BypassKey(0),
4301            BypassController(1),
4302            ThresholdTime(20),
4303            ReleaseTime(20),
4304            ReleaseTriggerKey(0),
4305            AltSustain1Key(0),
4306            AltSustain2Key(0)
4307        {
4308            KeyRange.low = KeyRange.high = 0;
4309      }      }
 }  
4310    
4311        void MidiRuleLegato::UpdateChunks(uint8_t* pData) const {
4312            pData[32] = 0;
4313            pData[33] = 16;
4314            pData[36] = LegatoSamples;
4315            pData[40] = BypassUseController;
4316            pData[41] = BypassKey;
4317            pData[42] = BypassController;
4318            store16(&pData[43], ThresholdTime);
4319            store16(&pData[47], ReleaseTime);
4320            pData[51] = KeyRange.low;
4321            pData[52] = KeyRange.high;
4322            pData[64] = ReleaseTriggerKey;
4323            pData[65] = AltSustain1Key;
4324            pData[66] = AltSustain2Key;
4325        }
4326    
4327        MidiRuleAlternator::MidiRuleAlternator(RIFF::Chunk* _3ewg) {
4328            _3ewg->SetPos(36);
4329            Articulations = _3ewg->ReadUint8();
4330            int flags = _3ewg->ReadUint8();
4331            Polyphonic = flags & 8;
4332            Chained = flags & 4;
4333            Selector = (flags & 2) ? selector_controller :
4334                (flags & 1) ? selector_key_switch : selector_none;
4335            Patterns = _3ewg->ReadUint8();
4336            _3ewg->ReadUint8(); // chosen row
4337            _3ewg->ReadUint8(); // unknown
4338            _3ewg->ReadUint8(); // unknown
4339            _3ewg->ReadUint8(); // unknown
4340            KeySwitchRange.low = _3ewg->ReadUint8();
4341            KeySwitchRange.high = _3ewg->ReadUint8();
4342            Controller = _3ewg->ReadUint8();
4343            PlayRange.low = _3ewg->ReadUint8();
4344            PlayRange.high = _3ewg->ReadUint8();
4345    
4346            int n = std::min(int(Articulations), 32);
4347            for (int i = 0 ; i < n ; i++) {
4348                _3ewg->ReadString(pArticulations[i], 32);
4349            }
4350            _3ewg->SetPos(1072);
4351            n = std::min(int(Patterns), 32);
4352            for (int i = 0 ; i < n ; i++) {
4353                _3ewg->ReadString(pPatterns[i].Name, 16);
4354                pPatterns[i].Size = _3ewg->ReadUint8();
4355                _3ewg->Read(&pPatterns[i][0], 1, 32);
4356            }
4357        }
4358    
4359        MidiRuleAlternator::MidiRuleAlternator() :
4360            Articulations(0),
4361            Patterns(0),
4362            Selector(selector_none),
4363            Controller(0),
4364            Polyphonic(false),
4365            Chained(false)
4366        {
4367            PlayRange.low = PlayRange.high = 0;
4368            KeySwitchRange.low = KeySwitchRange.high = 0;
4369        }
4370    
4371        void MidiRuleAlternator::UpdateChunks(uint8_t* pData) const {
4372            pData[32] = 3;
4373            pData[33] = 16;
4374            pData[36] = Articulations;
4375            pData[37] = (Polyphonic ? 8 : 0) | (Chained ? 4 : 0) |
4376                (Selector == selector_controller ? 2 :
4377                 (Selector == selector_key_switch ? 1 : 0));
4378            pData[38] = Patterns;
4379    
4380            pData[43] = KeySwitchRange.low;
4381            pData[44] = KeySwitchRange.high;
4382            pData[45] = Controller;
4383            pData[46] = PlayRange.low;
4384            pData[47] = PlayRange.high;
4385    
4386            char* str = reinterpret_cast<char*>(pData);
4387            int pos = 48;
4388            int n = std::min(int(Articulations), 32);
4389            for (int i = 0 ; i < n ; i++, pos += 32) {
4390                strncpy(&str[pos], pArticulations[i].c_str(), 32);
4391            }
4392    
4393            pos = 1072;
4394            n = std::min(int(Patterns), 32);
4395            for (int i = 0 ; i < n ; i++, pos += 49) {
4396                strncpy(&str[pos], pPatterns[i].Name.c_str(), 16);
4397                pData[pos + 16] = pPatterns[i].Size;
4398                memcpy(&pData[pos + 16], &(pPatterns[i][0]), 32);
4399            }
4400        }
4401    
4402    // *************** Script ***************
4403    // *
4404    
4405        Script::Script(ScriptGroup* group, RIFF::Chunk* ckScri) {
4406            pGroup = group;
4407            pChunk = ckScri;
4408            if (ckScri) { // object is loaded from file ...
4409                // read header
4410                uint32_t headerSize = ckScri->ReadUint32();
4411                Compression = (Compression_t) ckScri->ReadUint32();
4412                Encoding    = (Encoding_t) ckScri->ReadUint32();
4413                Language    = (Language_t) ckScri->ReadUint32();
4414                Bypass      = (Language_t) ckScri->ReadUint32() & 1;
4415                crc         = ckScri->ReadUint32();
4416                uint32_t nameSize = ckScri->ReadUint32();
4417                Name.resize(nameSize, ' ');
4418                for (int i = 0; i < nameSize; ++i)
4419                    Name[i] = ckScri->ReadUint8();
4420                // to handle potential future extensions of the header
4421                ckScri->SetPos(sizeof(int32_t) + headerSize);
4422                // read actual script data
4423                uint32_t scriptSize = uint32_t(ckScri->GetSize() - ckScri->GetPos());
4424                data.resize(scriptSize);
4425                for (int i = 0; i < scriptSize; ++i)
4426                    data[i] = ckScri->ReadUint8();
4427            } else { // this is a new script object, so just initialize it as such ...
4428                Compression = COMPRESSION_NONE;
4429                Encoding = ENCODING_ASCII;
4430                Language = LANGUAGE_NKSP;
4431                Bypass   = false;
4432                crc      = 0;
4433                Name     = "Unnamed Script";
4434            }
4435        }
4436    
4437        Script::~Script() {
4438        }
4439    
4440        /**
4441         * Returns the current script (i.e. as source code) in text format.
4442         */
4443        String Script::GetScriptAsText() {
4444            String s;
4445            s.resize(data.size(), ' ');
4446            memcpy(&s[0], &data[0], data.size());
4447            return s;
4448        }
4449    
4450        /**
4451         * Replaces the current script with the new script source code text given
4452         * by @a text.
4453         *
4454         * @param text - new script source code
4455         */
4456        void Script::SetScriptAsText(const String& text) {
4457            data.resize(text.size());
4458            memcpy(&data[0], &text[0], text.size());
4459        }
4460    
4461        /**
4462         * Apply this script to the respective RIFF chunks. You have to call
4463         * File::Save() to make changes persistent.
4464         *
4465         * Usually there is absolutely no need to call this method explicitly.
4466         * It will be called automatically when File::Save() was called.
4467         *
4468         * @param pProgress - callback function for progress notification
4469         */
4470        void Script::UpdateChunks(progress_t* pProgress) {
4471            // recalculate CRC32 check sum
4472            __resetCRC(crc);
4473            __calculateCRC(&data[0], data.size(), crc);
4474            __finalizeCRC(crc);
4475            // make sure chunk exists and has the required size
4476            const file_offset_t chunkSize = (file_offset_t) 7*sizeof(int32_t) + Name.size() + data.size();
4477            if (!pChunk) pChunk = pGroup->pList->AddSubChunk(CHUNK_ID_SCRI, chunkSize);
4478            else pChunk->Resize(chunkSize);
4479            // fill the chunk data to be written to disk
4480            uint8_t* pData = (uint8_t*) pChunk->LoadChunkData();
4481            int pos = 0;
4482            store32(&pData[pos], uint32_t(6*sizeof(int32_t) + Name.size())); // total header size
4483            pos += sizeof(int32_t);
4484            store32(&pData[pos], Compression);
4485            pos += sizeof(int32_t);
4486            store32(&pData[pos], Encoding);
4487            pos += sizeof(int32_t);
4488            store32(&pData[pos], Language);
4489            pos += sizeof(int32_t);
4490            store32(&pData[pos], Bypass ? 1 : 0);
4491            pos += sizeof(int32_t);
4492            store32(&pData[pos], crc);
4493            pos += sizeof(int32_t);
4494            store32(&pData[pos], (uint32_t) Name.size());
4495            pos += sizeof(int32_t);
4496            for (int i = 0; i < Name.size(); ++i, ++pos)
4497                pData[pos] = Name[i];
4498            for (int i = 0; i < data.size(); ++i, ++pos)
4499                pData[pos] = data[i];
4500        }
4501    
4502        /**
4503         * Move this script from its current ScriptGroup to another ScriptGroup
4504         * given by @a pGroup.
4505         *
4506         * @param pGroup - script's new group
4507         */
4508        void Script::SetGroup(ScriptGroup* pGroup) {
4509            if (this->pGroup == pGroup) return;
4510            if (pChunk)
4511                pChunk->GetParent()->MoveSubChunk(pChunk, pGroup->pList);
4512            this->pGroup = pGroup;
4513        }
4514    
4515        /**
4516         * Returns the script group this script currently belongs to. Each script
4517         * is a member of exactly one ScriptGroup.
4518         *
4519         * @returns current script group
4520         */
4521        ScriptGroup* Script::GetGroup() const {
4522            return pGroup;
4523        }
4524    
4525        /**
4526         * Make a (semi) deep copy of the Script object given by @a orig
4527         * and assign it to this object. Note: the ScriptGroup this Script
4528         * object belongs to remains untouched by this call.
