/**
* @param fX X position to convert to a column.
* @param fY Y position to convert to a column.
* @param iColumn Filled in with a column.
* @return true if the position maps to a column.
*/
bool CGameBoard::PositionToColumn( FLOAT32 fX, FLOAT32 fY, int& iColumn ) const
{
// fPIECE_RADIUS+fPIECE_SPACING+(fPIECE_SPACING + fPIECE_RADIUS*2)*x;
fY -= fPIECE_SPACING;
if ( fY < 0.0f )
{
return false;
}
if ( fY >= fPIECE_RADIUS+(fPIECE_SPACING + fPIECE_RADIUS*2.0f)*FLOAT32(m_iHeight) )
{
return false;
}
fX -= fPIECE_SPACING;
if ( fX < 0.0f )
{
return false;
}
fX/= (fPIECE_SPACING + fPIECE_RADIUS*2.0f);
if ( fX >= FLOAT32(m_iWidth) )
{
return false;
}
iColumn = int(fX);
return true;
}
//! Returns the animated mesh based on a detail level. 0 is the lowest, 255 the highest detail.
IMesh* CAnimatedMeshMD3::getMesh(SINT32 frame, SINT32 detailLevel, SINT32 startFrameLoop, SINT32 endFrameLoop)
{
if (0 == Mesh)
return 0;
//! check if we have the mesh in our private cache
SCacheInfo candidate(frame, startFrameLoop, endFrameLoop);
if (candidate == Current)
return MeshIPol;
startFrameLoop = SINT32_max(0, startFrameLoop >> IPolShift);
endFrameLoop = if_c_a_else_b(endFrameLoop < 0, Mesh->MD3Header.numFrames - 1, endFrameLoop >> IPolShift);
const UINT32 mask = 1 << IPolShift;
SINT32 frameA;
SINT32 frameB;
FLOAT32 iPol;
if (LoopMode)
{
// correct frame to "pixel center"
frame -= mask >> 1;
// interpolation
iPol = FLOAT32(frame & (mask - 1)) * reciprocal(FLOAT32(mask));
// wrap anim
frame >>= IPolShift;
frameA = if_c_a_else_b(frame < startFrameLoop, endFrameLoop, frame);
frameB = if_c_a_else_b(frameA + 1 > endFrameLoop, startFrameLoop, frameA + 1);
}
else
{
//!
SINT32 CGUIScrollBar::getPosFromMousePos(const Position2d &pos) const
{
FLOAT32 w, p;
if (Horizontal)
{
w = RelativeRect.getWidth() - FLOAT32(RelativeRect.getHeight())*3.0f;
p = pos.x - AbsoluteRect.UpperLeftCorner.x - RelativeRect.getHeight()*1.5f;
}
else
{
w = RelativeRect.getHeight() - FLOAT32(RelativeRect.getWidth())*3.0f;
p = pos.y - AbsoluteRect.UpperLeftCorner.y - RelativeRect.getWidth()*1.5f;
}
return (SINT32)(p / w * range()) + Min;
}
FLOAT32
ASCFont::Width(ASCString& strString)
{
UINT32 iWidth = 0;
UINT32 uNewWidth = 0;
for( UINT32 uChar = 0; uChar < strString.length(); ++uChar )
{
if(strString[uChar] == '\n')
{
if(uNewWidth > iWidth)
{
iWidth = uNewWidth;
}
uNewWidth = 0;
}
else
{
SCharacter& CharData = GetCharacter(strString[uChar]);
uNewWidth +=
(UINT32)CharData.fPixelsBeforeChar
+ CharData.sRect.m_iWidth
+ (UINT32)CharData.fPixelsAfterChar;
}
}
if(uNewWidth > iWidth)
{
iWidth = uNewWidth;
}
return( FLOAT32( iWidth ) );
}
// Returns the distance between two histograms.
