View detailed description.

1) Doxygen for the structs.
2) Simplify operator functions >= and >.
3) More accurate operator functions <.
4) Add WarpSegment constructor that may be useful.
This commit is contained in:
Jason Felds
2011-02-12 15:43:24 -05:00
parent 5a63131f59
commit 02a3d66230
+342 -51
View File
@@ -1,4 +1,4 @@
/* TimingData - Holds data for translating beats<->seconds. */ /** @brief TimingData - Holds data for translating beats<->seconds. */
#ifndef TIMING_DATA_H #ifndef TIMING_DATA_H
#define TIMING_DATA_H #define TIMING_DATA_H
@@ -7,54 +7,149 @@
#include "PrefsManager.h" #include "PrefsManager.h"
struct lua_State; struct lua_State;
/** @brief Compare a TimingData segment's properties with one another. */
#define COMPARE(x) if(x!=other.x) return false; #define COMPARE(x) if(x!=other.x) return false;
/**
* @brief Identifies when a song changes its BPM.
*/
struct BPMSegment struct BPMSegment
{ {
/**
* @brief Creates a simple BPM Segment with default values.
*
* It is best to override the values as soon as possible.
*/
BPMSegment() : m_iStartRow(-1), m_fBPS(-1.0f) { } BPMSegment() : m_iStartRow(-1), m_fBPS(-1.0f) { }
/**
* @brief Creates a BPM Segment with the specified starting row and beats per second.
* @param s the starting row of this segment.
* @param b the beats per second to be turned into beats per minute.
*/
BPMSegment( int s, float b ) { m_iStartRow = max( 0, s ); SetBPM( b ); } BPMSegment( int s, float b ) { m_iStartRow = max( 0, s ); SetBPM( b ); }
/**
* @brief The row in which the BPMSegment activates.
*/
int m_iStartRow; int m_iStartRow;
/**
* @brief The BPS to use when this row is reached.
*/
float m_fBPS; float m_fBPS;
/**
* @brief Converts the BPS to a BPM.
* @param f The BPM.
*/
void SetBPM( float f ) { m_fBPS = f / 60.0f; } void SetBPM( float f ) { m_fBPS = f / 60.0f; }
/**
* @brief Retrieves the BPM from the BPS.
* @return the BPM.
*/
float GetBPM() const { return m_fBPS * 60.0f; } float GetBPM() const { return m_fBPS * 60.0f; }
/**
* @brief Compares two BPMSegments to see if they are equal to each other.
* @param other the other BPMSegment to compare to.
* @return the equality of the two segments.
*/
bool operator==( const BPMSegment &other ) const bool operator==( const BPMSegment &other ) const
{ {
COMPARE( m_iStartRow ); COMPARE( m_iStartRow );
COMPARE( m_fBPS ); COMPARE( m_fBPS );
return true; return true;
} }
/**
* @brief Compares two BPMSegments to see if they are not equal to each other.
* @param other the other BPMSegment to compare to.
* @return the inequality of the two segments.
*/
bool operator!=( const BPMSegment &other ) const { return !operator==(other); } bool operator!=( const BPMSegment &other ) const { return !operator==(other); }
bool operator<( const BPMSegment &other ) const { return m_iStartRow < other.m_iStartRow; } /**
* @brief Compares two BPMSegments to see if one is less than the other.
* @param other the other BPMSegment to compare to.
* @return the truth/falsehood of if the first is less than the second.
*/
bool operator<( const BPMSegment &other ) const
{
return m_iStartRow < other.m_iStartRow ||
( m_iStartRow == other.m_iStartRow && m_fBPS < other.m_fBPS );
}
/**
* @brief Compares two BPMSegments to see if one is less than or equal to the other.
* @param other the other BPMSegment to compare to.
* @return the truth/falsehood of if the first is less or equal to than the second.
*/
bool operator<=( const BPMSegment &other ) const bool operator<=( const BPMSegment &other ) const
{ {
return ( operator<(other) || operator==(other) ); return ( operator<(other) || operator==(other) );
} }
bool operator>( const BPMSegment &other ) const { return m_iStartRow > other.m_iStartRow; } /**
bool operator>=( const BPMSegment &other ) const * @brief Compares two BPMSegments to see if one is greater than the other.