4529         *
4530         * @param orig - original Script object to be copied from
4531         */
4532        void Script::CopyAssign(const Script* orig) {
4533            Name        = orig->Name;
4534            Compression = orig->Compression;
4535            Encoding    = orig->Encoding;
4536            Language    = orig->Language;
4537            Bypass      = orig->Bypass;
4538            data        = orig->data;
4539        }
4540    
4541        void Script::RemoveAllScriptReferences() {
4542            File* pFile = pGroup->pFile;
4543            for (int i = 0; pFile->GetInstrument(i); ++i) {
4544                Instrument* instr = pFile->GetInstrument(i);
4545                instr->RemoveScript(this);
4546            }
4547        }
4548    
4549    // *************** ScriptGroup ***************
4550    // *
4551    
4552        ScriptGroup::ScriptGroup(File* file, RIFF::List* lstRTIS) {
4553            pFile = file;
4554            pList = lstRTIS;
4555            pScripts = NULL;
4556            if (lstRTIS) {
4557                RIFF::Chunk* ckName = lstRTIS->GetSubChunk(CHUNK_ID_LSNM);
4558                ::LoadString(ckName, Name);
4559            } else {
4560                Name = "Default Group";
4561            }
4562        }
4563    
4564        ScriptGroup::~ScriptGroup() {
4565            if (pScripts) {
4566                std::list<Script*>::iterator iter = pScripts->begin();
4567                std::list<Script*>::iterator end  = pScripts->end();
4568                while (iter != end) {
4569                    delete *iter;
4570                    ++iter;
4571                }
4572                delete pScripts;
4573            }
4574        }
4575    
4576        /**
4577         * Apply this script group to the respective RIFF chunks. You have to call
4578         * File::Save() to make changes persistent.
4579         *
4580         * Usually there is absolutely no need to call this method explicitly.
4581         * It will be called automatically when File::Save() was called.
4582         *
4583         * @param pProgress - callback function for progress notification
4584         */
4585        void ScriptGroup::UpdateChunks(progress_t* pProgress) {
4586            if (pScripts) {
4587                if (!pList)
4588                    pList = pFile->pRIFF->GetSubList(LIST_TYPE_3LS)->AddSubList(LIST_TYPE_RTIS);
4589    
4590                // now store the name of this group as <LSNM> chunk as subchunk of the <RTIS> list chunk
4591                ::SaveString(CHUNK_ID_LSNM, NULL, pList, Name, String("Unnamed Group"), true, 64);
4592    
4593                for (std::list<Script*>::iterator it = pScripts->begin();
4594                     it != pScripts->end(); ++it)
4595                {
4596                    (*it)->UpdateChunks(pProgress);
4597                }
4598            }
4599        }
4600    
4601        /** @brief Get instrument script.
4602         *
4603         * Returns the real-time instrument script with the given index.
4604         *
4605         * @param index - number of the sought script (0..n)
4606         * @returns sought script or NULL if there's no such script
4607         */
4608        Script* ScriptGroup::GetScript(uint index) {
4609            if (!pScripts) LoadScripts();
4610            std::list<Script*>::iterator it = pScripts->begin();
4611            for (uint i = 0; it != pScripts->end(); ++i, ++it)
4612                if (i == index) return *it;
4613            return NULL;
4614        }
4615    
4616        /** @brief Add new instrument script.
4617         *
4618         * Adds a new real-time instrument script to the file. The script is not
4619         * actually used / executed unless it is referenced by an instrument to be
4620         * used. This is similar to samples, which you can add to a file, without
4621         * an instrument necessarily actually using it.
4622         *
4623         * You have to call Save() to make this persistent to the file.
4624         *
4625         * @return new empty script object
4626         */
4627        Script* ScriptGroup::AddScript() {
4628            if (!pScripts) LoadScripts();
4629            Script* pScript = new Script(this, NULL);
4630            pScripts->push_back(pScript);
4631            return pScript;
4632        }
4633    
4634        /** @brief Delete an instrument script.
4635         *
4636         * This will delete the given real-time instrument script. References of
4637         * instruments that are using that script will be removed accordingly.
4638         *
4639         * You have to call Save() to make this persistent to the file.
4640         *
4641         * @param pScript - script to delete
4642         * @throws gig::Exception if given script could not be found
4643         */
4644        void ScriptGroup::DeleteScript(Script* pScript) {
4645            if (!pScripts) LoadScripts();
4646            std::list<Script*>::iterator iter =
4647                find(pScripts->begin(), pScripts->end(), pScript);
4648            if (iter == pScripts->end())
4649                throw gig::Exception("Could not delete script, could not find given script");
4650            pScripts->erase(iter);
4651            pScript->RemoveAllScriptReferences();
4652            if (pScript->pChunk)
4653                pScript->pChunk->GetParent()->DeleteSubChunk(pScript->pChunk);
4654            delete pScript;
4655        }
4656    
4657        void ScriptGroup::LoadScripts() {
4658            if (pScripts) return;
4659            pScripts = new std::list<Script*>;
4660            if (!pList) return;
4661    
4662            for (RIFF::Chunk* ck = pList->GetFirstSubChunk(); ck;
4663                 ck = pList->GetNextSubChunk())
4664            {
4665                if (ck->GetChunkID() == CHUNK_ID_SCRI) {
4666                    pScripts->push_back(new Script(this, ck));
4667                }
4668            }
4669        }
4670    
4671  // *************** Instrument ***************  // *************** Instrument ***************
4672  // *  // *
# Line 3035  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4684  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4684          EffectSend = 0;          EffectSend = 0;
4685          Attenuation = 0;          Attenuation = 0;
4686          FineTune = 0;          FineTune = 0;
4687          PitchbendRange = 0;          PitchbendRange = 2;
4688          PianoReleaseMode = false;          PianoReleaseMode = false;
4689          DimensionKeyRange.low = 0;          DimensionKeyRange.low = 0;
4690          DimensionKeyRange.high = 0;          DimensionKeyRange.high = 0;
4691          pMidiRules = new MidiRule*[3];          pMidiRules = new MidiRule*[3];
4692          pMidiRules[0] = NULL;          pMidiRules[0] = NULL;
4693            pScriptRefs = NULL;
4694    
4695          // Loading          // Loading
4696          RIFF::List* lart = insList->GetSubList(LIST_TYPE_LART);          RIFF::List* lart = insList->GetSubList(LIST_TYPE_LART);
# Line 3063  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4713  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4713                      uint8_t id1 = _3ewg->ReadUint8();                      uint8_t id1 = _3ewg->ReadUint8();
4714                      uint8_t id2 = _3ewg->ReadUint8();                      uint8_t id2 = _3ewg->ReadUint8();
4715    
4716                      if (id1 == 4 && id2 == 16) {                      if (id2 == 16) {
4717                          pMidiRules[i++] = new MidiRuleCtrlTrigger(_3ewg);                          if (id1 == 4) {
4718                                pMidiRules[i++] = new MidiRuleCtrlTrigger(_3ewg);
4719                            } else if (id1 == 0) {
4720                                pMidiRules[i++] = new MidiRuleLegato(_3ewg);
4721                            } else if (id1 == 3) {
4722                                pMidiRules[i++] = new MidiRuleAlternator(_3ewg);
4723                            } else {
4724                                pMidiRules[i++] = new MidiRuleUnknown;
4725                            }
4726                        }
4727                        else if (id1 != 0 || id2 != 0) {
4728                            pMidiRules[i++] = new MidiRuleUnknown;
4729                      }                      }
4730                      //TODO: all the other types of rules                      //TODO: all the other types of rules
4731    
# Line 3090  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4751  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4751              }              }
4752          }          }
4753    
4754            // own gig format extensions
4755            RIFF::List* lst3LS = insList->GetSubList(LIST_TYPE_3LS);
4756            if (lst3LS) {
4757                RIFF::Chunk* ckSCSL = lst3LS->GetSubChunk(CHUNK_ID_SCSL);
4758                if (ckSCSL) {
4759                    int headerSize = ckSCSL->ReadUint32();
4760                    int slotCount  = ckSCSL->ReadUint32();
4761                    if (slotCount) {
4762                        int slotSize  = ckSCSL->ReadUint32();
4763                        ckSCSL->SetPos(headerSize); // in case of future header extensions
4764                        int unknownSpace = slotSize - 2*sizeof(uint32_t); // in case of future slot extensions
4765                        for (int i = 0; i < slotCount; ++i) {
4766                            _ScriptPooolEntry e;
4767                            e.fileOffset = ckSCSL->ReadUint32();
4768                            e.bypass     = ckSCSL->ReadUint32() & 1;
4769                            if (unknownSpace) ckSCSL->SetPos(unknownSpace, RIFF::stream_curpos); // in case of future extensions
4770                            scriptPoolFileOffsets.push_back(e);
4771                        }
4772                    }
4773                }
4774            }
4775    
4776          __notify_progress(pProgress, 1.0f); // notify done          __notify_progress(pProgress, 1.0f); // notify done
4777      }      }
4778    
# Line 3099  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4782  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4782          RegionList::iterator end  = pRegions->end();          RegionList::iterator end  = pRegions->end();
4783          for (; iter != end; ++iter) {          for (; iter != end; ++iter) {
4784              gig::Region* pRegion = static_cast<gig::Region*>(*iter);              gig::Region* pRegion = static_cast<gig::Region*>(*iter);
4785              for (int iKey = pRegion->KeyRange.low; iKey <= pRegion->KeyRange.high; iKey++) {              const int low  = std::max(int(pRegion->KeyRange.low), 0);
4786                const int high = std::min(int(pRegion->KeyRange.high), 127);
4787                for (int iKey = low; iKey <= high; iKey++) {
4788                  RegionKeyTable[iKey] = pRegion;                  RegionKeyTable[iKey] = pRegion;
4789              }              }
4790          }          }
# Line 3110  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4795  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4795              delete pMidiRules[i];              delete pMidiRules[i];
4796          }          }
4797          delete[] pMidiRules;          delete[] pMidiRules;
4798            if (pScriptRefs) delete pScriptRefs;
4799      }      }
4800    
4801      /**      /**