FLOAT32 CObjectTracker::FindDistance(UBYTE8 (*histogram))
{
SINT16 i = 0;
FLOAT32 distance = 0;
for(i=0;i<HISTOGRAM_LENGTH;i++)
distance += FLOAT32(sqrt(DOUBLE64(m_sTrackingObjectTable[m_cActiveObject].initHistogram[i]
*histogram[i])));
return(distance);
}
FLOAT32
ASCFont::GetStringWidth( ASCString& strMessage )
{
UINT32 iWidth = 0;
for( UINT32 uChar = 0; uChar < strMessage.length(); ++uChar )
{
SCharacter& CharData = GetCharacter(strMessage[uChar]);
iWidth +=
(UINT32)CharData.fPixelsBeforeChar
+ CharData.sRect.m_iWidth
+ (UINT32)CharData.fPixelsAfterChar;
}
return( FLOAT32( iWidth ) );
}
//An alternative distance measurement
FLOAT32 CObjectTracker::CompareHistogram(UBYTE8 (*histogram))
{
SINT16 i = 0;
FLOAT32 distance = 0.0;
FLOAT32 difference = 0.0;
for (i=0;i<HISTOGRAM_LENGTH;i++)
{
difference = FLOAT32(m_sTrackingObjectTable[m_cActiveObject].initHistogram[i]
-histogram[i]);
if (difference>0)
distance += difference;
else
distance -= difference;
}
return(distance);
}
//--------------------------------------------------------------------------------------
// Name: SetupGaussWeights()
// Desc:
//--------------------------------------------------------------------------------------
VOID CSample31::SetupGaussWeights()
{
FLOAT32 GaussSum = 0.0f;
for( int i = 0; i < 4; i++ )
{
// normalize to -1..1
FLOAT32 X = ( FLOAT32( i ) / 3.0f );
X = ( X - 0.5f ) * 2.0f;
// spread is tunable
X *= m_BlurShader.GaussSpread;
m_BlurShader.GaussWeight[i] = GaussianDistribution31( X, 0.0f, m_BlurShader.GaussRho );
GaussSum += m_BlurShader.GaussWeight[i];
}
m_BlurShader.GaussInvSum = ( 1.0f / GaussSum );
}
FLOAT32
ASCFont::GetLineWidth( ASCString& strMessage, UINT32 uStart )
{
UINT32 iWidth = 0;
for( UINT32 uChar = uStart; uChar < strMessage.length(); ++uChar )
{
if(strMessage[uChar] == '\n')
{
break;
}
SCharacter& CharData = GetCharacter(strMessage[uChar]);
iWidth +=
(UINT32)CharData.fPixelsBeforeChar
+ CharData.sRect.m_iWidth
+ (UINT32)CharData.fPixelsAfterChar;
}
return( FLOAT32( iWidth ) );
}
void U_Unpackfp32( float *fp32 )
{
switch( packedmode )
{
case U_PACKED_BIN:
memcpy( fp32, cur_pos, 4 );
*fp32 = FLOAT32( *fp32 );
cur_pos+=4;
cur_size+=4;
break;
case U_PACKED_ASC:
U_UnpackToken();
*fp32 = atof( u_token );
break;
default:
__error( "unknown packedmode\n" );
}
}
/*
====================
U_Packfp32
====================
*/
void U_Packfp32( float fp32 )
{
char tmp[4];
if ( cur_size + 4 >= cur_maxsize )
{
}
fp32 = FLOAT32( fp32 );
memcpy( tmp, &fp32, 4 );
*cur_pos = tmp[0];
cur_pos++;
*cur_pos = tmp[1];
cur_pos++;
*cur_pos = tmp[2];
cur_pos++;
*cur_pos = tmp[3];
cur_pos++;
cur_size += 4;
}
frame -= mask >> 1;
// interpolation
iPol = FLOAT32(frame & (mask - 1)) * reciprocal(FLOAT32(mask));
// wrap anim
frame >>= IPolShift;
frameA = if_c_a_else_b(frame < startFrameLoop, endFrameLoop, frame);