{ * @param other the other BPMSegment to compare to.
return ( operator>(other) || operator==(other) ); * @return the truth/falsehood of if the first is greater than the second.
} */
bool operator>( const BPMSegment &other ) const { return !operator<=(other); }
/**
* @brief Compares two BPMSegments to see if one is greater than or equal to the other.
* @param other the other BPMSegment to compare to.
* @return the truth/falsehood of if the first is greater than or equal to the second.
*/
bool operator>=( const BPMSegment &other ) const { return !operator<(other); }
}; };
/**
* @brief Identifies when a song has a stop or a delay.
*
* It is hopeful that stops and delays can be made into their own segments at some point.
*/
struct StopSegment struct StopSegment
{ {
/**
* @brief Creates a simple Stop Segment with default values.
*
* It is best to override the values as soon as possible.
*/
StopSegment() : m_iStartRow(-1), m_fStopSeconds(-1.0f), m_bDelay(false) { } StopSegment() : m_iStartRow(-1), m_fStopSeconds(-1.0f), m_bDelay(false) { }
/**
* @brief Creates a Stop Segment at the specified row for the specified length of time.
*
* This will not create a dedicated delay segment. Use the third constructor for
* making delays.
* @param s the starting row of this segment.
* @param f the length of time to pause the note scrolling.
*/
StopSegment( int s, float f ) { StopSegment( int s, float f ) {
m_iStartRow = max( 0, s ); m_iStartRow = max( 0, s );
m_fStopSeconds = PREFSMAN->m_bQuirksMode ? f : max( 0.0f, f ); m_fStopSeconds = PREFSMAN->m_bQuirksMode ? f : max( 0.0f, f );
m_bDelay = false; // no delay by default m_bDelay = false;
} }
/**
* @brief Creates a Stop (or Delay) Segment at the specified row for the specified length of time.
* @param s the starting row of this segment.
* @param f the length of time to pause the note scrolling.
* @param d the flag that makes this Stop Segment a Delay Segment.
*/
StopSegment( int s, float f, bool d ) { StopSegment( int s, float f, bool d ) {
m_iStartRow = max( 0, s ); m_iStartRow = max( 0, s );
m_fStopSeconds = PREFSMAN->m_bQuirksMode ? f : max( 0.0f, f ); m_fStopSeconds = PREFSMAN->m_bQuirksMode ? f : max( 0.0f, f );
m_bDelay = d; m_bDelay = d;
} }
/**
* @brief The row in which the StopSegment activates.
*/
int m_iStartRow; int m_iStartRow;
/**
* @brief The amount of time to complete the pause at the given row.
*/
float m_fStopSeconds; float m_fStopSeconds;
bool m_bDelay; // if true, treat this stop as a Pump delay instead /**
* @brief If true, the Stop Segment is treated as a Delay Segment, similar to the Pump It Up series.
*/
bool m_bDelay;
/**
* @brief Compares two StopSegments to see if they are equal to each other.
* @param other the other StopSegment to compare to.
* @return the equality of the two segments.
*/
bool operator==( const StopSegment &other ) const bool operator==( const StopSegment &other ) const
{ {
COMPARE( m_iStartRow ); COMPARE( m_iStartRow );
@@ -62,56 +157,115 @@ struct StopSegment
COMPARE( m_bDelay ); COMPARE( m_bDelay );
return true; return true;
} }
/**
* @brief Compares two StopSegments to see if they are not equal to each other.
* @param other the other StopSegment to compare to.
* @return the inequality of the two segments.
*/
bool operator!=( const StopSegment &other ) const { return !operator==(other); } bool operator!=( const StopSegment &other ) const { return !operator==(other); }
// Delays need to come before stops to not render them pointless. /**
* @brief Compares two StopSegments to see if one is less than the other.
*
* It should be observed that Delay Segments have to come before Stop Segments.
* Otherwise, it will act like a Stop Segment with extra time from the Delay at
* the same row.
* @param other the other StopSegment to compare to.
* @return the truth/falsehood of if the first is less than the second.
