StringBase& SetData(const wchar_t* lpData, size_t nLength)
{
if ( !lpData || !nLength )
{
FreeData();
SetEmpty();
}
else
{
size_t nSize = Traits::GetUnicodeDataLength(lpData, nLength, m_nEncoding);
if ( m_pData && m_pData->Unique() && (nSize < m_pData->GetSize()) )
{
Traits::CopyUnicodeData(m_pData->GetData(), nSize, lpData, nLength, m_nEncoding);
m_pData->SetLength(nLength);
}
else
{
StringData<T>* pNewData = new StringData<T>(nSize+1);
Traits::CopyUnicodeData(pNewData->GetData(), nSize, lpData, nLength, m_nEncoding);
pNewData->SetLength(nLength);
FreeData();
m_pData = pNewData;
}
}
return *this;
}
const CDynamicArray & CDynamicArray::operator =(const CDynamicArray &array)
{
PARRAY_CHAIN pCur,pAdd,pTail=NULL;//The pointer of array chain
SetEmpty();
m_nCol=array.m_nCol;
m_nRow=array.m_nRow;
pCur=array.m_pHead;
while(pCur!=NULL)
{
pAdd=(PARRAY_CHAIN)malloc(sizeof(ARRAY_CHAIN));//malloc a new node
memset(pAdd,0,sizeof(ARRAY_CHAIN));
pAdd->col=pCur->col;//get the value
pAdd->row=pCur->row;
pAdd->value=pCur->value;
pAdd->nPOS=pCur->nPOS;
pAdd->next=NULL;
pAdd->sWord=NULL;
if(pCur->nWordLen>=0)
{
pAdd->nWordLen=pCur->nWordLen;
pAdd->sWord=new char[pAdd->nWordLen+1];
strcpy(pAdd->sWord,pCur->sWord);
}
if(pTail==NULL)
m_pHead=pAdd;//The head element
else
pTail->next=pAdd;
pTail=pAdd;
pCur=pCur->next;
}
return *this;
}
StringBase& SetData(const char* lpData, size_t nLength, int nCodePage = CP_OEMCP)
{
m_nEncoding = nCodePage;
if ( !lpData || !nLength )
{
FreeData();
SetEmpty();
}
else
{
size_t nSize = Traits::GetAnsiDataLength(lpData, nLength, m_nEncoding);
if ( m_pData && m_pData->Unique() && (nSize < m_pData->GetSize()) )
{
Traits::CopyAnsiData(m_pData->GetData(), nSize, lpData, nLength, m_nEncoding);
m_pData->SetLength(nLength);
}
else
{
StringData<T>* pNewData = new StringData<T>(nSize+1);
Traits::CopyAnsiData(pNewData->GetData(), nSize, lpData, nLength, m_nEncoding);
pNewData->SetLength(nLength);
FreeData();
m_pData = pNewData;
}
}
return *this;
}
AsciiStringBase& SetData(const wchar_t* lpData, size_t nLength)
{
if ( !lpData || !nLength )
{
FreeData();
SetEmpty();
}
else
{
size_t nSize = WideCharToMultiByte(m_nEncoding, 0, lpData, nLength, 0, 0, 0, 0);
if ( m_pData && m_pData->Unique() && (nSize < m_pData->GetSize()) )
{
WideCharToMultiByte(m_nEncoding, 0, lpData, nLength, m_pData->GetData(), nSize, 0, 0);
m_pData->SetLength(nSize);
}
else
{
StringData<char>* pNewData = new StringData<char>(nSize+1);
WideCharToMultiByte(m_nEncoding, 0, lpData, nLength, pNewData->GetData(), nSize, 0, 0);
pNewData->SetLength(nSize);
FreeData();
m_pData = pNewData;
}
}
return *this;
}
void CLevelsCtrl::CalcLevels()
{
if (m_View->GetHistogram(m_Sample, m_MaxSamp))
Invalidate();
else
SetEmpty();
}
SLS_tpReturnCode SLS_SimpleList ::
DeleteCurrentElement( )
{
if ( pCurrentElement == NULL )
{
return SLS_ReturnCodeNoCurrent ;
} /* if */
SLS_ListElement * pTemp = pCurrentElement ;
numElements -- ;
// Delete towards predecessor
if ( pCurrentElement->pPredecessor != NULL )
{
pCurrentElement->pPredecessor->pSuccessor = pCurrentElement->pSuccessor ;
if ( pCurrentElement->pSuccessor != NULL )
{
pCurrentElement->pSuccessor->pPredecessor = pCurrentElement->pPredecessor ;
} /* if */
pCurrentElement = pCurrentElement->pPredecessor ;
if ( pCurrentElement->pSuccessor == NULL )
{
pLastElement = pCurrentElement ;
} /* if */
} // end selection: Delete towards predecessor
// Delete towards successor
else if ( pCurrentElement->pSuccessor != NULL )
{
pCurrentElement = pCurrentElement->pSuccessor ;
pCurrentElement->pPredecessor = NULL ;
pFirstElement = pCurrentElement ;
} // end selection: Delete towards successor
// Delete single element
else
{
SetEmpty( ) ;
} // end selection: Delete single element
pTemp->pPredecessor = NULL ;
pTemp->pSuccessor = NULL ;
delete pTemp ;
return SLS_ReturnCodeOK ;