frameB = if_c_a_else_b(frameA + 1 > endFrameLoop, startFrameLoop, frameA + 1);
}
else
{
// correct frame to "pixel center"
frame -= mask >> 1;
iPol = FLOAT32(frame & (mask - 1)) * reciprocal(FLOAT32(mask));
// clamp anim
frame >>= IPolShift;
frameA = SINT32_clamp(frame, startFrameLoop, endFrameLoop);
frameB = SINT32_min(frameA + 1, endFrameLoop);
}
// build current vertex
for (UINT32 i = 0; i != Mesh->Buffer.size(); ++i)
{
buildVertexArray(frameA, frameB, iPol,
Mesh->Buffer[i],
(SMeshBufferLightMap*)MeshIPol->getMeshBuffer(i));
}
MeshIPol->recalculateBoundingBox();
void CSquirrel::Update( FLOAT32 fTimeDelta )
{
if ( 0 == m_uNumLives )
{
return;
}
const static CFVec2 s_vMoveOffsets[] =
{
SFVec2( -1.0f, 0.0f ), //"Left",
SFVec2( 1.0f, 0.0f ), //"Right",
SFVec2( 0.0f, -1.0f ), //"Up",
SFVec2( 0.0f, 1.0f ), //"Down"
};
_COMPILE_ASSERT( _ARRAY_SIZE( s_vMoveOffsets ) == EMove_COUNT );
CFVec2 vMove = SFVec2( 0.0f, 0.0f );
for ( UINT32 i=0; i< EMove_COUNT; i++ )
{
if ( m_Movements[i].m_bValue )
{
vMove += s_vMoveOffsets[i];
}
}
// great, now we have the movement direction.
if ( vMove.SquareMagnitude() != 0.0f )
{
m_fDistTimeMoving += fTimeDelta;
vMove.Normalise();
FLOAT32 fStep = 1.0f;
CFVec2 vTestedMove = vMove * fTimeDelta * m_fSpeed * fStep;
// now check the target position - is it embedded in any walls?
CCircle TargetBounds;
while ( fStep > 0.0f )
{
TargetBounds.Initialise( m_vPosition + vTestedMove, m_fRadius );
if ( false == CMMMContext::GetInstance().CircleIntersectsGeometry( TargetBounds ) )
{
break; // found a valid, allowable movement.
}
fStep -= 0.2f;
vTestedMove = vMove * fTimeDelta * m_fSpeed * fStep;
}
// now update to the new position
m_vPosition += vTestedMove;
// finally what happens at the new position
// is an acorn collected?
if ( m_uNumAcorns != m_uMaxAcorns )
{
CAcorn* pLevelAcorns;
UINT32 uNumLevelAcorns;
CMMMContext::GetInstance().GetAcorns( pLevelAcorns, uNumLevelAcorns );
for ( UINT32 i=0; i<uNumLevelAcorns; i++ )
{
if ( pLevelAcorns[i].GetState() == CAcorn::ES_Available )
{
if ( pLevelAcorns[i].Intersects( TargetBounds ) )
{
pLevelAcorns[i].SetState( CAcorn::ES_Carried );
m_ppAcorns[m_uNumAcorns++] = pLevelAcorns+i;
if ( m_uNumAcorns == m_uMaxAcorns )
{
break; // cannont collect any more!
}
}
}
}
}
// is a tunnel reached?
if ( m_uNumAcorns > 0 )
{
CTunnel* pTunnels;
UINT32 uNumTunnels;
CMMMContext::GetInstance().GetTunnels( pTunnels, uNumTunnels );
for ( UINT32 i=0; i<uNumTunnels; i++ )
{
if ( pTunnels[i].Intersects( TargetBounds ) )
{
// reached the tunnel.
for ( UINT32 i=0; i<m_uNumAcorns; i++ )
{
m_ppAcorns[i]->SetState( CAcorn::ES_Collected );
m_uScore++;
}
m_uNumAcorns = 0;
}
}
}
}
m_fTimeToDisturbance -= fTimeDelta;
if ( m_fTimeToDisturbance <= 0.0f )
{
// schedule the next disturbance.