*/
bool operator<( const StopSegment &other ) const bool operator<( const StopSegment &other ) const
{ {
return ( m_iStartRow < other.m_iStartRow ) || return ( m_iStartRow < other.m_iStartRow ) ||
( m_iStartRow == other.m_iStartRow && m_bDelay && !other.m_bDelay ); ( m_iStartRow == other.m_iStartRow &&
( m_bDelay && !other.m_bDelay || m_fStopSeconds < other.m_fStopSeconds ));
} }
/**
* @brief Compares two StopSegments to see if one is less than or equal to the other.
* @param other the other StopSegment to compare to.
* @return the truth/falsehood of if the first is less or equal to than the second.
*/
bool operator<=( const StopSegment &other ) const bool operator<=( const StopSegment &other ) const
{ {
return ( operator<(other) || operator==(other) ); return ( operator<(other) || operator==(other) );
} }
bool operator>( const StopSegment &other ) const /**
{ * @brief Compares two StopSegments to see if one is greater than the other.
return ( m_iStartRow > other.m_iStartRow ) || *
( m_iStartRow == other.m_iStartRow && !m_bDelay && other.m_bDelay ); * Similar to the less than operator function, stops must come after delays
} * to avoid rendering the point of delays pointless.
bool operator>=( const StopSegment &other ) const * @param other the other StopSegment to compare to.
{ * @return the truth/falsehood of if the first is greater than the second.
return ( operator>(other) || operator==(other) ); */
} bool operator>( const StopSegment &other ) const { return !operator<=(other); }
/**
* @brief Compares two StopSegments to see if one is greater than or equal to the other.
* @param other the other StopSegment to compare to.
* @return the truth/falsehood of if the first is greater than or equal to the second.
*/
bool operator>=( const StopSegment &other ) const { return !operator<(other); }
}; };
/* This only supports simple time signatures. The upper number (called the numerator here, though this isn't /**
* @brief Identifies when a song changes its time signature.
*
* This only supports simple time signatures. The upper number (called the numerator here, though this isn't
* properly a fraction) is the number of beats per measure. The lower number (denominator here) * properly a fraction) is the number of beats per measure. The lower number (denominator here)
* is the note value representing one beat. */ * is the note value representing one beat. */
struct TimeSignatureSegment struct TimeSignatureSegment
{ {
/**
* @brief Creates a simple Time Signature Segment with default values.
*/
TimeSignatureSegment() : m_iStartRow(-1), m_iNumerator(4), m_iDenominator(4) { } TimeSignatureSegment() : m_iStartRow(-1), m_iNumerator(4), m_iDenominator(4) { }
/**
* @brief Creates a Time Signature Segment at the given row with a supplied numerator.
* @param r the starting row of the segment.
* @param n the numerator for the segment.
*/
TimeSignatureSegment( int r, int n ) { TimeSignatureSegment( int r, int n ) {
m_iStartRow = max( 0, r ); m_iStartRow = max( 0, r );
m_iNumerator = n; m_iNumerator = n;
m_iDenominator = 64; // Hope we don't need this many. m_iDenominator = 4;
} }
/**
* @brief Creates a Time Signature Segment at the given row with a supplied numerator & denominator.
* @param r the starting row of the segment.
* @param n the numerator for the segment.
* @param d the denonimator for the segment.
*/
TimeSignatureSegment( int r, int n, int d ) { TimeSignatureSegment( int r, int n, int d ) {
m_iStartRow = max( 0, r ); m_iStartRow = max( 0, r );
m_iNumerator = n; m_iNumerator = n;
m_iDenominator = d; m_iDenominator = d;
} }
/**
* @brief The row in which the TimeSignatureSegment activates.
*/
int m_iStartRow; int m_iStartRow;
/**
* @brief The numerator of the TimeSignatureSegment.
*/
int m_iNumerator; int m_iNumerator;
/**
* @brief The denominator of the TimeSignatureSegment.
*/
int m_iDenominator; int m_iDenominator;
/* With BeatToNoteRow(1) rows per beat, then we should have BeatToNoteRow(1)*m_iNumerator /**
* @brief Retrieve the number of note rows per measure within the TimeSignatureSegment.