# Line 3119  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4805  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4805       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
4806       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
4807       *       *
4808         * @param pProgress - callback function for progress notification
4809       * @throws gig::Exception if samples cannot be dereferenced       * @throws gig::Exception if samples cannot be dereferenced
4810       */       */
4811      void Instrument::UpdateChunks() {      void Instrument::UpdateChunks(progress_t* pProgress) {
4812          // first update base classes' chunks          // first update base classes' chunks
4813          DLS::Instrument::UpdateChunks();          DLS::Instrument::UpdateChunks(pProgress);
4814    
4815          // update Regions' chunks          // update Regions' chunks
4816          {          {
4817              RegionList::iterator iter = pRegions->begin();              RegionList::iterator iter = pRegions->begin();
4818              RegionList::iterator end  = pRegions->end();              RegionList::iterator end  = pRegions->end();
4819              for (; iter != end; ++iter)              for (; iter != end; ++iter)
4820                  (*iter)->UpdateChunks();                  (*iter)->UpdateChunks(pProgress);
4821          }          }
4822    
4823          // make sure 'lart' RIFF list chunk exists          // make sure 'lart' RIFF list chunk exists
# Line 3142  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4829  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4829              File* pFile = (File*) GetParent();              File* pFile = (File*) GetParent();
4830    
4831              // 3ewg is bigger in gig3, as it includes the iMIDI rules              // 3ewg is bigger in gig3, as it includes the iMIDI rules
4832              int size = (pFile->pVersion && pFile->pVersion->major == 3) ? 16416 : 12;              int size = (pFile->pVersion && pFile->pVersion->major > 2) ? 16416 : 12;
4833              _3ewg = lart->AddSubChunk(CHUNK_ID_3EWG, size);              _3ewg = lart->AddSubChunk(CHUNK_ID_3EWG, size);
4834              memset(_3ewg->LoadChunkData(), 0, size);              memset(_3ewg->LoadChunkData(), 0, size);
4835          }          }
# Line 3156  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4843  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4843                                      DimensionKeyRange.low << 1;                                      DimensionKeyRange.low << 1;
4844          pData[10] = dimkeystart;          pData[10] = dimkeystart;
4845          pData[11] = DimensionKeyRange.high;          pData[11] = DimensionKeyRange.high;
4846    
4847            if (pMidiRules[0] == 0 && _3ewg->GetSize() >= 34) {
4848                pData[32] = 0;
4849                pData[33] = 0;
4850            } else {
4851                for (int i = 0 ; pMidiRules[i] ; i++) {
4852                    pMidiRules[i]->UpdateChunks(pData);
4853                }
4854            }
4855    
4856            // own gig format extensions
4857           if (ScriptSlotCount()) {
4858               // make sure we have converted the original loaded script file
4859               // offsets into valid Script object pointers
4860               LoadScripts();
4861    
4862               RIFF::List* lst3LS = pCkInstrument->GetSubList(LIST_TYPE_3LS);
4863               if (!lst3LS) lst3LS = pCkInstrument->AddSubList(LIST_TYPE_3LS);
4864               const int slotCount = (int) pScriptRefs->size();
4865               const int headerSize = 3 * sizeof(uint32_t);
4866               const int slotSize  = 2 * sizeof(uint32_t);
4867               const int totalChunkSize = headerSize + slotCount * slotSize;
4868               RIFF::Chunk* ckSCSL = lst3LS->GetSubChunk(CHUNK_ID_SCSL);
4869               if (!ckSCSL) ckSCSL = lst3LS->AddSubChunk(CHUNK_ID_SCSL, totalChunkSize);
4870               else ckSCSL->Resize(totalChunkSize);
4871               uint8_t* pData = (uint8_t*) ckSCSL->LoadChunkData();
4872               int pos = 0;
4873               store32(&pData[pos], headerSize);
4874               pos += sizeof(uint32_t);
4875               store32(&pData[pos], slotCount);
4876               pos += sizeof(uint32_t);
4877               store32(&pData[pos], slotSize);
4878               pos += sizeof(uint32_t);
4879               for (int i = 0; i < slotCount; ++i) {
4880                   // arbitrary value, the actual file offset will be updated in
4881                   // UpdateScriptFileOffsets() after the file has been resized
4882                   int bogusFileOffset = 0;
4883                   store32(&pData[pos], bogusFileOffset);
4884                   pos += sizeof(uint32_t);
4885                   store32(&pData[pos], (*pScriptRefs)[i].bypass ? 1 : 0);
4886                   pos += sizeof(uint32_t);
4887               }
4888           } else {
4889               // no script slots, so get rid of any LS custom RIFF chunks (if any)
4890               RIFF::List* lst3LS = pCkInstrument->GetSubList(LIST_TYPE_3LS);
4891               if (lst3LS) pCkInstrument->DeleteSubChunk(lst3LS);
4892           }
4893        }
4894    
4895        void Instrument::UpdateScriptFileOffsets() {
4896           // own gig format extensions
4897           if (pScriptRefs && pScriptRefs->size() > 0) {
4898               RIFF::List* lst3LS = pCkInstrument->GetSubList(LIST_TYPE_3LS);
4899               RIFF::Chunk* ckSCSL = lst3LS->GetSubChunk(CHUNK_ID_SCSL);
4900               const int slotCount = (int) pScriptRefs->size();
4901               const int headerSize = 3 * sizeof(uint32_t);
4902               ckSCSL->SetPos(headerSize);
4903               for (int i = 0; i < slotCount; ++i) {
4904                   uint32_t fileOffset = uint32_t(
4905                        (*pScriptRefs)[i].script->pChunk->GetFilePos() -
4906                        (*pScriptRefs)[i].script->pChunk->GetPos() -
4907                        CHUNK_HEADER_SIZE(ckSCSL->GetFile()->GetFileOffsetSize())
4908                   );
4909                   ckSCSL->WriteUint32(&fileOffset);
4910                   // jump over flags entry (containing the bypass flag)
4911                   ckSCSL->SetPos(sizeof(uint32_t), RIFF::stream_curpos);
4912               }
4913           }        
4914      }      }
4915    
4916      /**      /**
# Line 3210  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4965  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4965          RIFF::List* rgn = lrgn->AddSubList(LIST_TYPE_RGN);          RIFF::List* rgn = lrgn->AddSubList(LIST_TYPE_RGN);
4966          Region* pNewRegion = new Region(this, rgn);          Region* pNewRegion = new Region(this, rgn);
4967          pRegions->push_back(pNewRegion);          pRegions->push_back(pNewRegion);
4968          Regions = pRegions->size();          Regions = (uint32_t) pRegions->size();
4969          // update Region key table for fast lookup          // update Region key table for fast lookup
4970          UpdateRegionKeyTable();          UpdateRegionKeyTable();
4971          // done          // done
# Line 3225  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 4980  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
4980      }      }
4981    
4982      /**      /**
4983         * Move this instrument at the position before @arg dst.
4984         *
4985         * This method can be used to reorder the sequence of instruments in a
4986         * .gig file. This might be helpful especially on large .gig files which
4987         * contain a large number of instruments within the same .gig file. So
4988         * grouping such instruments to similar ones, can help to keep track of them
4989         * when working with such complex .gig files.
4990         *
4991         * When calling this method, this instrument will be removed from in its
4992         * current position in the instruments list and moved to the requested
4993         * target position provided by @param dst. You may also pass NULL as
4994         * argument to this method, in that case this intrument will be moved to the
4995         * very end of the .gig file's instrument list.
4996         *
4997         * You have to call Save() to make the order change persistent to the .gig
4998         * file.
4999         *
5000         * Currently this method is limited to moving the instrument within the same
5001         * .gig file. Trying to move it to another .gig file by calling this method
5002         * will throw an exception.
5003         *
5004         * @param dst - destination instrument at which this instrument will be
5005         *              moved to, or pass NULL for moving to end of list
5006         * @throw gig::Exception if this instrument and target instrument are not
5007         *                       part of the same file
5008         */
5009        void Instrument::MoveTo(Instrument* dst) {
5010            if (dst && GetParent() != dst->GetParent())
5011                throw Exception(
5012                    "gig::Instrument::MoveTo() can only be used for moving within "
5013                    "the same gig file."
5014                );
5015    
5016            File* pFile = (File*) GetParent();
5017    
5018            // move this instrument within the instrument list
5019            {
5020                File::InstrumentList& list = *pFile->pInstruments;
5021    
5022                File::InstrumentList::iterator itFrom =
5023                    std::find(list.begin(), list.end(), static_cast<DLS::Instrument*>(this));
5024    
5025                File::InstrumentList::iterator itTo =
5026                    std::find(list.begin(), list.end(), static_cast<DLS::Instrument*>(dst));
5027    
5028                list.splice(itTo, list, itFrom);
5029            }
5030    
5031            // move the instrument's actual list RIFF chunk appropriately
5032            RIFF::List* lstCkInstruments = pFile->pRIFF->GetSubList(LIST_TYPE_LINS);
5033            lstCkInstruments->MoveSubChunk(
5034                this->pCkInstrument,
5035                (RIFF::Chunk*) ((dst) ? dst->pCkInstrument : NULL)
5036            );
5037        }
5038    
5039        /**
5040       * Returns a MIDI rule of the instrument.       * Returns a MIDI rule of the instrument.
5041       *       *
5042       * The list of MIDI rules, at least in gig v3, always contains at       * The list of MIDI rules, at least in gig v3, always contains at
# Line 3237  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5049  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5049      MidiRule* Instrument::GetMidiRule(int i) {      MidiRule* Instrument::GetMidiRule(int i) {
5050          return pMidiRules[i];          return pMidiRules[i];
5051      }      }
5052        
5053        /**
5054         * Adds the "controller trigger" MIDI rule to the instrument.
5055         *
5056         * @returns the new MIDI rule
5057         */
5058        MidiRuleCtrlTrigger* Instrument::AddMidiRuleCtrlTrigger() {
5059            delete pMidiRules[0];
5060            MidiRuleCtrlTrigger* r = new MidiRuleCtrlTrigger;
5061            pMidiRules[0] = r;
5062            pMidiRules[1] = 0;
5063            return r;
5064        }
5065    
5066        /**
5067         * Adds the legato MIDI rule to the instrument.
