xls, ppt, pptx changes

- implicit includes have been resolved
- preparation before common shapes(pri)
- x2t compiled
This commit is contained in:
Vikulov Dmitry
2022-12-17 14:19:53 +03:00
parent 4d94f248e2
commit 6a966c9cb9
35 changed files with 9032 additions and 8331 deletions

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@ -0,0 +1,111 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#pragma once
#include "BaseShape.h"
#include "CustomShape.h"
namespace NSCustomShapesConvert
{
CHandle_::CHandle_()
{
position = _T("");
xrange = _T("");
yrange = _T("");
switchHandle = _T("");
polar = _T("");
radiusrange = _T("");
}
CHandle_& CHandle_::operator =(const CHandle_& oSrc)
{
position = oSrc.position;
xrange = oSrc.xrange;
yrange = oSrc.yrange;
switchHandle = oSrc.switchHandle;
polar = oSrc.polar;
radiusrange = oSrc.radiusrange;
return (*this);
}
CBaseShape::CBaseShape()
{
}
CBaseShape* CBaseShape::CreateByType( int ShapeType)
{
return CCustomShape::CreateByType((oox::MSOSPT)ShapeType);
}
bool CBaseShape::SetType( int ShapeType)
{
return ((CCustomShape*)this)->SetShapeType((oox::MSOSPT)ShapeType);
}
bool CBaseShape::SetProperties(CBaseShape* Shape)
{
if( Shape == NULL)
return false;
m_oPath = Shape->m_oPath;
m_strPath = Shape->m_strPath;
m_strRect = Shape->m_strRect;
m_arAdjustments.clear();
for(size_t i = 0; i < Shape->m_arAdjustments.size(); i++)
m_arAdjustments.push_back(Shape->m_arAdjustments[i]);
m_arGuides.clear();
for(size_t i = 0; i < Shape->m_arGuides.size(); i++)
m_arGuides.push_back(Shape->m_arGuides[i]);
m_eJoin = Shape->m_eJoin;
m_bConcentricFill = Shape->m_bConcentricFill;
m_arConnectors.clear();
for(size_t i = 0; i < Shape->m_arConnectors.size(); i++)
m_arConnectors.push_back(Shape->m_arConnectors[i]);
m_arConnectorAngles.clear();
for(size_t i = 0; i < Shape->m_arConnectorAngles.size(); i++)
m_arConnectorAngles.push_back(Shape->m_arConnectorAngles[i]);
m_arTextRects.clear();
for(size_t i = 0; i < Shape->m_arTextRects.size(); i++)
m_arTextRects.push_back(Shape->m_arTextRects[i]);
m_arHandles.clear();
for(size_t i = 0; i < Shape->m_arHandles.size(); i++)
m_arHandles.push_back(Shape->m_arHandles[i]);
m_strRect = Shape->m_strRect;
m_strTransformXml = Shape->m_strTransformXml;
return true;
}
}

View File

@ -47,25 +47,9 @@ public:
std::wstring radiusrange;
public:
CHandle_()
{
position = _T("");
xrange = _T("");
yrange = _T("");
switchHandle = _T("");
polar = _T("");
radiusrange = _T("");
}
CHandle_& operator =(const CHandle_& oSrc)
{
position = oSrc.position;
xrange = oSrc.xrange;
yrange = oSrc.yrange;
switchHandle = oSrc.switchHandle;
polar = oSrc.polar;
radiusrange = oSrc.radiusrange;
return (*this);
}
CHandle_();
CHandle_& operator =(const CHandle_& oSrc);
};
class CBaseShape
@ -93,10 +77,9 @@ public:
LONG m_lLimoY;
CPath m_oPath;
public:
CBaseShape()
{
}
CBaseShape();
virtual bool LoadTextRect(const std::wstring& xml) = 0;
virtual bool LoadPathList(const std::wstring& xml) = 0;
@ -105,47 +88,7 @@ public:
bool SetType(int ShapeType);
virtual bool SetProperties(CBaseShape* Shape)
{
if( Shape == NULL)
return false;
m_oPath = Shape->m_oPath;
m_strPath = Shape->m_strPath;
m_strRect = Shape->m_strRect;
m_arAdjustments.clear();
for(size_t i = 0; i < Shape->m_arAdjustments.size(); i++)
m_arAdjustments.push_back(Shape->m_arAdjustments[i]);
m_arGuides.clear();
for(size_t i = 0; i < Shape->m_arGuides.size(); i++)
m_arGuides.push_back(Shape->m_arGuides[i]);
m_eJoin = Shape->m_eJoin;
m_bConcentricFill = Shape->m_bConcentricFill;
m_arConnectors.clear();
for(size_t i = 0; i < Shape->m_arConnectors.size(); i++)
m_arConnectors.push_back(Shape->m_arConnectors[i]);
m_arConnectorAngles.clear();
for(size_t i = 0; i < Shape->m_arConnectorAngles.size(); i++)
m_arConnectorAngles.push_back(Shape->m_arConnectorAngles[i]);
m_arTextRects.clear();
for(size_t i = 0; i < Shape->m_arTextRects.size(); i++)
m_arTextRects.push_back(Shape->m_arTextRects[i]);
m_arHandles.clear();
for(size_t i = 0; i < Shape->m_arHandles.size(); i++)
m_arHandles.push_back(Shape->m_arHandles[i]);
m_strRect = Shape->m_strRect;
m_strTransformXml = Shape->m_strTransformXml;
return true;
}
virtual bool SetProperties(CBaseShape* Shape);
//virtual bool SetToDublicate(CBaseShape* Shape)
//{

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@ -0,0 +1,365 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "CustomGeomShape.h"
namespace NSCustomShapesConvert
{
CSegment::CSegment(RulesType eType, WORD nCount)
{
m_eRuler = eType;
m_nCount = nCount;
}
CSegment::CSegment(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
}
CSegment& CSegment::operator=(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
return (*this);
}
CSegment::~CSegment()
{
}
CGuide::CGuide()
{
m_eType = ftVal;
m_param_type1 = 0;
m_param_type2 = 0;
m_param_type3 = 0;
m_param_value1 = 0;
m_param_value2 = 0;
m_param_value3 = 0;
}
CGuide::CGuide(const CGuide& oSrc)
{
*this = oSrc;
}
CGuide& CGuide::operator=(const CGuide& oSrc)
{
m_eType = oSrc.m_eType;
m_param_type1 = oSrc.m_param_type1;
m_param_type2 = oSrc.m_param_type2;
m_param_type3 = oSrc.m_param_type3;
m_param_value1 = oSrc.m_param_value1;
m_param_value2 = oSrc.m_param_value2;
m_param_value3 = oSrc.m_param_value3;
return *this;
}
void CGuide::SetToFormula(NSCustomShapesConvert::CFormula& oFormula)
{
oFormula.m_eFormulaType = m_eType;
SetParam(m_param_type1, m_param_value1, oFormula.m_eType1, oFormula.m_lParam1);
SetParam(m_param_type2, m_param_value2, oFormula.m_eType2, oFormula.m_lParam2);
SetParam(m_param_type3, m_param_value3, oFormula.m_eType3, oFormula.m_lParam3);
}
void CGuide::SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value)
{
if (0 == type)
{
param_type = ptValue;
param_value = (LONG)param;
}
if (0x0140 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0141 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0142 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if (0x0143 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if ((0x0147 <= param) && (param <= 0x014E))
{
param_type = ptAdjust;
param_value = (LONG)(param - 0x0147);
return;
}
if ((0x0400 <= param) && (param <= 0x047F))
{
param_type = ptFormula;
param_value = (LONG)(param - 0x0400);
return;
}
param_type = ptValue;
param_value = ShapeSizeVML;
}
CCustomVML::CCustomVML() : m_arVertices(), m_arSegments(), m_arGuides(), m_pAdjustValues(NULL)
{
m_ePath = rtCurveTo/*rtLineTo*/;
m_bIsPathPresent = false;
}
CCustomVML::CCustomVML(const CCustomVML& oSrc)
{
*this = oSrc;
}
CCustomVML& CCustomVML::operator=(const CCustomVML& oSrc)
{
m_ePath = oSrc.m_ePath;
m_arVertices.clear();
m_arVertices.insert(m_arVertices.end(), oSrc.m_arVertices.begin(), oSrc.m_arVertices.end());
m_arSegments.clear();
m_arSegments.insert(m_arSegments.end(), oSrc.m_arSegments.begin(), oSrc.m_arSegments.end());
m_arGuides.clear();
m_arGuides.insert(m_arGuides.end(), oSrc.m_arGuides.begin(), oSrc.m_arGuides.end());
m_pAdjustValues = oSrc.m_pAdjustValues;
m_bIsPathPresent = oSrc.m_bIsPathPresent;
return *this;
}
CCustomVML::~CCustomVML()
{
}
bool CCustomVML::IsCustom()
{
return (!m_arVertices.empty() && (m_bIsPathPresent || !m_arSegments.empty()));
}
void CCustomVML::SetPath(RulesType ePath)
{
m_ePath = ePath;
m_bIsPathPresent = true;
}
void CCustomVML::LoadAHs(unsigned char* buffer, int buffer_size)
{
}
void CCustomVML::addSegment(RulesType eRuler, _UINT16 nCount)
{
CSegment oInfo(eRuler, nCount);
m_arSegments.push_back(oInfo);
}
void CCustomVML::addGuide(CGuide & oInfo)
{
m_arGuides.push_back(oInfo);
}
void CCustomVML::addAdjust(int lIndex, int lValue)
{
if (NULL == m_pAdjustValues)
return;
int lCount = m_pAdjustValues->size();
while (lCount <= lIndex)
{
m_pAdjustValues->push_back(0);
lCount = m_pAdjustValues->size();
}
(*m_pAdjustValues)[lIndex] = lValue;
}
void CCustomVML::SetAdjusts(std::vector<LONG>* pList)
{
m_pAdjustValues = pList;
}
void CCustomVML::ToCustomShape(CBaseShape* pShape, NSCustomShapesConvert::CFormulasManager& oManager)
{
if ((NULL == pShape) || (!IsCustom()))
return;
oManager.Clear();
// сначала заполним формулы
for (size_t nIndex = 0; nIndex < m_arGuides.size(); ++nIndex)
{
NSCustomShapesConvert::CFormula oF;
m_arGuides[nIndex].SetToFormula(oF);
oManager.AddFormula(oF);
}
oManager.Clear(m_pAdjustValues);
std::wstring strPath = _T("");
bool bBreak = false;
long lMinF = (_INT32)0x80000000;
long lMaxF = (_INT32)0x8000007F;
int nGuideIndex_x , nGuideIndex_y;
if (0 == m_arSegments.size())
{
strPath = GetRulerVML(m_ePath);
for (size_t nIndex = 0; nIndex < m_arVertices.size(); ++nIndex)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nIndex].x ) nGuideIndex_x = (DWORD)m_arVertices[nIndex].x - (DWORD)lMinF;
if (lMaxF > m_arVertices[nIndex].y ) nGuideIndex_y = (DWORD)m_arVertices[nIndex].y - (DWORD)lMinF;
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].y) + L",";
}
}
strPath.erase(strPath.length() - 1);
}
else
{
size_t nStart = 0;
size_t nEnd = 0;
for (size_t nS = 0; nS < m_arSegments.size(); ++nS)
{
if (bBreak)
{
if ((rtEnd != m_arSegments[nS].m_eRuler) &&
(rtNoFill != m_arSegments[nS].m_eRuler) &&
(rtNoStroke != m_arSegments[nS].m_eRuler) &&
(rtClose != m_arSegments[nS].m_eRuler))
{
strPath += _T("e");
break;
}
}
if ((rtFillColor == m_arSegments[nS].m_eRuler) || (rtLineColor == m_arSegments[nS].m_eRuler))
{
if (nStart < m_arVertices.size())
{
if (rtFillColor == m_arSegments[nS].m_eRuler)
{
//m_oBrush.Color1 = (DWORD)m_arVertices[nStart].x; todooooo
//m_oBrush.Color2 = (DWORD)m_arVertices[nStart].y;
}
else
{
//m_oPen.Color = (DWORD)m_arVertices[nStart].x; todooooo
}
}
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
continue;
}
strPath += GetRulerVML(m_arSegments[nS].m_eRuler);
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
for (size_t nV = nStart; nV < nEnd; ++nV)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nV].x ) nGuideIndex_x = (DWORD)m_arVertices[nV].x - (DWORD)lMinF;
if (lMaxF > m_arVertices[nV].y ) nGuideIndex_y = (DWORD)m_arVertices[nV].y - (DWORD)lMinF;
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size() )
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].y) + L",";
}
}
if (nEnd != nStart)
{
strPath.erase(strPath.length() - 1);
}
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
}
}
oManager.CalculateResults();
pShape->LoadPathList(strPath);
}
}

View File

@ -31,9 +31,7 @@
*/
#pragma once
#include "BaseShape.h"
#include "FormulaShape.h"
#include "../../../OOXML/SystemUtility/File.h"
@ -46,29 +44,10 @@ namespace NSCustomShapesConvert
RulesType m_eRuler;
WORD m_nCount;
CSegment(RulesType eType = rtMoveTo, WORD nCount = 2)
{
m_eRuler = eType;
m_nCount = nCount;
}
CSegment(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
}
CSegment& operator=(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
return (*this);
}
~CSegment()
{
}
CSegment(RulesType eType = rtMoveTo, WORD nCount = 2);
CSegment(const CSegment& oSrc);
CSegment& operator=(const CSegment& oSrc);
~CSegment();
};
class CGuide
@ -84,100 +63,14 @@ namespace NSCustomShapesConvert
WORD m_param_value2;
WORD m_param_value3;
CGuide()
{
m_eType = ftVal;
CGuide();
CGuide(const CGuide& oSrc);
m_param_type1 = 0;
m_param_type2 = 0;
m_param_type3 = 0;
m_param_value1 = 0;
m_param_value2 = 0;
m_param_value3 = 0;
}
CGuide(const CGuide& oSrc)
{
*this = oSrc;
}
CGuide& operator=(const CGuide& oSrc)
{
m_eType = oSrc.m_eType;
m_param_type1 = oSrc.m_param_type1;
m_param_type2 = oSrc.m_param_type2;
m_param_type3 = oSrc.m_param_type3;
m_param_value1 = oSrc.m_param_value1;
m_param_value2 = oSrc.m_param_value2;
m_param_value3 = oSrc.m_param_value3;
return *this;
}
void SetToFormula(NSCustomShapesConvert::CFormula& oFormula)
{
oFormula.m_eFormulaType = m_eType;
SetParam(m_param_type1, m_param_value1, oFormula.m_eType1, oFormula.m_lParam1);
SetParam(m_param_type2, m_param_value2, oFormula.m_eType2, oFormula.m_lParam2);
SetParam(m_param_type3, m_param_value3, oFormula.m_eType3, oFormula.m_lParam3);
}
CGuide& operator=(const CGuide& oSrc);
void SetToFormula(NSCustomShapesConvert::CFormula& oFormula);
private:
void SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value)
{
if (0 == type)
{
param_type = ptValue;
param_value = (LONG)param;
}
if (0x0140 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0141 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0142 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if (0x0143 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if ((0x0147 <= param) && (param <= 0x014E))
{
param_type = ptAdjust;
param_value = (LONG)(param - 0x0147);
return;
}
if ((0x0400 <= param) && (param <= 0x047F))
{
param_type = ptFormula;
param_value = (LONG)(param - 0x0400);
return;
}
param_type = ptValue;
param_value = ShapeSizeVML;
}
void SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value);
};
class CCustomVML
@ -192,229 +85,21 @@ namespace NSCustomShapesConvert
bool m_bIsPathPresent;
CCustomVML() : m_arVertices(), m_arSegments(), m_arGuides(), m_pAdjustValues(NULL)
{
m_ePath = rtCurveTo/*rtLineTo*/;
m_bIsPathPresent = false;
}
CCustomVML(const CCustomVML& oSrc)
{
*this = oSrc;
}
CCustomVML();
CCustomVML(const CCustomVML& oSrc);
CCustomVML& operator=(const CCustomVML& oSrc);
~CCustomVML();
CCustomVML& operator=(const CCustomVML& oSrc)
{
m_ePath = oSrc.m_ePath;
bool IsCustom();
m_arVertices.clear();
m_arVertices.insert(m_arVertices.end(), oSrc.m_arVertices.begin(), oSrc.m_arVertices.end());
void SetPath(RulesType ePath);
void LoadAHs(unsigned char* buffer, int buffer_size);
m_arSegments.clear();
m_arSegments.insert(m_arSegments.end(), oSrc.m_arSegments.begin(), oSrc.m_arSegments.end());
void addSegment(RulesType eRuler, _UINT16 nCount);
void addGuide(CGuide & oInfo);
void addAdjust(int lIndex, int lValue);
m_arGuides.clear();
m_arGuides.insert(m_arGuides.end(), oSrc.m_arGuides.begin(), oSrc.m_arGuides.end());
m_pAdjustValues = oSrc.m_pAdjustValues;
m_bIsPathPresent = oSrc.m_bIsPathPresent;
return *this;
}
~CCustomVML()
{
}
bool IsCustom()
{
return (!m_arVertices.empty() && (m_bIsPathPresent || !m_arSegments.empty()));
}
void SetPath(RulesType ePath)
{
m_ePath = ePath;
m_bIsPathPresent = true;
}
void LoadAHs(unsigned char* buffer, int buffer_size)
{
}
void addSegment(RulesType eRuler, _UINT16 nCount)
{
CSegment oInfo(eRuler, nCount);
m_arSegments.push_back(oInfo);
}
void addGuide(CGuide & oInfo)
{
m_arGuides.push_back(oInfo);
}
void addAdjust(int lIndex, int lValue)
{
if (NULL == m_pAdjustValues)
return;
int lCount = m_pAdjustValues->size();
while (lCount <= lIndex)
{
m_pAdjustValues->push_back(0);
lCount = m_pAdjustValues->size();
}
(*m_pAdjustValues)[lIndex] = lValue;
}
void SetAdjusts(std::vector<LONG>* pList)
{
m_pAdjustValues = pList;
}
void ToCustomShape(CBaseShape* pShape, NSCustomShapesConvert::CFormulasManager& oManager)
{
if ((NULL == pShape) || (!IsCustom()))
return;
oManager.Clear();
// сначала заполним формулы
for (size_t nIndex = 0; nIndex < m_arGuides.size(); ++nIndex)
{
NSCustomShapesConvert::CFormula oF;
m_arGuides[nIndex].SetToFormula(oF);
oManager.AddFormula(oF);
}
oManager.Clear(m_pAdjustValues);
std::wstring strPath = _T("");
bool bBreak = false;
long lMinF = (_INT32)0x80000000;
long lMaxF = (_INT32)0x8000007F;
int nGuideIndex_x , nGuideIndex_y;
if (0 == m_arSegments.size())
{
strPath = GetRulerVML(m_ePath);
for (size_t nIndex = 0; nIndex < m_arVertices.size(); ++nIndex)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nIndex].x ) nGuideIndex_x = (DWORD)m_arVertices[nIndex].x - (DWORD)lMinF;
if (lMaxF > m_arVertices[nIndex].y ) nGuideIndex_y = (DWORD)m_arVertices[nIndex].y - (DWORD)lMinF;
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].y) + L",";
}
}
strPath.erase(strPath.length() - 1);
}
else
{
size_t nStart = 0;
size_t nEnd = 0;
for (size_t nS = 0; nS < m_arSegments.size(); ++nS)
{
if (bBreak)
{
if ((rtEnd != m_arSegments[nS].m_eRuler) &&
(rtNoFill != m_arSegments[nS].m_eRuler) &&
(rtNoStroke != m_arSegments[nS].m_eRuler) &&
(rtClose != m_arSegments[nS].m_eRuler))
{
strPath += _T("e");
break;
}
}
if ((rtFillColor == m_arSegments[nS].m_eRuler) || (rtLineColor == m_arSegments[nS].m_eRuler))
{
if (nStart < m_arVertices.size())
{
if (rtFillColor == m_arSegments[nS].m_eRuler)
{
//m_oBrush.Color1 = (DWORD)m_arVertices[nStart].x; todooooo
//m_oBrush.Color2 = (DWORD)m_arVertices[nStart].y;
}
else
{
//m_oPen.Color = (DWORD)m_arVertices[nStart].x; todooooo
}
}
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
continue;
}
strPath += GetRulerVML(m_arSegments[nS].m_eRuler);
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
for (size_t nV = nStart; nV < nEnd; ++nV)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nV].x ) nGuideIndex_x = (DWORD)m_arVertices[nV].x - (DWORD)lMinF;
if (lMaxF > m_arVertices[nV].y ) nGuideIndex_y = (DWORD)m_arVertices[nV].y - (DWORD)lMinF;
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size() )
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].y) + L",";
}
}
if (nEnd != nStart)
{
strPath.erase(strPath.length() - 1);
}
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
}
}
oManager.CalculateResults();
pShape->LoadPathList(strPath);
}
void SetAdjusts(std::vector<LONG>* pList);
void ToCustomShape(CBaseShape* pShape, NSCustomShapesConvert::CFormulasManager& oManager);
};
}