*
* With BeatToNoteRow(1) rows per beat, then we should have BeatToNoteRow(1)*m_iNumerator
* beats per measure. But if we assume that every BeatToNoteRow(1) rows is a quarter note, * beats per measure. But if we assume that every BeatToNoteRow(1) rows is a quarter note,
* and we want the beats to be 1/m_iDenominator notes, then we should have * and we want the beats to be 1/m_iDenominator notes, then we should have
* BeatToNoteRow(1)*4 is rows per whole note and thus BeatToNoteRow(1)*4/m_iDenominator is * BeatToNoteRow(1)*4 is rows per whole note and thus BeatToNoteRow(1)*4/m_iDenominator is
* rows per beat. Multiplying by m_iNumerator gives rows per measure. */ * rows per beat. Multiplying by m_iNumerator gives rows per measure.
* @returns the number of note rows per measure.
*/
int GetNoteRowsPerMeasure() const { return BeatToNoteRow(1) * 4 * m_iNumerator / m_iDenominator; } int GetNoteRowsPerMeasure() const { return BeatToNoteRow(1) * 4 * m_iNumerator / m_iDenominator; }
/**
* @brief Compares two TimeSignatureSegments to see if they are equal to each other.
* @param other the other TimeSignatureSegment to compare to.
* @return the equality of the two segments.
*/
bool operator==( const TimeSignatureSegment &other ) const bool operator==( const TimeSignatureSegment &other ) const
{ {
COMPARE( m_iStartRow ); COMPARE( m_iStartRow );
@@ -119,80 +273,214 @@ struct TimeSignatureSegment
COMPARE( m_iDenominator ); COMPARE( m_iDenominator );
return true; return true;
} }
/**
* @brief Compares two TimeSignatureSegments to see if they are not equal to each other.
* @param other the other TimeSignatureSegment to compare to.
* @return the inequality of the two segments.
*/
bool operator!=( const TimeSignatureSegment &other ) const { return !operator==(other); } bool operator!=( const TimeSignatureSegment &other ) const { return !operator==(other); }
bool operator<( const TimeSignatureSegment &other ) const { return m_iStartRow < other.m_iStartRow; } /**
* @brief Compares two TimeSignatureSegments to see if one is less than the other.
* @param other the other TimeSignatureSegment to compare to.
* @return the truth/falsehood of if the first is less than the second.
*/
bool operator<( const TimeSignatureSegment &other ) const
{
return m_iStartRow < other.m_iStartRow ||
( m_iStartRow == other.m_iStartRow &&
( m_iNumerator < other.m_iNumerator ||
( m_iNumerator == other.m_iNumerator && m_iDenominator < other.m_iDenominator )));
}
/**
* @brief Compares two TimeSignatureSegments to see if one is less than or equal to the other.
* @param other the other TimeSignatureSegment to compare to.
* @return the truth/falsehood of if the first is less or equal to than the second.
*/
bool operator<=( const TimeSignatureSegment &other ) const bool operator<=( const TimeSignatureSegment &other ) const
{ {
return ( operator<(other) || operator==(other) ); return ( operator<(other) || operator==(other) );
} }
bool operator>( const TimeSignatureSegment &other ) const { return m_iStartRow > other.m_iStartRow; } /**
bool operator>= (const TimeSignatureSegment &other ) const * @brief Compares two TimeSignatureSegments to see if one is greater than the other.
{ * @param other the other TimeSignatureSegment to compare to.
return ( operator>(other) || operator==(other) ); * @return the truth/falsehood of if the first is greater than the second.
} */
bool operator>( const TimeSignatureSegment &other ) const { return !operator<=(other); }
/**
* @brief Compares two TimeSignatureSegments to see if one is greater than or equal to the other.
* @param other the other TimeSignatureSegment to compare to.
* @return the truth/falsehood of if the first is greater than or equal to the second.
*/
bool operator>= (const TimeSignatureSegment &other ) const { return !operator<(other); }
}; };
/* A warp segment is used to replicate the effects of Negative BPMs without /**
* @brief Identifies when a song needs to warp to a new beat.