} // End of function: SLS !Delete current element
void nsRegion::SimplifyInward (uint32_t aMaxRects)
{
NS_ASSERTION(aMaxRects >= 1, "Invalid max rect count");
if (GetNumRects() <= aMaxRects)
return;
SetEmpty();
}
void SIO_SequentialIO :: CloseSequentialFile( )
{
if ( pSequentialFile != NULL )
{
fclose( pSequentialFile ) ;
} /* if */
SetEmpty( ) ;
} // End of function: SIO !Close sequential file
void CLevelsCtrl::SetView(CFracticeView *View)
{
if (View == m_View)
return; // nothing to do
m_View = View;
if (View != NULL)
CalcLevels();
else
SetEmpty();
}
bool WorkspaceBound::SetIntersection(const WorkspaceBound& a, const WorkspaceBound& b)
{
//cout<<"Setting intersection of "<<a<<" and "<<b<<endl;
if(a.IsEmpty() || b.IsEmpty()) { SetEmpty(); return false; }
if(a.balls.empty()) { *this = b; return true; }
if(b.balls.empty()) { *this = a; return true; }
HollowBall bounda,boundb;
a.GetBounds(bounda);
b.GetBounds(boundb);
HollowBall isect;
if(!BoundIntersection(bounda,boundb,isect)) { SetEmpty(); return false; }
balls.resize(a.balls.size()+b.balls.size());
copy(a.balls.begin(),a.balls.end(),balls.begin());
copy(b.balls.begin(),b.balls.end(),balls.begin()+a.balls.size());
maxAngle=Max(a.maxAngle,b.maxAngle);
RemoveRedundancies();
//cout<<"Result is "<<*this<<endl;
return true;
}
//-----------------------------------------------------------------------------
// Purpose:
//-----------------------------------------------------------------------------
Box3D::Box3D(void)
{
SetEmpty();
SetDrawFlags(0);
m_TranslateMode = modeScale;
m_vTranslationFixPoint.Init();
m_TranslateHandle.Init();
m_bEnableHandles = true;
SetDrawColors(Options.colors.clrToolHandle, Options.colors.clrToolBlock);
}
func Hit()
{
if(!GBackLiquid())
{
for(var i=15; i>0; i--)
{
var iX=Sin(GetR(), RandomX(4,8)), iY=-Cos(GetR(), RandomX(4,8)), iXDir=GetWind()*30/100, iYDir=-Cos(GetR()+RandomX(-2,2), Random(7));
InsertMaterial(Material("Water"), iX, iY, iXDir, iYDir);
}
SetEmpty();
}
}
//-----------------------------------------------------------------------------
// Purpose: Handles the escape key in the 2D or 3D views.
//-----------------------------------------------------------------------------
void Clipper3D::OnEscape(void)
{
// If we're clipping, clear it
if (!IsEmpty())
{
SetEmpty();
m_pDocument->UpdateAllViews(NULL, MAPVIEW_UPDATE_DISPLAY);
}
else
{
g_pToolManager->SetTool(TOOL_POINTER);
}
}
void CppScanner::GetNext()
{
SetEmpty();
SkipWhitespace();
if (f.Get() == '/') { SkipComment(); SkipWhitespace(); }
char ch = f.Get();
if (IsNumber(ch) || (ch == '+') || (ch == '-')) GetNumber();
else if (IsAlpha(ch)) GetName();
else if (ch == '(' || ch == ')' || ch == '<' || ch == '>' || ch == '=' || ch == ',' || ch == ';' || ch == '&')
{ type = CToken::DELIMITER; delimiter = ch; f.GetNext(); }
else throw CPError(CPError::UNKNOWN_CHARACTER);
}
inline void IASRect::Intersect(const ADMRect& a)
{
if (left < a.left)
left = a.left;
if (top < a.top)
top = a.top;
if (right > a.right)
right = a.right;
if (bottom > a.bottom)
bottom = a.bottom;
if (!Overlaps(a))
SetEmpty();
}
inline void IASRealRectCartesian::Intersect(const AIRealRect &a)
{
if (left < a.left)
left = a.left;
if (top > a.top)
top = a.top;
if (right > a.right)
right = a.right;
if (bottom < a.bottom)
bottom = a.bottom;
if (!Overlaps(a))
SetEmpty();
}
//-----------------------------------------------------------------------------
// Purpose:
//-----------------------------------------------------------------------------
Marker3D::Marker3D(void)
{
SetEmpty();
m_vecPos = vec3_origin;
m_vecTranslatePos = vec3_origin;
m_bLButtonDown = false;
if (s_hcurEntity == NULL)
{
s_hcurEntity = LoadCursor(AfxGetInstanceHandle(), MAKEINTRESOURCE(IDC_ENTITY));
}
}
//-----------------------------------------------------------------------------
// Purpose: Handles the escape key in the 2D or 3D views.