View File

@ -47,252 +47,345 @@ using namespace ODRAW;
namespace NSCustomShapesConvert
{
CCustomShape* CCustomShape::CreateByType(oox::MSOSPT type)
{
CCustomShape* pShape = NULL;
switch (type)
CCustomShape::CCustomShape() : CBaseShape()
{
// msosptNotchedCircularArrow 0x00000064 A value that SHOULD NOT be used.
// msosptHostControl 0x000000C9 A value that SHOULD NOT be used.
m_eType = oox::msosptNotPrimitive;
}
CCustomShape::~CCustomShape()
{
}
void CCustomShape::AddGuide(const std::wstring& strGuide)
{
m_oManager.AddFormula(strGuide);
}
bool CCustomShape::LoadAdjustHandlesList(const std::wstring& xml)
{
return true;
}
bool CCustomShape::LoadConnectorsList(const std::wstring& xml)
{
return true;
}
bool CCustomShape::LoadTextRect(const std::wstring& xml)
{
std::vector<std::wstring> oArray;
NSStringUtils::ParseString(_T(";"), xml, oArray);
case sptNotchedCircularArrow:
case sptHostControl:
case 0: { pShape = new CRectangleType(); break; }
//CREATE_BY_SPT(sptMin, CLineType)
LONG lCount = (LONG)oArray.size();
CREATE_BY_SPT(sptAccentBorderCallout90, CAccentBorderCallout90Type)
CREATE_BY_SPT(sptAccentBorderCallout1, CAccentBorderCallout1Type)
CREATE_BY_SPT(sptAccentBorderCallout2, CAccentBorderCallout2Type)
CREATE_BY_SPT(sptAccentBorderCallout3, CAccentBorderCallout3Type)
if (lCount <= 0)
return true;
CREATE_BY_SPT(sptAccentCallout90, CAccentCallout90Type)
CREATE_BY_SPT(sptAccentCallout1, CAccentCallout1Type)
CREATE_BY_SPT(sptAccentCallout2, CAccentCallout2Type)
CREATE_BY_SPT(sptAccentCallout3, CAccentCallout3Type)
CREATE_BY_SPT(sptBorderCallout90, CBorderCallout90Type)
CREATE_BY_SPT(sptBorderCallout1, CBorderCallout1Type)
CREATE_BY_SPT(sptBorderCallout2, CBorderCallout2Type)
CREATE_BY_SPT(sptBorderCallout3, CBorderCallout3Type)
CREATE_BY_SPT(sptCallout90, CCallout90Type)
CREATE_BY_SPT(sptCallout1, CCallout1Type)
CREATE_BY_SPT(sptCallout2, CCallout2Type)
CREATE_BY_SPT(sptCallout3, CCallout3Type)
CREATE_BY_SPT(sptActionButtonBlank, CActionButtonBlankType)
CREATE_BY_SPT(sptActionButtonHome, CActionButtonHomeType)
CREATE_BY_SPT(sptActionButtonHelp, CActionButtonHelpType)
CREATE_BY_SPT(sptActionButtonInformation, CActionButtonInfoType)
CREATE_BY_SPT(sptActionButtonBackPrevious, CActionButtonBackType)
CREATE_BY_SPT(sptActionButtonForwardNext, CActionButtonNextType)
CREATE_BY_SPT(sptActionButtonBeginning, CActionButtonBeginType)
CREATE_BY_SPT(sptActionButtonEnd, CActionButtonEndType)
CREATE_BY_SPT(sptActionButtonReturn, CActionButtonReturnType)
CREATE_BY_SPT(sptActionButtonDocument, CActionButtonDocType)
CREATE_BY_SPT(sptActionButtonSound, CActionButtonSoundType)
CREATE_BY_SPT(sptActionButtonMovie, CActionButtonMovieType)
CREATE_BY_SPT(sptArc, CArcType)
CREATE_BY_SPT(sptLine, CLineType)
CREATE_BY_SPT(sptBentArrow, CBentArrowType)
CREATE_BY_SPT(sptBentUpArrow, CBentUpArrowType)
CREATE_BY_SPT(sptBevel, CBevelType)
CREATE_BY_SPT(sptBlockArc, CBlockArcType)
CREATE_BY_SPT(sptBracePair, CBracePairType)
CREATE_BY_SPT(sptBracketPair, CBracketPairType)
CREATE_BY_SPT(sptCan, CCanType)
CREATE_BY_SPT(sptChevron, CChevronType)
CREATE_BY_SPT(sptCircularArrow, CCircularArrowType)
CREATE_BY_SPT(sptCloudCallout, CCloudCalloutType)
CREATE_BY_SPT(sptCube, CCubeType)
CREATE_BY_SPT(sptCurvedDownArrow, CCurvedDownArrowType)
CREATE_BY_SPT(sptCurvedLeftArrow, CCurvedLeftArrowType)
CREATE_BY_SPT(sptCurvedRightArrow, CCurvedRightArrowType)
CREATE_BY_SPT(sptCurvedUpArrow, CCurvedUpArrowType)
CREATE_BY_SPT(sptDiamond, CDiamondType)
CREATE_BY_SPT(sptDonut, CDonutType)
CREATE_BY_SPT(sptDownArrowCallout, CDownArrowCalloutType)
CREATE_BY_SPT(sptDownArrow, CDownArrowType)
CREATE_BY_SPT(sptEllipse, CEllipseType)
CREATE_BY_SPT(sptEllipseRibbon, CEllipceRibbonType)
CREATE_BY_SPT(sptEllipseRibbon2, CEllipceRibbon2Type)
CREATE_BY_SPT(sptFlowChartAlternateProcess, CFlowChartAlternateProcessType)
CREATE_BY_SPT(sptFlowChartCollate, CFlowChartCollateType)
CREATE_BY_SPT(sptFlowChartConnector, CFlowChartConnectorType)
CREATE_BY_SPT(sptFlowChartDecision, CFlowChartDecisionType)
CREATE_BY_SPT(sptFlowChartDisplay, CFlowChartDisplayType)
CREATE_BY_SPT(sptFlowChartDelay, CFlowChartDelayType)
CREATE_BY_SPT(sptFlowChartDocument, CFlowChartDocumentType)
CREATE_BY_SPT(sptFlowChartExtract, CFlowChartExtractType)
CREATE_BY_SPT(sptFlowChartInputOutput, CFlowChartInputOutputType)
CREATE_BY_SPT(sptFlowChartInternalStorage, CFlowChartInternalStorageType)
CREATE_BY_SPT(sptFlowChartMagneticDisk, CFlowChartMagneticDiskType)
CREATE_BY_SPT(sptFlowChartMagneticDrum, CFlowChartMagneticDrumType)
CREATE_BY_SPT(sptFlowChartMagneticTape, CFlowChartMagneticTapeType)
CREATE_BY_SPT(sptFlowChartManualInput, CFlowChartManualInputType)
CREATE_BY_SPT(sptFlowChartManualOperation, CFlowChartManualOperationType)
CREATE_BY_SPT(sptFlowChartMerge, CFlowChartMergeType)
CREATE_BY_SPT(sptFlowChartMultidocument, CFlowChartMultidocumentType)
CREATE_BY_SPT(sptFlowChartOffpageConnector, CFlowChartOffpageConnectorType)
CREATE_BY_SPT(sptFlowChartOnlineStorage, CFlowChartOnlineStorageType)
CREATE_BY_SPT(sptFlowChartOr, CFlowChartOrType)
CREATE_BY_SPT(sptFlowChartPredefinedProcess, CFlowChartPredefinedProcessType)
CREATE_BY_SPT(sptFlowChartPreparation, CFlowChartPreparationType)
CREATE_BY_SPT(sptFlowChartProcess, CFlowChartProcessType)
CREATE_BY_SPT(sptFlowChartPunchedCard, CFlowChartPunchedCardType)
CREATE_BY_SPT(sptFlowChartPunchedTape, CFlowChartPunchedTapeType)
CREATE_BY_SPT(sptFlowChartSort, CFlowChartSortType)
CREATE_BY_SPT(sptFlowChartSummingJunction, CFlowChartSummingJunctionType)
CREATE_BY_SPT(sptFlowChartTerminator, CFlowChartTerminatorType)
CREATE_BY_SPT(sptFoldedCorner, CFoldedCornerType)
CREATE_BY_SPT(sptHeart, CHeartType)
CREATE_BY_SPT(sptHexagon, CHexagonType)
CREATE_BY_SPT(sptHomePlate, CHomePlateType)
CREATE_BY_SPT(sptIrregularSeal1, CIrregularSealOneType)
CREATE_BY_SPT(sptIrregularSeal2, CIrregularSealTwo)
CREATE_BY_SPT(sptIsocelesTriangle, CIsoscelesTriangleType)
CREATE_BY_SPT(sptLeftArrowCallout, CLeftArrowCalloutType)
CREATE_BY_SPT(sptLeftArrow, CLeftArrowType)
CREATE_BY_SPT(sptLeftBrace, CLeftBraceType)
CREATE_BY_SPT(sptLeftBracket, CLeftBracketType)
CREATE_BY_SPT(sptLeftRightArrowCallout, CLeftRightArrowCalloutType)
CREATE_BY_SPT(sptLeftRightArrow, CLeftRightArrowType)
CREATE_BY_SPT(sptLeftRightUpArrow, CLeftRightUpArrow)
CREATE_BY_SPT(sptLeftUpArrow, CLeftUpArrowType)
CREATE_BY_SPT(sptLightningBolt, CLightningBoltType)
CREATE_BY_SPT(sptMoon, CMoonType)
CREATE_BY_SPT(sptNoSmoking, CNoSmokingType)
CREATE_BY_SPT(sptNotchedRightArrow, CNotchedRightArrowType)
CREATE_BY_SPT(sptOctagon, COctagonType)
CREATE_BY_SPT(sptParallelogram, CParallelogramType)
CREATE_BY_SPT(sptPentagon, CPentagonType)
CREATE_BY_SPT(sptPlaque, CPlaqueType)
CREATE_BY_SPT(sptPlus, CPlusType)
CREATE_BY_SPT(sptQuadArrowCallout, CQuadArrowCalloutType)
CREATE_BY_SPT(sptQuadArrow, CQuadArrowType)
CREATE_BY_SPT(sptRectangle, CRectangleType)
CREATE_BY_SPT(sptRibbon, CRibbonDownType)
CREATE_BY_SPT(sptRibbon2, CRibbonUpType)
CREATE_BY_SPT(sptRightArrowCallout, CRightArrowCalloutType)
CREATE_BY_SPT(sptArrow, CRightArrowType)
CREATE_BY_SPT(sptRightBrace, CRightBracetype)
CREATE_BY_SPT(sptRightBracket, CRightBracketType)
CREATE_BY_SPT(sptRightTriangle, CRightTriangleType)
CREATE_BY_SPT(sptRoundRectangle, CRoundedRectangleType)
CREATE_BY_SPT(sptSeal16, CSeal16Type)
CREATE_BY_SPT(sptSeal24, CSeal24Type)
CREATE_BY_SPT(sptSeal32, CSeal32Type)
CREATE_BY_SPT(sptSeal4, CSeal4Type)
CREATE_BY_SPT(sptSeal8, CSeal8Type)
CREATE_BY_SPT(sptSmileyFace, CSmileyFaceType)
CREATE_BY_SPT(sptStar, CStarType)
CREATE_BY_SPT(sptStraightConnector1, CStraightConnectorType)
CREATE_BY_SPT(sptStripedRightArrow, CStripedRightArrowType)
CREATE_BY_SPT(sptSun, CSunType)
CREATE_BY_SPT(sptTextBox, CTextboxType)
CREATE_BY_SPT(sptTrapezoid, CTrapezoidType)
CREATE_BY_SPT(sptUpArrowCallout, CUpArrowCalloutType)
CREATE_BY_SPT(sptUpArrow, CUpArrowType)
CREATE_BY_SPT(sptUpDownArrowCallout, CUpDownArrowCalloutType)
CREATE_BY_SPT(sptUpDownArrow, CUpDownArrowType)
CREATE_BY_SPT(sptUturnArrow, CUturnArrowType)
CREATE_BY_SPT(sptVerticalScroll, CVerticalScrollType)
CREATE_BY_SPT(sptHorizontalScroll, CHorizontalScrollType)
CREATE_BY_SPT(sptWedgeEllipseCallout, CWedgeEllipseCalloutType)
CREATE_BY_SPT(sptWedgeRectCallout, CWedgeRectCalloutType)
CREATE_BY_SPT(sptWedgeRRectCallout, CWedgeRoundedRectCalloutType)
CREATE_BY_SPT(sptWave, CWaveType)
CREATE_BY_SPT(sptDoubleWave, CWaveDoubleType)
case sptBentConnector2:
case sptBentConnector3:
case sptBentConnector4:
case sptBentConnector5:
{
pShape = new CBentConnectorType();
break;
}
case sptCurvedConnector2:
case sptCurvedConnector3:
case sptCurvedConnector4:
case sptCurvedConnector5:
{
pShape = new CCurvedConnectorType();
break;
}
case sptTextPlainText:
case sptTextStop:
case sptTextTriangle:
case sptTextTriangleInverted:
case sptTextChevron:
case sptTextChevronInverted:
case sptTextRingInside:
case sptTextRingOutside:
case sptTextArchUpCurve:
case sptTextArchDownCurve:
case sptTextCircleCurve:
case sptTextButtonCurve:
case sptTextArchUpPour:
case sptTextArchDownPour:
case sptTextCirclePour:
case sptTextButtonPour:
case sptTextCurveUp:
case sptTextCurveDown:
case sptTextCascadeUp:
case sptTextCascadeDown:
case sptTextWave1:
case sptTextWave2:
case sptTextWave3:
case sptTextWave4:
case sptTextInflate:
case sptTextDeflate:
case sptTextInflateBottom:
case sptTextDeflateBottom:
case sptTextInflateTop:
case sptTextDeflateTop:
case sptTextDeflateInflate:
case sptTextDeflateInflateDeflate:
case sptTextFadeRight:
case sptTextFadeLeft:
case sptTextFadeUp:
case sptTextFadeDown:
case sptTextSlantUp:
case sptTextSlantDown:
case sptTextCanUp:
case sptTextCanDown:
m_arStringTextRects.clear();
for (LONG i = 0; i < lCount; ++i)
{
pShape = new CTextboxType();
m_arStringTextRects.push_back(oArray[i]);
}
default: break;
};
return true;
}
bool CCustomShape::LoadPathList(const std::wstring& xml)
{
m_strPath = xml;
if (NULL != pShape)
pShape->m_eType = type;
return pShape;
}
m_oPath.FromXML(xml, m_oManager);
return true;
}
bool CCustomShape::SetAdjustment(long index, long value)
{
if (index < (long)m_arAdjustments.size() && index >= 0)
{
m_arAdjustments[index] = value;
return TRUE;
}
return FALSE;
}
void CCustomShape::ReCalculate()
{
m_oManager.Clear(&m_arAdjustments);
m_oManager.CalculateResults();
if (_T("") == m_strPath)
return;
LoadPathList(m_strPath);
}
bool CCustomShape::SetProperties(CBaseShape* Shape)
{
if(Shape == NULL)
return false;
m_oManager = ((CCustomShape*)Shape)->m_oManager;
//m_strPathLimoX = ((CCustomShape*)Shape)->m_strPathLimoX;
//m_strPathLimoY = ((CCustomShape*)Shape)->m_strPathLimoY;
//m_arStringTextRects.clear();
//m_arStringTextRects.insert(m_arStringTextRects.end(), ((CCustomShape*)Shape)->m_arStringTextRects.begin(), ((CCustomShape*)Shape)->m_arStringTextRects.end());
return CBaseShape::SetProperties(Shape);
}
bool CCustomShape::SetShapeType(oox::MSOSPT type)
{
CCustomShape* l_pShape = CreateByType(type);
if(l_pShape != NULL)
{
m_eType = type;
SetProperties(l_pShape);
delete l_pShape;
return true;
}
m_eType = oox::msosptNotPrimitive;
return false;
}
CCustomShape* CCustomShape::CreateByType(oox::MSOSPT type)
{
CCustomShape* pShape = NULL;
switch (type)
{
// msosptNotchedCircularArrow 0x00000064 A value that SHOULD NOT be used.
// msosptHostControl 0x000000C9 A value that SHOULD NOT be used.
case sptNotchedCircularArrow:
case sptHostControl:
case 0: { pShape = new CRectangleType(); break; }
//CREATE_BY_SPT(sptMin, CLineType)
CREATE_BY_SPT(sptAccentBorderCallout90, CAccentBorderCallout90Type)
CREATE_BY_SPT(sptAccentBorderCallout1, CAccentBorderCallout1Type)
CREATE_BY_SPT(sptAccentBorderCallout2, CAccentBorderCallout2Type)
CREATE_BY_SPT(sptAccentBorderCallout3, CAccentBorderCallout3Type)
CREATE_BY_SPT(sptAccentCallout90, CAccentCallout90Type)
CREATE_BY_SPT(sptAccentCallout1, CAccentCallout1Type)
CREATE_BY_SPT(sptAccentCallout2, CAccentCallout2Type)
CREATE_BY_SPT(sptAccentCallout3, CAccentCallout3Type)
CREATE_BY_SPT(sptBorderCallout90, CBorderCallout90Type)
CREATE_BY_SPT(sptBorderCallout1, CBorderCallout1Type)
CREATE_BY_SPT(sptBorderCallout2, CBorderCallout2Type)
CREATE_BY_SPT(sptBorderCallout3, CBorderCallout3Type)
CREATE_BY_SPT(sptCallout90, CCallout90Type)
CREATE_BY_SPT(sptCallout1, CCallout1Type)
CREATE_BY_SPT(sptCallout2, CCallout2Type)
CREATE_BY_SPT(sptCallout3, CCallout3Type)
CREATE_BY_SPT(sptActionButtonBlank, CActionButtonBlankType)
CREATE_BY_SPT(sptActionButtonHome, CActionButtonHomeType)
CREATE_BY_SPT(sptActionButtonHelp, CActionButtonHelpType)
CREATE_BY_SPT(sptActionButtonInformation, CActionButtonInfoType)
CREATE_BY_SPT(sptActionButtonBackPrevious, CActionButtonBackType)
CREATE_BY_SPT(sptActionButtonForwardNext, CActionButtonNextType)
CREATE_BY_SPT(sptActionButtonBeginning, CActionButtonBeginType)
CREATE_BY_SPT(sptActionButtonEnd, CActionButtonEndType)
CREATE_BY_SPT(sptActionButtonReturn, CActionButtonReturnType)
CREATE_BY_SPT(sptActionButtonDocument, CActionButtonDocType)
CREATE_BY_SPT(sptActionButtonSound, CActionButtonSoundType)
CREATE_BY_SPT(sptActionButtonMovie, CActionButtonMovieType)
CREATE_BY_SPT(sptArc, CArcType)
CREATE_BY_SPT(sptLine, CLineType)
CREATE_BY_SPT(sptBentArrow, CBentArrowType)
CREATE_BY_SPT(sptBentUpArrow, CBentUpArrowType)
CREATE_BY_SPT(sptBevel, CBevelType)
CREATE_BY_SPT(sptBlockArc, CBlockArcType)
CREATE_BY_SPT(sptBracePair, CBracePairType)
CREATE_BY_SPT(sptBracketPair, CBracketPairType)
CREATE_BY_SPT(sptCan, CCanType)
CREATE_BY_SPT(sptChevron, CChevronType)
CREATE_BY_SPT(sptCircularArrow, CCircularArrowType)
CREATE_BY_SPT(sptCloudCallout, CCloudCalloutType)
CREATE_BY_SPT(sptCube, CCubeType)
CREATE_BY_SPT(sptCurvedDownArrow, CCurvedDownArrowType)
CREATE_BY_SPT(sptCurvedLeftArrow, CCurvedLeftArrowType)
CREATE_BY_SPT(sptCurvedRightArrow, CCurvedRightArrowType)
CREATE_BY_SPT(sptCurvedUpArrow, CCurvedUpArrowType)
CREATE_BY_SPT(sptDiamond, CDiamondType)
CREATE_BY_SPT(sptDonut, CDonutType)
CREATE_BY_SPT(sptDownArrowCallout, CDownArrowCalloutType)
CREATE_BY_SPT(sptDownArrow, CDownArrowType)
CREATE_BY_SPT(sptEllipse, CEllipseType)
CREATE_BY_SPT(sptEllipseRibbon, CEllipceRibbonType)
CREATE_BY_SPT(sptEllipseRibbon2, CEllipceRibbon2Type)
CREATE_BY_SPT(sptFlowChartAlternateProcess, CFlowChartAlternateProcessType)
CREATE_BY_SPT(sptFlowChartCollate, CFlowChartCollateType)
CREATE_BY_SPT(sptFlowChartConnector, CFlowChartConnectorType)
CREATE_BY_SPT(sptFlowChartDecision, CFlowChartDecisionType)
CREATE_BY_SPT(sptFlowChartDisplay, CFlowChartDisplayType)
CREATE_BY_SPT(sptFlowChartDelay, CFlowChartDelayType)
CREATE_BY_SPT(sptFlowChartDocument, CFlowChartDocumentType)
CREATE_BY_SPT(sptFlowChartExtract, CFlowChartExtractType)
CREATE_BY_SPT(sptFlowChartInputOutput, CFlowChartInputOutputType)
CREATE_BY_SPT(sptFlowChartInternalStorage, CFlowChartInternalStorageType)
CREATE_BY_SPT(sptFlowChartMagneticDisk, CFlowChartMagneticDiskType)
CREATE_BY_SPT(sptFlowChartMagneticDrum, CFlowChartMagneticDrumType)
CREATE_BY_SPT(sptFlowChartMagneticTape, CFlowChartMagneticTapeType)
CREATE_BY_SPT(sptFlowChartManualInput, CFlowChartManualInputType)
CREATE_BY_SPT(sptFlowChartManualOperation, CFlowChartManualOperationType)
CREATE_BY_SPT(sptFlowChartMerge, CFlowChartMergeType)
CREATE_BY_SPT(sptFlowChartMultidocument, CFlowChartMultidocumentType)
CREATE_BY_SPT(sptFlowChartOffpageConnector, CFlowChartOffpageConnectorType)
CREATE_BY_SPT(sptFlowChartOnlineStorage, CFlowChartOnlineStorageType)
CREATE_BY_SPT(sptFlowChartOr, CFlowChartOrType)
CREATE_BY_SPT(sptFlowChartPredefinedProcess, CFlowChartPredefinedProcessType)
CREATE_BY_SPT(sptFlowChartPreparation, CFlowChartPreparationType)
CREATE_BY_SPT(sptFlowChartProcess, CFlowChartProcessType)
CREATE_BY_SPT(sptFlowChartPunchedCard, CFlowChartPunchedCardType)
CREATE_BY_SPT(sptFlowChartPunchedTape, CFlowChartPunchedTapeType)
CREATE_BY_SPT(sptFlowChartSort, CFlowChartSortType)
CREATE_BY_SPT(sptFlowChartSummingJunction, CFlowChartSummingJunctionType)
CREATE_BY_SPT(sptFlowChartTerminator, CFlowChartTerminatorType)
CREATE_BY_SPT(sptFoldedCorner, CFoldedCornerType)
CREATE_BY_SPT(sptHeart, CHeartType)
CREATE_BY_SPT(sptHexagon, CHexagonType)
CREATE_BY_SPT(sptHomePlate, CHomePlateType)
CREATE_BY_SPT(sptIrregularSeal1, CIrregularSealOneType)
CREATE_BY_SPT(sptIrregularSeal2, CIrregularSealTwo)
CREATE_BY_SPT(sptIsocelesTriangle, CIsoscelesTriangleType)
CREATE_BY_SPT(sptLeftArrowCallout, CLeftArrowCalloutType)
CREATE_BY_SPT(sptLeftArrow, CLeftArrowType)
CREATE_BY_SPT(sptLeftBrace, CLeftBraceType)
CREATE_BY_SPT(sptLeftBracket, CLeftBracketType)
CREATE_BY_SPT(sptLeftRightArrowCallout, CLeftRightArrowCalloutType)
CREATE_BY_SPT(sptLeftRightArrow, CLeftRightArrowType)
CREATE_BY_SPT(sptLeftRightUpArrow, CLeftRightUpArrow)
CREATE_BY_SPT(sptLeftUpArrow, CLeftUpArrowType)
CREATE_BY_SPT(sptLightningBolt, CLightningBoltType)
CREATE_BY_SPT(sptMoon, CMoonType)
CREATE_BY_SPT(sptNoSmoking, CNoSmokingType)
CREATE_BY_SPT(sptNotchedRightArrow, CNotchedRightArrowType)
CREATE_BY_SPT(sptOctagon, COctagonType)
CREATE_BY_SPT(sptParallelogram, CParallelogramType)
CREATE_BY_SPT(sptPentagon, CPentagonType)
CREATE_BY_SPT(sptPlaque, CPlaqueType)
CREATE_BY_SPT(sptPlus, CPlusType)
CREATE_BY_SPT(sptQuadArrowCallout, CQuadArrowCalloutType)
CREATE_BY_SPT(sptQuadArrow, CQuadArrowType)
CREATE_BY_SPT(sptRectangle, CRectangleType)
CREATE_BY_SPT(sptRibbon, CRibbonDownType)
CREATE_BY_SPT(sptRibbon2, CRibbonUpType)
CREATE_BY_SPT(sptRightArrowCallout, CRightArrowCalloutType)
CREATE_BY_SPT(sptArrow, CRightArrowType)
CREATE_BY_SPT(sptRightBrace, CRightBracetype)
CREATE_BY_SPT(sptRightBracket, CRightBracketType)
CREATE_BY_SPT(sptRightTriangle, CRightTriangleType)
CREATE_BY_SPT(sptRoundRectangle, CRoundedRectangleType)
CREATE_BY_SPT(sptSeal16, CSeal16Type)
CREATE_BY_SPT(sptSeal24, CSeal24Type)
CREATE_BY_SPT(sptSeal32, CSeal32Type)
CREATE_BY_SPT(sptSeal4, CSeal4Type)
CREATE_BY_SPT(sptSeal8, CSeal8Type)
CREATE_BY_SPT(sptSmileyFace, CSmileyFaceType)
CREATE_BY_SPT(sptStar, CStarType)
CREATE_BY_SPT(sptStraightConnector1, CStraightConnectorType)
CREATE_BY_SPT(sptStripedRightArrow, CStripedRightArrowType)
CREATE_BY_SPT(sptSun, CSunType)
CREATE_BY_SPT(sptTextBox, CTextboxType)
CREATE_BY_SPT(sptTrapezoid, CTrapezoidType)
CREATE_BY_SPT(sptUpArrowCallout, CUpArrowCalloutType)
CREATE_BY_SPT(sptUpArrow, CUpArrowType)
CREATE_BY_SPT(sptUpDownArrowCallout, CUpDownArrowCalloutType)
CREATE_BY_SPT(sptUpDownArrow, CUpDownArrowType)
CREATE_BY_SPT(sptUturnArrow, CUturnArrowType)
CREATE_BY_SPT(sptVerticalScroll, CVerticalScrollType)
CREATE_BY_SPT(sptHorizontalScroll, CHorizontalScrollType)
CREATE_BY_SPT(sptWedgeEllipseCallout, CWedgeEllipseCalloutType)
CREATE_BY_SPT(sptWedgeRectCallout, CWedgeRectCalloutType)
CREATE_BY_SPT(sptWedgeRRectCallout, CWedgeRoundedRectCalloutType)
CREATE_BY_SPT(sptWave, CWaveType)
CREATE_BY_SPT(sptDoubleWave, CWaveDoubleType)
case sptBentConnector2:
case sptBentConnector3:
case sptBentConnector4:
case sptBentConnector5:
{
pShape = new CBentConnectorType();
break;
}
case sptCurvedConnector2:
case sptCurvedConnector3:
case sptCurvedConnector4:
case sptCurvedConnector5:
{
pShape = new CCurvedConnectorType();
break;
}
case sptTextPlainText:
case sptTextStop:
case sptTextTriangle:
case sptTextTriangleInverted:
case sptTextChevron:
case sptTextChevronInverted:
case sptTextRingInside:
case sptTextRingOutside:
case sptTextArchUpCurve:
case sptTextArchDownCurve:
case sptTextCircleCurve:
case sptTextButtonCurve:
case sptTextArchUpPour:
case sptTextArchDownPour:
case sptTextCirclePour:
case sptTextButtonPour:
case sptTextCurveUp:
case sptTextCurveDown:
case sptTextCascadeUp:
case sptTextCascadeDown:
case sptTextWave1:
case sptTextWave2:
case sptTextWave3:
case sptTextWave4:
case sptTextInflate:
case sptTextDeflate:
case sptTextInflateBottom:
case sptTextDeflateBottom:
case sptTextInflateTop:
case sptTextDeflateTop:
case sptTextDeflateInflate:
case sptTextDeflateInflateDeflate:
case sptTextFadeRight:
case sptTextFadeLeft:
case sptTextFadeUp:
case sptTextFadeDown:
case sptTextSlantUp:
case sptTextSlantDown:
case sptTextCanUp:
case sptTextCanDown:
{
pShape = new CTextboxType();
}
default: break;
};
if (NULL != pShape)
pShape->m_eType = type;
return pShape;
}
}