5068         *
5069         * @returns the new MIDI rule
5070         */
5071        MidiRuleLegato* Instrument::AddMidiRuleLegato() {
5072            delete pMidiRules[0];
5073            MidiRuleLegato* r = new MidiRuleLegato;
5074            pMidiRules[0] = r;
5075            pMidiRules[1] = 0;
5076            return r;
5077        }
5078    
5079        /**
5080         * Adds the alternator MIDI rule to the instrument.
5081         *
5082         * @returns the new MIDI rule
5083         */
5084        MidiRuleAlternator* Instrument::AddMidiRuleAlternator() {
5085            delete pMidiRules[0];
5086            MidiRuleAlternator* r = new MidiRuleAlternator;
5087            pMidiRules[0] = r;
5088            pMidiRules[1] = 0;
5089            return r;
5090        }
5091    
5092        /**
5093         * Deletes a MIDI rule from the instrument.
5094         *
5095         * @param i - MIDI rule number
5096         */
5097        void Instrument::DeleteMidiRule(int i) {
5098            delete pMidiRules[i];
5099            pMidiRules[i] = 0;
5100        }
5101    
5102        void Instrument::LoadScripts() {
5103            if (pScriptRefs) return;
5104            pScriptRefs = new std::vector<_ScriptPooolRef>;
5105            if (scriptPoolFileOffsets.empty()) return;
5106            File* pFile = (File*) GetParent();
5107            for (uint k = 0; k < scriptPoolFileOffsets.size(); ++k) {
5108                uint32_t soughtOffset = scriptPoolFileOffsets[k].fileOffset;
5109                for (uint i = 0; pFile->GetScriptGroup(i); ++i) {
5110                    ScriptGroup* group = pFile->GetScriptGroup(i);
5111                    for (uint s = 0; group->GetScript(s); ++s) {
5112                        Script* script = group->GetScript(s);
5113                        if (script->pChunk) {
5114                            uint32_t offset = uint32_t(
5115                                script->pChunk->GetFilePos() -
5116                                script->pChunk->GetPos() -
5117                                CHUNK_HEADER_SIZE(script->pChunk->GetFile()->GetFileOffsetSize())
5118                            );
5119                            if (offset == soughtOffset)
5120                            {
5121                                _ScriptPooolRef ref;
5122                                ref.script = script;
5123                                ref.bypass = scriptPoolFileOffsets[k].bypass;
5124                                pScriptRefs->push_back(ref);
5125                                break;
5126                            }
5127                        }
5128                    }
5129                }
5130            }
5131            // we don't need that anymore
5132            scriptPoolFileOffsets.clear();
5133        }
5134    
5135        /** @brief Get instrument script (gig format extension).
5136         *
5137         * Returns the real-time instrument script of instrument script slot
5138         * @a index.
5139         *
5140         * @note This is an own format extension which did not exist i.e. in the
5141         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5142         * gigedit.
5143         *
5144         * @param index - instrument script slot index
5145         * @returns script or NULL if index is out of bounds
5146         */
5147        Script* Instrument::GetScriptOfSlot(uint index) {
5148            LoadScripts();
5149            if (index >= pScriptRefs->size()) return NULL;
5150            return pScriptRefs->at(index).script;
5151        }
5152    
5153        /** @brief Add new instrument script slot (gig format extension).
5154         *
5155         * Add the given real-time instrument script reference to this instrument,
5156         * which shall be executed by the sampler for for this instrument. The
5157         * script will be added to the end of the script list of this instrument.
5158         * The positions of the scripts in the Instrument's Script list are
5159         * relevant, because they define in which order they shall be executed by
5160         * the sampler. For this reason it is also legal to add the same script
5161         * twice to an instrument, for example you might have a script called
5162         * "MyFilter" which performs an event filter task, and you might have
5163         * another script called "MyNoteTrigger" which triggers new notes, then you
5164         * might for example have the following list of scripts on the instrument:
5165         *
5166         * 1. Script "MyFilter"
5167         * 2. Script "MyNoteTrigger"
5168         * 3. Script "MyFilter"
5169         *
5170         * Which would make sense, because the 2nd script launched new events, which
5171         * you might need to filter as well.
5172         *
5173         * There are two ways to disable / "bypass" scripts. You can either disable
5174         * a script locally for the respective script slot on an instrument (i.e. by
5175         * passing @c false to the 2nd argument of this method, or by calling
5176         * SetScriptBypassed()). Or you can disable a script globally for all slots
5177         * and all instruments by setting Script::Bypass.
5178         *
5179         * @note This is an own format extension which did not exist i.e. in the
5180         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5181         * gigedit.
5182         *
5183         * @param pScript - script that shall be executed for this instrument
5184         * @param bypass  - if enabled, the sampler shall skip executing this
5185         *                  script (in the respective list position)
5186         * @see SetScriptBypassed()
5187         */
5188        void Instrument::AddScriptSlot(Script* pScript, bool bypass) {
5189            LoadScripts();
5190            _ScriptPooolRef ref = { pScript, bypass };
5191            pScriptRefs->push_back(ref);
5192        }
5193    
5194        /** @brief Flip two script slots with each other (gig format extension).
5195         *
5196         * Swaps the position of the two given scripts in the Instrument's Script
5197         * list. The positions of the scripts in the Instrument's Script list are
5198         * relevant, because they define in which order they shall be executed by
5199         * the sampler.
5200         *
5201         * @note This is an own format extension which did not exist i.e. in the
5202         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5203         * gigedit.
5204         *
5205         * @param index1 - index of the first script slot to swap
5206         * @param index2 - index of the second script slot to swap
5207         */
5208        void Instrument::SwapScriptSlots(uint index1, uint index2) {
5209            LoadScripts();
5210            if (index1 >= pScriptRefs->size() || index2 >= pScriptRefs->size())
5211                return;
5212            _ScriptPooolRef tmp = (*pScriptRefs)[index1];
5213            (*pScriptRefs)[index1] = (*pScriptRefs)[index2];
5214            (*pScriptRefs)[index2] = tmp;
5215        }
5216    
5217        /** @brief Remove script slot.
5218         *
5219         * Removes the script slot with the given slot index.
5220         *
5221         * @param index - index of script slot to remove
5222         */
5223        void Instrument::RemoveScriptSlot(uint index) {
5224            LoadScripts();
5225            if (index >= pScriptRefs->size()) return;
5226            pScriptRefs->erase( pScriptRefs->begin() + index );
5227        }
5228    
5229        /** @brief Remove reference to given Script (gig format extension).
5230         *
5231         * This will remove all script slots on the instrument which are referencing
5232         * the given script.
5233         *
5234         * @note This is an own format extension which did not exist i.e. in the
5235         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5236         * gigedit.
5237         *
5238         * @param pScript - script reference to remove from this instrument
5239         * @see RemoveScriptSlot()
5240         */
5241        void Instrument::RemoveScript(Script* pScript) {
5242            LoadScripts();
5243            for (ssize_t i = pScriptRefs->size() - 1; i >= 0; --i) {
5244                if ((*pScriptRefs)[i].script == pScript) {
5245                    pScriptRefs->erase( pScriptRefs->begin() + i );
5246                }
5247            }
5248        }
5249    
5250        /** @brief Instrument's amount of script slots.
5251         *
5252         * This method returns the amount of script slots this instrument currently
5253         * uses.
5254         *
5255         * A script slot is a reference of a real-time instrument script to be
5256         * executed by the sampler. The scripts will be executed by the sampler in
5257         * sequence of the slots. One (same) script may be referenced multiple
5258         * times in different slots.
5259         *
5260         * @note This is an own format extension which did not exist i.e. in the
5261         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5262         * gigedit.
5263         */
5264        uint Instrument::ScriptSlotCount() const {
5265            return uint(pScriptRefs ? pScriptRefs->size() : scriptPoolFileOffsets.size());
5266        }
5267    
5268        /** @brief Whether script execution shall be skipped.
5269         *
5270         * Defines locally for the Script reference slot in the Instrument's Script
5271         * list, whether the script shall be skipped by the sampler regarding
5272         * execution.
5273         *
5274         * It is also possible to ignore exeuction of the script globally, for all
5275         * slots and for all instruments by setting Script::Bypass.
5276         *
5277         * @note This is an own format extension which did not exist i.e. in the
5278         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5279         * gigedit.
5280         *
5281         * @param index - index of the script slot on this instrument
5282         * @see Script::Bypass
5283         */
5284        bool Instrument::IsScriptSlotBypassed(uint index) {
5285            if (index >= ScriptSlotCount()) return false;
5286            return pScriptRefs ? pScriptRefs->at(index).bypass
5287                               : scriptPoolFileOffsets.at(index).bypass;
5288            
5289        }
5290    
5291        /** @brief Defines whether execution shall be skipped.
5292         *
5293         * You can call this method to define locally whether or whether not the
5294         * given script slot shall be executed by the sampler.
5295         *
5296         * @note This is an own format extension which did not exist i.e. in the
5297         * GigaStudio 4 software. It will currently only work with LinuxSampler and
5298         * gigedit.
5299         *
5300         * @param index - script slot index on this instrument
5301         * @param bBypass - if true, the script slot will be skipped by the sampler
5302         * @see Script::Bypass
5303         */
5304        void Instrument::SetScriptSlotBypassed(uint index, bool bBypass) {
5305            if (index >= ScriptSlotCount()) return;
5306            if (pScriptRefs)
5307                pScriptRefs->at(index).bypass = bBypass;
5308            else
5309                scriptPoolFileOffsets.at(index).bypass = bBypass;
5310        }
5311    
5312      /**      /**
5313       * Make a (semi) deep copy of the Instrument object given by @a orig       * Make a (semi) deep copy of the Instrument object given by @a orig
5314       * and assign it to this object.       * and assign it to this object.