//-----------------------------------------------------------------------------
void Marker3D::OnEscape(void)
{
//
// Cancel the object creation tool.
//
if (!IsEmpty())
{
SetEmpty();
m_pDocument->ToolUpdateViews(CMapView2D::updEraseTool);
}
else
{
g_pToolManager->SetTool(TOOL_POINTER);
}
}
void SLS_SimpleList :: EmptyList( )
{
SLS_ListElement * pNextElement = NULL ;
while ( pFirstElement != NULL )
{
pNextElement = pFirstElement->pSuccessor ;
delete pFirstElement ;
pFirstElement = pNextElement ;
} /* while */
SetEmpty( ) ;
} // End of function: SLS !Empty list
//-----------------------------------------------------------------------------
// Purpose: constructor - initialize the clipper variables
//-----------------------------------------------------------------------------
Clipper3D::Clipper3D(void)
{
m_Mode = FRONT;
ZeroVector( m_ClipPlane.normal );
m_ClipPlane.dist = 0.0f;
ZeroVector( m_ClipPoints[0] );
ZeroVector( m_ClipPoints[1] );
m_ClipPointHit = -1;
m_pOrigObjects = NULL;
m_bLButtonDown = false;
m_bDrawMeasurements = false;
SetEmpty();
}
AsciiStringBase& SetData(const char* lpData, size_t nLength, int nSrcEncoding = SAME_ENCODING)
{
if ( nSrcEncoding == SAME_ENCODING )
nSrcEncoding = m_nEncoding;
if ( !lpData || !nLength )
{
FreeData();
SetEmpty();
}
else
{
char* pBuffer = nullptr;
size_t nBufferSize = 0;
bool bConverted = ConvertEncoding(lpData, nLength, &pBuffer, &nBufferSize, nSrcEncoding, m_nEncoding);
if ( !bConverted )
{
pBuffer = (char*)lpData;
nBufferSize = nLength;
}
if ( m_pData && m_pData->Unique() && (nBufferSize < m_pData->GetSize()) )
{
memmove(m_pData->GetData(), pBuffer, nBufferSize);
m_pData->SetLength(nBufferSize);
}
else
{
StringData<char>* pNewData = new StringData<char>(nBufferSize+1);
memmove(pNewData->GetData(), pBuffer, nBufferSize);
pNewData->SetLength(nBufferSize);
FreeData();
m_pData = pNewData;
}
if ( bConverted )
delete [] pBuffer;
}
return *this;
}
void WorkspaceBound::SetMinkowskiSum(const WorkspaceBound& a,const WorkspaceBound& b)
{
if(a.IsEmpty() || b.IsEmpty()) {
cerr<<"Warning, minkowski sum is empty"<<endl;
SetEmpty();
return;
}
HollowBall bb;
b.GetBounds(bb);
balls.resize(a.balls.size());
for(size_t i=0;i<a.balls.size();i++) {
Real r = bb.center.norm() + bb.outerRadius;
balls[i].center = a.balls[i].center;
balls[i].outerRadius = a.balls[i].outerRadius + r;
balls[i].innerRadius = a.balls[i].innerRadius - r;
}
maxAngle = a.maxAngle + b.maxAngle;
}
CBoundingBoxOriented::CBoundingBoxOriented(const CBoundingBoxAligned& bound)
{
if (bound.IsEmpty())
{
SetEmpty();
}
else
{
bound.GetCentre(m_Center);
// the axes of an AABB are the world-space axes
m_Basis[0].X = 1.f; m_Basis[0].Y = 0.f; m_Basis[0].Z = 0.f;
m_Basis[1].X = 0.f; m_Basis[1].Y = 1.f; m_Basis[1].Z = 0.f;
m_Basis[2].X = 0.f; m_Basis[2].Y = 0.f; m_Basis[2].Z = 1.f;
// element-wise division by two to get half sizes (remember, [1] and [0] are the max and min coord points)
m_HalfSizes = (bound[1] - bound[0]) * 0.5f;
}
}
inline void IASRealRectCartesian::Intersect(const AIRealRect &a, const AIRealRect &b)
{
if (b.left < a.left)
left = a.left;
else
left = b.left;
if (b.top > a.top)
top = a.top;
else