View File

@ -52,111 +52,22 @@ public:
std::vector<std::wstring> m_arStringTextRects;
CCustomShape() : CBaseShape()
{
m_eType = oox::msosptNotPrimitive;
}
CCustomShape();
~CCustomShape();
~CCustomShape()
{
}
virtual void AddGuide(const std::wstring& strGuide);
virtual void AddGuide(const std::wstring& strGuide)
{
m_oManager.AddFormula(strGuide);
}
virtual bool LoadAdjustHandlesList(const std::wstring& xml);
virtual bool LoadConnectorsList(const std::wstring& xml);
virtual bool LoadTextRect(const std::wstring& xml);
virtual bool LoadPathList(const std::wstring& xml);
virtual bool LoadAdjustHandlesList(const std::wstring& xml)
{
return true;
}
virtual bool LoadConnectorsList(const std::wstring& xml)
{
return true;
}
virtual bool LoadTextRect(const std::wstring& xml)
{
std::vector<std::wstring> oArray;
NSStringUtils::ParseString(_T(";"), xml, oArray);
LONG lCount = (LONG)oArray.size();
if (lCount <= 0)
return true;
m_arStringTextRects.clear();
for (LONG i = 0; i < lCount; ++i)
{
m_arStringTextRects.push_back(oArray[i]);
}
return true;
}
virtual bool LoadPathList(const std::wstring& xml)
{
m_strPath = xml;
m_oPath.FromXML(xml, m_oManager);
return true;
}
virtual bool SetAdjustment(long index, long value)
{
if (index < (long)m_arAdjustments.size() && index >= 0)
{
m_arAdjustments[index] = value;
return TRUE;
}
return FALSE;
}
virtual void ReCalculate()
{
m_oManager.Clear(&m_arAdjustments);
m_oManager.CalculateResults();
if (_T("") == m_strPath)
return;
LoadPathList(m_strPath);
}
virtual bool SetAdjustment(long index, long value);
virtual void ReCalculate();
static CCustomShape* CreateByType(oox::MSOSPT type);
virtual bool SetProperties(CBaseShape* Shape)
{
if(Shape == NULL)
return false;
m_oManager = ((CCustomShape*)Shape)->m_oManager;
//m_strPathLimoX = ((CCustomShape*)Shape)->m_strPathLimoX;
//m_strPathLimoY = ((CCustomShape*)Shape)->m_strPathLimoY;
//m_arStringTextRects.clear();
//m_arStringTextRects.insert(m_arStringTextRects.end(), ((CCustomShape*)Shape)->m_arStringTextRects.begin(), ((CCustomShape*)Shape)->m_arStringTextRects.end());
return CBaseShape::SetProperties(Shape);
}
bool SetShapeType(oox::MSOSPT type)
{
CCustomShape* l_pShape = CreateByType(type);
if(l_pShape != NULL)
{
m_eType = type;
SetProperties(l_pShape);
delete l_pShape;
return true;
}
m_eType = oox::msosptNotPrimitive;
return false;
}
virtual bool SetProperties(CBaseShape* Shape);
bool SetShapeType(oox::MSOSPT type);
};
}

File diff suppressed because it is too large Load Diff

File diff suppressed because it is too large Load Diff

View File

@ -33,134 +33,267 @@
#include "FormulaShape.h"
LONG NSCustomShapesConvert::CFormula::CalculateFormula(NSCustomShapesConvert::CFormulasManager* pManager)
namespace NSCustomShapesConvert
{
if ((0 > m_lIndex) || (m_lIndex >= pManager->m_arResults.size()))
return 0;
if (0xFFFFFFFF != pManager->m_arResults[m_lIndex])
CFormula::CFormula()
{
return pManager->m_arResults[m_lIndex];
}
LONG lResult = 0;
m_eFormulaType = ftSum;
m_lIndex = 0;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
LONG lGuidesCount = pManager->m_arFormulas.size();
LONG lAdjCount = pManager->m_pAdjustments->size();
LONG a1 = m_lParam1;
if (ptFormula == m_eType1)
{
a1 = (m_lParam1 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam1].CalculateFormula(pManager);
m_lCountRecurs = 0;
}
else if (ptAdjust == m_eType1)
CFormula::CFormula(int nIndex)
{
a1 = (m_lParam1 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam1];
}
m_eFormulaType = ftSum;
m_lIndex = nIndex;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
LONG b1 = m_lParam2;
if (ptFormula == m_eType2)
{
b1 = (m_lParam2 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam2].CalculateFormula(pManager);
m_lCountRecurs = 0;
}
else if (ptAdjust == m_eType2)
CFormula& CFormula::operator =(const CFormula& oSrc)
{
b1 = (m_lParam2 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam2];
m_eFormulaType = oSrc.m_eFormulaType;
m_lIndex = oSrc.m_lIndex;
m_lParam1 = oSrc.m_lParam1;
m_eType1 = oSrc.m_eType1;
m_lParam2 = oSrc.m_lParam2;
m_eType2 = oSrc.m_eType2;
m_lParam3 = oSrc.m_lParam3;
m_eType3 = oSrc.m_eType3;
m_lCountRecurs = 0;
return (*this);
}
LONG c1 = m_lParam3;
if (ptFormula == m_eType3)
void CFormula::FromString(std::wstring strFormula, long lShapeWidth, long lShapeHeight)
{
c1 = (m_lParam3 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam3].CalculateFormula(pManager);
}
else if (ptAdjust == m_eType3)
{
c1 = (m_lParam3 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam3];
}
std::vector<std::wstring> oArrayParams;
NSStringUtils::ParseString(_T(" "), strFormula, oArrayParams);
size_t nCount = oArrayParams.size();
if (nCount == 0)
return;
double a = (double)a1;
double b = (double)b1;
double c = (double)c1;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
double dRes = 0.0;
try
{
// теперь нужно просто посчитать
switch (m_eFormulaType)
ParamType ptType = ptValue;
if (1 < nCount)
{
case ftSum: { dRes = a + b - c; break; }
case ftProduct: {
if (0 == c)
c = 1;
dRes = a * b / c;
break;
}
case ftMid: { dRes = (a + b) / 2.0; break; }
case ftAbsolute: { dRes = abs(a); break; }
case ftMin: { dRes = (std::min)(a, b); break; }
case ftMax: { dRes = (std::max)(a, b); break; }
case ftIf: { dRes = (a > 0) ? b : c; break; }
case ftSqrt: { dRes = sqrt(a); break; }
case ftMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftSin: {
//dRes = a * sin(b);
//dRes = a * sin(b / pow2_16);
dRes = a * sin(M_PI * b / (pow2_16 * 180));
break;
}
case ftCos: {
//dRes = a * cos(b);
//dRes = a * cos(b / pow2_16);
dRes = a * cos(M_PI * b / (pow2_16 * 180));
break;
}
case ftTan: {
//dRes = a * tan(b);
dRes = a * tan(M_PI * b / (pow2_16 * 180));
break;
}
case ftAtan2: {
dRes = 180 * pow2_16 * atan2(b,a) / M_PI;
break;
}
case ftSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftSumangle: {
//dRes = a + b - c;
dRes = a + b * pow2_16 - c * pow2_16;
/*while (23592960 < dRes)
{
dRes -= 23592960;
}
while (-23592960 > dRes)
{
dRes += 23592960;
}*/
break;
}
case ftEllipse: {
if (0 == b)
b = 1;
dRes = c * sqrt(1-(a*a/(b*b)));
break;
}
case ftVal: { dRes = a; break; }
default: break;
};
m_lParam1 = GetValue(oArrayParams[1], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType1 = ptType;
}
if (2 < nCount)
{
m_lParam2 = GetValue(oArrayParams[2], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType2 = ptType;
}
if (3 < nCount)
{
m_lParam3 = GetValue(oArrayParams[3], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType3 = ptType;
}
}
catch (...)
LONG CFormula::CalculateFormula(NSCustomShapesConvert::CFormulasManager* pManager)
{
dRes = 0;
if ((0 > m_lIndex) || (m_lIndex >= pManager->m_arResults.size()))
return 0;
if (0xFFFFFFFF != pManager->m_arResults[m_lIndex])
{
return pManager->m_arResults[m_lIndex];
}
LONG lResult = 0;
LONG lGuidesCount = pManager->m_arFormulas.size();
LONG lAdjCount = pManager->m_pAdjustments->size();
LONG a1 = m_lParam1;
if (ptFormula == m_eType1)
{
a1 = (m_lParam1 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam1].CalculateFormula(pManager);
}
else if (ptAdjust == m_eType1)
{
a1 = (m_lParam1 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam1];
}
LONG b1 = m_lParam2;
if (ptFormula == m_eType2)
{
b1 = (m_lParam2 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam2].CalculateFormula(pManager);
}
else if (ptAdjust == m_eType2)
{
b1 = (m_lParam2 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam2];
}
LONG c1 = m_lParam3;
if (ptFormula == m_eType3)
{
c1 = (m_lParam3 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam3].CalculateFormula(pManager);
}
else if (ptAdjust == m_eType3)
{
c1 = (m_lParam3 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam3];
}
double a = (double)a1;
double b = (double)b1;
double c = (double)c1;
double dRes = 0.0;
try
{
// теперь нужно просто посчитать
switch (m_eFormulaType)
{
case ftSum: { dRes = a + b - c; break; }
case ftProduct: {
if (0 == c)
c = 1;
dRes = a * b / c;
break;
}
case ftMid: { dRes = (a + b) / 2.0; break; }
case ftAbsolute: { dRes = abs(a); break; }
case ftMin: { dRes = (std::min)(a, b); break; }
case ftMax: { dRes = (std::max)(a, b); break; }
case ftIf: { dRes = (a > 0) ? b : c; break; }
case ftSqrt: { dRes = sqrt(a); break; }
case ftMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftSin: {
//dRes = a * sin(b);
//dRes = a * sin(b / pow2_16);
dRes = a * sin(M_PI * b / (pow2_16 * 180));
break;
}
case ftCos: {
//dRes = a * cos(b);
//dRes = a * cos(b / pow2_16);
dRes = a * cos(M_PI * b / (pow2_16 * 180));
break;
}
case ftTan: {
//dRes = a * tan(b);
dRes = a * tan(M_PI * b / (pow2_16 * 180));
break;
}
case ftAtan2: {
dRes = 180 * pow2_16 * atan2(b,a) / M_PI;
break;
}
case ftSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftSumangle: {
//dRes = a + b - c;
dRes = a + b * pow2_16 - c * pow2_16;
/*while (23592960 < dRes)
{
dRes -= 23592960;
}
while (-23592960 > dRes)
{
dRes += 23592960;
}*/
break;
}
case ftEllipse: {
if (0 == b)
b = 1;
dRes = c * sqrt(1-(a*a/(b*b)));
break;
}
case ftVal: { dRes = a; break; }
default: break;
};
}
catch (...)
{
dRes = 0;
}
lResult = (LONG)dRes;
pManager->m_arResults[m_lIndex] = lResult;
return lResult;
}
lResult = (LONG)dRes;
pManager->m_arResults[m_lIndex] = lResult;
return lResult;
CFormulasManager::CFormulasManager() : m_arFormulas(), m_arResults()
{
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CFormulasManager& CFormulasManager::operator =(const CFormulasManager& oSrc)
{
m_pAdjustments = oSrc.m_pAdjustments;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
m_arResults.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arResults.size(); ++nIndex)
{
m_arResults.push_back(oSrc.m_arResults[nIndex]);
}
m_arFormulas.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arFormulas.size(); ++nIndex)
{
m_arFormulas.push_back(oSrc.m_arFormulas[nIndex]);
}
return (*this);
}
void CFormulasManager::Clear()
{
m_pAdjustments = NULL;
m_arFormulas.clear();
m_arResults.clear();
}
void CFormulasManager::Clear(std::vector<LONG>* pAdjusts)
{
m_pAdjustments = pAdjusts;
//m_arFormulas.clear();
//m_arResults.clear();
for (size_t nIndex = 0; nIndex < m_arResults.size(); ++nIndex)
{
m_arResults[nIndex] = 0xFFFFFFFF;
}
}
void CFormulasManager::AddFormula(std::wstring strFormula)
{
CFormula oFormula((int)m_arFormulas.size());
oFormula.FromString(strFormula, m_lShapeWidth, m_lShapeHeight);
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CFormulasManager::AddFormula(CFormula oFormula)
{
oFormula.m_lIndex = (int)m_arFormulas.size();
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CFormulasManager::CalculateResults()
{
for (size_t index = 0; index < m_arFormulas.size(); ++index)
{
LONG lResult = m_arFormulas[index].CalculateFormula(this);
}
}
}

View File

@ -214,27 +214,26 @@ namespace NSCustomShapesConvert
struct SHandle
{
Aggplus::POINT gdRef;
SPointType gdRefType;
SPointExist bRefExist;
SPointExist bRefPolarExist;
Aggplus::POINT gdRef;
SPointType gdRefType;
SPointExist bRefExist;
SPointExist bRefPolarExist;
Aggplus::POINT Max;
SPointType MaxType;
SPointExist bMaxExist;
SPointExist bMaxPolarExist;
Aggplus::POINT Max;
SPointType MaxType;
SPointExist bMaxExist;
SPointExist bMaxPolarExist;
Aggplus::POINT Min;
SPointType MinType;
SPointExist bMinExist;
SPointExist bMinPolarExist;
Aggplus::POINT Min;
SPointType MinType;
SPointExist bMinExist;
SPointExist bMinPolarExist;
Aggplus::POINT Pos;
SPointType PosType;
Aggplus::POINT PolarCentre;
SPointType PolarCentreType;
Aggplus::POINT Pos;
SPointType PosType;
Aggplus::POINT PolarCentre;
SPointType PolarCentreType;
};
class CFormulasManager;
class CFormula
@ -256,74 +255,12 @@ private:
long m_lCountRecurs;
public:
CFormula()
{
m_eFormulaType = ftSum;
m_lIndex = 0;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
CFormula();
CFormula(int nIndex);
m_lCountRecurs = 0;
}
CFormula& operator =(const CFormula& oSrc);
CFormula(int nIndex)
{
m_eFormulaType = ftSum;
m_lIndex = nIndex;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
m_lCountRecurs = 0;
}
CFormula& operator =(const CFormula& oSrc)
{
m_eFormulaType = oSrc.m_eFormulaType;
m_lIndex = oSrc.m_lIndex;
m_lParam1 = oSrc.m_lParam1;
m_eType1 = oSrc.m_eType1;
m_lParam2 = oSrc.m_lParam2;
m_eType2 = oSrc.m_eType2;
m_lParam3 = oSrc.m_lParam3;
m_eType3 = oSrc.m_eType3;
m_lCountRecurs = 0;
return (*this);
}
void FromString(std::wstring strFormula, long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML)
{
std::vector<std::wstring> oArrayParams;
NSStringUtils::ParseString(_T(" "), strFormula, oArrayParams);
size_t nCount = oArrayParams.size();
if (nCount == 0)
return;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
ParamType ptType = ptValue;
if (1 < nCount)
{
m_lParam1 = GetValue(oArrayParams[1], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType1 = ptType;
}
if (2 < nCount)
{
m_lParam2 = GetValue(oArrayParams[2], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType2 = ptType;
}
if (3 < nCount)
{
m_lParam3 = GetValue(oArrayParams[3], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType3 = ptType;
}
}
void FromString(std::wstring strFormula, long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML);
LONG CalculateFormula(CFormulasManager* pManager);
};
@ -339,71 +276,15 @@ private:
long m_lShapeHeight;
public:
CFormulasManager() : m_arFormulas(), m_arResults()
{
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CFormulasManager& operator =(const CFormulasManager& oSrc)
{
m_pAdjustments = oSrc.m_pAdjustments;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
CFormulasManager();
CFormulasManager& operator =(const CFormulasManager& oSrc);
m_arResults.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arResults.size(); ++nIndex)
{
m_arResults.push_back(oSrc.m_arResults[nIndex]);
}
m_arFormulas.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arFormulas.size(); ++nIndex)
{
m_arFormulas.push_back(oSrc.m_arFormulas[nIndex]);
}
return (*this);
}
void Clear();
void Clear(std::vector<LONG>* pAdjusts);
void Clear()
{
m_pAdjustments = NULL;
void AddFormula(std::wstring strFormula);
void AddFormula(CFormula oFormula);
m_arFormulas.clear();
m_arResults.clear();
}
void Clear(std::vector<LONG>* pAdjusts)
{
m_pAdjustments = pAdjusts;
//m_arFormulas.clear();
//m_arResults.clear();
for (size_t nIndex = 0; nIndex < m_arResults.size(); ++nIndex)
{
m_arResults[nIndex] = 0xFFFFFFFF;
}
}
void AddFormula(std::wstring strFormula)
{
CFormula oFormula((int)m_arFormulas.size());
oFormula.FromString(strFormula, m_lShapeWidth, m_lShapeHeight);
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void AddFormula(CFormula oFormula)
{
oFormula.m_lIndex = (int)m_arFormulas.size();
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CalculateResults()
{
for (size_t index = 0; index < m_arFormulas.size(); ++index)
{
LONG lResult = m_arFormulas[index].CalculateFormula(this);
}
}
void CalculateResults();
};
}

View File

@ -0,0 +1,702 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "GraphicsPath.h"
namespace NSCustomShapesConvert
{
CDoubleRect::CDoubleRect()
{
left = 0;
top = 0;
right = 0;
bottom = 0;
}
CDoubleRect& CDoubleRect::operator=(const CDoubleRect& oSrc)
{
left = oSrc.left;
top = oSrc.top;
right = oSrc.right;
bottom = oSrc.bottom;
return *this;
}
CDoubleRect::CDoubleRect(const CDoubleRect& oSrc)
{
*this = oSrc;
}
CGeomShapeInfo::CPointD::CPointD()
{
dX = 0;
dY = 0;
}
CGeomShapeInfo::CPointD& CGeomShapeInfo::CPointD::operator= (const CPointD& oSrc)
{
dX = oSrc.dX;
dY = oSrc.dY;
return *this;
}
CGeomShapeInfo::CPointD::CPointD(const CPointD& oSrc)
{
*this = oSrc;
}
CGeomShapeInfo::CGeomShapeInfo()
{
m_dLeft = 0;
m_dTop = 0;
m_dWidth = 720;
m_dHeight = 576;
m_dLimoX = 0;
m_dLimoY = 0;
m_oCurPoint.dX = 0;
m_oCurPoint.dY = 0;
m_dRotate = 0.0;
m_bFlipH = false;
m_bFlipV = false;
m_lOriginalWidth = 0;
m_lOriginalHeight = 0;
}
CGeomShapeInfo::~CGeomShapeInfo()
{
}
CGeomShapeInfo& CGeomShapeInfo::operator =(const CGeomShapeInfo& oSrc)
{
m_dLeft = oSrc.m_dLeft;
m_dTop = oSrc.m_dTop;
m_dWidth = oSrc.m_dWidth;
m_dHeight = oSrc.m_dHeight;
m_dLimoX = oSrc.m_dLimoX;
m_dLimoY = oSrc.m_dLimoY;
m_oCurPoint = oSrc.m_oCurPoint;
m_dRotate = oSrc.m_dRotate;
m_bFlipH = oSrc.m_bFlipH;
m_bFlipV = oSrc.m_bFlipV;
m_lOriginalWidth = oSrc.m_lOriginalWidth;
m_lOriginalHeight = oSrc.m_lOriginalHeight;
return (*this);
}
CDoublePoint::CDoublePoint()
{
dX = 0;
dY = 0;
}
CDoublePoint& CDoublePoint::operator= (const CDoublePoint& oSrc)
{
dX = oSrc.dX;
dY = oSrc.dY;
return *this;
}
CDoublePoint::CDoublePoint(const CDoublePoint& oSrc)
{
*this = oSrc;
}
void CGraphicPath::InternalClear()
{
m_lFlags = 0;
}
CGraphicPath::CGraphicPath()
{
InternalClear();
}
CGraphicPath::CPart::CPart() : m_eType(rtMoveTo), m_arPoints()
{
}
CGraphicPath::CPart& CGraphicPath::CPart::operator=(const CPart& oSrc)
{
m_eType = oSrc.m_eType;
this->m_arPoints.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arPoints.size(); ++nIndex)
{
this->m_arPoints.push_back(oSrc.m_arPoints[nIndex]);
}
return (*this);
}
CGraphicPath::CPart::~CPart()
{
this->m_arPoints.clear();
}
void CGraphicPath::CPart::ParseString(std::wstring strDelimeters, std::wstring strSource,
std::vector<std::wstring>& pArrayResults, bool bIsCleared)
{
if (bIsCleared)
pArrayResults.clear();
std::wstring resToken;
int curPos= 0;
boost::algorithm::split(pArrayResults, strSource, boost::algorithm::is_any_of(strDelimeters), boost::algorithm::token_compress_on);
}
void CGraphicPath::CPart::CheckLastPoint(IRenderer* pRenderer, CDoublePoint& pointCur)
{
if (NULL == pRenderer)
return;
pRenderer->PathCommandGetCurrentPoint(&pointCur.dX, &pointCur.dY);
}
double CGraphicPath::CPart::GetAngle(double fCentreX, double fCentreY, double fX, double fY)
{
// - + (.. )
double dX = fX - fCentreX;
double dY = fY - fCentreY;
double modDX = abs(dX);
double modDY = abs(dY);
if ((modDX < 0.01) && (modDY < 0.01))
{
return 0;
}
if ((modDX < 0.01) && (dY < 0))
{
return -90;
}
else if (modDX < 0.01)
{
return 90;
}
if ((modDY < 0.01) && (dX < 0))
{
return 180;
}
else if (modDY < 0.01)
{
return 0;
}
double fAngle = atan(dY / dX);
fAngle *= double(180 / M_PI);
if (dX > 0 && dY > 0)
{
return fAngle;
}
else if (dX > 0 && dY < 0)
{
return fAngle;
}
else if (dX < 0 && dY > 0)
{
//return fAngle + 180;
return 180 + fAngle;
}
else
{
//return fAngle + 180;
return fAngle - 180;
}
}
void CGraphicPath::CPart::ApplyElliptical(bool& bIsX, double& angleStart, double& angleSweet,
double& Left, double& Top, double& Width, double& Height, const CDoublePoint& pointCur)
{
// (x - y - x...)
if (bIsX)
{
angleStart = -90;
angleSweet = 90;
if ((Width < 0) && (Height < 0))
{
angleStart = 90;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = -90;
angleSweet = -90;
Width *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 90;
angleSweet = -90;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else
{
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
}
else
{
angleStart = 180;
angleSweet = -90;
if ((Width < 0) && (Height < 0))
{
angleStart = 0;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = 0;
angleSweet = 90;
Width *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 180;
angleSweet = 90;
Height *= -1;
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
else
{
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
}
bIsX = !bIsX;
}
void CGraphicPath::CPart::GetSafearrayPoints(IRenderer* pRenderer, double** ppArray, size_t& nCountOut, CDoublePoint& pointCur, bool bR)
{
if (NULL == ppArray)
return;
size_t nCount = this->m_arPoints.size();
nCountOut = 2 * (nCount + 1);
double* pArray = new double [nCountOut];
double* pBuffer = pArray;
memset (pBuffer, 0, nCountOut * sizeof(double));
*pBuffer = pointCur.dX; ++pBuffer;
*pBuffer = pointCur.dY; ++pBuffer;
if (bR)
{
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
*pBuffer = (this->m_arPoints[nIndex].dX + pointCur.dX); ++pBuffer;
*pBuffer = (this->m_arPoints[nIndex].dY + pointCur.dY); ++pBuffer;
if (nIndex == (nCount - 1))
{
pointCur.dX += this->m_arPoints[nIndex].dX;
pointCur.dY += this->m_arPoints[nIndex].dY;
}
}
}
else
{
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
*pBuffer = this->m_arPoints[nIndex].dX; ++pBuffer;
*pBuffer = this->m_arPoints[nIndex].dY; ++pBuffer;
if (nIndex == (nCount - 1))
{
pointCur.dX = this->m_arPoints[nIndex].dX;
pointCur.dY = this->m_arPoints[nIndex].dY;
}
}
}
*ppArray = pArray;
}
void CGraphicPath::CPart::Draw(IRenderer* pRenderer, CDoublePoint& pointCur)
{
switch (m_eType)
{
case rtMoveTo:
{
if (0 < this->m_arPoints.size())
{
pointCur.dX = this->m_arPoints[0].dX;
pointCur.dY = this->m_arPoints[0].dY;
pRenderer->PathCommandMoveTo(this->m_arPoints[0].dX, this->m_arPoints[0].dY);
}
break;
}
case rtLineTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount /*this->m_arPoints.size()*/);
}
break;
}
case rtCurveTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur);
if (NULL != pArray)
{
pRenderer->PathCommandCurvesTo (pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtClose:
{
pRenderer->PathCommandClose();
break;
}
case rtRMoveTo:
{
if (0 < this->m_arPoints.size())
{
pointCur.dX = this->m_arPoints[0].dX + pointCur.dX;
pointCur.dY = this->m_arPoints[0].dY + pointCur.dY;
pRenderer->PathCommandMoveTo(pointCur.dX, pointCur.dY);
}
break;
}
case rtRLineTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtRCurveTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandCurvesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtAngleEllipseTo:
{
int nFigure = 0;
while ((nFigure + 3) <= (int)this->m_arPoints.size())
{
double nLeft = this->m_arPoints[nFigure].dX - this->m_arPoints[nFigure + 1].dX / 2;
double nTop = this->m_arPoints[nFigure].dY - this->m_arPoints[nFigure + 1].dY / 2;
pRenderer->PathCommandArcTo(nLeft, nTop,
this->m_arPoints[nFigure + 1].dX, this->m_arPoints[nFigure + 1].dY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
nFigure += 3;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtAngleEllipse:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 3) <= (int)this->m_arPoints.size())
{
double nLeft = this->m_arPoints[nFigure].dX - this->m_arPoints[nFigure + 1].dX / 2;
double nTop = this->m_arPoints[nFigure].dY - this->m_arPoints[nFigure + 1].dY / 2;
pRenderer->PathCommandArcTo(nLeft, nTop,
this->m_arPoints[nFigure + 1].dX, this->m_arPoints[nFigure + 1].dY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
nFigure += 3;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtArc:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtArcTo:
{
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtClockwiseArcTo:
{
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, 360 + GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtClockwiseArc:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, 360 + GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtEllipticalQuadrX:
{
bool bIsX = true;
CheckLastPoint(pRenderer, pointCur);
size_t nCount = this->m_arPoints.size();
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
double x1 = pointCur.dX;
double y1 = pointCur.dY;
double x2 = this->m_arPoints[nIndex].dX;
double y2 = this->m_arPoints[nIndex].dY;
double dRadX = fabs(x1 - x2);
double dRadY = fabs(y1 - y2);
AddEllipticalQuadr(pRenderer, bIsX, x1, y1, x2, y2, dRadX, dRadY);
pointCur.dX = x2;
pointCur.dY = y2;
}
break;
}
case rtEllipticalQuadrY:
{
bool bIsX = false;
CheckLastPoint(pRenderer, pointCur);
size_t nCount = this->m_arPoints.size();
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
double x1 = pointCur.dX;
double y1 = pointCur.dY;
double x2 = this->m_arPoints[nIndex].dX;
double y2 = this->m_arPoints[nIndex].dY;
double dRadX = fabs(x1 - x2);
double dRadY = fabs(y1 - y2);
AddEllipticalQuadr(pRenderer, bIsX, x1, y1, x2, y2, dRadX, dRadY);
pointCur.dX = x2;
pointCur.dY = y2;
}
break;
}
case rtQuadrBesier:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
CheckLastPoint(pRenderer, pointCur);
break;
}
default: break;
};
}
void CGraphicPath::CPart::AddEllipticalQuadr(IRenderer*& pRenderer, bool& bIsX, double& x1, double& y1, double& x2, double& y2, double& dRadX, double& dRadY)
{
if (bIsX)
{
if ((x2 >= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1, 2 * dRadX, 2 * dRadY, -90, 90);
else if ((x2 >= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1 - 2 * dRadY, 2 * dRadX, 2 * dRadY, 90, -90);
else if ((x2 <= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1, 2 * dRadX, 2 * dRadY, -90, -90);
else if ((x2 <= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1 - 2 * dRadY, 2 * dRadX, 2 * dRadY, 90, 90);
}
else
{
if ((x2 >= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1, y1 - dRadY, 2 * dRadX, 2 * dRadY, 180, -90);
else if ((x2 >= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1, y1 - dRadY, 2 * dRadX, 2 * dRadY, 180, 90);
else if ((x2 <= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - 2 * dRadX, y1 - dRadY, 2 * dRadX, 2 * dRadY, 0, 90);
else if ((x2 <= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - 2 * dRadX, y1 - dRadY, 2 * dRadX, 2 * dRadY, 0, -90);
}
bIsX = !bIsX;
}
void CGraphicPath::AddRuler(const RulesType& eType)
{
size_t lCount = m_arParts.size();
CPart oPart;
oPart.m_eType = eType;
m_arParts.push_back(oPart);
}
void CGraphicPath::AddPoint(const double& x, const double& y)
{
size_t lCount = m_arParts.size();
if (0 != lCount)
{
CDoublePoint point;
point.dX = x;
point.dY = y;
m_arParts[lCount - 1].m_arPoints.push_back(point);
}
}
void CGraphicPath::Clear()
{
m_arParts.clear();
}
}