*
* A warp segment is used to replicate the effects of Negative BPMs without
* abusing negative BPMs. Negative BPMs should be converted to warp segments. * abusing negative BPMs. Negative BPMs should be converted to warp segments.
* WarpAt=WarpTo is the format, where both are in beats. (Technically they're * WarpAt=WarpTo is the format, where both are in beats. (Technically they're
* both rows though.) */ * both rows though.) */
struct WarpSegment struct WarpSegment
{ {
/**
* @brief Creates a simple Warp Segment with default values.
*
* It is best to override the values as soon as possible.
*/
WarpSegment() : m_iStartRow(-1), m_fWarpBeats(-1) { } WarpSegment() : m_iStartRow(-1), m_fWarpBeats(-1) { }
/**
* @brief Creates a Warp Segment with the specified starting row and row to warp to.
* @param s the starting row of this segment.
* @param r the row to warp to.
*/
WarpSegment( int s, int r )
{
m_iStartRow = max( 0, s );
m_fWarpBeats = max( 0, NoteRowToBeat( r ) );
}
/**
* @brief Creates a Warp Segment with the specified starting row and beat to warp to.
* @param s the starting row of this segment.
* @param b the beat to warp to.
*/
WarpSegment( int s, float b ){ m_iStartRow = max( 0, s ); m_fWarpBeats = max( 0, b ); } WarpSegment( int s, float b ){ m_iStartRow = max( 0, s ); m_fWarpBeats = max( 0, b ); }
/**
* @brief The row in which the WarpSegment activates.
*/
int m_iStartRow; int m_iStartRow;
/**
* @brief The beat to warp to.
*/
float m_fWarpBeats; float m_fWarpBeats;
/**
* @brief Compares two WarpSegments to see if they are equal to each other.
* @param other the other WarpSegment to compare to.
* @return the equality of the two segments.
*/
bool operator==( const WarpSegment &other ) const bool operator==( const WarpSegment &other ) const
{ {
COMPARE( m_iStartRow ); COMPARE( m_iStartRow );
COMPARE( m_fWarpBeats ); COMPARE( m_fWarpBeats );
return true; return true;
} }
/**
* @brief Compares two WarpSegments to see if they are not equal to each other.
* @param other the other WarpSegment to compare to.
* @return the inequality of the two segments.
*/
bool operator!=( const WarpSegment &other ) const { return !operator==(other); } bool operator!=( const WarpSegment &other ) const { return !operator==(other); }
bool operator<( const WarpSegment &other ) const { return m_iStartRow < other.m_iStartRow; } /**
* @brief Compares two WarpSegments to see if one is less than the other.
* @param other the other WarpSegment to compare to.
* @return the truth/falsehood of if the first is less than the second.
*/
bool operator<( const WarpSegment &other ) const
{
return m_iStartRow < other.m_iStartRow ||
( m_iStartRow == other.m_iStartRow && m_fWarpBeats < other.m_fWarpBeats );
}
/**
* @brief Compares two WarpSegments to see if one is less than or equal to the other.
* @param other the other WarpSegment to compare to.
* @return the truth/falsehood of if the first is less or equal to than the second.
*/
bool operator<=( const WarpSegment &other ) const bool operator<=( const WarpSegment &other ) const
{ {
return ( operator<(other) || operator==(other) ); return ( operator<(other) || operator==(other) );
} }
bool operator>( const WarpSegment &other ) const { return m_iStartRow > other.m_iStartRow; } /**
bool operator>=( const WarpSegment &other ) const * @brief Compares two WarpSegments to see if one is greater than the other.
{ * @param other the other WarpSegment to compare to.
return ( operator>(other) || operator==(other) ); * @return the truth/falsehood of if the first is greater than the second.
} */
bool operator>( const WarpSegment &other ) const { return !operator<=(other); }
/**
* @brief Compares two WarpSegments to see if one is greater than or equal to the other.
* @param other the other WarpSegment to compare to.
* @return the truth/falsehood of if the first is greater than or equal to the second.
*/
bool operator>=( const WarpSegment &other ) const { return !operator<(other); }
}; };
/* /**
* @brief Identifies when a chart is to have a different tickcount value for hold notes.