# Line 3248  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5319  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5319       * @param orig - original Instrument object to be copied from       * @param orig - original Instrument object to be copied from
5320       */       */
5321      void Instrument::CopyAssign(const Instrument* orig) {      void Instrument::CopyAssign(const Instrument* orig) {
5322            CopyAssign(orig, NULL);
5323        }
5324            
5325        /**
5326         * Make a (semi) deep copy of the Instrument object given by @a orig
5327         * and assign it to this object.
5328         *
5329         * @param orig - original Instrument object to be copied from
5330         * @param mSamples - crosslink map between the foreign file's samples and
5331         *                   this file's samples
5332         */
5333        void Instrument::CopyAssign(const Instrument* orig, const std::map<Sample*,Sample*>* mSamples) {
5334          // handle base class          // handle base class
5335          // (without copying DLS region stuff)          // (without copying DLS region stuff)
5336          DLS::Instrument::CopyAssignCore(orig);          DLS::Instrument::CopyAssignCore(orig);
# Line 3259  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5342  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5342          PitchbendRange = orig->PitchbendRange;          PitchbendRange = orig->PitchbendRange;
5343          PianoReleaseMode = orig->PianoReleaseMode;          PianoReleaseMode = orig->PianoReleaseMode;
5344          DimensionKeyRange = orig->DimensionKeyRange;          DimensionKeyRange = orig->DimensionKeyRange;
5345            scriptPoolFileOffsets = orig->scriptPoolFileOffsets;
5346            pScriptRefs = orig->pScriptRefs;
5347                    
5348          // free old midi rules          // free old midi rules
5349          for (int i = 0 ; pMidiRules[i] ; i++) {          for (int i = 0 ; pMidiRules[i] ; i++) {
# Line 3276  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5361  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5361                  Region* dstRgn = AddRegion();                  Region* dstRgn = AddRegion();
5362                  //NOTE: Region does semi-deep copy !                  //NOTE: Region does semi-deep copy !
5363                  dstRgn->CopyAssign(                  dstRgn->CopyAssign(
5364                      static_cast<gig::Region*>(*it)                      static_cast<gig::Region*>(*it),
5365                        mSamples
5366                  );                  );
5367              }              }
5368          }          }
# Line 3312  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5398  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5398       *       *
5399       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
5400       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
5401         *
5402         * @param pProgress - callback function for progress notification
5403       */       */
5404      void Group::UpdateChunks() {      void Group::UpdateChunks(progress_t* pProgress) {
5405          // make sure <3gri> and <3gnl> list chunks exist          // make sure <3gri> and <3gnl> list chunks exist
5406          RIFF::List* _3gri = pFile->pRIFF->GetSubList(LIST_TYPE_3GRI);          RIFF::List* _3gri = pFile->pRIFF->GetSubList(LIST_TYPE_3GRI);
5407          if (!_3gri) {          if (!_3gri) {
# Line 3323  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5411  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5411          RIFF::List* _3gnl = _3gri->GetSubList(LIST_TYPE_3GNL);          RIFF::List* _3gnl = _3gri->GetSubList(LIST_TYPE_3GNL);
5412          if (!_3gnl) _3gnl = _3gri->AddSubList(LIST_TYPE_3GNL);          if (!_3gnl) _3gnl = _3gri->AddSubList(LIST_TYPE_3GNL);
5413    
5414          if (!pNameChunk && pFile->pVersion && pFile->pVersion->major == 3) {          if (!pNameChunk && pFile->pVersion && pFile->pVersion->major > 2) {
5415              // v3 has a fixed list of 128 strings, find a free one              // v3 has a fixed list of 128 strings, find a free one
5416              for (RIFF::Chunk* ck = _3gnl->GetFirstSubChunk() ; ck ; ck = _3gnl->GetNextSubChunk()) {              for (RIFF::Chunk* ck = _3gnl->GetFirstSubChunk() ; ck ; ck = _3gnl->GetNextSubChunk()) {
5417                  if (strcmp(static_cast<char*>(ck->LoadChunkData()), "") == 0) {                  if (strcmp(static_cast<char*>(ck->LoadChunkData()), "") == 0) {
# Line 3418  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5506  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5506          0, 3, 20030331 & 0xffff, 20030331 >> 16          0, 3, 20030331 & 0xffff, 20030331 >> 16
5507      };      };
5508    
5509        /// Reflects Gigasampler file format version 4.0 (2007-10-12).
5510        const DLS::version_t File::VERSION_4 = {
5511            0, 4, 20071012 & 0xffff, 20071012 >> 16
5512        };
5513    
5514      static const DLS::Info::string_length_t _FileFixedStringLengths[] = {      static const DLS::Info::string_length_t _FileFixedStringLengths[] = {
5515          { CHUNK_ID_IARL, 256 },          { CHUNK_ID_IARL, 256 },
5516          { CHUNK_ID_IART, 128 },          { CHUNK_ID_IART, 128 },
# Line 3443  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5536  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5536          bAutoLoad = true;          bAutoLoad = true;
5537          *pVersion = VERSION_3;          *pVersion = VERSION_3;
5538          pGroups = NULL;          pGroups = NULL;
5539            pScriptGroups = NULL;
5540          pInfo->SetFixedStringLengths(_FileFixedStringLengths);          pInfo->SetFixedStringLengths(_FileFixedStringLengths);
5541          pInfo->ArchivalLocation = String(256, ' ');          pInfo->ArchivalLocation = String(256, ' ');
5542    
# Line 3458  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5552  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5552      File::File(RIFF::File* pRIFF) : DLS::File(pRIFF) {      File::File(RIFF::File* pRIFF) : DLS::File(pRIFF) {
5553          bAutoLoad = true;          bAutoLoad = true;
5554          pGroups = NULL;          pGroups = NULL;
5555            pScriptGroups = NULL;
5556          pInfo->SetFixedStringLengths(_FileFixedStringLengths);          pInfo->SetFixedStringLengths(_FileFixedStringLengths);
5557      }      }
5558    
# Line 3471  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5566  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5566              }              }
5567              delete pGroups;              delete pGroups;
5568          }          }
5569            if (pScriptGroups) {
5570                std::list<ScriptGroup*>::iterator iter = pScriptGroups->begin();
5571                std::list<ScriptGroup*>::iterator end  = pScriptGroups->end();
5572                while (iter != end) {
5573                    delete *iter;
5574                    ++iter;
5575                }
5576                delete pScriptGroups;
5577            }
5578      }      }
5579    
5580      Sample* File::GetFirstSample(progress_t* pProgress) {      Sample* File::GetFirstSample(progress_t* pProgress) {
# Line 3485  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5589  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5589          SamplesIterator++;          SamplesIterator++;
5590          return static_cast<gig::Sample*>( (SamplesIterator != pSamples->end()) ? *SamplesIterator : NULL );          return static_cast<gig::Sample*>( (SamplesIterator != pSamples->end()) ? *SamplesIterator : NULL );
5591      }      }
5592        
5593        /**
5594         * Returns Sample object of @a index.
5595         *
5596         * @returns sample object or NULL if index is out of bounds
5597         */
5598        Sample* File::GetSample(uint index) {
5599            if (!pSamples) LoadSamples();
5600            if (!pSamples) return NULL;
5601            DLS::File::SampleList::iterator it = pSamples->begin();
5602            for (int i = 0; i < index; ++i) {
5603                ++it;
5604                if (it == pSamples->end()) return NULL;
5605            }
5606            if (it == pSamples->end()) return NULL;
5607            return static_cast<gig::Sample*>( *it );
5608        }
5609    
5610        /**
5611         * Returns the total amount of samples of this gig file.
5612         *
5613         * Note that this method might block for a long time in case it is required
5614         * to load the sample info for the first time.
5615         *
5616         * @returns total amount of samples
5617         */
5618        size_t File::CountSamples() {
5619            if (!pSamples) LoadSamples();
5620            if (!pSamples) return 0;
5621            return pSamples->size();
5622        }
5623    
5624      /** @brief Add a new sample.      /** @brief Add a new sample.
5625       *       *
# Line 3562  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5697  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5697          int iTotalSamples = WavePoolCount;          int iTotalSamples = WavePoolCount;
5698    
5699          // check if samples should be loaded from extension files          // check if samples should be loaded from extension files
5700            // (only for old gig files < 2 GB)
5701          int lastFileNo = 0;          int lastFileNo = 0;
5702          for (int i = 0 ; i < WavePoolCount ; i++) {          if (!file->IsNew() && !(file->GetCurrentFileSize() >> 31)) {
5703              if (pWavePoolTableHi[i] > lastFileNo) lastFileNo = pWavePoolTableHi[i];              for (int i = 0 ; i < WavePoolCount ; i++) {
5704                    if (pWavePoolTableHi[i] > lastFileNo) lastFileNo = pWavePoolTableHi[i];
5705                }
5706          }          }
5707          String name(pRIFF->GetFileName());          String name(pRIFF->GetFileName());
5708          int nameLen = name.length();          int nameLen = (int) name.length();
5709          char suffix[6];          char suffix[6];
5710          if (nameLen > 4 && name.substr(nameLen - 4) == ".gig") nameLen -= 4;          if (nameLen > 4 && name.substr(nameLen - 4) == ".gig") nameLen -= 4;
5711    
5712          for (int fileNo = 0 ; ; ) {          for (int fileNo = 0 ; ; ) {
5713              RIFF::List* wvpl = file->GetSubList(LIST_TYPE_WVPL);              RIFF::List* wvpl = file->GetSubList(LIST_TYPE_WVPL);
5714              if (wvpl) {              if (wvpl) {
5715                  unsigned long wvplFileOffset = wvpl->GetFilePos();                  file_offset_t wvplFileOffset = wvpl->GetFilePos();
5716                  RIFF::List* wave = wvpl->GetFirstSubList();                  RIFF::List* wave = wvpl->GetFirstSubList();
5717                  while (wave) {                  while (wave) {
5718                      if (wave->GetListType() == LIST_TYPE_WAVE) {                      if (wave->GetListType() == LIST_TYPE_WAVE) {
# Line 3582  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5720  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5720                          const float subprogress = (float) iSampleIndex / (float) iTotalSamples;                          const float subprogress = (float) iSampleIndex / (float) iTotalSamples;
5721                          __notify_progress(pProgress, subprogress);                          __notify_progress(pProgress, subprogress);
5722    
5723                          unsigned long waveFileOffset = wave->GetFilePos();                          file_offset_t waveFileOffset = wave->GetFilePos();
5724                          pSamples->push_back(new Sample(this, wave, waveFileOffset - wvplFileOffset, fileNo));                          pSamples->push_back(new Sample(this, wave, waveFileOffset - wvplFileOffset, fileNo, iSampleIndex));
5725    
5726                          iSampleIndex++;                          iSampleIndex++;
5727                      }                      }
# Line 3618  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5756  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5756      }      }
5757    
5758      /**      /**
5759         * Returns the total amount of instruments of this gig file.