View File

@ -55,32 +55,15 @@ namespace NSCustomShapesConvert
double bottom;
public:
CDoubleRect()
{
left = 0;
top = 0;
right = 0;
bottom = 0;
}
CDoubleRect& operator=(const CDoubleRect& oSrc)
{
left = oSrc.left;
top = oSrc.top;
right = oSrc.right;
bottom = oSrc.bottom;
CDoubleRect();
CDoubleRect& operator=(const CDoubleRect& oSrc);
CDoubleRect(const CDoubleRect& oSrc);
return *this;
}
CDoubleRect(const CDoubleRect& oSrc)
{
*this = oSrc;
}
inline bool IsEqual(const CDoubleRect& oSrc, double dEps = 0.01)
{
return ((fabs(left - oSrc.left) < dEps) && (fabs(top - oSrc.top) < dEps) &&
(fabs(right - oSrc.right) < dEps) && (fabs(bottom - oSrc.bottom) < dEps));
}
inline double GetWidth() const
{
return right - left;
@ -106,25 +89,11 @@ namespace NSCustomShapesConvert
public:
double dX;
double dY;
public:
CPointD()
{
dX = 0;
dY = 0;
}
CPointD& operator= (const CPointD& oSrc)
{
dX = oSrc.dX;
dY = oSrc.dY;
return *this;
}
CPointD(const CPointD& oSrc)
{
*this = oSrc;
}
CPointD();
CPointD& operator= (const CPointD& oSrc);
CPointD(const CPointD& oSrc);
};
public:
@ -147,51 +116,9 @@ namespace NSCustomShapesConvert
LONG m_lOriginalHeight;
public:
CGeomShapeInfo()
{
m_dLeft = 0;
m_dTop = 0;
m_dWidth = 720;
m_dHeight = 576;
m_dLimoX = 0;
m_dLimoY = 0;
m_oCurPoint.dX = 0;
m_oCurPoint.dY = 0;
m_dRotate = 0.0;
m_bFlipH = false;
m_bFlipV = false;
m_lOriginalWidth = 0;
m_lOriginalHeight = 0;
}
~CGeomShapeInfo()
{
}
CGeomShapeInfo& operator =(const CGeomShapeInfo& oSrc)
{
m_dLeft = oSrc.m_dLeft;
m_dTop = oSrc.m_dTop;
m_dWidth = oSrc.m_dWidth;
m_dHeight = oSrc.m_dHeight;
m_dLimoX = oSrc.m_dLimoX;
m_dLimoY = oSrc.m_dLimoY;
m_oCurPoint = oSrc.m_oCurPoint;
m_dRotate = oSrc.m_dRotate;
m_bFlipH = oSrc.m_bFlipH;
m_bFlipV = oSrc.m_bFlipV;
m_lOriginalWidth = oSrc.m_lOriginalWidth;
m_lOriginalHeight = oSrc.m_lOriginalHeight;
return (*this);
}
CGeomShapeInfo();
~CGeomShapeInfo();
CGeomShapeInfo& operator =(const CGeomShapeInfo& oSrc);
inline void SetBounds(const CDoubleRect& oRect)
{
@ -217,25 +144,11 @@ namespace NSCustomShapesConvert
public:
double dX;
double dY;
public:
CDoublePoint()
{
dX = 0;
dY = 0;
}
CDoublePoint& operator= (const CDoublePoint& oSrc)
{
dX = oSrc.dX;
dY = oSrc.dY;
return *this;
}
CDoublePoint(const CDoublePoint& oSrc)
{
*this = oSrc;
}
CDoublePoint();
CDoublePoint& operator= (const CDoublePoint& oSrc);
CDoublePoint(const CDoublePoint& oSrc);
};
enum RulesType
@ -286,14 +199,10 @@ namespace NSCustomShapesConvert
class CGraphicPath
{
public:
virtual void InternalClear()
{
m_lFlags = 0;
}
CGraphicPath()
{
InternalClear();
}
virtual void InternalClear();
CGraphicPath();
class CPart
{
public:
@ -301,23 +210,10 @@ namespace NSCustomShapesConvert
std::vector<CDoublePoint> m_arPoints;
public:
CPart() : m_eType(rtMoveTo), m_arPoints()
{
}
CPart& operator=(const CPart& oSrc)
{
m_eType = oSrc.m_eType;
this->m_arPoints.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arPoints.size(); ++nIndex)
{
this->m_arPoints.push_back(oSrc.m_arPoints[nIndex]);
}
return (*this);
}
~CPart()
{
this->m_arPoints.clear();
}
CPart();
CPart& operator=(const CPart& oSrc);
~CPart();
//void FromXmlNode(XmlUtils::CXmlNode& oNode)
//{
// std::wstring strName = oNode.GetAttribute(_T("name"));
@ -364,76 +260,10 @@ namespace NSCustomShapesConvert
// }
//}
void ParseString(std::wstring strDelimeters, std::wstring strSource,
std::vector<std::wstring>& pArrayResults, bool bIsCleared = true)
{
if (bIsCleared)
pArrayResults.clear();
std::vector<std::wstring>& pArrayResults, bool bIsCleared = true);
std::wstring resToken;
int curPos= 0;
boost::algorithm::split(pArrayResults, strSource, boost::algorithm::is_any_of(strDelimeters), boost::algorithm::token_compress_on);
}
void CheckLastPoint(IRenderer* pRenderer, CDoublePoint& pointCur)
{
if (NULL == pRenderer)
return;
pRenderer->PathCommandGetCurrentPoint(&pointCur.dX, &pointCur.dY);
}
double GetAngle(double fCentreX, double fCentreY, double fX, double fY)
{
// - + (.. )
double dX = fX - fCentreX;
double dY = fY - fCentreY;
double modDX = abs(dX);
double modDY = abs(dY);
if ((modDX < 0.01) && (modDY < 0.01))
{
return 0;
}
if ((modDX < 0.01) && (dY < 0))
{
return -90;
}
else if (modDX < 0.01)
{
return 90;
}
if ((modDY < 0.01) && (dX < 0))
{
return 180;
}
else if (modDY < 0.01)
{
return 0;
}
double fAngle = atan(dY / dX);
fAngle *= double(180 / M_PI);
if (dX > 0 && dY > 0)
{
return fAngle;
}
else if (dX > 0 && dY < 0)
{
return fAngle;
}
else if (dX < 0 && dY > 0)
{
//return fAngle + 180;
return 180 + fAngle;
}
else
{
//return fAngle + 180;
return fAngle - 180;
}
}
void CheckLastPoint(IRenderer* pRenderer, CDoublePoint& pointCur);
double GetAngle(double fCentreX, double fCentreY, double fX, double fY);
inline double GetSweepAngle(const double& angleStart, const double& angleEnd)
{
@ -444,475 +274,21 @@ namespace NSCustomShapesConvert
}
void ApplyElliptical(bool& bIsX, double& angleStart, double& angleSweet,
double& Left, double& Top, double& Width, double& Height, const CDoublePoint& pointCur)
{
// (x - y - x...)
if (bIsX)
{
angleStart = -90;
angleSweet = 90;
double& Left, double& Top, double& Width, double& Height, const CDoublePoint& pointCur);
if ((Width < 0) && (Height < 0))
{
angleStart = 90;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = -90;
angleSweet = -90;
Width *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 90;
angleSweet = -90;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else
{
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
}
else
{
angleStart = 180;
angleSweet = -90;
void GetSafearrayPoints(IRenderer* pRenderer, double** ppArray, size_t& nCountOut, CDoublePoint& pointCur, bool bR = false);
if ((Width < 0) && (Height < 0))
{
angleStart = 0;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = 0;
angleSweet = 90;
Width *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 180;
angleSweet = 90;
Height *= -1;
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
else
{
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
}
bIsX = !bIsX;
}
void Draw(IRenderer* pRenderer, CDoublePoint& pointCur);
void GetSafearrayPoints(IRenderer* pRenderer, double** ppArray, size_t& nCountOut, CDoublePoint& pointCur, bool bR = false)
{
if (NULL == ppArray)
return;
size_t nCount = this->m_arPoints.size();
nCountOut = 2 * (nCount + 1);
double* pArray = new double [nCountOut];
double* pBuffer = pArray;
memset (pBuffer, 0, nCountOut * sizeof(double));
*pBuffer = pointCur.dX; ++pBuffer;
*pBuffer = pointCur.dY; ++pBuffer;
if (bR)
{
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
*pBuffer = (this->m_arPoints[nIndex].dX + pointCur.dX); ++pBuffer;
*pBuffer = (this->m_arPoints[nIndex].dY + pointCur.dY); ++pBuffer;
if (nIndex == (nCount - 1))
{
pointCur.dX += this->m_arPoints[nIndex].dX;
pointCur.dY += this->m_arPoints[nIndex].dY;
}
}
}
else
{
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
*pBuffer = this->m_arPoints[nIndex].dX; ++pBuffer;
*pBuffer = this->m_arPoints[nIndex].dY; ++pBuffer;
if (nIndex == (nCount - 1))
{
pointCur.dX = this->m_arPoints[nIndex].dX;
pointCur.dY = this->m_arPoints[nIndex].dY;
}
}
}
*ppArray = pArray;
}
void Draw(IRenderer* pRenderer, CDoublePoint& pointCur)
{
switch (m_eType)
{
case rtMoveTo:
{
if (0 < this->m_arPoints.size())
{
pointCur.dX = this->m_arPoints[0].dX;
pointCur.dY = this->m_arPoints[0].dY;
pRenderer->PathCommandMoveTo(this->m_arPoints[0].dX, this->m_arPoints[0].dY);
}
break;
}
case rtLineTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount /*this->m_arPoints.size()*/);
}
break;
}
case rtCurveTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur);
if (NULL != pArray)
{
pRenderer->PathCommandCurvesTo (pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtClose:
{
pRenderer->PathCommandClose();
break;
}
case rtRMoveTo:
{
if (0 < this->m_arPoints.size())
{
pointCur.dX = this->m_arPoints[0].dX + pointCur.dX;
pointCur.dY = this->m_arPoints[0].dY + pointCur.dY;
pRenderer->PathCommandMoveTo(pointCur.dX, pointCur.dY);
}
break;
}
case rtRLineTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtRCurveTo:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandCurvesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
break;
}
case rtAngleEllipseTo:
{
int nFigure = 0;
while ((nFigure + 3) <= (int)this->m_arPoints.size())
{
double nLeft = this->m_arPoints[nFigure].dX - this->m_arPoints[nFigure + 1].dX / 2;
double nTop = this->m_arPoints[nFigure].dY - this->m_arPoints[nFigure + 1].dY / 2;
pRenderer->PathCommandArcTo(nLeft, nTop,
this->m_arPoints[nFigure + 1].dX, this->m_arPoints[nFigure + 1].dY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
nFigure += 3;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtAngleEllipse:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 3) <= (int)this->m_arPoints.size())
{
double nLeft = this->m_arPoints[nFigure].dX - this->m_arPoints[nFigure + 1].dX / 2;
double nTop = this->m_arPoints[nFigure].dY - this->m_arPoints[nFigure + 1].dY / 2;
pRenderer->PathCommandArcTo(nLeft, nTop,
this->m_arPoints[nFigure + 1].dX, this->m_arPoints[nFigure + 1].dY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
nFigure += 3;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtArc:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtArcTo:
{
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtClockwiseArcTo:
{
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, 360 + GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtClockwiseArc:
{
pRenderer->PathCommandStart();
int nFigure = 0;
while ((nFigure + 4) <= (int)this->m_arPoints.size())
{
double nCentreX = (this->m_arPoints[nFigure].dX + this->m_arPoints[nFigure + 1].dX) / 2;
double nCentreY = (this->m_arPoints[nFigure].dY + this->m_arPoints[nFigure + 1].dY) / 2;
double angleStart = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 2].dX, this->m_arPoints[nFigure + 2].dY);
double angleEnd = GetAngle(nCentreX, nCentreY,
this->m_arPoints[nFigure + 3].dX, this->m_arPoints[nFigure + 3].dY);
pRenderer->PathCommandArcTo(this->m_arPoints[nFigure].dX, this->m_arPoints[nFigure].dY,
this->m_arPoints[nFigure + 1].dX - this->m_arPoints[nFigure].dX,
this->m_arPoints[nFigure + 1].dY - this->m_arPoints[nFigure].dY,
angleStart, 360 + GetSweepAngle(angleStart, angleEnd));
nFigure += 4;
}
CheckLastPoint(pRenderer, pointCur);
break;
}
case rtEllipticalQuadrX:
{
bool bIsX = true;
CheckLastPoint(pRenderer, pointCur);
size_t nCount = this->m_arPoints.size();
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
double x1 = pointCur.dX;
double y1 = pointCur.dY;
double x2 = this->m_arPoints[nIndex].dX;
double y2 = this->m_arPoints[nIndex].dY;
double dRadX = fabs(x1 - x2);
double dRadY = fabs(y1 - y2);
AddEllipticalQuadr(pRenderer, bIsX, x1, y1, x2, y2, dRadX, dRadY);
pointCur.dX = x2;
pointCur.dY = y2;
}
break;
}
case rtEllipticalQuadrY:
{
bool bIsX = false;
CheckLastPoint(pRenderer, pointCur);
size_t nCount = this->m_arPoints.size();
for (size_t nIndex = 0; nIndex < nCount; ++nIndex)
{
double x1 = pointCur.dX;
double y1 = pointCur.dY;
double x2 = this->m_arPoints[nIndex].dX;
double y2 = this->m_arPoints[nIndex].dY;
double dRadX = fabs(x1 - x2);
double dRadY = fabs(y1 - y2);
AddEllipticalQuadr(pRenderer, bIsX, x1, y1, x2, y2, dRadX, dRadY);
pointCur.dX = x2;
pointCur.dY = y2;
}
break;
}
case rtQuadrBesier:
{
double* pArray = NULL;
size_t nCount = 0;
GetSafearrayPoints(pRenderer, &pArray, nCount, pointCur, TRUE);
if (NULL != pArray)
{
pRenderer->PathCommandLinesTo(pArray, (int)nCount/*this->m_arPoints.size()*/);
}
CheckLastPoint(pRenderer, pointCur);
break;
}
default: break;
};
}
inline void AddEllipticalQuadr(IRenderer*& pRenderer, bool& bIsX, double& x1, double& y1, double& x2, double& y2, double& dRadX, double& dRadY)
{
if (bIsX)
{
if ((x2 >= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1, 2 * dRadX, 2 * dRadY, -90, 90);
else if ((x2 >= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1 - 2 * dRadY, 2 * dRadX, 2 * dRadY, 90, -90);
else if ((x2 <= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1, 2 * dRadX, 2 * dRadY, -90, -90);
else if ((x2 <= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - dRadX, y1 - 2 * dRadY, 2 * dRadX, 2 * dRadY, 90, 90);
}
else
{
if ((x2 >= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1, y1 - dRadY, 2 * dRadX, 2 * dRadY, 180, -90);
else if ((x2 >= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1, y1 - dRadY, 2 * dRadX, 2 * dRadY, 180, 90);
else if ((x2 <= x1) && (y2 >= y1))
pRenderer->PathCommandArcTo(x1 - 2 * dRadX, y1 - dRadY, 2 * dRadX, 2 * dRadY, 0, 90);
else if ((x2 <= x1) && (y2 <= y1))
pRenderer->PathCommandArcTo(x1 - 2 * dRadX, y1 - dRadY, 2 * dRadX, 2 * dRadY, 0, -90);
}
bIsX = !bIsX;
}
void AddEllipticalQuadr(IRenderer*& pRenderer, bool& bIsX, double& x1, double& y1, double& x2, double& y2, double& dRadX, double& dRadY);
};
void AddRuler(const RulesType& eType)
{
size_t lCount = m_arParts.size();
CPart oPart;
oPart.m_eType = eType;
m_arParts.push_back(oPart);
}
void AddPoint(const double& x, const double& y)
{
size_t lCount = m_arParts.size();
if (0 != lCount)
{
CDoublePoint point;
point.dX = x;
point.dY = y;
m_arParts[lCount - 1].m_arPoints.push_back(point);
}
}
void AddRuler(const RulesType& eType);
void AddPoint(const double& x, const double& y);
void Clear();
void Clear()
{
m_arParts.clear();
}
std::vector<CPart> m_arParts;
int m_lFlags;
};
}

View File

@ -0,0 +1,420 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "PathShape.h"
namespace NSCustomShapesConvert
{
CSlice::CSlice(RulesType eType /*, LONG x = 0, LONG y = 0*/)
{
m_eRuler = eType;
m_nCountElementsPoint = 0;
//m_lX = x;
//m_lY = y;
}
void CSlice::AddParam(LONG lParam)
{
long lPoint = m_nCountElementsPoint % 2;
if (0 == lPoint)
{
Aggplus::POINT point;
point.x = lParam/* - m_lX*/;
point.y = 0;
m_arPoints.push_back(point);
}
else
{
m_arPoints[m_arPoints.size() - 1].y = lParam/* - m_lY*/;
}
++m_nCountElementsPoint;
}
CSlice& CSlice::operator =(const CSlice& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_arPoints.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arPoints.size(); ++nIndex)
{
m_arPoints.push_back(oSrc.m_arPoints[nIndex]);
}
return (*this);
}
double CSlice::GetAngle(double fCentreX, double fCentreY, double fX, double fY)
{
// - + (.. )
double dX = fX - fCentreX;
double dY = fY - fCentreY;
double modDX = abs(dX);
double modDY = abs(dY);
if ((modDX < 0.01) && (modDY < 0.01))
{
return 0;
}
if ((modDX < 0.01) && (dY < 0))
{
return -90;
}
else if (modDX < 0.01)
{
return 90;
}
if ((modDY < 0.01) && (dX < 0))
{
return 180;
}
else if (modDY < 0.01)
{
return 0;
}
double fAngle = atan(dY / dX);
fAngle *= (180 / M_PI);
if (dX > 0 && dY > 0)
{
return fAngle;
}
else if (dX > 0 && dY < 0)
{
return fAngle;
}
else if (dX < 0 && dY > 0)
{
//return fAngle + 180;
return 180 + fAngle;
}
else
{
//return fAngle + 180;
return fAngle - 180;
}
}
double CSlice::GetSweepAngle(const double& angleStart, const double& angleEnd)
{
if (angleStart >= angleEnd)
return angleEnd - angleStart;
else
return angleEnd - angleStart - 360;
}
void CSlice::ApplyElliptical(bool& bIsX, double& angleStart, double& angleSweet,
double& Left, double& Top, double& Width, double& Height, const CGeomShapeInfo::CPointD& pointCur)
{
// (x - y - x...)
if (bIsX)
{
angleStart = -90;
angleSweet = 90;
if ((Width < 0) && (Height < 0))
{
angleStart = 90;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = -90;
angleSweet = -90;
Width *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 90;
angleSweet = -90;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else
{
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
}
else
{
angleStart = 180;
angleSweet = -90;
if ((Width < 0) && (Height < 0))
{
angleStart = 0;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = 0;
angleSweet = 90;
Width *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 180;
angleSweet = 90;
Height *= -1;
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
else
{
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
}
bIsX = !bIsX;
}
void CSlice::ApplyLimo(CGeomShapeInfo& pGeomInfo, double& lX, double& lY)
{
if ((0 == pGeomInfo.m_dLimoX) || (0 == pGeomInfo.m_dLimoY))
return;
double dAspect = (double)pGeomInfo.m_dLimoX / pGeomInfo.m_dLimoY;
double lWidth = (dAspect * pGeomInfo.m_dHeight);
if (lWidth < pGeomInfo.m_dWidth)
{
// LimoX
double lXc = pGeomInfo.m_dLeft + pGeomInfo.m_dWidth / 2;
if ((lX > lXc) || ((lX == lXc) && (pGeomInfo.m_oCurPoint.dX >= lXc)))
{
double lXNew = pGeomInfo.m_dLeft + ((lWidth / pGeomInfo.m_dWidth) * (lX - pGeomInfo.m_dLeft));
lXNew += (pGeomInfo.m_dWidth - lWidth);
lX = lXNew;
}
//if (lX >= lXc)
//{
// LONG lXNew = pGeomInfo->m_lLeft + (LONG)(((double)lWidth / pGeomInfo->m_lWidth) * (lX - pGeomInfo->m_lLeft));
// if (pGeomInfo->m_oCurPoint.x >= lXc)
// {
// lXNew += (pGeomInfo->m_lWidth - lWidth);
// }
// lX = lXNew;
//}
}
else if (lWidth != pGeomInfo.m_dWidth)
{
// LimoY
double lHeight = (pGeomInfo.m_dWidth / dAspect);
double lYc = pGeomInfo.m_dTop + pGeomInfo.m_dHeight / 2;
if ((lY > lYc) || ((lY == lYc) && (pGeomInfo.m_oCurPoint.dY >= lYc)))
{
double lYNew = pGeomInfo.m_dTop + ((lHeight / pGeomInfo.m_dHeight) * (lY - pGeomInfo.m_dTop));
lYNew += (pGeomInfo.m_dHeight - lHeight);
lY = lYNew;
}
}
}
void CSlice::Bez2_3(std::vector<CGeomShapeInfo::CPointD>& oArray, RulesType& eType)
{
if (rtQuadrBesier == eType)
{
eType = rtCurveTo;
}
else if (rtOOXMLQuadBezTo == eType)
{
eType = rtOOXMLCubicBezTo;
}
else
{
return;
}
std::vector<CGeomShapeInfo::CPointD> arOld;
arOld.insert(arOld.end(),oArray.begin(), oArray.end());
oArray.clear();
size_t nStart = 0;
size_t nEnd = 2;
size_t nCount = arOld.size();
while (nStart < (nCount - 1))
{
if (2 >= (nCount - nStart))
{
// по идее такого быть не может
for (size_t i = nStart; i < nCount; ++i)
{
oArray.push_back(arOld[i]);
}
nStart = nCount;
break;
}
if (4 == (nCount - nStart))
{
// ничего не поделаешь... делаем кривую третьего порядка
oArray.push_back(arOld[nStart]);
oArray.push_back(arOld[nStart + 1]);
oArray.push_back(arOld[nStart + 2]);
oArray.push_back(arOld[nStart + 3]);
nStart += 4;
break;
}
// значит есть еще
CGeomShapeInfo::CPointD mem1;
mem1.dX = (arOld[nStart].dX + 2 * arOld[nStart + 1].dX) / 3.0;
mem1.dY = (arOld[nStart].dY + 2 * arOld[nStart + 1].dY) / 3.0;
CGeomShapeInfo::CPointD mem2;
mem2.dX = (2 * arOld[nStart + 1].dX + arOld[nStart + 2].dX) / 3.0;
mem2.dY = (2 * arOld[nStart + 1].dY + arOld[nStart + 2].dY) / 3.0;
oArray.push_back(mem1);
oArray.push_back(mem2);
oArray.push_back(arOld[nStart + 2]);
nStart += 2;
}
}
CPartPath::CPartPath() : m_arSlices()
{
m_bFill = true;
m_bStroke = true;
width = ShapeSizeVML;
height = ShapeSizeVML; //43200?
}
void CPartPath::FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager)
{
NSStringUtils::CheckPathOn_Fill_Stroke(strPath, m_bFill, m_bStroke);
std::vector<std::wstring> oArray;
NSStringUtils::ParsePath2(strPath, &oArray);
ParamType eParamType = ptValue;
RulesType eRuler = rtEnd;
LONG lValue;
bool bRes = true;
for (size_t nIndex = 0; nIndex < oArray.size(); ++nIndex)
{
lValue = GetValue(oArray[nIndex], eParamType, bRes);
if (bRes)
{
switch (eParamType)
{
case ptFormula: { lValue = pManager.m_arResults[lValue]; break; }
case ptAdjust: { lValue = (*(pManager.m_pAdjustments))[lValue]; break; }
default: break;
};
if (0 != m_arSlices.size())
{
m_arSlices[m_arSlices.size() - 1].AddParam(lValue);
}
}
else
{
eRuler = GetRuler(oArray[nIndex], bRes);
if (bRes)
{
if (rtNoFill == eRuler)
{
m_bFill = false;
}
else if (rtNoStroke == eRuler)
{
m_bStroke = false;
}
else
{
CSlice oSlice(eRuler);
m_arSlices.push_back(oSlice);
}
}
}
}
}
CPartPath& CPartPath::operator =(const CPartPath& oSrc)
{
m_bFill = oSrc.m_bFill;
m_bStroke = oSrc.m_bStroke;
width = oSrc.width;
height = oSrc.height;
m_arSlices.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arSlices.size(); ++nIndex)
{
m_arSlices.push_back(oSrc.m_arSlices[nIndex]);
}
return (*this);
}
void CPath::FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager)
{
m_arParts.clear();
std::vector<std::wstring> oArray;
NSStringUtils::ParseString(_T("e"), strPath, oArray);
for (size_t nIndex = 0; nIndex < oArray.size(); ++nIndex)
{
CPartPath oPath;
m_arParts.push_back(oPath);
m_arParts.back().FromXML(oArray[nIndex], pManager);
}
}
CPath& CPath::operator =(const CPath& oSrc)
{
m_arParts.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arParts.size(); ++nIndex)
{
m_arParts.push_back(oSrc.m_arParts[nIndex]);
}
return (*this);
}
void CPath::SetCoordsize(LONG lWidth, LONG lHeight)
{
for (size_t nIndex = 0; nIndex < m_arParts.size(); ++nIndex)
{
m_arParts[nIndex].width = lWidth;
m_arParts[nIndex].height = lHeight;
}
}
}

