/* * NoteData is organized by: * track - corresponds to different columns of notes on the screen * row/index - corresponds to subdivisions of beats */ #include "global.h" #include "NoteData.h" #include "RageUtil.h" #include "RageLog.h" #include "XmlFile.h" #include "Foreach.h" #include "RageUtil_AutoPtr.h" REGISTER_CLASS_TRAITS( NoteData, new NoteData(*pCopy) ) void NoteData::Init() { m_TapNotes = vector(); // ensure that the memory is freed } void NoteData::SetNumTracks( int iNewNumTracks ) { ASSERT( iNewNumTracks > 0 ); m_TapNotes.resize( iNewNumTracks ); } bool NoteData::IsComposite() const { for( int track = 0; track < GetNumTracks(); ++track ) { FOREACHM_CONST( int, TapNote, m_TapNotes[track], tn ) if( tn->second.pn != PLAYER_INVALID ) return true; } return false; } /* Clear [rowBegin,rowEnd). */ void NoteData::ClearRangeForTrack( int rowBegin, int rowEnd, int iTrack ) { /* Optimization: if the range encloses everything, just clear the whole maps. */ if( rowBegin == 0 && rowEnd == MAX_NOTE_ROW ) { m_TapNotes[iTrack].clear(); return; } /* If the range is empty, don't do anything. Otherwise, an empty range will cause * hold notes to be split when they shouldn't be. */ if( rowBegin == rowEnd ) return; iterator begin, end; GetTapNoteRangeInclusive( iTrack, rowBegin, rowEnd, begin, end ); if( begin != end && begin->first < rowBegin && begin->first + begin->second.iDuration > rowEnd ) { /* A hold note overlaps the whole range. Truncate it, and add the remainder to * the end. */ TapNote tn1 = begin->second; TapNote tn2 = tn1; int iEndRow = begin->first + tn1.iDuration; int iRow = begin->first; tn1.iDuration = rowBegin - iRow; tn2.iDuration = iEndRow - rowEnd; SetTapNote( iTrack, iRow, tn1 ); SetTapNote( iTrack, rowEnd, tn2 ); /* We may have invalidated our iterators. */ GetTapNoteRangeInclusive( iTrack, rowBegin, rowEnd, begin, end ); } else if( begin != end && begin->first < rowBegin ) { /* A hold note overlaps the beginning of the range. Truncate it. */ TapNote &tn1 = begin->second; int iRow = begin->first; tn1.iDuration = rowBegin - iRow; ++begin; } if( begin != end ) { iterator prev = end; --prev; TapNote tn = begin->second; int iRow = prev->first; if( tn.type == TapNote::hold_head && iRow + tn.iDuration > rowEnd ) { /* A hold note overlaps the end of the range. Separate it. */ SetTapNote( iTrack, iRow, TAP_EMPTY ); int iAdd = rowEnd - iRow; tn.iDuration -= iAdd; iRow += iAdd; SetTapNote( iTrack, iRow, tn ); end = prev; } /* We may have invalidated our iterators. */ GetTapNoteRangeInclusive( iTrack, rowBegin, rowEnd, begin, end ); } m_TapNotes[iTrack].erase( begin, end ); } void NoteData::ClearRange( int rowBegin, int rowEnd ) { for( int t=0; t < GetNumTracks(); ++t ) ClearRangeForTrack( rowBegin, rowEnd, t ); } void NoteData::ClearAll() { for( int t=0; t rowFromEnd ) return; /* empty range */ const int rowToEnd = (rowFromEnd-rowFromBegin) + rowToBegin; const int iMoveBy = rowToBegin-rowFromBegin; /* Clear the region. */ ClearRange( rowToBegin, rowToEnd ); for( int t=0; tsecond; if( head.type == TapNote::empty ) continue; if( head.type == TapNote::hold_head ) { int iStartRow = begin->first + iMoveBy; int iEndRow = iStartRow + head.iDuration; iStartRow = clamp( iStartRow, rowToBegin, rowToEnd ); iEndRow = clamp( iEndRow, rowToBegin, rowToEnd ); this->AddHoldNote( t, iStartRow, iEndRow, head ); } else { int iTo = begin->first + iMoveBy; if( iTo >= rowToBegin && iTo <= rowToEnd ) this->SetTapNote( t, iTo, head ); } } } } void NoteData::CopyAll( const NoteData& from ) { *this = from; } bool NoteData::IsRowEmpty( int row ) const { for( int t=0; t& addTo ) const { for( int t=0; t=0; t-- ) { if( GetTapNote( t, row ).type == TapNote::empty ) { iEmptyTrackOut = t; return true; } } return false; } int NoteData::GetNumTracksWithTap( int row ) const { int iNum = 0; for( int t=0; t=0; t-- ) { const TapNote &tn = GetTapNote( t, row ); if( tn.type == TapNote::tap || tn.type == TapNote::lift || tn.type == TapNote::hold_head ) return t; } return -1; } void NoteData::AddHoldNote( int iTrack, int iStartRow, int iEndRow, TapNote tn ) { ASSERT( iStartRow>=0 && iEndRow>=0 ); ASSERT_M( iEndRow >= iStartRow, ssprintf("EndRow %d < StartRow %d",iEndRow,iStartRow) ); /* Include adjacent (non-overlapping) hold notes, since we need to merge with them. */ iterator begin, end; GetTapNoteRangeInclusive( iTrack, iStartRow, iEndRow, begin, end, true ); /* Look for other hold notes that overlap and merge them into add. */ for( iterator it = begin; it != end; ++it ) { int iOtherRow = it->first; const TapNote &tnOther = it->second; if( tnOther.type == TapNote::hold_head ) { iStartRow = min( iStartRow, iOtherRow ); iEndRow = max( iEndRow, iOtherRow + tnOther.iDuration ); } } tn.iDuration = iEndRow - iStartRow; /* Remove everything in the range. */ while( begin != end ) { iterator next = begin; ++next; RemoveTapNote( iTrack, begin ); begin = next; } /* Additionally, if there's a tap note lying at the end of our range, remove it, * too. */ SetTapNote( iTrack, iEndRow, TAP_EMPTY ); // add a tap note at the start of this hold SetTapNote( iTrack, iStartRow, tn ); } /* Determine if a hold note lies on the given spot. Return true if so. If * pHeadRow is non-NULL, return the row of the head. */ bool NoteData::IsHoldHeadOrBodyAtRow( int iTrack, int iRow, int *pHeadRow ) const { const TapNote &tn = GetTapNote( iTrack, iRow ); if( tn.type == TapNote::hold_head ) { if( pHeadRow != NULL ) *pHeadRow = iRow; return true; } return IsHoldNoteAtRow( iTrack, iRow, pHeadRow ); } /* Determine if a hold note lies on the given spot. Return true if so. If * pHeadRow is non-NULL, return the row of the head. (Note that this returns * false if a hold head lies on iRow itself.) */ /* XXX: rename this to IsHoldBodyAtRow */ bool NoteData::IsHoldNoteAtRow( int iTrack, int iRow, int *pHeadRow ) const { int iDummy; if( pHeadRow == NULL ) pHeadRow = &iDummy; /* Starting at iRow, search upwards. If we find a TapNote::hold_head, we're within * a hold. If we find a tap, mine or attack, we're not--those never lie within hold * notes. Ignore autoKeysound. */ FOREACH_NONEMPTY_ROW_IN_TRACK_RANGE_REVERSE( *this, iTrack, r, 0, iRow ) { const TapNote &tn = GetTapNote( iTrack, r ); switch( tn.type ) { case TapNote::hold_head: if( tn.iDuration + r < iRow ) return false; *pHeadRow = r; return true; case TapNote::tap: case TapNote::mine: case TapNote::attack: case TapNote::lift: case TapNote::fake: return false; case TapNote::empty: case TapNote::autoKeysound: /* ignore */ continue; DEFAULT_FAIL( tn.type ); } } return false; } bool NoteData::IsEmpty() const { for( int t=0; t < GetNumTracks(); t++ ) { int iRow = -1; if( !GetNextTapNoteRowForTrack( t, iRow ) ) continue; return false; } return true; } int NoteData::GetFirstRow() const { int iEarliestRowFoundSoFar = -1; for( int t=0; t < GetNumTracks(); t++ ) { int iRow = -1; if( !GetNextTapNoteRowForTrack( t, iRow ) ) continue; if( iEarliestRowFoundSoFar == -1 ) iEarliestRowFoundSoFar = iRow; else iEarliestRowFoundSoFar = min( iEarliestRowFoundSoFar, iRow ); } if( iEarliestRowFoundSoFar == -1 ) // there are no notes return 0; return iEarliestRowFoundSoFar; } int NoteData::GetLastRow() const { int iOldestRowFoundSoFar = 0; for( int t=0; t < GetNumTracks(); t++ ) { int iRow = MAX_NOTE_ROW; if( !GetPrevTapNoteRowForTrack( t, iRow ) ) continue; /* XXX: We might have a hold note near the end with autoplay sounds * after it. Do something else with autoplay sounds ... */ const TapNote &tn = GetTapNote( t, iRow ); if( tn.type == TapNote::hold_head ) iRow += tn.iDuration; iOldestRowFoundSoFar = max( iOldestRowFoundSoFar, iRow ); } return iOldestRowFoundSoFar; } int NoteData::GetNumTapNotes( int iStartIndex, int iEndIndex ) const { int iNumNotes = 0; for( int t=0; t= iMinSimultaneousPresses; } int NoteData::GetNumRowsWithSimultaneousPresses( int iMinSimultaneousPresses, int iStartIndex, int iEndIndex ) const { /* Count the number of times you have to use your hands. This includes * three taps at the same time, a tap while two hold notes are being held, * etc. Only count rows that have at least one tap note (hold heads count). * Otherwise, every row of hold notes counts, so three simultaneous hold * notes will count as hundreds of "hands". */ int iNum = 0; FOREACH_NONEMPTY_ROW_ALL_TRACKS_RANGE( *this, r, iStartIndex, iEndIndex ) { if( !RowNeedsAtLeastSimultaneousPresses(iMinSimultaneousPresses,r) ) continue; iNum++; } return iNum; } int NoteData::GetNumRowsWithSimultaneousTaps( int iMinTaps, int iStartIndex, int iEndIndex ) const { int iNum = 0; FOREACH_NONEMPTY_ROW_ALL_TRACKS_RANGE( *this, r, iStartIndex, iEndIndex ) { int iNumNotesThisIndex = 0; for( int t=0; t= iMinTaps ) iNum++; } return iNum; } int NoteData::GetNumHoldNotes( int iStartIndex, int iEndIndex ) const { int iNumHolds = 0; for( int t=0; tsecond.type != TapNote::hold_head || begin->second.subType != TapNote::hold_head_hold ) continue; iNumHolds++; } } return iNumHolds; } int NoteData::GetNumRolls( int iStartIndex, int iEndIndex ) const { int iNumRolls = 0; for( int t=0; tsecond.type != TapNote::hold_head || begin->second.subType != TapNote::hold_head_roll ) continue; iNumRolls++; } } return iNumRolls; } /* int NoteData::GetNumMinefields( int iStartIndex, int iEndIndex ) const { int iNumMinefields = 0; for( int t=0; tsecond.type != TapNote::hold_head || begin->second.subType != TapNote::hold_head_mine ) continue; iNumMinefields++; } } return iNumMinefields; } */ // -1 for iOriginalTracksToTakeFrom means no track void NoteData::LoadTransformed( const NoteData& in, int iNewNumTracks, const int iOriginalTrackToTakeFrom[] ) { // reset all notes Init(); SetNumTracks( iNewNumTracks ); // copy tracks for( int t=0; t= %i (to %i)", iOriginalTrack, in.GetNumTracks(), iOriginalTrackToTakeFrom[t])); if( iOriginalTrack == -1 ) continue; m_TapNotes[t] = in.m_TapNotes[iOriginalTrack]; } } void NoteData::MoveTapNoteTrack( int dest, int src ) { if(dest == src) return; m_TapNotes[dest] = m_TapNotes[src]; m_TapNotes[src].clear(); } void NoteData::SetTapNote( int track, int row, const TapNote& t ) { DEBUG_ASSERT( track>=0 && track& addTo ) { for( int t=0; t viTracks; viTracks.clear(); GetTracksHeldAtRow( row, viTracks ); return viTracks.size(); } bool NoteData::GetNextTapNoteRowForTrack( int track, int &rowInOut ) const { const TrackMap &mapTrack = m_TapNotes[track]; // lower_bound and upper_bound have the same effect here because duplicate // keys aren't allowed. // lower_bound "finds the first element whose key is not less than k" (>=); // upper_bound "finds the first element whose key greater than k". They don't // have the same effect, but lower_bound(row+1) should equal upper_bound(row). -glenn TrackMap::const_iterator iter = mapTrack.lower_bound( rowInOut+1 ); // "find the first note for which row+1 < key == false" if( iter == mapTrack.end() ) return false; ASSERT( iter->first > rowInOut ); rowInOut = iter->first; return true; } bool NoteData::GetPrevTapNoteRowForTrack( int track, int &rowInOut ) const { const TrackMap &mapTrack = m_TapNotes[track]; // Find the first note >= rowInOut. TrackMap::const_iterator iter = mapTrack.lower_bound( rowInOut ); // If we're at the beginning, we can't move back any more. if( iter == mapTrack.begin() ) return false; // Move back by one. --iter; ASSERT( iter->first < rowInOut ); rowInOut = iter->first; return true; } /* Return an iterator range for [rowBegin,rowEnd). This can be used to efficiently * iterate trackwise over a range of notes. It's like FOREACH_NONEMPTY_ROW_IN_TRACK_RANGE, * except it only requires two map searches (iterating is constant time), but the iterators will * become invalid if the notes they represent disappear, so you need to pay attention to * how you modify the data. */ void NoteData::GetTapNoteRange( int iTrack, int iStartRow, int iEndRow, TrackMap::iterator &begin, TrackMap::iterator &end ) { ASSERT_M( iTrack < GetNumTracks(), ssprintf("%i,%i", iTrack, GetNumTracks()) ); TrackMap &mapTrack = m_TapNotes[iTrack]; if( iStartRow > iEndRow ) { begin = end = mapTrack.end(); return; } if( iStartRow <= 0 ) begin = mapTrack.begin(); // optimization else if( iStartRow >= MAX_NOTE_ROW ) begin = mapTrack.end(); // optimization else begin = mapTrack.lower_bound( iStartRow ); if( iEndRow <= 0 ) end = mapTrack.begin(); // optimization else if( iEndRow >= MAX_NOTE_ROW ) end = mapTrack.end(); // optimization else end = mapTrack.lower_bound( iEndRow ); } /* Include hold notes that overlap the edges. If a hold note completely surrounds the given * range, included it, too. If bIncludeAdjacent is true, also include hold notes adjacent to, * but not overlapping, the edge. */ void NoteData::GetTapNoteRangeInclusive( int iTrack, int iStartRow, int iEndRow, iterator &begin, iterator &end, bool bIncludeAdjacent ) { GetTapNoteRange( iTrack, iStartRow, iEndRow, begin, end ); if( begin != this->begin(iTrack) ) { iterator prev = Decrement(begin); const TapNote &tn = prev->second; if( tn.type == TapNote::hold_head ) { int iHoldStartRow = prev->first; int iHoldEndRow = iHoldStartRow + tn.iDuration; if( bIncludeAdjacent ) ++iHoldEndRow; if( iHoldEndRow > iStartRow ) { // The previous note is a hold. begin = prev; } } } if( bIncludeAdjacent && end != this->end(iTrack) ) { // Include the next note if it's a hold and starts on iEndRow. const TapNote &tn = end->second; int iHoldStartRow = end->first; if( tn.type == TapNote::hold_head && iHoldStartRow == iEndRow ) ++end; } } void NoteData::GetTapNoteRangeExclusive( int iTrack, int iStartRow, int iEndRow, iterator &begin, iterator &end ) { GetTapNoteRange( iTrack, iStartRow, iEndRow, begin, end ); // If end-1 is a hold_head, and extends beyond iEndRow, exclude it. if( begin != end && end != this->begin(iTrack) ) { iterator prev = end; --prev; if( prev->second.type == TapNote::hold_head ) { int iStartRow = prev->first; const TapNote &tn = prev->second; if( iStartRow + tn.iDuration >= iEndRow ) end = prev; } } } void NoteData::GetTapNoteRange( int iTrack, int iStartRow, int iEndRow, TrackMap::const_iterator &begin, TrackMap::const_iterator &end ) const { TrackMap::iterator const_begin, const_end; const_cast(this)->GetTapNoteRange( iTrack, iStartRow, iEndRow, const_begin, const_end ); begin = const_begin; end = const_end; } void NoteData::GetTapNoteRangeInclusive( int iTrack, int iStartRow, int iEndRow, TrackMap::const_iterator &begin, TrackMap::const_iterator &end, bool bIncludeAdjacent ) const { TrackMap::iterator const_begin, const_end; const_cast(this)->GetTapNoteRangeInclusive( iTrack, iStartRow, iEndRow, const_begin, const_end, bIncludeAdjacent ); begin = const_begin; end = const_end; } void NoteData::GetTapNoteRangeExclusive( int iTrack, int iStartRow, int iEndRow, TrackMap::const_iterator &begin, TrackMap::const_iterator &end ) const { TrackMap::iterator const_begin, const_end; const_cast(this)->GetTapNoteRange( iTrack, iStartRow, iEndRow, const_begin, const_end ); begin = const_begin; end = const_end; } bool NoteData::GetNextTapNoteRowForAllTracks( int &rowInOut ) const { int iClosestNextRow = MAX_NOTE_ROW; bool bAnyHaveNextNote = false; for( int t=0; tCreateNode(); p2->AppendAttr( "Track", iter.Track() ); p2->AppendAttr( "Row", iter.Row() ); p->AppendChild( p2 ); } return p; } void NoteData::LoadFromNode( const XNode* pNode ) { ASSERT(0); } template void NoteData::_all_tracks_iterator::Find( bool bReverse ) { // If no notes can be found in the range, m_iTrack will stay -1 and IsAtEnd() will return true. m_iTrack = -1; if( bReverse ) { int iMaxRow = INT_MIN; for( int iTrack = m_pNoteData->GetNumTracks() - 1; iTrack >= 0; --iTrack ) { iter &i( m_vCurrentIters[iTrack] ); const iter &end = m_vEndIters[iTrack]; if( i != end && i->first > iMaxRow ) { iMaxRow = i->first; m_iTrack = iTrack; } } } else { int iMinRow = INT_MAX; for( int iTrack = 0; iTrack < m_pNoteData->GetNumTracks(); ++iTrack ) { iter &i = m_vCurrentIters[iTrack]; const iter &end = m_vEndIters[iTrack]; if( i != end && i->first < iMinRow ) { iMinRow = i->first; m_iTrack = iTrack; } } } } template NoteData::_all_tracks_iterator::_all_tracks_iterator( ND &nd, int iStartRow, int iEndRow, bool bReverse, bool bInclusive ) : m_pNoteData(&nd), m_iTrack(0), m_bReverse(bReverse) { ASSERT( m_pNoteData->GetNumTracks() > 0 ); for( int iTrack = 0; iTrack < m_pNoteData->GetNumTracks(); ++iTrack ) { iter begin, end; if( bInclusive ) m_pNoteData->GetTapNoteRangeInclusive( iTrack, iStartRow, iEndRow, begin, end ); else m_pNoteData->GetTapNoteRange( iTrack, iStartRow, iEndRow, begin, end ); m_vBeginIters.push_back( begin ); m_vEndIters.push_back( end ); iter cur; if( m_bReverse ) { cur = end; if( cur != begin ) cur--; } else { cur = begin; } m_vCurrentIters.push_back( cur ); } Find( bReverse ); } template NoteData::_all_tracks_iterator::_all_tracks_iterator( const _all_tracks_iterator &other ) : #define COPY_OTHER( x ) x( other.x ) COPY_OTHER( m_pNoteData ), COPY_OTHER( m_vBeginIters ), COPY_OTHER( m_vCurrentIters ), COPY_OTHER( m_vEndIters ), COPY_OTHER( m_iTrack ), COPY_OTHER( m_bReverse ) #undef COPY_OTHER { } template NoteData::_all_tracks_iterator &NoteData::_all_tracks_iterator::operator++() // preincrement { if( m_bReverse ) { if( m_vCurrentIters[m_iTrack] == m_vBeginIters[m_iTrack] ) m_vCurrentIters[m_iTrack] = m_vEndIters[m_iTrack]; else --m_vCurrentIters[m_iTrack]; } else { ++m_vCurrentIters[m_iTrack]; } Find( m_bReverse ); return *this; } template NoteData::_all_tracks_iterator NoteData::_all_tracks_iterator::operator++( int dummy ) // postincrement { _all_tracks_iterator ret( *this ); operator++(); return ret; } /* XXX: This doesn't satisfy the requirements that ++iter; --iter; is a no-op so it cannot be bidirectional for now. */ #if 0 template NoteData::_all_tracks_iterator &NoteData::_all_tracks_iterator::operator--() // predecrement { if( m_bReverse ) { ++m_vCurrentIters[m_iTrack]; } else { if( m_vCurrentIters[m_iTrack] == m_vEndIters[m_iTrack] ) m_vCurrentIters[m_iTrack] = m_vEndIters[m_iTrack]; else --m_vCurrentIters[m_iTrack]; } Find( !m_bReverse ); return *this; } template NoteData::_all_tracks_iterator NoteData::_all_tracks_iterator::operator--( int dummy ) // postdecrement { _all_tracks_iterator ret( *this ); operator--(); return ret; } #endif // Explicit instantiation. template class NoteData::_all_tracks_iterator; template class NoteData::_all_tracks_iterator; /* * (c) 2001-2004 Chris Danford, Glenn Maynard * All rights reserved. * * Permission is hereby granted, free of charge, to any person obtaining a * copy of this software and associated documentation files (the * "Software"), to deal in the Software without restriction, including * without limitation the rights to use, copy, modify, merge, publish, * distribute, and/or sell copies of the Software, and to permit persons to * whom the Software is furnished to do so, provided that the above * copyright notice(s) and this permission notice appear in all copies of * the Software and that both the above copyright notice(s) and this * permission notice appear in supporting documentation. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS * OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF * MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT OF * THIRD PARTY RIGHTS. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR HOLDERS * INCLUDED IN THIS NOTICE BE LIABLE FOR ANY CLAIM, OR ANY SPECIAL INDIRECT * OR CONSEQUENTIAL DAMAGES, OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS * OF USE, DATA OR PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE OR * OTHER TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR * PERFORMANCE OF THIS SOFTWARE. */