5760         *
5761         * Note that this method might block for a long time in case it is required
5762         * to load the instruments info for the first time.
5763         *
5764         * @returns total amount of instruments
5765         */
5766        size_t File::CountInstruments() {
5767            if (!pInstruments) LoadInstruments();
5768            if (!pInstruments) return 0;
5769            return pInstruments->size();
5770        }
5771    
5772        /**
5773       * Returns the instrument with the given index.       * Returns the instrument with the given index.
5774       *       *
5775       * @param index     - number of the sought instrument (0..n)       * @param index     - number of the sought instrument (0..n)
# Line 3703  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5855  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5855          instr->CopyAssign(orig);          instr->CopyAssign(orig);
5856          return instr;          return instr;
5857      }      }
5858        
5859        /** @brief Add content of another existing file.
5860         *
5861         * Duplicates the samples, groups and instruments of the original file
5862         * given by @a pFile and adds them to @c this File. In case @c this File is
5863         * a new one that you haven't saved before, then you have to call
5864         * SetFileName() before calling AddContentOf(), because this method will
5865         * automatically save this file during operation, which is required for
5866         * writing the sample waveform data by disk streaming.
5867         *
5868         * @param pFile - original file whose's content shall be copied from
5869         */
5870        void File::AddContentOf(File* pFile) {
5871            static int iCallCount = -1;
5872            iCallCount++;
5873            std::map<Group*,Group*> mGroups;
5874            std::map<Sample*,Sample*> mSamples;
5875            
5876            // clone sample groups
5877            for (int i = 0; pFile->GetGroup(i); ++i) {
5878                Group* g = AddGroup();
5879                g->Name =
5880                    "COPY" + ToString(iCallCount) + "_" + pFile->GetGroup(i)->Name;
5881                mGroups[pFile->GetGroup(i)] = g;
5882            }
5883            
5884            // clone samples (not waveform data here yet)
5885            for (int i = 0; pFile->GetSample(i); ++i) {
5886                Sample* s = AddSample();
5887                s->CopyAssignMeta(pFile->GetSample(i));
5888                mGroups[pFile->GetSample(i)->GetGroup()]->AddSample(s);
5889                mSamples[pFile->GetSample(i)] = s;
5890            }
5891    
5892            // clone script groups and their scripts
5893            for (int iGroup = 0; pFile->GetScriptGroup(iGroup); ++iGroup) {
5894                ScriptGroup* sg = pFile->GetScriptGroup(iGroup);
5895                ScriptGroup* dg = AddScriptGroup();
5896                dg->Name = "COPY" + ToString(iCallCount) + "_" + sg->Name;
5897                for (int iScript = 0; sg->GetScript(iScript); ++iScript) {
5898                    Script* ss = sg->GetScript(iScript);
5899                    Script* ds = dg->AddScript();
5900                    ds->CopyAssign(ss);
5901                }
5902            }
5903    
5904            //BUG: For some reason this method only works with this additional
5905            //     Save() call in between here.
5906            //
5907            // Important: The correct one of the 2 Save() methods has to be called
5908            // here, depending on whether the file is completely new or has been
5909            // saved to disk already, otherwise it will result in data corruption.
5910            if (pRIFF->IsNew())
5911                Save(GetFileName());
5912            else
5913                Save();
5914            
5915            // clone instruments
5916            // (passing the crosslink table here for the cloned samples)
5917            for (int i = 0; pFile->GetInstrument(i); ++i) {
5918                Instrument* instr = AddInstrument();
5919                instr->CopyAssign(pFile->GetInstrument(i), &mSamples);
5920            }
5921            
5922            // Mandatory: file needs to be saved to disk at this point, so this
5923            // file has the correct size and data layout for writing the samples'
5924            // waveform data to disk.
5925            Save();
5926            
5927            // clone samples' waveform data
5928            // (using direct read & write disk streaming)
5929            for (int i = 0; pFile->GetSample(i); ++i) {
5930                mSamples[pFile->GetSample(i)]->CopyAssignWave(pFile->GetSample(i));
5931            }
5932        }
5933    
5934      /** @brief Delete an instrument.      /** @brief Delete an instrument.
5935       *       *
# Line 3758  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 5985  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
5985          if (!_3crc) return;          if (!_3crc) return;
5986    
5987          // get the index of the sample          // get the index of the sample
5988          int iWaveIndex = -1;          int iWaveIndex = GetWaveTableIndexOf(pSample);
         File::SampleList::iterator iter = pSamples->begin();  
         File::SampleList::iterator end  = pSamples->end();  
         for (int index = 0; iter != end; ++iter, ++index) {  
             if (*iter == pSample) {  
                 iWaveIndex = index;  
                 break;  
             }  
         }  
5989          if (iWaveIndex < 0) throw gig::Exception("Could not update crc, could not find sample");          if (iWaveIndex < 0) throw gig::Exception("Could not update crc, could not find sample");
5990    
5991          // write the CRC-32 checksum to disk          // write the CRC-32 checksum to disk
5992          _3crc->SetPos(iWaveIndex * 8);          _3crc->SetPos(iWaveIndex * 8);
5993          uint32_t tmp = 1;          uint32_t one = 1;
5994          _3crc->WriteUint32(&tmp); // unknown, always 1?          _3crc->WriteUint32(&one); // always 1
5995          _3crc->WriteUint32(&crc);          _3crc->WriteUint32(&crc);
5996      }      }
5997    
5998        uint32_t File::GetSampleChecksum(Sample* pSample) {
5999            // get the index of the sample
6000            int iWaveIndex = GetWaveTableIndexOf(pSample);
6001            if (iWaveIndex < 0) throw gig::Exception("Could not retrieve reference crc of sample, could not resolve sample's wave table index");
6002    
6003            return GetSampleChecksumByIndex(iWaveIndex);
6004        }
6005    
6006        uint32_t File::GetSampleChecksumByIndex(int index) {
6007            if (index < 0) throw gig::Exception("Could not retrieve reference crc of sample, invalid wave pool index of sample");
6008    
6009            RIFF::Chunk* _3crc = pRIFF->GetSubChunk(CHUNK_ID_3CRC);
6010            if (!_3crc) throw gig::Exception("Could not retrieve reference crc of sample, no checksums stored for this file yet");
6011            uint8_t* pData = (uint8_t*) _3crc->LoadChunkData();
6012            if (!pData) throw gig::Exception("Could not retrieve reference crc of sample, no checksums stored for this file yet");
6013    
6014            // read the CRC-32 checksum directly from disk
6015            size_t pos = index * 8;
6016            if (pos + 8 > _3crc->GetNewSize())
6017                throw gig::Exception("Could not retrieve reference crc of sample, could not seek to required position in crc chunk");
6018    
6019            uint32_t one = load32(&pData[pos]); // always 1
6020            if (one != 1)
6021                throw gig::Exception("Could not retrieve reference crc of sample, because reference checksum table is damaged");
6022    
6023            return load32(&pData[pos+4]);
6024        }
6025    
6026        int File::GetWaveTableIndexOf(gig::Sample* pSample) {
6027            if (!pSamples) GetFirstSample(); // make sure sample chunks were scanned
6028            File::SampleList::iterator iter = pSamples->begin();
6029            File::SampleList::iterator end  = pSamples->end();
6030            for (int index = 0; iter != end; ++iter, ++index)
6031                if (*iter == pSample)
6032                    return index;
6033            return -1;
6034        }
6035    
6036        /**
6037         * Checks whether the file's "3CRC" chunk was damaged. This chunk contains
6038         * the CRC32 check sums of all samples' raw wave data.
6039         *
6040         * @return true if 3CRC chunk is OK, or false if 3CRC chunk is damaged
6041         */
6042        bool File::VerifySampleChecksumTable() {
6043            RIFF::Chunk* _3crc = pRIFF->GetSubChunk(CHUNK_ID_3CRC);
6044            if (!_3crc) return false;
6045            if (_3crc->GetNewSize() <= 0) return false;
6046            if (_3crc->GetNewSize() % 8) return false;
6047            if (!pSamples) GetFirstSample(); // make sure sample chunks were scanned
6048            if (_3crc->GetNewSize() != pSamples->size() * 8) return false;
6049    
6050            const file_offset_t n = _3crc->GetNewSize() / 8;
6051    
6052            uint32_t* pData = (uint32_t*) _3crc->LoadChunkData();
6053            if (!pData) return false;
6054    
6055            for (file_offset_t i = 0; i < n; ++i) {
6056                uint32_t one = pData[i*2];
6057                if (one != 1) return false;
6058            }
6059    
6060            return true;
6061        }
6062    
6063        /**
6064         * Recalculates CRC32 checksums for all samples and rebuilds this gig
6065         * file's checksum table with those new checksums. This might usually
6066         * just be necessary if the checksum table was damaged.
6067         *
6068         * @e IMPORTANT: The current implementation of this method only works
6069         * with files that have not been modified since it was loaded, because
6070         * it expects that no externally caused file structure changes are
6071         * required!