View File

@ -237,287 +237,22 @@ namespace NSCustomShapesConvert
//LONG m_lX;
//LONG m_lY;
CSlice(RulesType eType = rtMoveTo/*, LONG x = 0, LONG y = 0*/)
{
m_eRuler = eType;
m_nCountElementsPoint = 0;
//m_lX = x;
//m_lY = y;
}
CSlice(RulesType eType = rtMoveTo/*, LONG x = 0, LONG y = 0*/);
void AddParam(LONG lParam);
CSlice& operator =(const CSlice& oSrc);
void AddParam(LONG lParam)
{
long lPoint = m_nCountElementsPoint % 2;
if (0 == lPoint)
{
Aggplus::POINT point;
point.x = lParam/* - m_lX*/;
point.y = 0;
m_arPoints.push_back(point);
}
else
{
m_arPoints[m_arPoints.size() - 1].y = lParam/* - m_lY*/;
}
++m_nCountElementsPoint;
}
CSlice& operator =(const CSlice& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_arPoints.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arPoints.size(); ++nIndex)
{
m_arPoints.push_back(oSrc.m_arPoints[nIndex]);
}
return (*this);
}
protected:
double GetAngle(double fCentreX, double fCentreY, double fX, double fY)
{
// - + (.. )
double dX = fX - fCentreX;
double dY = fY - fCentreY;
double GetAngle(double fCentreX, double fCentreY, double fX, double fY);
double modDX = abs(dX);
double modDY = abs(dY);
if ((modDX < 0.01) && (modDY < 0.01))
{
return 0;
}
if ((modDX < 0.01) && (dY < 0))
{
return -90;
}
else if (modDX < 0.01)
{
return 90;
}
if ((modDY < 0.01) && (dX < 0))
{
return 180;
}
else if (modDY < 0.01)
{
return 0;
}
double fAngle = atan(dY / dX);
fAngle *= (180 / M_PI);
if (dX > 0 && dY > 0)
{
return fAngle;
}
else if (dX > 0 && dY < 0)
{
return fAngle;
}
else if (dX < 0 && dY > 0)
{
//return fAngle + 180;
return 180 + fAngle;
}
else
{
//return fAngle + 180;
return fAngle - 180;
}
}
inline double GetSweepAngle(const double& angleStart, const double& angleEnd)
{
if (angleStart >= angleEnd)
return angleEnd - angleStart;
else
return angleEnd - angleStart - 360;
}
double GetSweepAngle(const double& angleStart, const double& angleEnd);
void ApplyElliptical(bool& bIsX, double& angleStart, double& angleSweet,
double& Left, double& Top, double& Width, double& Height, const CGeomShapeInfo::CPointD& pointCur)
{
// (x - y - x...)
if (bIsX)
{
angleStart = -90;
angleSweet = 90;
double& Left, double& Top, double& Width, double& Height, const CGeomShapeInfo::CPointD& pointCur);
if ((Width < 0) && (Height < 0))
{
angleStart = 90;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = -90;
angleSweet = -90;
Width *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 90;
angleSweet = -90;
Height *= -1;
Left = pointCur.dX - Width / 2;
Top = pointCur.dY - Height;
}
else
{
Left = pointCur.dX - Width / 2;
Top = pointCur.dY;
}
}
else
{
angleStart = 180;
angleSweet = -90;
void ApplyLimo(CGeomShapeInfo& pGeomInfo, double& lX, double& lY);
if ((Width < 0) && (Height < 0))
{
angleStart = 0;
Width *= -1;
Height *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width < 0) && (Height > 0))
{
angleStart = 0;
angleSweet = 90;
Width *= -1;
Left = pointCur.dX - Width;
Top = pointCur.dY - Height / 2;
}
else if ((Width > 0) && (Height < 0))
{
angleStart = 180;
angleSweet = 90;
Height *= -1;
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
else
{
Left = pointCur.dX;
Top = pointCur.dY - Height / 2;
}
}
bIsX = !bIsX;
}
void ApplyLimo(CGeomShapeInfo& pGeomInfo, double& lX, double& lY)
{
if ((0 == pGeomInfo.m_dLimoX) || (0 == pGeomInfo.m_dLimoY))
return;
double dAspect = (double)pGeomInfo.m_dLimoX / pGeomInfo.m_dLimoY;
double lWidth = (dAspect * pGeomInfo.m_dHeight);
if (lWidth < pGeomInfo.m_dWidth)
{
// LimoX
double lXc = pGeomInfo.m_dLeft + pGeomInfo.m_dWidth / 2;
if ((lX > lXc) || ((lX == lXc) && (pGeomInfo.m_oCurPoint.dX >= lXc)))
{
double lXNew = pGeomInfo.m_dLeft + ((lWidth / pGeomInfo.m_dWidth) * (lX - pGeomInfo.m_dLeft));
lXNew += (pGeomInfo.m_dWidth - lWidth);
lX = lXNew;
}
//if (lX >= lXc)
//{
// LONG lXNew = pGeomInfo->m_lLeft + (LONG)(((double)lWidth / pGeomInfo->m_lWidth) * (lX - pGeomInfo->m_lLeft));
// if (pGeomInfo->m_oCurPoint.x >= lXc)
// {
// lXNew += (pGeomInfo->m_lWidth - lWidth);
// }
// lX = lXNew;
//}
}
else if (lWidth != pGeomInfo.m_dWidth)
{
// LimoY
double lHeight = (pGeomInfo.m_dWidth / dAspect);
double lYc = pGeomInfo.m_dTop + pGeomInfo.m_dHeight / 2;
if ((lY > lYc) || ((lY == lYc) && (pGeomInfo.m_oCurPoint.dY >= lYc)))
{
double lYNew = pGeomInfo.m_dTop + ((lHeight / pGeomInfo.m_dHeight) * (lY - pGeomInfo.m_dTop));
lYNew += (pGeomInfo.m_dHeight - lHeight);
lY = lYNew;
}
}
}
void Bez2_3(std::vector<CGeomShapeInfo::CPointD>& oArray, RulesType& eType)
{
if (rtQuadrBesier == eType)
{
eType = rtCurveTo;
}
else if (rtOOXMLQuadBezTo == eType)
{
eType = rtOOXMLCubicBezTo;
}
else
{
return;
}
std::vector<CGeomShapeInfo::CPointD> arOld;
arOld.insert(arOld.end(),oArray.begin(), oArray.end());
oArray.clear();
size_t nStart = 0;
size_t nEnd = 2;
size_t nCount = arOld.size();
while (nStart < (nCount - 1))
{
if (2 >= (nCount - nStart))
{
// по идее такого быть не может
for (size_t i = nStart; i < nCount; ++i)
{
oArray.push_back(arOld[i]);
}
nStart = nCount;
break;
}
if (4 == (nCount - nStart))
{
// ничего не поделаешь... делаем кривую третьего порядка
oArray.push_back(arOld[nStart]);
oArray.push_back(arOld[nStart + 1]);
oArray.push_back(arOld[nStart + 2]);
oArray.push_back(arOld[nStart + 3]);
nStart += 4;
break;
}
// значит есть еще
CGeomShapeInfo::CPointD mem1;
mem1.dX = (arOld[nStart].dX + 2 * arOld[nStart + 1].dX) / 3.0;
mem1.dY = (arOld[nStart].dY + 2 * arOld[nStart + 1].dY) / 3.0;
CGeomShapeInfo::CPointD mem2;
mem2.dX = (2 * arOld[nStart + 1].dX + arOld[nStart + 2].dX) / 3.0;
mem2.dY = (2 * arOld[nStart + 1].dY + arOld[nStart + 2].dY) / 3.0;
oArray.push_back(mem1);
oArray.push_back(mem2);
oArray.push_back(arOld[nStart + 2]);
nStart += 2;
}
}
void Bez2_3(std::vector<CGeomShapeInfo::CPointD>& oArray, RulesType& eType);
};
class CPartPath
@ -530,81 +265,10 @@ namespace NSCustomShapesConvert
std::vector<CSlice> m_arSlices;
public:
CPartPath() : m_arSlices()
{
m_bFill = true;
m_bStroke = true;
width = ShapeSizeVML;
height = ShapeSizeVML; //43200?
}
void FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager)
{
NSStringUtils::CheckPathOn_Fill_Stroke(strPath, m_bFill, m_bStroke);
std::vector<std::wstring> oArray;
CPartPath();
NSStringUtils::ParsePath2(strPath, &oArray);
ParamType eParamType = ptValue;
RulesType eRuler = rtEnd;
LONG lValue;
bool bRes = true;
for (size_t nIndex = 0; nIndex < oArray.size(); ++nIndex)
{
lValue = GetValue(oArray[nIndex], eParamType, bRes);
if (bRes)
{
switch (eParamType)
{
case ptFormula: { lValue = pManager.m_arResults[lValue]; break; }
case ptAdjust: { lValue = (*(pManager.m_pAdjustments))[lValue]; break; }
default: break;
};
if (0 != m_arSlices.size())
{
m_arSlices[m_arSlices.size() - 1].AddParam(lValue);
}
}
else
{
eRuler = GetRuler(oArray[nIndex], bRes);
if (bRes)
{
if (rtNoFill == eRuler)
{
m_bFill = false;
}
else if (rtNoStroke == eRuler)
{
m_bStroke = false;
}
else
{
CSlice oSlice(eRuler);
m_arSlices.push_back(oSlice);
}
}
}
}
}
CPartPath& operator =(const CPartPath& oSrc)
{
m_bFill = oSrc.m_bFill;
m_bStroke = oSrc.m_bStroke;
width = oSrc.width;
height = oSrc.height;
m_arSlices.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arSlices.size(); ++nIndex)
{
m_arSlices.push_back(oSrc.m_arSlices[nIndex]);
}
return (*this);
}
void FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager);
CPartPath& operator =(const CPartPath& oSrc);
};
class CPath
@ -612,39 +276,9 @@ namespace NSCustomShapesConvert
public:
std::vector<CPartPath> m_arParts;
void FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager)
{
m_arParts.clear();
std::vector<std::wstring> oArray;
void FromXML(std::wstring strPath, NSCustomShapesConvert::CFormulasManager& pManager);
NSStringUtils::ParseString(_T("e"), strPath, oArray);
for (size_t nIndex = 0; nIndex < oArray.size(); ++nIndex)
{
CPartPath oPath;
m_arParts.push_back(oPath);
m_arParts.back().FromXML(oArray[nIndex], pManager);
}
}
CPath& operator =(const CPath& oSrc)
{
m_arParts.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arParts.size(); ++nIndex)
{
m_arParts.push_back(oSrc.m_arParts[nIndex]);
}
return (*this);
}
void SetCoordsize(LONG lWidth, LONG lHeight)
{
for (size_t nIndex = 0; nIndex < m_arParts.size(); ++nIndex)
{
m_arParts[nIndex].width = lWidth;
m_arParts[nIndex].height = lHeight;
}
}
CPath& operator =(const CPath& oSrc);
void SetCoordsize(LONG lWidth, LONG lHeight);
};
}

View File

@ -0,0 +1,274 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "XmlWriter.h"
namespace NSCustomShapesConvert
{
CXmlWriter::CXmlWriter() : m_oWriter()
{
}
CXmlWriter::~CXmlWriter()
{
}
std::wstring CXmlWriter::GetXmlString()
{
return m_oWriter.GetData();
}
void CXmlWriter::ClearNoAttack()
{
m_oWriter.ClearNoAttack();
}
int CXmlWriter::GetSize()
{
return (int)m_oWriter.GetCurSize();
}
// write value
void CXmlWriter::WriteString(const std::wstring& strValue)
{
m_oWriter.WriteString(strValue);
}
void CXmlWriter::WriteStringXML(std::wstring strValue)
{
m_oWriter.WriteEncodeXmlString(strValue);
}
void CXmlWriter::WriteDouble(const double& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteLONG(const long& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteINT(const int& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteDWORD(const DWORD& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteDWORD_hex(const DWORD& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteBool(const bool& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const std::wstring& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
m_oWriter.WriteString(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute2(const std::wstring& strAttributeName, const std::wstring& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
m_oWriter.WriteEncodeXmlString(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const double& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDouble(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const int& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteINT(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const bool& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteBool(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const LONG& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteLONG(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttribute(const std::wstring& strAttributeName, const DWORD& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDWORD(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void CXmlWriter::WriteAttributeDWORD_hex(const std::wstring& strAttributeName, const DWORD& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDWORD_hex(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
// document methods
void CXmlWriter::WriteNodeBegin(std::wstring strNodeName, bool bAttributed)
{
m_oWriter.WriteString(g_bstr_nodeopen);
m_oWriter.WriteString(strNodeName);
if (!bAttributed)
m_oWriter.WriteString(g_bstr_nodeclose);
}
void CXmlWriter::WriteNodeEnd(std::wstring strNodeName, bool bEmptyNode, bool bEndNode)
{
if (bEmptyNode)
{
if (bEndNode)
m_oWriter.WriteString(g_bstr_nodeclose_slash);
else
m_oWriter.WriteString(g_bstr_nodeclose);
}
else
{
m_oWriter.WriteString(g_bstr_nodeopen_slash);
m_oWriter.WriteString(strNodeName);
m_oWriter.WriteString(g_bstr_nodeclose);
}
}
// write node values
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const std::wstring& val)
{
WriteNodeBegin(strNodeName);
WriteString(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const bool& val)
{
WriteNodeBegin(strNodeName);
if (val)
WriteString(_T("1"));
else
WriteString(_T("0"));
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const double& val)
{
WriteNodeBegin(strNodeName);
WriteDouble(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const LONG& val)
{
WriteNodeBegin(strNodeName);
WriteLONG(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const int& val)
{
WriteNodeBegin(strNodeName);
WriteINT(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValue(const std::wstring& strNodeName, const DWORD& val)
{
WriteNodeBegin(strNodeName);
WriteDWORD(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::WriteNodeValueDWORD_hex(const std::wstring& strNodeName, const DWORD& val)
{
WriteNodeBegin(strNodeName);
WriteDWORD_hex(val);
WriteNodeEnd(strNodeName);
}
void CXmlWriter::StartNode(const std::wstring& name)
{
m_oWriter.WriteString(g_bstr_nodeopen);
m_oWriter.WriteString(name);
}
void CXmlWriter::StartAttributes()
{
// none
}
void CXmlWriter::EndAttributes()
{
m_oWriter.WriteString(g_bstr_nodeclose);
}
void CXmlWriter::EndNode(const std::wstring& name)
{
m_oWriter.WriteString(g_bstr_nodeopen_slash);
m_oWriter.WriteString(name);
m_oWriter.WriteString(g_bstr_nodeclose);
}
void CXmlWriter::ReplaceString(std::wstring from, std::wstring to)
{
// ужасная функция. вызывать ее не надо. не для этого класс писался.
std::wstring sCur = m_oWriter.GetData();
size_t start_pos = 0;
while((start_pos = sCur .find(from, start_pos)) != std::wstring::npos)
{
sCur .replace(start_pos, from.length(), to);
start_pos += to.length();
}
ClearNoAttack();
WriteString(sCur);
}
}

View File

@ -60,230 +60,47 @@ namespace NSCustomShapesConvert
public:
NSStringUtils::CStringBuilder m_oWriter;
CXmlWriter() : m_oWriter()
{
}
~CXmlWriter()
{
}
CXmlWriter();
~CXmlWriter();
std::wstring GetXmlString()
{
return m_oWriter.GetData();
}
void ClearNoAttack()
{
m_oWriter.ClearNoAttack();
}
int GetSize()
{
return (int)m_oWriter.GetCurSize();
}
std::wstring GetXmlString();
void ClearNoAttack();
int GetSize();
// write value
void WriteString(const std::wstring& strValue)
{
m_oWriter.WriteString(strValue);
}
void WriteStringXML(std::wstring strValue)
{
m_oWriter.WriteEncodeXmlString(strValue);
}
void WriteDouble(const double& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteLONG(const long& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteINT(const int& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteDWORD(const DWORD& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteDWORD_hex(const DWORD& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteBool(const bool& val)
{
m_oWriter.WriteString(XmlUtils::ToString(val));
}
void WriteAttribute(const std::wstring& strAttributeName, const std::wstring& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
m_oWriter.WriteString(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute2(const std::wstring& strAttributeName, const std::wstring& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
m_oWriter.WriteEncodeXmlString(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute(const std::wstring& strAttributeName, const double& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDouble(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute(const std::wstring& strAttributeName, const int& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteINT(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute(const std::wstring& strAttributeName, const bool& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteBool(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute(const std::wstring& strAttributeName, const LONG& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteLONG(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttribute(const std::wstring& strAttributeName, const DWORD& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDWORD(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteAttributeDWORD_hex(const std::wstring& strAttributeName, const DWORD& val)
{
m_oWriter.WriteString(g_bstr_node_space);
m_oWriter.WriteString(strAttributeName);
m_oWriter.WriteString(g_bstr_node_equal);
m_oWriter.WriteString(g_bstr_node_quote);
WriteDWORD_hex(val);
m_oWriter.WriteString(g_bstr_node_quote);
}
void WriteString(const std::wstring& strValue);
void WriteStringXML(std::wstring strValue);
void WriteDouble(const double& val);
void WriteLONG(const long& val);
void WriteINT(const int& val);
void WriteDWORD(const DWORD& val);
void WriteDWORD_hex(const DWORD& val);
void WriteBool(const bool& val);
void WriteAttribute(const std::wstring& strAttributeName, const std::wstring& val);
void WriteAttribute2(const std::wstring& strAttributeName, const std::wstring& val);
void WriteAttribute(const std::wstring& strAttributeName, const double& val);
void WriteAttribute(const std::wstring& strAttributeName, const int& val);
void WriteAttribute(const std::wstring& strAttributeName, const bool& val);
void WriteAttribute(const std::wstring& strAttributeName, const LONG& val);
void WriteAttribute(const std::wstring& strAttributeName, const DWORD& val);
void WriteAttributeDWORD_hex(const std::wstring& strAttributeName, const DWORD& val);
// document methods
void WriteNodeBegin(std::wstring strNodeName, bool bAttributed = false)
{
m_oWriter.WriteString(g_bstr_nodeopen);
m_oWriter.WriteString(strNodeName);
if (!bAttributed)
m_oWriter.WriteString(g_bstr_nodeclose);
}
void WriteNodeEnd(std::wstring strNodeName, bool bEmptyNode = false, bool bEndNode = true)
{
if (bEmptyNode)
{
if (bEndNode)
m_oWriter.WriteString(g_bstr_nodeclose_slash);
else
m_oWriter.WriteString(g_bstr_nodeclose);
}
else
{
m_oWriter.WriteString(g_bstr_nodeopen_slash);
m_oWriter.WriteString(strNodeName);
m_oWriter.WriteString(g_bstr_nodeclose);
}
}
void WriteNodeBegin(std::wstring strNodeName, bool bAttributed = false);
void WriteNodeEnd(std::wstring strNodeName, bool bEmptyNode = false, bool bEndNode = true);
// write node values
void WriteNodeValue(const std::wstring& strNodeName, const std::wstring& val)
{
WriteNodeBegin(strNodeName);
WriteString(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const bool& val)
{
WriteNodeBegin(strNodeName);
if (val)
WriteString(_T("1"));
else
WriteString(_T("0"));
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const double& val)
{
WriteNodeBegin(strNodeName);
WriteDouble(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const LONG& val)
{
WriteNodeBegin(strNodeName);
WriteLONG(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const int& val)
{
WriteNodeBegin(strNodeName);
WriteINT(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const DWORD& val)
{
WriteNodeBegin(strNodeName);
WriteDWORD(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValueDWORD_hex(const std::wstring& strNodeName, const DWORD& val)
{
WriteNodeBegin(strNodeName);
WriteDWORD_hex(val);
WriteNodeEnd(strNodeName);
}
void WriteNodeValue(const std::wstring& strNodeName, const std::wstring& val);
void WriteNodeValue(const std::wstring& strNodeName, const bool& val);
void WriteNodeValue(const std::wstring& strNodeName, const double& val);
void WriteNodeValue(const std::wstring& strNodeName, const LONG& val);
void WriteNodeValue(const std::wstring& strNodeName, const int& val);
void WriteNodeValue(const std::wstring& strNodeName, const DWORD& val);
void WriteNodeValueDWORD_hex(const std::wstring& strNodeName, const DWORD& val);
public:
void StartNode(const std::wstring& name)
{
m_oWriter.WriteString(g_bstr_nodeopen);
m_oWriter.WriteString(name);
}
void StartAttributes()
{
// none
}
void EndAttributes()
{
m_oWriter.WriteString(g_bstr_nodeclose);
}
void EndNode(const std::wstring& name)
{
m_oWriter.WriteString(g_bstr_nodeopen_slash);
m_oWriter.WriteString(name);
m_oWriter.WriteString(g_bstr_nodeclose);
}
void StartNode(const std::wstring& name);
void StartAttributes();
void EndAttributes();
void EndNode(const std::wstring& name);
template<typename T>
void WriteArray(const std::wstring& strName, const std::vector<T>& arr)
@ -313,20 +130,6 @@ namespace NSCustomShapesConvert
// -------------------------------------------------------------------------------------
void ReplaceString(std::wstring from, std::wstring to)
{
// ужасная функция. вызывать ее не надо. не для этого класс писался.
std::wstring sCur = m_oWriter.GetData();
size_t start_pos = 0;
while((start_pos = sCur .find(from, start_pos)) != std::wstring::npos)
{
sCur .replace(start_pos, from.length(), to);
start_pos += to.length();
}
ClearNoAttack();
WriteString(sCur);
}
void ReplaceString(std::wstring from, std::wstring to);
};
}

View File

@ -36,7 +36,7 @@
#include <boost/shared_ptr.hpp>
#define DEFINE_SHAPE_CLASS(Class, BaseClass) \
#define DEFINE_SHAPE_CLASS(Class, BaseClass) \
class Class : public BaseClass \
{ \
public: \