m_fTimeToDisturbance = FLOAT32(rand())/FLOAT32(RAND_MAX);
m_fTimeToDisturbance *= m_fMaxDistSep-m_fMinDistSep;
m_fTimeToDisturbance += m_fMinDistSep;
// create this disturbance:
FLOAT32 fRad = m_fLastDistDelay=0.0f?0.0f:m_fDistTimeMoving/m_fLastDistDelay;
// DbgPrint( "Creating Disturbance strength %0.2f, next delay %0.2f\n", fRad,m_fTimeToDisturbance );
fRad *= m_fMaxDistRad-m_fMinDistRad;
fRad += m_fMinDistRad;
if ( fRad >= 0.0f )
{
CCircle Dist;
Dist.Initialise( m_vPosition, fRad );
CMMMContext::GetInstance().CreateDisturbance( Dist );
}
m_fDistTimeMoving = 0.0f;
m_fLastDistDelay = m_fTimeToDisturbance;
}
}
void
ASCFont::ProcessLetterLine( ASCString& strLine, UINT32 iCurCharacter )
{
UINT32 i = 0;
bool bHex = strLine[0] != '\"';
if(bHex)
{
UINT32 iChar = 0;
const char strHex[2] = { strLine[ 0 ], strLine[ 1 ] };
#ifdef ASC_IOS
sscanf( strHex, "%2x", &iChar );
#else
sscanf_s( strHex, "%2x", &iChar );
#endif
m_pCharacters[ iCurCharacter ].cCharacter = static_cast< char >( iChar );
}
else
{
++i;
m_pCharacters[ iCurCharacter ].cCharacter = strLine[ i ];
}
++i;
ASCString strTemp;
strLine.substr(i, strTemp);
strLine = strTemp;
ASCString strWorkWith;
ASCString strTheRest;
UINT32 iInfoBitsFound = 0;
SINT32 iAt = strLine.find(',');
if(iAt >= 0)
{
ASCString strTemp;
strLine.substr(iAt+1, strTemp);
strLine = strTemp;
}
while(iAt >= 0 && iInfoBitsFound < 6)
{
iAt = strLine.find(',');
strLine.split(iAt+1, strWorkWith, strTheRest);
ASCString strTemp;
strLine.substr(iAt+1, strTemp);
strLine = strTemp;
if(strWorkWith[0] == ',')
{
continue;
}
switch( iInfoBitsFound )
{
case 0:
{
//m_pCharacters[ iCurCharacter ].sRect.iLeft = atoi( strWorkWith.c_str() );
m_pCharacters[ iCurCharacter ].sRect.m_iX = atoi( strWorkWith.c_str() );
}
break;
case 1:
{
//m_pCharacters[ iCurCharacter ].sRect.iTop = atoi( strWorkWith.c_str() );
m_pCharacters[ iCurCharacter ].sRect.m_iY = atoi( strWorkWith.c_str() );
}
break;
case 2:
{
//m_pCharacters[ iCurCharacter ].sRect.iRight = atoi( strWorkWith.c_str() );
m_pCharacters[ iCurCharacter ].sRect.m_iWidth = atoi( strWorkWith.c_str() );
}
break;
case 3:
{
//m_pCharacters[ iCurCharacter ].sRect.iBottom = atoi( strWorkWith.c_str() );
m_pCharacters[ iCurCharacter ].sRect.m_iHeight = atoi( strWorkWith.c_str() );
}
break;
case 4:
{
m_pCharacters[ iCurCharacter ].fPixelsBeforeChar = FLOAT32( atof( strWorkWith.c_str() ) );
}
break;
case 5:
{
m_pCharacters[ iCurCharacter ].fPixelsAfterChar = FLOAT32( atof( strWorkWith.c_str() ) );
}
break;
default:break;
}
++iInfoBitsFound;
iAt = strLine.find(',');
if(iAt < 0 && iInfoBitsFound == 5)
{
m_pCharacters[ iCurCharacter ].fPixelsAfterChar = FLOAT32( atof( strLine.c_str() ) );
}
}
}