6072         *
6073         * Due to the expectation above, this method is currently protected
6074         * and actually only used by the command line tool "gigdump" yet.
6075         *
6076         * @returns true if Save() is required to be called after this call,
6077         *          false if no further action is required
6078         */
6079        bool File::RebuildSampleChecksumTable() {
6080            // make sure sample chunks were scanned
6081            if (!pSamples) GetFirstSample();
6082    
6083            bool bRequiresSave = false;
6084    
6085            // make sure "3CRC" chunk exists with required size
6086            RIFF::Chunk* _3crc = pRIFF->GetSubChunk(CHUNK_ID_3CRC);
6087            if (!_3crc) {
6088                _3crc = pRIFF->AddSubChunk(CHUNK_ID_3CRC, pSamples->size() * 8);
6089                // the order of einf and 3crc is not the same in v2 and v3
6090                RIFF::Chunk* einf = pRIFF->GetSubChunk(CHUNK_ID_EINF);
6091                if (einf && pVersion && pVersion->major > 2) pRIFF->MoveSubChunk(_3crc, einf);
6092                bRequiresSave = true;
6093            } else if (_3crc->GetNewSize() != pSamples->size() * 8) {
6094                _3crc->Resize(pSamples->size() * 8);
6095                bRequiresSave = true;
6096            }
6097    
6098            if (bRequiresSave) { // refill CRC table for all samples in RAM ...
6099                uint32_t* pData = (uint32_t*) _3crc->LoadChunkData();
6100                {
6101                    File::SampleList::iterator iter = pSamples->begin();
6102                    File::SampleList::iterator end  = pSamples->end();
6103                    for (; iter != end; ++iter) {
6104                        gig::Sample* pSample = (gig::Sample*) *iter;
6105                        int index = GetWaveTableIndexOf(pSample);
6106                        if (index < 0) throw gig::Exception("Could not rebuild crc table for samples, wave table index of a sample could not be resolved");
6107                        pData[index*2]   = 1; // always 1
6108                        pData[index*2+1] = pSample->CalculateWaveDataChecksum();
6109                    }
6110                }
6111            } else { // no file structure changes necessary, so directly write to disk and we are done ...
6112                // make sure file is in write mode
6113                pRIFF->SetMode(RIFF::stream_mode_read_write);
6114                {
6115                    File::SampleList::iterator iter = pSamples->begin();
6116                    File::SampleList::iterator end  = pSamples->end();
6117                    for (; iter != end; ++iter) {
6118                        gig::Sample* pSample = (gig::Sample*) *iter;
6119                        int index = GetWaveTableIndexOf(pSample);
6120                        if (index < 0) throw gig::Exception("Could not rebuild crc table for samples, wave table index of a sample could not be resolved");
6121                        pSample->crc  = pSample->CalculateWaveDataChecksum();
6122                        SetSampleChecksum(pSample, pSample->crc);
6123                    }
6124                }
6125            }
6126    
6127            return bRequiresSave;
6128        }
6129    
6130      Group* File::GetFirstGroup() {      Group* File::GetFirstGroup() {
6131          if (!pGroups) LoadGroups();          if (!pGroups) LoadGroups();
6132          // there must always be at least one group          // there must always be at least one group
# Line 3805  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6156  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6156          return NULL;          return NULL;
6157      }      }
6158    
6159        /**
6160         * Returns the group with the given group name.
6161         *
6162         * Note: group names don't have to be unique in the gig format! So there
6163         * can be multiple groups with the same name. This method will simply
6164         * return the first group found with the given name.
6165         *
6166         * @param name - name of the sought group
6167         * @returns sought group or NULL if there's no group with that name
6168         */
6169        Group* File::GetGroup(String name) {
6170            if (!pGroups) LoadGroups();
6171            GroupsIterator = pGroups->begin();
6172            for (uint i = 0; GroupsIterator != pGroups->end(); ++GroupsIterator, ++i)
6173                if ((*GroupsIterator)->Name == name) return *GroupsIterator;
6174            return NULL;
6175        }
6176    
6177      Group* File::AddGroup() {      Group* File::AddGroup() {
6178          if (!pGroups) LoadGroups();          if (!pGroups) LoadGroups();
6179          // there must always be at least one group          // there must always be at least one group
# Line 3868  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6237  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6237                  RIFF::Chunk* ck = lst3gnl->GetFirstSubChunk();                  RIFF::Chunk* ck = lst3gnl->GetFirstSubChunk();
6238                  while (ck) {                  while (ck) {
6239                      if (ck->GetChunkID() == CHUNK_ID_3GNM) {                      if (ck->GetChunkID() == CHUNK_ID_3GNM) {
6240                          if (pVersion && pVersion->major == 3 &&                          if (pVersion && pVersion->major > 2 &&
6241                              strcmp(static_cast<char*>(ck->LoadChunkData()), "") == 0) break;                              strcmp(static_cast<char*>(ck->LoadChunkData()), "") == 0) break;
6242    
6243                          pGroups->push_back(new Group(this, ck));                          pGroups->push_back(new Group(this, ck));
# Line 3885  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6254  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6254          }          }
6255      }      }
6256    
6257        /** @brief Get instrument script group (by index).
6258         *
6259         * Returns the real-time instrument script group with the given index.
6260         *
6261         * @param index - number of the sought group (0..n)
6262         * @returns sought script group or NULL if there's no such group
6263         */
6264        ScriptGroup* File::GetScriptGroup(uint index) {
6265            if (!pScriptGroups) LoadScriptGroups();
6266            std::list<ScriptGroup*>::iterator it = pScriptGroups->begin();
6267            for (uint i = 0; it != pScriptGroups->end(); ++i, ++it)
6268                if (i == index) return *it;
6269            return NULL;
6270        }
6271    
6272        /** @brief Get instrument script group (by name).
6273         *
6274         * Returns the first real-time instrument script group found with the given
6275         * group name. Note that group names may not necessarily be unique.
6276         *
6277         * @param name - name of the sought script group
6278         * @returns sought script group or NULL if there's no such group
6279         */
6280        ScriptGroup* File::GetScriptGroup(const String& name) {
6281            if (!pScriptGroups) LoadScriptGroups();
6282            std::list<ScriptGroup*>::iterator it = pScriptGroups->begin();
6283            for (uint i = 0; it != pScriptGroups->end(); ++i, ++it)
6284                if ((*it)->Name == name) return *it;
6285            return NULL;
6286        }
6287    
6288        /** @brief Add new instrument script group.
6289         *
6290         * Adds a new, empty real-time instrument script group to the file.
6291         *
6292         * You have to call Save() to make this persistent to the file.
6293         *
6294         * @return new empty script group
6295         */
6296        ScriptGroup* File::AddScriptGroup() {
6297            if (!pScriptGroups) LoadScriptGroups();
6298            ScriptGroup* pScriptGroup = new ScriptGroup(this, NULL);
6299            pScriptGroups->push_back(pScriptGroup);
6300            return pScriptGroup;
6301        }
6302    
6303        /** @brief Delete an instrument script group.
6304         *
6305         * This will delete the given real-time instrument script group and all its
6306         * instrument scripts it contains. References inside instruments that are
6307         * using the deleted scripts will be removed from the respective instruments
6308         * accordingly.
6309         *
6310         * You have to call Save() to make this persistent to the file.
6311         *
6312         * @param pScriptGroup - script group to delete
6313         * @throws gig::Exception if given script group could not be found
6314         */
6315        void File::DeleteScriptGroup(ScriptGroup* pScriptGroup) {
6316            if (!pScriptGroups) LoadScriptGroups();
6317            std::list<ScriptGroup*>::iterator iter =
6318                find(pScriptGroups->begin(), pScriptGroups->end(), pScriptGroup);
6319            if (iter == pScriptGroups->end())
6320                throw gig::Exception("Could not delete script group, could not find given script group");
6321            pScriptGroups->erase(iter);
6322            for (int i = 0; pScriptGroup->GetScript(i); ++i)
6323                pScriptGroup->DeleteScript(pScriptGroup->GetScript(i));
6324            if (pScriptGroup->pList)
6325                pScriptGroup->pList->GetParent()->DeleteSubChunk(pScriptGroup->pList);
6326            delete pScriptGroup;
6327        }
6328    
6329        void File::LoadScriptGroups() {
6330            if (pScriptGroups) return;
6331            pScriptGroups = new std::list<ScriptGroup*>;
6332            RIFF::List* lstLS = pRIFF->GetSubList(LIST_TYPE_3LS);
6333            if (lstLS) {
6334                for (RIFF::List* lst = lstLS->GetFirstSubList(); lst;
6335                     lst = lstLS->GetNextSubList())
6336                {
6337                    if (lst->GetListType() == LIST_TYPE_RTIS) {
6338                        pScriptGroups->push_back(new ScriptGroup(this, lst));
6339                    }
6340                }
6341            }
6342        }
6343    
6344      /**      /**
6345       * Apply all the gig file's current instruments, samples, groups and settings       * Apply all the gig file's current instruments, samples, groups and settings
6346       * to the respective RIFF chunks. You have to call Save() to make changes       * to the respective RIFF chunks. You have to call Save() to make changes
# Line 3893  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6349  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6349       * Usually there is absolutely no need to call this method explicitly.       * Usually there is absolutely no need to call this method explicitly.
6350       * It will be called automatically when File::Save() was called.       * It will be called automatically when File::Save() was called.