View File

@ -1,4 +1,4 @@
/*
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
@ -29,22 +29,67 @@
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#pragma once
#include "BaseShape.h"
#include "BinaryReader.h"
#include "../../../../OOXML/Base/Base.h"
#include "CustomShape.h"
namespace NSCustomShapesConvert
namespace ODRAW
{
CBaseShape* CBaseShape::CreateByType( int ShapeType)
{
return CCustomShape::CreateByType((oox::MSOSPT)ShapeType);
}
CBinaryReader::CBinaryReader(BYTE* pBuffer, DWORD lCount)
{
m_pBuffer = pBuffer;
m_lCount = lCount;
bool CBaseShape::SetType( int ShapeType)
{
m_lOrigin = 0;
}
CBinaryReader::~CBinaryReader()
{
m_pBuffer = NULL;
m_lCount = 0;
}
LONG CBinaryReader::ReadLONG() // int32 подразумевается
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 4;
return ((CCustomShape*)this)->SetShapeType((oox::MSOSPT)ShapeType);
}
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(_INT32*)(m_pBuffer + lOldOrigin);
}
DWORD CBinaryReader::ReadDWORD()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 4;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(DWORD*)(m_pBuffer + lOldOrigin);
}
WORD CBinaryReader::ReadWORD()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 2;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(WORD*)(m_pBuffer + lOldOrigin);
}
SHORT CBinaryReader::ReadSHORT()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 2;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(short*)(m_pBuffer + lOldOrigin);
}
double CBinaryReader::ReadDOUBLE()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += sizeof(double);
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(SHORT*)(m_pBuffer + lOldOrigin);
}
}

View File

@ -30,7 +30,8 @@
*
*/
#pragma once
#include "../../../../../../DesktopEditor/common/Types.h"
#include "../../../../DesktopEditor/common/Types.h"
namespace ODRAW
{
@ -50,63 +51,13 @@ namespace ODRAW
DWORD m_lOrigin;
public:
CBinaryReader(BYTE* pBuffer, DWORD lCount)
{
m_pBuffer = pBuffer;
m_lCount = lCount;
CBinaryReader(BYTE* pBuffer, DWORD lCount);
~CBinaryReader();
m_lOrigin = 0;
}
~CBinaryReader()
{
m_pBuffer = NULL;
m_lCount = 0;
}
LONG ReadLONG() // int32 подразумевается
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 4;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(_INT32*)(m_pBuffer + lOldOrigin);
}
DWORD ReadDWORD()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 4;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(DWORD*)(m_pBuffer + lOldOrigin);
}
WORD ReadWORD()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 2;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(WORD*)(m_pBuffer + lOldOrigin);
}
SHORT ReadSHORT()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += 2;
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(short*)(m_pBuffer + lOldOrigin);
}
double ReadDOUBLE()
{
DWORD lOldOrigin = m_lOrigin;
m_lOrigin += sizeof(double);
BINARY_READER_CHECK_OUT_RANGE(m_lOrigin, m_lCount)
return *(SHORT*)(m_pBuffer + lOldOrigin);
}
LONG ReadLONG(); // int32 подразумевается
DWORD ReadDWORD();
WORD ReadWORD();
SHORT ReadSHORT();
double ReadDOUBLE();
};
}

View File

@ -0,0 +1,907 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "CustomGeomShape.h"
namespace NSCustomVML
{
CSegment::CSegment(ODRAW::RulesType eType, WORD nCount)
{
m_eRuler = eType;
m_nCount = nCount;
}
CSegment::CSegment(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
}
CSegment& CSegment::operator=(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
return (*this);
}
CSegment::~CSegment()
{
}
int CSegment::Read(WORD value)//from rtf segments
{
int repeate = 0;
if (value >= 0x2000 && value < 0x20FF)
{
repeate = value & 0x0FFF;
value &= 0xFF00;
}
m_nCount = 0;
switch (value)
{
case 0x0001: // lineto
m_eRuler = ODRAW::rtLineTo;
m_nCount = 1;
break;
case 0x4000: // moveto
m_eRuler = ODRAW::rtMoveTo;
m_nCount = 1;
break;
case 0x2000: // curveto
m_eRuler = ODRAW::rtCurveTo;
m_nCount = 3;
break;
case 0xb300: // arcto
m_eRuler = ODRAW::rtArc;
m_nCount = 2;
break;
case 0xac00:
case 0xaa00: // nofill
case 0xad00:
m_eRuler = ODRAW::rtNoFill;
break;
case 0xab00: // nostroke
m_eRuler = ODRAW::rtNoStroke;
break;
case 0x6001: // close
m_eRuler = ODRAW::rtClose;
break;
case 0x8000: // end
m_eRuler = ODRAW::rtEnd;
break;
default: // given number of lineto elements
m_eRuler = ODRAW::rtLineTo;
m_nCount = value;
break;
}
return (std::max)(1, repeate);
}
void CSegment::Read(POLE::Stream* pStream)//from binary ms segments
{
WORD mem = StreamUtils::ReadWORD(pStream);
BYTE type = mem & 0x07;
if (type <= 4)
{
m_eRuler = (ODRAW::RulesType)type;
m_nCount = (mem >> 3) & 0x1FFF;
return;
}
mem = (mem >> 3) & 0x1FFF;
type = mem & 0x1F;
switch (type)
{
case 0x00:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x01:
{
m_eRuler = ODRAW::rtAngleEllipseTo;
break;
}
case 0x02:
{
m_eRuler = ODRAW::rtAngleEllipse;
break;
}
case 0x03:
{
m_eRuler = ODRAW::rtArcTo;
break;
}
case 0x04:
{
m_eRuler = ODRAW::rtArc;
break;
}
case 0x05:
{
m_eRuler = ODRAW::rtClockwiseArcTo;
break;
}
case 0x06:
{
m_eRuler = ODRAW::rtClockwiseArc;
break;
}
case 0x07:
{
m_eRuler = ODRAW::rtEllipticalQuadrX;
break;
}
case 0x08:
{
m_eRuler = ODRAW::rtEllipticalQuadrY;
break;
}
case 0x09:
{
m_eRuler = ODRAW::rtQuadrBesier;
break;
}
case 0x0A:
{
m_eRuler = ODRAW::rtNoFill;
break;
}
case 0x0B:
{
m_eRuler = ODRAW::rtNoStroke;
break;
}
case 0x15:
{
m_eRuler = ODRAW::rtFillColor;
break;
}
case 0x16:
{
m_eRuler = ODRAW::rtLineColor;
break;
}
default:
{
m_eRuler = ODRAW::rtCurveTo;
}
};
m_nCount = (mem >> 5) & 0x00FF;
}
void CSegment::Read(ODRAW::CBinaryReader& oReader)//from binary ms segments
{
WORD mem = oReader.ReadWORD();
BYTE type = (mem >> 13 & 0x07);
if (type <= 4)
{
m_eRuler = (ODRAW::RulesType)type;
m_nCount = (mem & 0x1FFF);
m_nCount = (WORD)GetCountPoints2(m_eRuler, m_nCount);
return;
}
type = (mem >> 8) & 0x1F;
mem = mem & 0xFF;
switch (type)
{
case 0x00:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x01:
{
m_eRuler = ODRAW::rtAngleEllipseTo;
break;
}
case 0x02:
{
m_eRuler = ODRAW::rtAngleEllipse;
break;
}
case 0x03:
{
m_eRuler = ODRAW::rtArcTo;
break;
}
case 0x04:
{
m_eRuler = ODRAW::rtArc;
break;
}
case 0x05:
{
m_eRuler = ODRAW::rtClockwiseArcTo;
break;
}
case 0x06:
{
m_eRuler = ODRAW::rtClockwiseArc;
break;
}
case 0x07:
{
m_eRuler = ODRAW::rtEllipticalQuadrX;
break;
}
case 0x08:
{
m_eRuler = ODRAW::rtEllipticalQuadrY;
break;
}
case 0x09:
{
m_eRuler = ODRAW::rtQuadrBesier;
break;
}
case 0x0A:
{
m_eRuler = ODRAW::rtNoFill;
break;
}
case 0x0B:
{
m_eRuler = ODRAW::rtNoStroke;
break;
}
case 0x0C:
case 0x10:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x0D:
case 0x0E:
case 0x0F:
case 0x11:
case 0x12:
case 0x13:
case 0x14:
{
m_eRuler = ODRAW::rtCurveTo;
break;
}
case 0x15:
{
m_eRuler = ODRAW::rtFillColor;
break;
}
case 0x16:
{
m_eRuler = ODRAW::rtLineColor;
break;
}
default:
{
m_eRuler = ODRAW::rtCurveTo;
}
};
m_nCount = (WORD)mem;
m_nCount = (WORD)GetCountPoints2(m_eRuler, m_nCount);
//m_nCount = (WORD)GetCountPoints2(m_eRuler);
}
CGuide::CGuide()
{
m_eType = NSGuidesVML::ftVal;
m_param_type1 = 0;
m_param_type2 = 0;
m_param_type3 = 0;
m_param_value1 = 0;
m_param_value2 = 0;
m_param_value3 = 0;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CGuide::CGuide(const CGuide& oSrc)
{
*this = oSrc;
}
CGuide& CGuide::operator=(const CGuide& oSrc)
{
m_eType = oSrc.m_eType;
m_param_type1 = oSrc.m_param_type1;
m_param_type2 = oSrc.m_param_type2;
m_param_type3 = oSrc.m_param_type3;
m_param_value1 = oSrc.m_param_value1;
m_param_value2 = oSrc.m_param_value2;
m_param_value3 = oSrc.m_param_value3;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
return *this;
}
void CGuide::SetToFormula(NSGuidesVML::CFormula& oFormula)
{
oFormula.m_eFormulaType = m_eType;
SetParam(m_param_type1, m_param_value1, oFormula.m_eType1, oFormula.m_lParam1);
SetParam(m_param_type2, m_param_value2, oFormula.m_eType2, oFormula.m_lParam2);
SetParam(m_param_type3, m_param_value3, oFormula.m_eType3, oFormula.m_lParam3);
}
void CGuide::Read(POLE::Stream* pStream)
{
WORD ftType = StreamUtils::ReadWORD(pStream);
m_eType = NSGuidesVML::FormulaType(ftType & 0x1FFF);
m_param_type1 = (BYTE)(ftType & 0x04);
m_param_type2 = (BYTE)(ftType & 0x02);
m_param_type3 = (BYTE)(ftType & 0x01);
m_param_value1 = StreamUtils::ReadWORD(pStream);
m_param_value2 = StreamUtils::ReadWORD(pStream);
m_param_value3 = StreamUtils::ReadWORD(pStream);
}
void CGuide::Read(ODRAW::CBinaryReader& oReader)
{
WORD ftType = oReader.ReadWORD();
m_eType = NSGuidesVML::FormulaType(ftType & 0x1FFF);
m_param_type1 = (BYTE)(ftType & 0x04);
m_param_type2 = (BYTE)(ftType & 0x02);
m_param_type3 = (BYTE)(ftType & 0x01);
m_param_value1 = oReader.ReadWORD();
m_param_value2 = oReader.ReadWORD();
m_param_value3 = oReader.ReadWORD();
}
void CGuide::SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value)
{
if (0 == type)
{
param_type = ptValue;
param_value = (LONG)param;
}
if (0x0140 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0141 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0142 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if (0x0143 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if ((0x0147 <= param) && (param <= 0x014E))
{
param_type = ptAdjust;
param_value = (LONG)(param - 0x0147);
return;
}
if ((0x0400 <= param) && (param <= 0x047F))
{
param_type = ptFormula;
param_value = (LONG)(param - 0x0400);
return;
}
param_type = ptValue;
param_value = ShapeSizeVML;
}
CCustomVML::CCustomVML() : m_pAdjustValues(NULL)
{
m_ePath = ODRAW::rtCurveTo/*rtLineTo*/;
m_bIsVerticesPresent = false;
m_bIsPathPresent = false;
}
CCustomVML::CCustomVML(const CCustomVML& oSrc)
{
*this = oSrc;
}
CCustomVML& CCustomVML::operator=(const CCustomVML& oSrc)
{
m_ePath = oSrc.m_ePath;
m_arVertices.clear();
m_arVertices.insert(m_arVertices.end(), oSrc.m_arVertices.begin(), oSrc.m_arVertices.end());
m_arSegments.clear();
m_arSegments.insert(m_arSegments.end(), oSrc.m_arSegments.begin(), oSrc.m_arSegments.end());
m_arGuides.clear();
m_arGuides.insert(m_arGuides.end(), oSrc.m_arGuides.begin(), oSrc.m_arGuides.end());
m_pAdjustValues = oSrc.m_pAdjustValues;
m_bIsPathPresent = oSrc.m_bIsPathPresent;
m_bIsVerticesPresent = oSrc.m_bIsVerticesPresent;
m_oBrush = oSrc.m_oBrush;
m_oPen = oSrc.m_oPen;
return *this;
}
CCustomVML::~CCustomVML()
{
}
bool CCustomVML::IsCustom()
{
return (m_bIsVerticesPresent && m_bIsPathPresent);
}
void CCustomVML::SetPath(ODRAW::RulesType ePath)
{
m_ePath = ePath;
m_bIsPathPresent = true;
}
void CCustomVML::LoadVertices(std::vector<std::pair<int,int>> values)
{
if (!values.empty())
m_bIsVerticesPresent = true;
m_arVertices.clear();
for (size_t ind = 0; ind < values.size(); ++ind)
{
Aggplus::POINT oPoint;
oPoint.x = values[ind].first;
oPoint.y = values[ind].second;
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arVertices.push_back(oPoint);
}
}
void CCustomVML::LoadConnectionSitesDir(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arConnectionSitesDir.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 4);
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
_UINT32 v = oReader.ReadLONG();
double val = (double)((WORD)(v >> 16) + ((WORD)(v) / 65536.0));
m_arConnectionSitesDir.push_back(val);
}
}
void CCustomVML::LoadConnectionSites(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arConnectionSites.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 8);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 4);
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::POINT oPoint;
if (pProperty->m_bIsTruncated)
{
oPoint.x = (short)oReader.ReadWORD();
oPoint.y = (short)oReader.ReadWORD();
}
else
{
oPoint.x = oReader.ReadLONG();
oPoint.y = oReader.ReadLONG();
}
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arConnectionSites.push_back(oPoint);
}
}
void CCustomVML::LoadVertices(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arVertices.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 8);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 4);
}
if (lCount > 0)
{
m_bIsVerticesPresent = true;
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::POINT oPoint;
if (pProperty->m_bIsTruncated)
{
oPoint.x = (short)oReader.ReadWORD();
oPoint.y = (short)oReader.ReadWORD();
}
else
{
oPoint.x = oReader.ReadLONG();
oPoint.y = oReader.ReadLONG();
}
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arVertices.push_back(oPoint);
}
}
void CCustomVML::LoadAHs(CProperty* pProperty)
{
}
void CCustomVML::LoadSegments(std::vector<int> values)
{
m_arSegments.clear();
if (!values.empty())
m_bIsPathPresent = true;
for (size_t ind = 0; ind < values.size(); ++ind)
{
CSegment oInfo;
int count = oInfo.Read(values[ind]);
if (0 == oInfo.m_nCount)
{
if ((ODRAW::rtEnd != oInfo.m_eRuler) &&
(ODRAW::rtNoFill != oInfo.m_eRuler) &&
(ODRAW::rtNoStroke != oInfo.m_eRuler) &&
(ODRAW::rtClose != oInfo.m_eRuler))
{
continue;
}
}
for (int i = 0 ; i < count; i++)
m_arSegments.push_back(oInfo);
}
}
void CCustomVML::LoadSegments(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arSegments.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 2);
if (lCount > 0) m_bIsPathPresent = true;
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
CSegment oInfo;
oInfo.Read(oReader);
if (0 == oInfo.m_nCount)
{
if ((ODRAW::rtEnd != oInfo.m_eRuler) &&
(ODRAW::rtNoFill != oInfo.m_eRuler) &&
(ODRAW::rtNoStroke != oInfo.m_eRuler) &&
(ODRAW::rtClose != oInfo.m_eRuler))
{
continue;
}
}
//if (rtClose == oInfo.m_eRuler)
//{
// // проводим линию
// CSegment oInfo2(rtLineTo, 1);
// m_arSegments.push_back(oInfo2);
//}
m_arSegments.push_back(oInfo);
}
}
void CCustomVML::LoadGuides(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
WORD lCount = (WORD)(pProperty->m_lValue / 4);
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
CGuide oInfo;
oInfo.Read(oReader);
m_arGuides.push_back(oInfo);
}
}
void CCustomVML::LoadInscribe(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arInscribe.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 16);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 8);
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::RECT oRect;
if (pProperty->m_bIsTruncated)
{
oRect.left = (short)oReader.ReadWORD();
oRect.right = (short)oReader.ReadWORD();
oRect.top = (short)oReader.ReadWORD();
oRect.bottom = (short)oReader.ReadWORD();
}
else
{
oRect.left = (short)oReader.ReadLONG();
oRect.right = (short)oReader.ReadLONG();
oRect.top = (short)oReader.ReadLONG();
oRect.bottom = (short)oReader.ReadLONG();
}
m_arInscribe.push_back(oRect);
}
}
void CCustomVML::LoadAdjusts(LONG lIndex, LONG lValue)
{
if (NULL == m_pAdjustValues)
return;
LONG lCount = (LONG)m_pAdjustValues->size();
while (lCount <= lIndex)
{
m_pAdjustValues->push_back(0);
lCount = (LONG)m_pAdjustValues->size();
}
(*m_pAdjustValues)[lIndex] = lValue;
}
void CCustomVML::SetAdjusts(std::vector<LONG>* pList)
{
m_pAdjustValues = pList;
}
void CCustomVML::ToCustomShape(ODRAW::CBaseShape* pShape, NSGuidesVML::CFormulasManager& oManager)
{
if ((NULL == pShape) || (!IsCustom()))
return;
oManager.Clear();
// сначала заполним формулы
for (size_t nIndex = 0; nIndex < m_arGuides.size(); ++nIndex)
{
NSGuidesVML::CFormula oF;
m_arGuides[nIndex].SetToFormula(oF);
oManager.AddFormula(oF);
}
oManager.Clear(m_pAdjustValues);
std::wstring strPath = _T("");
bool bBreak = false;
long lMinF = (_INT32)0x80000000;
long lMaxF = (_INT32)0x8000007F;
int nGuideIndex_x , nGuideIndex_y;
if (0 == m_arSegments.size())
{
strPath = GetRulerVML(m_ePath);
for (size_t nIndex = 0; nIndex < m_arVertices.size(); ++nIndex)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nIndex].x ) nGuideIndex_x = (_UINT32)m_arVertices[nIndex].x - (_UINT32)lMinF;
if (lMaxF > m_arVertices[nIndex].y ) nGuideIndex_y = (_UINT32)m_arVertices[nIndex].y - (_UINT32)lMinF;
if (nGuideIndex_x >= 0 )
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].x) + L",";
}
if (nGuideIndex_y >= 0)
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].y) + L",";
}
}
strPath.erase(strPath.length() - 1);
}
else
{
size_t nStart = 0;
size_t nEnd = 0;
for (size_t nS = 0; nS < m_arSegments.size(); ++nS)
{
if (bBreak)
{
if ((ODRAW::rtEnd != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtNoFill != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtNoStroke != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtClose != m_arSegments[nS].m_eRuler))
{
strPath += _T("e");
break;
}
}
if ((ODRAW::rtFillColor == m_arSegments[nS].m_eRuler) || (ODRAW::rtLineColor == m_arSegments[nS].m_eRuler))
{
if (nStart < m_arVertices.size())
{
if (ODRAW::rtFillColor == m_arSegments[nS].m_eRuler)
{
m_oBrush.Color1 = (_UINT32)m_arVertices[nStart].x;
m_oBrush.Color2 = (_UINT32)m_arVertices[nStart].y;
}
else
{
m_oPen.Color = (_UINT32)m_arVertices[nStart].x;
}
}
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
continue;
}
strPath += GetRulerVML(m_arSegments[nS].m_eRuler);
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
for (size_t nV = nStart; nV < nEnd; ++nV)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nV].x ) nGuideIndex_x = (_UINT32)m_arVertices[nV].x - (_UINT32)lMinF;
if (lMaxF > m_arVertices[nV].y ) nGuideIndex_y = (_UINT32)m_arVertices[nV].y - (_UINT32)lMinF;
std::wstring str = _T("");
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].y) + L",";
}
}
if (nEnd != nStart)
{
strPath.erase(strPath.length() - 1);
}
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
}
}
oManager.CalculateResults();
pShape->LoadPathList(strPath);
/*std::wstring str = _T("<w:pict xmlns:w=\"http://schemas.openxmlformats.org/wordprocessingml/2006/main\" xmlns:v=\"urn:schemas-microsoft-com:vml\" xmlns:o=\"urn:schemas-microsoft-com:office:office\">\
<v:shape id=\"Cloud 1\" o:spid=\"_x0000_s1026\" style=\"position:absolute;margin-left:-17.3pt;margin-top:158.4pt;width:466.95pt;height:335.65pt;z-index:251659264;visibility:visible;mso-wrap-style:square;mso-wrap-distance-left:9pt;mso-wrap-distance-top:0;mso-wrap-distance-right:9pt;mso-wrap-distance-bottom:0;mso-position-horizontal:absolute;mso-position-horizontal-relative:text;mso-position-vertical:absolute;mso-position-vertical-relative:text;v-text-anchor:middle\" coordsize=\"43200,43200\" path=\"m3900,14370c3629,11657,4261,8921,5623,6907,7775,3726,11264,3017,14005,5202,15678,909,19914,22,22456,3432,23097,1683,24328,474,25749,200v1564,-302,3126,570,4084,2281c31215,267,33501,-460,35463,690v1495,876,2567,2710,2855,4886c40046,6218,41422,7998,41982,10318v407,1684,349,3513,-164,5142c43079,17694,43520,20590,43016,23322v-670,3632,-2888,6352,-5612,6882c37391,32471,36658,34621,35395,36101v-1919,2249,-4691,2538,-6840,714c27860,39948,25999,42343,23667,43106v-2748,899,-5616,-633,-7187,-3840c12772,42310,7956,40599,5804,35472,3690,35809,1705,34024,1110,31250,679,29243,1060,27077,2113,25551,619,24354,-213,22057,-5,19704,239,16949,1845,14791,3863,14507v12,-46,25,-91,37,-137xem4693,26177nfc3809,26271,2925,25993,2160,25380t4768,9519nfc6573,35092,6200,35220,5820,35280t10658,3810nfc16211,38544,15987,37961,15810,37350m28827,34751nfc28788,35398,28698,36038,28560,36660m34129,22954nfc36133,24282,37398,27058,37380,30090m41798,15354nfc41473,16386,40978,17302,40350,18030m38324,5426nfc38379,5843,38405,6266,38400,6690m29078,3952nfc29267,3369,29516,2826,29820,2340m22141,4720nfc22218,4238,22339,3771,22500,3330m14000,5192nfc14472,5568,14908,6021,15300,6540m4127,15789nfc4024,15325,3948,14851,3900,14370e\" fillcolor=\"#4f81bd\" strokecolor=\"#385d8a\" strokeweight=\"2pt\">\
<v:path arrowok=\"t\" o:connecttype=\"custom\" o:connectlocs=\"644218,2582990;296508,2504347;951021,3443625;798923,3481220;2261969,3857168;2170271,3685475;3957142,3429021;3920490,3617390;4684958,2264964;5131230,2969101;5737698,1515041;5538928,1779093;5260814,535405;5271247,660129;3991597,389960;4093453,230897;3039341,465741;3088621,328585;1921809,512316;2100263,645328;566522,1557964;535361,1417946\" o:connectangles=\"0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0\"/>\
</v:shape>\
</w:pict>");*/
//pShape->LoadFromXML(str);
}
}