*
* A tickcount segment is used to better replicate the checkpoint hold * A tickcount segment is used to better replicate the checkpoint hold
* system used by various based video games. The number is used to * system used by various based video games. The number is used to
* represent how many ticks can be counted in one beat. * represent how many ticks can be counted in one beat.
*/ */
struct TickcountSegment struct TickcountSegment
{ {
/**
* @brief Creates a simple Tickcount Segment with default values.
*
* It is best to override the values as soon as possible.
*/
TickcountSegment() : m_iStartRow(-1), m_iTicks(2) { } TickcountSegment() : m_iStartRow(-1), m_iTicks(2) { }
/**
* @brief Creates a Tickcount Segment with the specified starting row and beats per second.
* @param s the starting row of this segment.
* @param t the amount of ticks counted per beat.
*/
TickcountSegment( int s, int t ){ m_iStartRow = max( 0, s ); m_iTicks = max( 1, t ); } TickcountSegment( int s, int t ){ m_iStartRow = max( 0, s ); m_iTicks = max( 1, t ); }
/**
* @brief The row in which the TickcountSegment activates.
*/
int m_iStartRow; int m_iStartRow;
/**
* @brief The amount of ticks counted per beat.
*/
int m_iTicks; int m_iTicks;
/**
* @brief Compares two TickcountSegments to see if they are equal to each other.
* @param other the other TickcountSegment to compare to.
* @return the equality of the two segments.
*/
bool operator==( const TickcountSegment &other ) const bool operator==( const TickcountSegment &other ) const
{ {
COMPARE( m_iStartRow ); COMPARE( m_iStartRow );
COMPARE( m_iTicks ); COMPARE( m_iTicks );
return true; return true;
} }
/**
* @brief Compares two TickcountSegments to see if they are not equal to each other.
* @param other the other TickcountSegment to compare to.
* @return the inequality of the two segments.
*/
bool operator!=( const TickcountSegment &other ) const { return !operator==(other); } bool operator!=( const TickcountSegment &other ) const { return !operator==(other); }
/**
* @brief Compares two TickcountSegments to see if one is less than the other.
* @param other the other TickcountSegment to compare to.
* @return the truth/falsehood of if the first is less than the second.
*/
bool operator<( const TickcountSegment &other ) const { return m_iStartRow < other.m_iStartRow; } bool operator<( const TickcountSegment &other ) const { return m_iStartRow < other.m_iStartRow; }
/**
* @brief Compares two TickcountSegments to see if one is less than or equal to the other.
* @param other the other TickcountSegment to compare to.
* @return the truth/falsehood of if the first is less or equal to than the second.
*/
bool operator<=( const TickcountSegment &other ) const bool operator<=( const TickcountSegment &other ) const
{ {
return ( operator<(other) || operator==(other) ); return ( operator<(other) || operator==(other) );
} }
bool operator>( const TickcountSegment &other ) const { return m_iStartRow > other.m_iStartRow; } /**
bool operator>=( const TickcountSegment &other ) const * @brief Compares two TickcountSegments to see if one is greater than the other.
{ * @param other the other TickcountSegment to compare to.
return ( operator>(other) || operator==(other) ); * @return the truth/falsehood of if the first is greater than the second.
} */
bool operator>( const TickcountSegment &other ) const { return !operator<=(other); }
/**
* @brief Compares two TickcountSegments to see if one is greater than or equal to the other.
* @param other the other TickcountSegment to compare to.
* @return the truth/falsehood of if the first is greater than or equal to the second.
*/
bool operator>=( const TickcountSegment &other ) const { return !operator<(other); }
}; };
/**
* @brief Houses all of the TimingData functions.
*/
class TimingData class TimingData
{ {
public: public:
@@ -315,8 +603,11 @@ public:
#endif #endif
/* /**
* (c) 2001-2004 Chris Danford, Glenn Maynard * @file
* @author Chris Danford, Glenn Maynard (c) 2001-2004
*
* @section LICENSE
* All rights reserved. * All rights reserved.
* *
* Permission is hereby granted, free of charge, to any person obtaining a * Permission is hereby granted, free of charge, to any person obtaining a