6351       *       *
6352         * @param pProgress - callback function for progress notification
6353       * @throws Exception - on errors       * @throws Exception - on errors
6354       */       */
6355      void File::UpdateChunks() {      void File::UpdateChunks(progress_t* pProgress) {
6356          bool newFile = pRIFF->GetSubList(LIST_TYPE_INFO) == NULL;          bool newFile = pRIFF->GetSubList(LIST_TYPE_INFO) == NULL;
6357    
6358          b64BitWavePoolOffsets = pVersion && pVersion->major == 3;          // update own gig format extension chunks
6359            // (not part of the GigaStudio 4 format)
6360            RIFF::List* lst3LS = pRIFF->GetSubList(LIST_TYPE_3LS);
6361            if (!lst3LS) {
6362                lst3LS = pRIFF->AddSubList(LIST_TYPE_3LS);
6363            }
6364            // Make sure <3LS > chunk is placed before <ptbl> chunk. The precise
6365            // location of <3LS > is irrelevant, however it should be located
6366            // before  the actual wave data
6367            RIFF::Chunk* ckPTBL = pRIFF->GetSubChunk(CHUNK_ID_PTBL);
6368            pRIFF->MoveSubChunk(lst3LS, ckPTBL);
6369    
6370            // This must be performed before writing the chunks for instruments,
6371            // because the instruments' script slots will write the file offsets
6372            // of the respective instrument script chunk as reference.
6373            if (pScriptGroups) {
6374                // Update instrument script (group) chunks.
6375                for (std::list<ScriptGroup*>::iterator it = pScriptGroups->begin();
6376                     it != pScriptGroups->end(); ++it)
6377                {
6378                    (*it)->UpdateChunks(pProgress);
6379                }
6380            }
6381    
6382            // in case no libgig custom format data was added, then remove the
6383            // custom "3LS " chunk again
6384            if (!lst3LS->CountSubChunks()) {
6385                pRIFF->DeleteSubChunk(lst3LS);
6386                lst3LS = NULL;
6387            }
6388    
6389          // first update base class's chunks          // first update base class's chunks
6390          DLS::File::UpdateChunks();          DLS::File::UpdateChunks(pProgress);
6391    
6392          if (newFile) {          if (newFile) {
6393              // INFO was added by Resource::UpdateChunks - make sure it              // INFO was added by Resource::UpdateChunks - make sure it
# Line 3915  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6401  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6401    
6402          // update group's chunks          // update group's chunks
6403          if (pGroups) {          if (pGroups) {
6404              std::list<Group*>::iterator iter = pGroups->begin();              // make sure '3gri' and '3gnl' list chunks exist
6405              std::list<Group*>::iterator end  = pGroups->end();              // (before updating the Group chunks)
6406              for (; iter != end; ++iter) {              RIFF::List* _3gri = pRIFF->GetSubList(LIST_TYPE_3GRI);
6407                  (*iter)->UpdateChunks();              if (!_3gri) {
6408                    _3gri = pRIFF->AddSubList(LIST_TYPE_3GRI);
6409                    pRIFF->MoveSubChunk(_3gri, pRIFF->GetSubChunk(CHUNK_ID_PTBL));
6410              }              }
6411                RIFF::List* _3gnl = _3gri->GetSubList(LIST_TYPE_3GNL);
6412                if (!_3gnl) _3gnl = _3gri->AddSubList(LIST_TYPE_3GNL);
6413    
6414              // v3: make sure the file has 128 3gnm chunks              // v3: make sure the file has 128 3gnm chunks
6415              if (pVersion && pVersion->major == 3) {              // (before updating the Group chunks)
6416                  RIFF::List* _3gnl = pRIFF->GetSubList(LIST_TYPE_3GRI)->GetSubList(LIST_TYPE_3GNL);              if (pVersion && pVersion->major > 2) {
6417                  RIFF::Chunk* _3gnm = _3gnl->GetFirstSubChunk();                  RIFF::Chunk* _3gnm = _3gnl->GetFirstSubChunk();
6418                  for (int i = 0 ; i < 128 ; i++) {                  for (int i = 0 ; i < 128 ; i++) {
6419                      if (i >= pGroups->size()) ::SaveString(CHUNK_ID_3GNM, _3gnm, _3gnl, "", "", true, 64);                      if (i >= pGroups->size()) ::SaveString(CHUNK_ID_3GNM, _3gnm, _3gnl, "", "", true, 64);
6420                      if (_3gnm) _3gnm = _3gnl->GetNextSubChunk();                      if (_3gnm) _3gnm = _3gnl->GetNextSubChunk();
6421                  }                  }
6422              }              }
6423    
6424                std::list<Group*>::iterator iter = pGroups->begin();
6425                std::list<Group*>::iterator end  = pGroups->end();
6426                for (; iter != end; ++iter) {
6427                    (*iter)->UpdateChunks(pProgress);
6428                }
6429          }          }
6430    
6431          // update einf chunk          // update einf chunk
# Line 3948  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6444  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6444          // Note that there are several fields with unknown use. These          // Note that there are several fields with unknown use. These
6445          // are set to zero.          // are set to zero.
6446    
6447          int sublen = pSamples->size() / 8 + 49;          int sublen = int(pSamples->size() / 8 + 49);
6448          int einfSize = (Instruments + 1) * sublen;          int einfSize = (Instruments + 1) * sublen;
6449    
6450          RIFF::Chunk* einf = pRIFF->GetSubChunk(CHUNK_ID_EINF);          RIFF::Chunk* einf = pRIFF->GetSubChunk(CHUNK_ID_EINF);
# Line 4021  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6517  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6517                  store32(&pData[(instrumentIdx + 1) * sublen + 24], nbloops);                  store32(&pData[(instrumentIdx + 1) * sublen + 24], nbloops);
6518                  // next 8 bytes unknown                  // next 8 bytes unknown
6519                  store32(&pData[(instrumentIdx + 1) * sublen + 36], instrumentIdx);                  store32(&pData[(instrumentIdx + 1) * sublen + 36], instrumentIdx);
6520                  store32(&pData[(instrumentIdx + 1) * sublen + 40], pSamples->size());                  store32(&pData[(instrumentIdx + 1) * sublen + 40], (uint32_t) pSamples->size());
6521                  // next 4 bytes unknown                  // next 4 bytes unknown
6522    
6523                  totnbregions += instrument->Regions;                  totnbregions += instrument->Regions;
# Line 4039  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6535  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6535              store32(&pData[24], totnbloops);              store32(&pData[24], totnbloops);
6536              // next 8 bytes unknown              // next 8 bytes unknown
6537              // next 4 bytes unknown, not always 0              // next 4 bytes unknown, not always 0
6538              store32(&pData[40], pSamples->size());              store32(&pData[40], (uint32_t) pSamples->size());
6539              // next 4 bytes unknown              // next 4 bytes unknown
6540          }          }
6541    
6542          // update 3crc chunk          // update 3crc chunk
6543    
6544          // The 3crc chunk contains CRC-32 checksums for the          // The 3crc chunk contains CRC-32 checksums for the
6545          // samples. The actual checksum values will be filled in          // samples. When saving a gig file to disk, we first update the 3CRC
6546          // later, by Sample::Write.          // chunk here (in RAM) with the old crc values which we read from the
6547            // 3CRC chunk when we opened the file (available with gig::Sample::crc
6548            // member variable). This step is required, because samples might have
6549            // been deleted by the user since the file was opened, which in turn
6550            // changes the order of the (i.e. old) checksums within the 3crc chunk.
6551            // If a sample was conciously modified by the user (that is if
6552            // Sample::Write() was called later on) then Sample::Write() will just
6553            // update the respective individual checksum(s) directly on disk and
6554            // leaves all other sample checksums untouched.
6555    
6556          RIFF::Chunk* _3crc = pRIFF->GetSubChunk(CHUNK_ID_3CRC);          RIFF::Chunk* _3crc = pRIFF->GetSubChunk(CHUNK_ID_3CRC);
6557          if (_3crc) {          if (_3crc) {
6558              _3crc->Resize(pSamples->size() * 8);              _3crc->Resize(pSamples->size() * 8);
6559          } else if (newFile) {          } else /*if (newFile)*/ {
6560              _3crc = pRIFF->AddSubChunk(CHUNK_ID_3CRC, pSamples->size() * 8);              _3crc = pRIFF->AddSubChunk(CHUNK_ID_3CRC, pSamples->size() * 8);
             _3crc->LoadChunkData();  
   
6561              // the order of einf and 3crc is not the same in v2 and v3              // the order of einf and 3crc is not the same in v2 and v3
6562              if (einf && pVersion && pVersion->major == 3) pRIFF->MoveSubChunk(_3crc, einf);              if (einf && pVersion && pVersion->major > 2) pRIFF->MoveSubChunk(_3crc, einf);
6563            }
6564            { // must be performed in RAM here ...
6565                uint32_t* pData = (uint32_t*) _3crc->LoadChunkData();
6566                if (pData) {
6567                    File::SampleList::iterator iter = pSamples->begin();
6568                    File::SampleList::iterator end  = pSamples->end();
6569                    for (int index = 0; iter != end; ++iter, ++index) {
6570                        gig::Sample* pSample = (gig::Sample*) *iter;
6571                        pData[index*2]   = 1; // always 1
6572                        pData[index*2+1] = pSample->crc;
6573                    }
6574                }
6575            }
6576        }
6577        
6578        void File::UpdateFileOffsets() {
6579            DLS::File::UpdateFileOffsets();
6580    
6581            for (Instrument* instrument = GetFirstInstrument(); instrument;
6582                 instrument = GetNextInstrument())
6583            {
6584                instrument->UpdateScriptFileOffsets();
6585          }          }
6586      }      }
6587    
# Line 4093  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger Line 6617  MidiRuleCtrlTrigger::MidiRuleCtrlTrigger
6617  // *************** Exception ***************  // *************** Exception ***************
6618  // *  // *
6619    
6620      Exception::Exception(String Message) : DLS::Exception(Message) {      Exception::Exception() : DLS::Exception() {
6621        }
6622    
6623        Exception::Exception(String format, ...) : DLS::Exception() {
6624            va_list arg;
6625            va_start(arg, format);
6626            Message = assemble(format, arg);
6627            va_end(arg);
6628        }
6629    
6630        Exception::Exception(String format, va_list arg) : DLS::Exception() {
6631            Message = assemble(format, arg);
6632      }      }
6633    
6634      void Exception::PrintMessage() {      void Exception::PrintMessage() {

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