View File

@ -33,7 +33,7 @@
#include "BinaryReader.h"
#include "ElementSettings.h"
#include "../BaseShape.h"
#include "../../../PptFile/Drawing/Attributes.h"
//#include "../../../PptFile/Drawing/Attributes.h"
#include "PptFormula.h"
#include "../GraphicsPath.h"
@ -46,288 +46,14 @@ namespace NSCustomVML
WORD m_nCount;
public:
CSegment(ODRAW::RulesType eType = ODRAW::rtMoveTo, WORD nCount = 2)
{
m_eRuler = eType;
m_nCount = nCount;
}
CSegment(ODRAW::RulesType eType = ODRAW::rtMoveTo, WORD nCount = 2);
CSegment(const CSegment& oSrc);
CSegment& operator=(const CSegment& oSrc);
~CSegment();
CSegment(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
}
CSegment& operator=(const CSegment& oSrc)
{
m_eRuler = oSrc.m_eRuler;
m_nCount = oSrc.m_nCount;
return (*this);
}
~CSegment()
{
}
int Read(WORD value)//from rtf segments
{
int repeate = 0;
if (value >= 0x2000 && value < 0x20FF)
{
repeate = value & 0x0FFF;
value &= 0xFF00;
}
m_nCount = 0;
switch (value)
{
case 0x0001: // lineto
m_eRuler = ODRAW::rtLineTo;
m_nCount = 1;
break;
case 0x4000: // moveto
m_eRuler = ODRAW::rtMoveTo;
m_nCount = 1;
break;
case 0x2000: // curveto
m_eRuler = ODRAW::rtCurveTo;
m_nCount = 3;
break;
case 0xb300: // arcto
m_eRuler = ODRAW::rtArc;
m_nCount = 2;
break;
case 0xac00:
case 0xaa00: // nofill
case 0xad00:
m_eRuler = ODRAW::rtNoFill;
break;
case 0xab00: // nostroke
m_eRuler = ODRAW::rtNoStroke;
break;
case 0x6001: // close
m_eRuler = ODRAW::rtClose;
break;
case 0x8000: // end
m_eRuler = ODRAW::rtEnd;
break;
default: // given number of lineto elements
m_eRuler = ODRAW::rtLineTo;
m_nCount = value;
break;
}
return (std::max)(1, repeate);
}
void Read(POLE::Stream* pStream)//from binary ms segments
{
WORD mem = StreamUtils::ReadWORD(pStream);
BYTE type = mem & 0x07;
if (type <= 4)
{
m_eRuler = (ODRAW::RulesType)type;
m_nCount = (mem >> 3) & 0x1FFF;
return;
}
mem = (mem >> 3) & 0x1FFF;
type = mem & 0x1F;
switch (type)
{
case 0x00:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x01:
{
m_eRuler = ODRAW::rtAngleEllipseTo;
break;
}
case 0x02:
{
m_eRuler = ODRAW::rtAngleEllipse;
break;
}
case 0x03:
{
m_eRuler = ODRAW::rtArcTo;
break;
}
case 0x04:
{
m_eRuler = ODRAW::rtArc;
break;
}
case 0x05:
{
m_eRuler = ODRAW::rtClockwiseArcTo;
break;
}
case 0x06:
{
m_eRuler = ODRAW::rtClockwiseArc;
break;
}
case 0x07:
{
m_eRuler = ODRAW::rtEllipticalQuadrX;
break;
}
case 0x08:
{
m_eRuler = ODRAW::rtEllipticalQuadrY;
break;
}
case 0x09:
{
m_eRuler = ODRAW::rtQuadrBesier;
break;
}
case 0x0A:
{
m_eRuler = ODRAW::rtNoFill;
break;
}
case 0x0B:
{
m_eRuler = ODRAW::rtNoStroke;
break;
}
case 0x15:
{
m_eRuler = ODRAW::rtFillColor;
break;
}
case 0x16:
{
m_eRuler = ODRAW::rtLineColor;
break;
}
default:
{
m_eRuler = ODRAW::rtCurveTo;
}
};
m_nCount = (mem >> 5) & 0x00FF;
}
void Read(ODRAW::CBinaryReader& oReader)//from binary ms segments
{
WORD mem = oReader.ReadWORD();
BYTE type = (mem >> 13 & 0x07);
if (type <= 4)
{
m_eRuler = (ODRAW::RulesType)type;
m_nCount = (mem & 0x1FFF);
m_nCount = (WORD)GetCountPoints2(m_eRuler, m_nCount);
return;
}
type = (mem >> 8) & 0x1F;
mem = mem & 0xFF;
switch (type)
{
case 0x00:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x01:
{
m_eRuler = ODRAW::rtAngleEllipseTo;
break;
}
case 0x02:
{
m_eRuler = ODRAW::rtAngleEllipse;
break;
}
case 0x03:
{
m_eRuler = ODRAW::rtArcTo;
break;
}
case 0x04:
{
m_eRuler = ODRAW::rtArc;
break;
}
case 0x05:
{
m_eRuler = ODRAW::rtClockwiseArcTo;
break;
}
case 0x06:
{
m_eRuler = ODRAW::rtClockwiseArc;
break;
}
case 0x07:
{
m_eRuler = ODRAW::rtEllipticalQuadrX;
break;
}
case 0x08:
{
m_eRuler = ODRAW::rtEllipticalQuadrY;
break;
}
case 0x09:
{
m_eRuler = ODRAW::rtQuadrBesier;
break;
}
case 0x0A:
{
m_eRuler = ODRAW::rtNoFill;
break;
}
case 0x0B:
{
m_eRuler = ODRAW::rtNoStroke;
break;
}
case 0x0C:
case 0x10:
{
m_eRuler = ODRAW::rtLineTo;
break;
}
case 0x0D:
case 0x0E:
case 0x0F:
case 0x11:
case 0x12:
case 0x13:
case 0x14:
{
m_eRuler = ODRAW::rtCurveTo;
break;
}
case 0x15:
{
m_eRuler = ODRAW::rtFillColor;
break;
}
case 0x16:
{
m_eRuler = ODRAW::rtLineColor;
break;
}
default:
{
m_eRuler = ODRAW::rtCurveTo;
}
};
m_nCount = (WORD)mem;
m_nCount = (WORD)GetCountPoints2(m_eRuler, m_nCount);
//m_nCount = (WORD)GetCountPoints2(m_eRuler);
}
int Read(WORD value); //from rtf segments
void Read(POLE::Stream* pStream); //from binary ms segments
void Read(ODRAW::CBinaryReader& oReader); //from binary ms segments
};
class CGuide
@ -346,135 +72,17 @@ namespace NSCustomVML
LONG m_lShapeWidth;
LONG m_lShapeHeight;
CGuide();
CGuide(const CGuide& oSrc);
CGuide& operator=(const CGuide& oSrc);
CGuide()
{
m_eType = NSGuidesVML::ftVal;
void SetToFormula(NSGuidesVML::CFormula& oFormula);
m_param_type1 = 0;
m_param_type2 = 0;
m_param_type3 = 0;
m_param_value1 = 0;
m_param_value2 = 0;
m_param_value3 = 0;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CGuide(const CGuide& oSrc)
{
*this = oSrc;
}
CGuide& operator=(const CGuide& oSrc)
{
m_eType = oSrc.m_eType;
m_param_type1 = oSrc.m_param_type1;
m_param_type2 = oSrc.m_param_type2;
m_param_type3 = oSrc.m_param_type3;
m_param_value1 = oSrc.m_param_value1;
m_param_value2 = oSrc.m_param_value2;
m_param_value3 = oSrc.m_param_value3;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
return *this;
}
void SetToFormula(NSGuidesVML::CFormula& oFormula)
{
oFormula.m_eFormulaType = m_eType;
SetParam(m_param_type1, m_param_value1, oFormula.m_eType1, oFormula.m_lParam1);
SetParam(m_param_type2, m_param_value2, oFormula.m_eType2, oFormula.m_lParam2);
SetParam(m_param_type3, m_param_value3, oFormula.m_eType3, oFormula.m_lParam3);
}
void Read(POLE::Stream* pStream)
{
WORD ftType = StreamUtils::ReadWORD(pStream);
m_eType = NSGuidesVML::FormulaType(ftType & 0x1FFF);
m_param_type1 = (BYTE)(ftType & 0x04);
m_param_type2 = (BYTE)(ftType & 0x02);
m_param_type3 = (BYTE)(ftType & 0x01);
m_param_value1 = StreamUtils::ReadWORD(pStream);
m_param_value2 = StreamUtils::ReadWORD(pStream);
m_param_value3 = StreamUtils::ReadWORD(pStream);
}
void Read(ODRAW::CBinaryReader& oReader)
{
WORD ftType = oReader.ReadWORD();
m_eType = NSGuidesVML::FormulaType(ftType & 0x1FFF);
m_param_type1 = (BYTE)(ftType & 0x04);
m_param_type2 = (BYTE)(ftType & 0x02);
m_param_type3 = (BYTE)(ftType & 0x01);
m_param_value1 = oReader.ReadWORD();
m_param_value2 = oReader.ReadWORD();
m_param_value3 = oReader.ReadWORD();
}
void Read(POLE::Stream* pStream);
void Read(ODRAW::CBinaryReader& oReader);
private:
void SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value)
{
if (0 == type)
{
param_type = ptValue;
param_value = (LONG)param;
}
if (0x0140 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0141 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML / 2;
return;
}
if (0x0142 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if (0x0143 == param)
{
param_type = ptValue;
param_value = ShapeSizeVML;
return;
}
if ((0x0147 <= param) && (param <= 0x014E))
{
param_type = ptAdjust;
param_value = (LONG)(param - 0x0147);
return;
}
if ((0x0400 <= param) && (param <= 0x047F))
{
param_type = ptFormula;
param_value = (LONG)(param - 0x0400);
return;
}
param_type = ptValue;
param_value = ShapeSizeVML;
}
void SetParam(BYTE type, WORD param, ParamType& param_type, LONG& param_value);
};
class CCustomVML
@ -497,480 +105,26 @@ namespace NSCustomVML
ODRAW::CPen m_oPen;
public:
CCustomVML() : m_pAdjustValues(NULL)
{
m_ePath = ODRAW::rtCurveTo/*rtLineTo*/;
m_bIsVerticesPresent = false;
m_bIsPathPresent = false;
}
CCustomVML(const CCustomVML& oSrc)
{
*this = oSrc;
}
CCustomVML& operator=(const CCustomVML& oSrc)
{
m_ePath = oSrc.m_ePath;
m_arVertices.clear();
m_arVertices.insert(m_arVertices.end(), oSrc.m_arVertices.begin(), oSrc.m_arVertices.end());
m_arSegments.clear();
m_arSegments.insert(m_arSegments.end(), oSrc.m_arSegments.begin(), oSrc.m_arSegments.end());
m_arGuides.clear();
m_arGuides.insert(m_arGuides.end(), oSrc.m_arGuides.begin(), oSrc.m_arGuides.end());
m_pAdjustValues = oSrc.m_pAdjustValues;
m_bIsPathPresent = oSrc.m_bIsPathPresent;
m_bIsVerticesPresent = oSrc.m_bIsVerticesPresent;
m_oBrush = oSrc.m_oBrush;
m_oPen = oSrc.m_oPen;
return *this;
}
~CCustomVML()
{
}
bool IsCustom()
{
return (m_bIsVerticesPresent && m_bIsPathPresent);
}
void SetPath(ODRAW::RulesType ePath)
{
m_ePath = ePath;
m_bIsPathPresent = true;
}
void LoadVertices(std::vector<std::pair<int,int>> values)
{
if (!values.empty())
m_bIsVerticesPresent = true;
m_arVertices.clear();
for (size_t ind = 0; ind < values.size(); ++ind)
{
Aggplus::POINT oPoint;
oPoint.x = values[ind].first;
oPoint.y = values[ind].second;
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arVertices.push_back(oPoint);
}
}
void LoadConnectionSitesDir(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arConnectionSitesDir.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 4);
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
_UINT32 v = oReader.ReadLONG();
double val = (double)((WORD)(v >> 16) + ((WORD)(v) / 65536.0));
m_arConnectionSitesDir.push_back(val);
}
}
void LoadConnectionSites(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arConnectionSites.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 8);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 4);
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::POINT oPoint;
if (pProperty->m_bIsTruncated)
{
oPoint.x = (short)oReader.ReadWORD();
oPoint.y = (short)oReader.ReadWORD();
}
else
{
oPoint.x = oReader.ReadLONG();
oPoint.y = oReader.ReadLONG();
}
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arConnectionSites.push_back(oPoint);
}
}
void LoadVertices(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arVertices.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 8);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 4);
}
if (lCount > 0)
{
m_bIsVerticesPresent = true;
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::POINT oPoint;
if (pProperty->m_bIsTruncated)
{
oPoint.x = (short)oReader.ReadWORD();
oPoint.y = (short)oReader.ReadWORD();
}
else
{
oPoint.x = oReader.ReadLONG();
oPoint.y = oReader.ReadLONG();
}
LONG lMinF = (LONG)0x80000000;
LONG lMaxF = (LONG)0x8000007F;
if (lMinF <= oPoint.x)
{
int nGuideIndex = (_UINT32)oPoint.x - 0x80000000;
bool b = false;
}
if (lMinF <= oPoint.y)
{
int nGuideIndex = (_UINT32)oPoint.y - 0x80000000;
bool b = false;
}
m_arVertices.push_back(oPoint);
}
}
void LoadAHs(CProperty* pProperty)
{
}
void LoadSegments(std::vector<int> values)
{
m_arSegments.clear();
if (!values.empty())
m_bIsPathPresent = true;
for (size_t ind = 0; ind < values.size(); ++ind)
{
CSegment oInfo;
int count = oInfo.Read(values[ind]);
if (0 == oInfo.m_nCount)
{
if ((ODRAW::rtEnd != oInfo.m_eRuler) &&
(ODRAW::rtNoFill != oInfo.m_eRuler) &&
(ODRAW::rtNoStroke != oInfo.m_eRuler) &&
(ODRAW::rtClose != oInfo.m_eRuler))
{
continue;
}
}
for (int i = 0 ; i < count; i++)
m_arSegments.push_back(oInfo);
}
}
void LoadSegments(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arSegments.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 2);
if (lCount > 0) m_bIsPathPresent = true;
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
CSegment oInfo;
oInfo.Read(oReader);
if (0 == oInfo.m_nCount)
{
if ((ODRAW::rtEnd != oInfo.m_eRuler) &&
(ODRAW::rtNoFill != oInfo.m_eRuler) &&
(ODRAW::rtNoStroke != oInfo.m_eRuler) &&
(ODRAW::rtClose != oInfo.m_eRuler))
{
continue;
}
}
//if (rtClose == oInfo.m_eRuler)
//{
// // проводим линию
// CSegment oInfo2(rtLineTo, 1);
// m_arSegments.push_back(oInfo2);
//}
m_arSegments.push_back(oInfo);
}
}
void LoadGuides(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
WORD lCount = (WORD)(pProperty->m_lValue / 4);
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
CGuide oInfo;
oInfo.Read(oReader);
m_arGuides.push_back(oInfo);
}
}
void LoadInscribe(CProperty* pProperty)
{
ODRAW::CBinaryReader oReader(pProperty->m_pOptions, pProperty->m_lValue);
m_arInscribe.clear();
WORD lCount = (WORD)(pProperty->m_lValue / 16);
if (pProperty->m_bIsTruncated)
{
lCount = (WORD)(pProperty->m_lValue / 8);
}
for (WORD lIndex = 0; lIndex < lCount; ++lIndex)
{
Aggplus::RECT oRect;
if (pProperty->m_bIsTruncated)
{
oRect.left = (short)oReader.ReadWORD();
oRect.right = (short)oReader.ReadWORD();
oRect.top = (short)oReader.ReadWORD();
oRect.bottom = (short)oReader.ReadWORD();
}
else
{
oRect.left = (short)oReader.ReadLONG();
oRect.right = (short)oReader.ReadLONG();
oRect.top = (short)oReader.ReadLONG();
oRect.bottom = (short)oReader.ReadLONG();
}
m_arInscribe.push_back(oRect);
}
}
void LoadAdjusts(LONG lIndex, LONG lValue)
{
if (NULL == m_pAdjustValues)
return;
LONG lCount = (LONG)m_pAdjustValues->size();
while (lCount <= lIndex)
{
m_pAdjustValues->push_back(0);
lCount = (LONG)m_pAdjustValues->size();
}
(*m_pAdjustValues)[lIndex] = lValue;
}
void SetAdjusts(std::vector<LONG>* pList)
{
m_pAdjustValues = pList;
}
void ToCustomShape(ODRAW::CBaseShape* pShape, NSGuidesVML::CFormulasManager& oManager)
{
if ((NULL == pShape) || (!IsCustom()))
return;
oManager.Clear();
// сначала заполним формулы
for (size_t nIndex = 0; nIndex < m_arGuides.size(); ++nIndex)
{
NSGuidesVML::CFormula oF;
m_arGuides[nIndex].SetToFormula(oF);
oManager.AddFormula(oF);
}
oManager.Clear(m_pAdjustValues);
std::wstring strPath = _T("");
bool bBreak = false;
long lMinF = (_INT32)0x80000000;
long lMaxF = (_INT32)0x8000007F;
int nGuideIndex_x , nGuideIndex_y;
if (0 == m_arSegments.size())
{
strPath = GetRulerVML(m_ePath);
for (size_t nIndex = 0; nIndex < m_arVertices.size(); ++nIndex)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nIndex].x ) nGuideIndex_x = (_UINT32)m_arVertices[nIndex].x - (_UINT32)lMinF;
if (lMaxF > m_arVertices[nIndex].y ) nGuideIndex_y = (_UINT32)m_arVertices[nIndex].y - (_UINT32)lMinF;
if (nGuideIndex_x >= 0 )
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].x) + L",";
}
if (nGuideIndex_y >= 0)
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nIndex].y) + L",";
}
}
strPath.erase(strPath.length() - 1);
}
else
{
size_t nStart = 0;
size_t nEnd = 0;
for (size_t nS = 0; nS < m_arSegments.size(); ++nS)
{
if (bBreak)
{
if ((ODRAW::rtEnd != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtNoFill != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtNoStroke != m_arSegments[nS].m_eRuler) &&
(ODRAW::rtClose != m_arSegments[nS].m_eRuler))
{
strPath += _T("e");
break;
}
}
if ((ODRAW::rtFillColor == m_arSegments[nS].m_eRuler) || (ODRAW::rtLineColor == m_arSegments[nS].m_eRuler))
{
if (nStart < m_arVertices.size())
{
if (ODRAW::rtFillColor == m_arSegments[nS].m_eRuler)
{
m_oBrush.Color1 = (_UINT32)m_arVertices[nStart].x;
m_oBrush.Color2 = (_UINT32)m_arVertices[nStart].y;
}
else
{
m_oPen.Color = (_UINT32)m_arVertices[nStart].x;
}
}
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
continue;
}
strPath += GetRulerVML(m_arSegments[nS].m_eRuler);
nEnd = nStart + m_arSegments[nS].m_nCount;
if (nEnd > m_arVertices.size())
nEnd = m_arVertices.size();
for (size_t nV = nStart; nV < nEnd; ++nV)
{
nGuideIndex_x = nGuideIndex_y = -1;
if (lMaxF > m_arVertices[nV].x ) nGuideIndex_x = (_UINT32)m_arVertices[nV].x - (_UINT32)lMinF;
if (lMaxF > m_arVertices[nV].y ) nGuideIndex_y = (_UINT32)m_arVertices[nV].y - (_UINT32)lMinF;
std::wstring str = _T("");
if (nGuideIndex_x >= 0 && nGuideIndex_x < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_x].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].x) + L",";
}
if (nGuideIndex_y >= 0 && nGuideIndex_y < (int)m_arGuides.size())
{
strPath += std::to_wstring(m_arGuides[nGuideIndex_y].m_param_value1) + L",";
}
else
{
strPath += std::to_wstring(m_arVertices[nV].y) + L",";
}
}
if (nEnd != nStart)
{
strPath.erase(strPath.length() - 1);
}
nStart = nEnd;
if (nEnd == m_arVertices.size())
{
bBreak = true;
}
}
}
oManager.CalculateResults();
pShape->LoadPathList(strPath);
/*std::wstring str = _T("<w:pict xmlns:w=\"http://schemas.openxmlformats.org/wordprocessingml/2006/main\" xmlns:v=\"urn:schemas-microsoft-com:vml\" xmlns:o=\"urn:schemas-microsoft-com:office:office\">\
<v:shape id=\"Cloud 1\" o:spid=\"_x0000_s1026\" style=\"position:absolute;margin-left:-17.3pt;margin-top:158.4pt;width:466.95pt;height:335.65pt;z-index:251659264;visibility:visible;mso-wrap-style:square;mso-wrap-distance-left:9pt;mso-wrap-distance-top:0;mso-wrap-distance-right:9pt;mso-wrap-distance-bottom:0;mso-position-horizontal:absolute;mso-position-horizontal-relative:text;mso-position-vertical:absolute;mso-position-vertical-relative:text;v-text-anchor:middle\" coordsize=\"43200,43200\" path=\"m3900,14370c3629,11657,4261,8921,5623,6907,7775,3726,11264,3017,14005,5202,15678,909,19914,22,22456,3432,23097,1683,24328,474,25749,200v1564,-302,3126,570,4084,2281c31215,267,33501,-460,35463,690v1495,876,2567,2710,2855,4886c40046,6218,41422,7998,41982,10318v407,1684,349,3513,-164,5142c43079,17694,43520,20590,43016,23322v-670,3632,-2888,6352,-5612,6882c37391,32471,36658,34621,35395,36101v-1919,2249,-4691,2538,-6840,714c27860,39948,25999,42343,23667,43106v-2748,899,-5616,-633,-7187,-3840c12772,42310,7956,40599,5804,35472,3690,35809,1705,34024,1110,31250,679,29243,1060,27077,2113,25551,619,24354,-213,22057,-5,19704,239,16949,1845,14791,3863,14507v12,-46,25,-91,37,-137xem4693,26177nfc3809,26271,2925,25993,2160,25380t4768,9519nfc6573,35092,6200,35220,5820,35280t10658,3810nfc16211,38544,15987,37961,15810,37350m28827,34751nfc28788,35398,28698,36038,28560,36660m34129,22954nfc36133,24282,37398,27058,37380,30090m41798,15354nfc41473,16386,40978,17302,40350,18030m38324,5426nfc38379,5843,38405,6266,38400,6690m29078,3952nfc29267,3369,29516,2826,29820,2340m22141,4720nfc22218,4238,22339,3771,22500,3330m14000,5192nfc14472,5568,14908,6021,15300,6540m4127,15789nfc4024,15325,3948,14851,3900,14370e\" fillcolor=\"#4f81bd\" strokecolor=\"#385d8a\" strokeweight=\"2pt\">\
<v:path arrowok=\"t\" o:connecttype=\"custom\" o:connectlocs=\"644218,2582990;296508,2504347;951021,3443625;798923,3481220;2261969,3857168;2170271,3685475;3957142,3429021;3920490,3617390;4684958,2264964;5131230,2969101;5737698,1515041;5538928,1779093;5260814,535405;5271247,660129;3991597,389960;4093453,230897;3039341,465741;3088621,328585;1921809,512316;2100263,645328;566522,1557964;535361,1417946\" o:connectangles=\"0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0\"/>\
</v:shape>\
</w:pict>");*/
//pShape->LoadFromXML(str);
}
};
CCustomVML();
CCustomVML(const CCustomVML& oSrc);
CCustomVML& operator=(const CCustomVML& oSrc);
~CCustomVML();
bool IsCustom();
void SetPath(ODRAW::RulesType ePath);
void LoadVertices(std::vector<std::pair<int,int>> values);
void LoadConnectionSitesDir(CProperty* pProperty);
void LoadConnectionSites(CProperty* pProperty);
void LoadVertices(CProperty* pProperty);
void LoadAHs(CProperty* pProperty);
void LoadSegments(std::vector<int> values);
void LoadSegments(CProperty* pProperty);
void LoadGuides(CProperty* pProperty);
void LoadInscribe(CProperty* pProperty);
void LoadAdjusts(LONG lIndex, LONG lValue);
void SetAdjusts(std::vector<LONG>* pList);
void ToCustomShape(ODRAW::CBaseShape* pShape, NSGuidesVML::CFormulasManager& oManager);
};
}

View File

@ -37,9 +37,26 @@
#include "../../../PptFile/Reader/Records.h"
#include "../../../PptFile/Reader/PPTFileDefines.h"
#include "../../../PptFile/Records/Drawing/ArtBlip.h"
// это класс, использующийся для передачи свойств объектов,
// например - указатель на картинку... (по PID'у)
CProperty::CProperty()
{
m_ePID = ODRAW::ePropertyId_left;
m_bIsBlip = false;
m_bComplex = false;
m_lValue = 0;
m_pOptions = NULL;
m_bIsTruncated = false;
}
CProperty::~CProperty()
{
if (m_pOptions) delete []m_pOptions;
m_pOptions = NULL;
}
void CProperty::FromStream(POLE::Stream* pStream)
{
// читаем из стрима...
@ -53,7 +70,6 @@ void CProperty::FromStream(POLE::Stream* pStream)
m_lValue = StreamUtils::ReadDWORD(pStream);
}
void CProperty::ComplexFromStream(POLE::Stream* pStream)
{
if (m_bComplex && m_lValue > 0)
@ -141,7 +157,14 @@ void CProperty::ComplexFromStream(POLE::Stream* pStream)
}
}
CProperties::CProperties() : m_arProperties()
{
}
CProperties::~CProperties()
{
m_lCount = 0;
m_arProperties.clear();
}
void CProperties::FromStream(POLE::Stream* pStream, long lCount)
{
m_lCount = lCount;
@ -158,8 +181,6 @@ void CProperties::FromStream(POLE::Stream* pStream, long lCount)
m_arProperties[lIndex].ComplexFromStream(pStream);
}
}
size_t CProperties::GetLen()
{
size_t dwLen = 6 * m_lCount;

View File

@ -31,7 +31,6 @@
*/
#pragma once
#include "../../../PptFile/Records/Drawing/ArtBlip.h"
#include "../../../../OOXML/Base/Types_32.h"
#include "../../../../Common/3dParty/pole/pole.h"
#include "Enums.h"
@ -52,21 +51,9 @@ public:
// чтобы не плодить классы - это value, когда m_bComplex == true
bool m_bIsTruncated;
CProperty()
{
m_ePID = ODRAW::ePropertyId_left;
m_bIsBlip = false;
m_bComplex = false;
m_lValue = 0;
m_pOptions = NULL;
CProperty();
~CProperty();
m_bIsTruncated = false;
}
~CProperty()
{
if (m_pOptions) delete []m_pOptions;
m_pOptions = NULL;
}
void FromStream(POLE::Stream* pStream);
void ComplexFromStream(POLE::Stream* pStream);
};
@ -80,14 +67,8 @@ public:
// тем более это класс - не связанный с RecordHeader
size_t m_lCount;
CProperties() : m_arProperties()
{
}
~CProperties()
{
m_lCount = 0;
m_arProperties.clear();
}
CProperties();
~CProperties();
void FromStream(POLE::Stream* pStream, long lCount);
size_t GetLen();