top = b.top;
if (b.right > a.right)
top = a.right;
else
top = b.right;
if (b.bottom < a.bottom)
bottom = a.bottom;
else
bottom = b.bottom;
if (!Overlaps(a))
SetEmpty();
}
inline void IASRect::Intersect(const ADMRect& a, const ADMRect& b)
{
if (b.left < a.left)
left = a.left;
else
left = b.left;
if (b.top < a.top)
top = a.top;
else
top = b.top;
if (b.right > a.right)
right = a.right;
else
right = b.right;
if (b.bottom > a.bottom)
bottom = a.bottom;
else
bottom = b.bottom;
if (!Overlaps(a))
SetEmpty();
}
KBBox::KBBox(const KTriVertPos2& tri)
{
SetEmpty();
for (int i = 0; i < 3; ++i)
ContainVert(tri.mVertPos[i]);
if (tri.mIsMoving) {
for (int i = 0; i < 3; ++i)
ContainVert(tri.mVertPos[i] + tri.mVertPos_Delta[i]);
}
KVec3 diagnal(mMax - mMin);
float len = nvmath::length(diagnal);
// We need to be carefully to tweak this value to avoid precision issue
float epsilon = len * 0.0001f;
for (int i = 0; i < 3; ++i) {
if (fabs(mMax[i] - mMin[i]) < epsilon) {
mMin[i] -= 2*epsilon;
mMax[i] += 2*epsilon;
break;
}
}
}
bool WorkspaceBound::SetIntersection(const WorkspaceBound& a, const WorkspaceBound& b)
{
if(a.IsEmpty() || b.IsEmpty()) { SetEmpty(); return false; }
Sphere3D sa,sb;
Circle3D c;
sa.center = a.center; sa.radius = a.outerRadius;
sb.center = b.center; sb.radius = b.outerRadius;
int res = BallBallIntersection(sa,sb,c);
Real solidAngle = Min(a.maxAngle*a.outerRadius,b.maxAngle*b.outerRadius);
if(res==2) { //it's a circle
Assert(c.radius <= a.outerRadius+Epsilon && c.radius <= b.outerRadius+Epsilon);
if(!sa.contains(c.center) || !sb.contains(c.center)) {
cout<<"Uh... circle intersection of balls isn't contained in them"<<endl;
cout<<sa.center<<" r "<<sa.radius<<endl;
cout<<sb.center<<" r "<<sb.radius<<endl;
cout<<"Center "<<c.center<<" radius "<<c.radius<<endl;
getchar();
}
Assert(sa.contains(c.center));
Assert(sb.contains(c.center));
//If a and b lie on opposite sides of c's plane,
//use the sphere that contains c.
//Otherwise, the smallest circle that contains the intersection
//is the smaller of a and b
Real offset=c.axis.dot(c.center);
if(Sign(c.axis.dot(a.center)-offset) == Sign(c.axis.dot(b.center)-offset)) {
//on same side of plane
if(b.outerRadius < a.outerRadius) res=4;
else res=3;
}
}
switch(res) {
case 0:
center = Half*(a.center + b.center);
outerRadius=0;
innerRadius=-(a.center-b.center).norm();
maxAngle=-Inf;
break;
case 1: //point
case 2: //circle
center=c.center;
outerRadius=c.radius;
innerRadius=0; //TODO: find this?
//get the maxAngle that gives the right solid angle
if(solidAngle >= outerRadius*TwoPi) maxAngle = TwoPi;
else maxAngle = solidAngle/outerRadius;
break;
case 3: //a completely contained within b
Assert(a.outerRadius <= b.outerRadius);
operator = (a);
if(solidAngle < maxAngle*outerRadius)
maxAngle = solidAngle / outerRadius;
break;
case 4:
//b contained completely in a
Assert(a.outerRadius >= b.outerRadius);
operator = (b);
if(solidAngle < maxAngle*outerRadius)
maxAngle = solidAngle / outerRadius;
break;
}
return true;
}
StringBase()
{
SetEmpty();
}
SLS_SimpleList :: SLS_SimpleList( )
{
SetEmpty( ) ;
} // End of function: SLS !List constructor
KBBox::KBBox()
{
SetEmpty();
}