File diff suppressed because it is too large Load Diff

File diff suppressed because it is too large Load Diff

View File

@ -33,140 +33,282 @@
#include "PptFormula.h"
LONG NSGuidesVML::CFormula::Calculate(NSGuidesVML::CFormulasManager* pManager)
namespace NSGuidesVML
{
if ((0 > m_lIndex) || (m_lIndex >= (int)pManager->m_arResults.size()))
return 0;
if (0xFFFFFFFF != pManager->m_arResults[m_lIndex])
CFormula::CFormula()
{
return pManager->m_arResults[m_lIndex];
}
LONG lResult = 0;
m_eFormulaType = ftSum;
m_lIndex = 0;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
LONG lGuidesCount = (LONG)pManager->m_arFormulas.size();
LONG lAdjCount = (LONG)pManager->m_pAdjustments->size();
LONG a1 = m_lParam1;
if (ptFormula == m_eType1 && !pManager->m_bCalc)
{
pManager->m_bCalc = true;
a1 = (m_lParam1 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam1].Calculate(pManager);
m_lCountRecurs = 0;
}
else if (ptAdjust == m_eType1)
CFormula::CFormula(int nIndex)
{
a1 = (m_lParam1 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam1];
}
pManager->m_bCalc = false;
m_eFormulaType = ftSum;
m_lIndex = nIndex;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
LONG b1 = m_lParam2;
if (ptFormula == m_eType2 && !pManager->m_bCalc)
{
pManager->m_bCalc = true;
b1 = (m_lParam2 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam2].Calculate(pManager);
m_lCountRecurs = 0;
}
else if (ptAdjust == m_eType2)
CFormula& CFormula::operator =(const CFormula& oSrc)
{
b1 = (m_lParam2 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam2];
m_eFormulaType = oSrc.m_eFormulaType;
m_lIndex = oSrc.m_lIndex;
m_lParam1 = oSrc.m_lParam1;
m_eType1 = oSrc.m_eType1;
m_lParam2 = oSrc.m_lParam2;
m_eType2 = oSrc.m_eType2;
m_lParam3 = oSrc.m_lParam3;
m_eType3 = oSrc.m_eType3;
m_lCountRecurs = 0;
return (*this);
}
pManager->m_bCalc = false;
LONG c1 = m_lParam3;
if (ptFormula == m_eType3 && !pManager->m_bCalc)
void CFormula::FromString(std::wstring strFormula, long lShapeWidth, long lShapeHeight)
{
pManager->m_bCalc = true;
c1 = (m_lParam3 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam3].Calculate(pManager);
}
else if (ptAdjust == m_eType3)
{
c1 = (m_lParam3 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam3];
}
pManager->m_bCalc = false;
std::vector<std::wstring> oArrayParams;
boost::algorithm::split(oArrayParams, strFormula, boost::algorithm::is_any_of(L" "), boost::algorithm::token_compress_on);
double a = (double)a1;
double b = (double)b1;
double c = (double)c1;
int nCount = (int)oArrayParams.size();
if (0 >= nCount)
return;
double dRes = 0.0;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
try
{
// теперь нужно просто посчитать
switch (m_eFormulaType)
ParamType ptType = ptValue;
if (1 < nCount)
{
case ftSum: { dRes = a + b - c; break; }
case ftProduct: {
if (0 == c)
c = 1;
dRes = a * b / c;
break;
}
case ftMid: { dRes = (a + b) / 2.0; break; }
case ftAbsolute: { dRes = abs(a); break; }
case ftMin: { dRes = (std::min)(a, b); break; }
case ftMax: { dRes = (std::max)(a, b); break; }
case ftIf: { dRes = (a > 0) ? b : c; break; }
case ftSqrt: { dRes = sqrt(a); break; }
case ftMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftSin: {
//dRes = a * sin(b);
//dRes = a * sin(b / pow2_16);
dRes = a * sin(M_PI * b / (pow2_16 * 180));
break;
}
case ftCos: {
//dRes = a * cos(b);
//dRes = a * cos(b / pow2_16);
dRes = a * cos(M_PI * b / (pow2_16 * 180));
break;
}
case ftTan: {
//dRes = a * tan(b);
dRes = a * tan(M_PI * b / (pow2_16 * 180));
break;
}
case ftAtan2: {
dRes = 180 * pow2_16 * atan2(b,a) / M_PI;
break;
}
case ftSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftSumangle: {
//dRes = a + b - c;
dRes = a + b * pow2_16 - c * pow2_16;
/*while (23592960 < dRes)
{
dRes -= 23592960;
}
while (-23592960 > dRes)
{
dRes += 23592960;
}*/
break;
}
case ftEllipse: {
if (0 == b)
b = 1;
dRes = c * sqrt(1-(a*a/(b*b)));
break;
}
case ftVal: { dRes = a; break; }
default: break;
};
m_lParam1 = GetValue(oArrayParams[1], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType1 = ptType;
}
if (2 < nCount)
{
m_lParam2 = GetValue(oArrayParams[2], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType2 = ptType;
}
if (3 < nCount)
{
m_lParam3 = GetValue(oArrayParams[3], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType3 = ptType;
}
}
catch (...)
LONG CFormula::Calculate(NSGuidesVML::CFormulasManager* pManager)
{
dRes = 0;
if ((0 > m_lIndex) || (m_lIndex >= (int)pManager->m_arResults.size()))
return 0;
if (0xFFFFFFFF != pManager->m_arResults[m_lIndex])
{
return pManager->m_arResults[m_lIndex];
}
LONG lResult = 0;
LONG lGuidesCount = (LONG)pManager->m_arFormulas.size();
LONG lAdjCount = (LONG)pManager->m_pAdjustments->size();
LONG a1 = m_lParam1;
if (ptFormula == m_eType1 && !pManager->m_bCalc)
{
pManager->m_bCalc = true;
a1 = (m_lParam1 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam1].Calculate(pManager);
}
else if (ptAdjust == m_eType1)
{
a1 = (m_lParam1 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam1];
}
pManager->m_bCalc = false;
LONG b1 = m_lParam2;
if (ptFormula == m_eType2 && !pManager->m_bCalc)
{
pManager->m_bCalc = true;
b1 = (m_lParam2 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam2].Calculate(pManager);
}
else if (ptAdjust == m_eType2)
{
b1 = (m_lParam2 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam2];
}
pManager->m_bCalc = false;
LONG c1 = m_lParam3;
if (ptFormula == m_eType3 && !pManager->m_bCalc)
{
pManager->m_bCalc = true;
c1 = (m_lParam3 >= lGuidesCount) ? 0 : pManager->m_arFormulas[m_lParam3].Calculate(pManager);
}
else if (ptAdjust == m_eType3)
{
c1 = (m_lParam3 >= lAdjCount) ? 0 : (*(pManager->m_pAdjustments))[m_lParam3];
}
pManager->m_bCalc = false;
double a = (double)a1;
double b = (double)b1;
double c = (double)c1;
double dRes = 0.0;
try
{
// теперь нужно просто посчитать
switch (m_eFormulaType)
{
case ftSum: { dRes = a + b - c; break; }
case ftProduct: {
if (0 == c)
c = 1;
dRes = a * b / c;
break;
}
case ftMid: { dRes = (a + b) / 2.0; break; }
case ftAbsolute: { dRes = abs(a); break; }
case ftMin: { dRes = (std::min)(a, b); break; }
case ftMax: { dRes = (std::max)(a, b); break; }
case ftIf: { dRes = (a > 0) ? b : c; break; }
case ftSqrt: { dRes = sqrt(a); break; }
case ftMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftSin: {
//dRes = a * sin(b);
//dRes = a * sin(b / pow2_16);
dRes = a * sin(M_PI * b / (pow2_16 * 180));
break;
}
case ftCos: {
//dRes = a * cos(b);
//dRes = a * cos(b / pow2_16);
dRes = a * cos(M_PI * b / (pow2_16 * 180));
break;
}
case ftTan: {
//dRes = a * tan(b);
dRes = a * tan(M_PI * b / (pow2_16 * 180));
break;
}
case ftAtan2: {
dRes = 180 * pow2_16 * atan2(b,a) / M_PI;
break;
}
case ftSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftSumangle: {
//dRes = a + b - c;
dRes = a + b * pow2_16 - c * pow2_16;
/*while (23592960 < dRes)
{
dRes -= 23592960;
}
while (-23592960 > dRes)
{
dRes += 23592960;
}*/
break;
}
case ftEllipse: {
if (0 == b)
b = 1;
dRes = c * sqrt(1-(a*a/(b*b)));
break;
}
case ftVal: { dRes = a; break; }
default: break;
};
}
catch (...)
{
dRes = 0;
}
lResult = (LONG)dRes;
pManager->m_arResults[m_lIndex] = lResult;
return lResult;
}
lResult = (LONG)dRes;
pManager->m_arResults[m_lIndex] = lResult;
return lResult;
CFormulasManager::CFormulasManager() : m_bCalc(false)
{
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CFormulasManager& CFormulasManager::operator =(const CFormulasManager& oSrc)
{
m_bCalc = oSrc.m_bCalc;
m_pAdjustments = oSrc.m_pAdjustments;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
m_arResults.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arResults.size(); ++nIndex)
{
m_arResults.push_back(oSrc.m_arResults[nIndex]);
}
m_arFormulas.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arFormulas.size(); ++nIndex)
{
m_arFormulas.push_back(oSrc.m_arFormulas[nIndex]);
}
return (*this);
}
void CFormulasManager::Clear()
{
m_bCalc = false;
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
m_arFormulas.clear();
m_arResults.clear();
}
void CFormulasManager::Clear(std::vector<LONG>* pAdjusts)
{
m_pAdjustments = pAdjusts;
//m_arFormulas.clear();
//m_arResults.clear();
for (size_t nIndex = 0; nIndex < m_arResults.size(); ++nIndex)
{
m_arResults[nIndex] = 0xFFFFFFFF;
}
}
void CFormulasManager::AddFormula(std::wstring strFormula)
{
CFormula oFormula((int)m_arFormulas.size());
oFormula.FromString(strFormula, m_lShapeWidth, m_lShapeHeight);
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CFormulasManager::AddFormula(CFormula oFormula)
{
oFormula.m_lIndex = (int)m_arFormulas.size();
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CFormulasManager::CalculateResults()
{
for (size_t index = 0; index < m_arFormulas.size(); ++index)
{
LONG lResult = m_arFormulas[index].Calculate(this);
}
//m_pAdjustments = NULL;
//m_arFormulas.clear();
}
}

View File

@ -121,83 +121,84 @@ namespace NSGuidesVML
};
static long GetValue(std::wstring strParam, ParamType& ptType, bool& bRes,
long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML)
{
ptType = ptValue;
bRes = true;
long val = 0;
long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML)
{
ptType = ptValue;
bRes = true;
long val = 0;
if ('#' == strParam[0])
{
ptType = ptAdjust;
val = XmlUtils::GetInteger(strParam.substr(1));
}
else if ('@' == strParam[0])
{
ptType = ptFormula;
val = XmlUtils::GetInteger(strParam.substr(1));
}
else if (!NSStringUtils::IsNumber(strParam))
{
if (_T("width") == strParam)
{
val = lShapeWidth;
}
else if (_T("height") == strParam)
{
val = lShapeHeight;
}
else if (_T("pixelWidth") == strParam)
{
val = lShapeWidth;
}
else if (_T("pixelHeight") == strParam)
{
val = lShapeHeight;
}
else if (_T("pixelLineWidth") == strParam || _T("lineDrawn") == strParam)
{
val = 1;
}
else
{
bRes = false;
return 0;
}
}
else
{
ptType = ptValue;
val = XmlUtils::GetInteger(strParam);
}
return val;
}
if ('#' == strParam[0])
{
ptType = ptAdjust;
val = XmlUtils::GetInteger(strParam.substr(1));
}
else if ('@' == strParam[0])
{
ptType = ptFormula;
val = XmlUtils::GetInteger(strParam.substr(1));
}
else if (!NSStringUtils::IsNumber(strParam))
{
if (_T("width") == strParam)
{
val = lShapeWidth;
}
else if (_T("height") == strParam)
{
val = lShapeHeight;
}
else if (_T("pixelWidth") == strParam)
{
val = lShapeWidth;
}
else if (_T("pixelHeight") == strParam)
{
val = lShapeHeight;
}
else if (_T("pixelLineWidth") == strParam || _T("lineDrawn") == strParam)
{
val = 1;
}
else
{
bRes = false;
return 0;
}
}
else
{
ptType = ptValue;
val = XmlUtils::GetInteger(strParam);
}
return val;
}
static FormulaType GetFormula(std::wstring strName, bool& bRes)
{
bRes = true;
if (_T("sum") == strName) return ftSum;
else if ((_T("prod") == strName) || (_T("product") == strName)) return ftProduct;
else if (_T("mid") == strName) return ftMid;
else if ((_T("absolute") == strName) || (_T("abs") == strName)) return ftAbsolute;
else if (_T("min") == strName) return ftMin;
else if (_T("max") == strName) return ftMax;
else if (_T("if") == strName) return ftIf;
else if (_T("sqrt") == strName) return ftSqrt;
else if (_T("mod") == strName) return ftMod;
else if (_T("sin") == strName) return ftSin;
else if (_T("cos") == strName) return ftCos;
else if (_T("tan") == strName) return ftTan;
else if (_T("atan2") == strName) return ftAtan2;
else if (_T("sinatan2") == strName) return ftSinatan2;
else if (_T("cosatan2") == strName) return ftCosatan2;
else if (_T("sumangle") == strName) return ftSumangle;
else if (_T("ellipse") == strName) return ftEllipse;
else if (_T("val") == strName) return ftVal;
else bRes = false;
static FormulaType GetFormula(std::wstring strName, bool& bRes)
{
bRes = true;
if (_T("sum") == strName) return ftSum;
else if ((_T("prod") == strName) || (_T("product") == strName)) return ftProduct;
else if (_T("mid") == strName) return ftMid;
else if ((_T("absolute") == strName) || (_T("abs") == strName)) return ftAbsolute;
else if (_T("min") == strName) return ftMin;
else if (_T("max") == strName) return ftMax;
else if (_T("if") == strName) return ftIf;
else if (_T("sqrt") == strName) return ftSqrt;
else if (_T("mod") == strName) return ftMod;
else if (_T("sin") == strName) return ftSin;
else if (_T("cos") == strName) return ftCos;
else if (_T("tan") == strName) return ftTan;
else if (_T("atan2") == strName) return ftAtan2;
else if (_T("sinatan2") == strName) return ftSinatan2;
else if (_T("cosatan2") == strName) return ftCosatan2;
else if (_T("sumangle") == strName) return ftSumangle;
else if (_T("ellipse") == strName) return ftEllipse;
else if (_T("val") == strName) return ftVal;
else bRes = false;
return ftVal;
}
return ftVal;
}
struct SPointType
{
ParamType x;
@ -238,9 +239,11 @@ namespace NSGuidesVML
Aggplus::POINT PolarCentre;
SPointType PolarCentreType;
};
};
class CFormulasManager;
class CFormula
class CFormula
{
public:
FormulaType m_eFormulaType;
@ -259,75 +262,12 @@ namespace NSGuidesVML
long m_lCountRecurs;
public:
CFormula()
{
m_eFormulaType = ftSum;
m_lIndex = 0;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
CFormula();
CFormula(int nIndex);
m_lCountRecurs = 0;
}
CFormula& operator =(const CFormula& oSrc);
CFormula(int nIndex)
{
m_eFormulaType = ftSum;
m_lIndex = nIndex;
m_lParam1 = 0; m_eType1 = ptValue;
m_lParam2 = 0; m_eType2 = ptValue;
m_lParam3 = 0; m_eType3 = ptValue;
m_lCountRecurs = 0;
}
CFormula& operator =(const CFormula& oSrc)
{
m_eFormulaType = oSrc.m_eFormulaType;
m_lIndex = oSrc.m_lIndex;
m_lParam1 = oSrc.m_lParam1;
m_eType1 = oSrc.m_eType1;
m_lParam2 = oSrc.m_lParam2;
m_eType2 = oSrc.m_eType2;
m_lParam3 = oSrc.m_lParam3;
m_eType3 = oSrc.m_eType3;
m_lCountRecurs = 0;
return (*this);
}
void FromString(std::wstring strFormula, long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML)
{
std::vector<std::wstring> oArrayParams;
boost::algorithm::split(oArrayParams, strFormula, boost::algorithm::is_any_of(L" "), boost::algorithm::token_compress_on);
int nCount = (int)oArrayParams.size();
if (0 >= nCount)
return;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
ParamType ptType = ptValue;
if (1 < nCount)
{
m_lParam1 = GetValue(oArrayParams[1], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType1 = ptType;
}
if (2 < nCount)
{
m_lParam2 = GetValue(oArrayParams[2], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType2 = ptType;
}
if (3 < nCount)
{
m_lParam3 = GetValue(oArrayParams[3], ptType, bRes, lShapeWidth, lShapeHeight);
m_eType3 = ptType;
}
}
void FromString(std::wstring strFormula, long lShapeWidth = ShapeSizeVML, long lShapeHeight = ShapeSizeVML);
LONG Calculate(CFormulasManager* pManager);
};
@ -344,79 +284,16 @@ namespace NSGuidesVML
bool m_bCalc; //status
CFormulasManager() : m_bCalc(false)
{
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
}
CFormulasManager& operator =(const CFormulasManager& oSrc)
{
m_bCalc = oSrc.m_bCalc;
m_pAdjustments = oSrc.m_pAdjustments;
m_lShapeWidth = oSrc.m_lShapeWidth;
m_lShapeHeight = oSrc.m_lShapeHeight;
CFormulasManager();
m_arResults.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arResults.size(); ++nIndex)
{
m_arResults.push_back(oSrc.m_arResults[nIndex]);
}
m_arFormulas.clear();
for (size_t nIndex = 0; nIndex < oSrc.m_arFormulas.size(); ++nIndex)
{
m_arFormulas.push_back(oSrc.m_arFormulas[nIndex]);
}
CFormulasManager& operator =(const CFormulasManager& oSrc);
return (*this);
}
void Clear();
void Clear(std::vector<LONG>* pAdjusts);
void Clear()
{
m_bCalc = false;
m_pAdjustments = NULL;
m_lShapeWidth = ShapeSizeVML;
m_lShapeHeight = ShapeSizeVML;
void AddFormula(std::wstring strFormula);
void AddFormula(CFormula oFormula);
m_arFormulas.clear();
m_arResults.clear();
}
void Clear(std::vector<LONG>* pAdjusts)
{
m_pAdjustments = pAdjusts;
//m_arFormulas.clear();
//m_arResults.clear();
for (size_t nIndex = 0; nIndex < m_arResults.size(); ++nIndex)
{
m_arResults[nIndex] = 0xFFFFFFFF;
}
}
void AddFormula(std::wstring strFormula)
{
CFormula oFormula((int)m_arFormulas.size());
oFormula.FromString(strFormula, m_lShapeWidth, m_lShapeHeight);
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void AddFormula(CFormula oFormula)
{
oFormula.m_lIndex = (int)m_arFormulas.size();
m_arFormulas.push_back(oFormula);
m_arResults.push_back(0xFFFFFFFF);
}
void CalculateResults()
{
for (size_t index = 0; index < m_arFormulas.size(); ++index)
{
LONG lResult = m_arFormulas[index].Calculate(this);
}
//m_pAdjustments = NULL;
//m_arFormulas.clear();
}
void CalculateResults();
};
}

View File

@ -0,0 +1,569 @@
/*
* (c) Copyright Ascensio System SIA 2010-2019
*
* This program is a free software product. You can redistribute it and/or
* modify it under the terms of the GNU Affero General Public License (AGPL)
* version 3 as published by the Free Software Foundation. In accordance with
* Section 7(a) of the GNU AGPL its Section 15 shall be amended to the effect
* that Ascensio System SIA expressly excludes the warranty of non-infringement
* of any third-party rights.
*
* This program is distributed WITHOUT ANY WARRANTY; without even the implied
* warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For
* details, see the GNU AGPL at: http://www.gnu.org/licenses/agpl-3.0.html
*
* You can contact Ascensio System SIA at 20A-12 Ernesta Birznieka-Upisha
* street, Riga, Latvia, EU, LV-1050.
*
* The interactive user interfaces in modified source and object code versions
* of the Program must display Appropriate Legal Notices, as required under
* Section 5 of the GNU AGPL version 3.
*
* Pursuant to Section 7(b) of the License you must retain the original Product
* logo when distributing the program. Pursuant to Section 7(e) we decline to
* grant you any rights under trademark law for use of our trademarks.
*
* All the Product's GUI elements, including illustrations and icon sets, as
* well as technical writing content are licensed under the terms of the
* Creative Commons Attribution-ShareAlike 4.0 International. See the License
* terms at http://creativecommons.org/licenses/by-sa/4.0/legalcode
*
*/
#include "Pptx2PptShapeConverter.h"
namespace NSGuidesVML
{
CConverterPPTXPPT::CConverterPPTXPPT()
{
m_lPPTX2PPT = -1;
m_lPPT2PPTX = -1;
m_lIndexDst = -1;
m_lIndexAdj = -1;
pPPTShape = new CPPTShape();
}
void CConverterPPTXPPT::Convert ( CPPTXShape* pPPTXShape )
{
ConvertAdjastments ( pPPTXShape->m_arAdjustments, pPPTXShape->FManager.mapAdjustments );
AddSizeGuides ((LONG)pPPTXShape->FManager.GetWidth(), (LONG)pPPTXShape->FManager.GetHeight());
ConvertGuides ( pPPTXShape->FManager.strGuides, pPPTXShape->FManager.mapGuides);
ConvertPath( pPPTXShape->m_strPath, pPPTXShape->FManager.strGuides, pPPTXShape->FManager.mapGuides);
//TODO текстовые поля
//ConvertTextRects ( pPPTXShape->m_arStringTextRects );
ConvertHandles ( pPPTXShape->m_arHandles );
//ConvertType ( pPPTXShape->m_eType );
//------------------------------------
int i=0;
}
void CConverterPPTXPPT::ConvertHandles (std::vector<CHandle_>& arHnd)
{
for (size_t nIndex=0; nIndex<arHnd.size(); nIndex++)
{
CHandle_ oHandle;
//TODO переименовать названия формул и прокинуть текстовые атрибуты topleft, rightbottom в полях хендла
pPPTShape->m_arHandles.push_back(oHandle);
}
return;
}
void CConverterPPTXPPT::ConvertAdjastments( std::vector<long> &arAdj, std::map<std::wstring, long> &mapAdj )
{
int i=0;
for( std::map<std::wstring, long>::iterator pPair = mapAdj.begin(); pPair != mapAdj.end(); i++, ++pPair)
{
m_arMapAdj.insert(std::pair<std::wstring, LONG>(pPair->first, ++m_lIndexAdj));
pPPTShape->m_arAdjustments.push_back(arAdj[i]);
}
//это аджасменты для перевода углов tan(angle, adj)
//тк все угла в формулах считаются в pptx
//pptx->ppt
pPPTShape->m_arAdjustments.push_back(3114601);
m_lPPTX2PPT = ++m_lIndexAdj;
//ppt->pptx
pPPTShape->m_arAdjustments.push_back(2783638);
m_lPPT2PPTX = ++m_lIndexAdj;
return;
}
void CConverterPPTXPPT::ConvertTextRects (std::vector<std::wstring> &arTextRects)
{
pPPTShape->m_arStringTextRects.insert( pPPTShape->m_arStringTextRects.end(), arTextRects.begin(), arTextRects.end());
return;
}
void CConverterPPTXPPT::ConvertType (OOXMLShapes::ShapeType eType)
{
switch (eType)
{
case OOXMLShapes::sptCRect:
pPPTShape->m_eType = PPTShapes::sptCRect;
break;
case OOXMLShapes::sptCArc:
pPPTShape->m_eType = PPTShapes::sptCRect;
break;
default:
pPPTShape->m_eType = PPTShapes::sptCustom;
}
return;
}
void CConverterPPTXPPT::AddSizeGuides (LONG lWidth, LONG lHeight)
{
//TODO прокинуть w и h в формулах
NSGuidesVML::CFormula pNewFmla3;
pNewFmla3.m_eFormulaType = ftVal;
pNewFmla3.m_lIndex = ++m_lIndexDst;
pNewFmla3.m_eType1 = ptValue;
pNewFmla3.m_lParam1 = 21600;// lWidth;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla3);
m_arMapFormula.insert(std::pair<std::wstring, LONG>(_T("w"), m_lIndexDst));
pNewFmla3.m_lIndex = ++m_lIndexDst;
pNewFmla3.m_eType1 = ptValue;
pNewFmla3.m_lParam1 = 21600;//lHeight;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla3);
m_arMapFormula.insert(std::pair<std::wstring, LONG>(_T("h"), m_lIndexDst));
return;
}
LONG CConverterPPTXPPT::ConvertFmlaParam (std::wstring strParam, NSGuidesVML::ParamType &eType, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
LONG lVal = 0;
std::map<std::wstring, LONG>::iterator NumFmla = m_arMapFormula.find(strParam);
std::map<std::wstring, LONG>::iterator NumAdj = m_arMapAdj.find(strParam);
std::map<std::wstring, LONG>::iterator NumGuides = mapGuides.find(strParam);
if (NumAdj != m_arMapAdj.end())
{
eType = ptAdjust;
lVal = NumAdj->second;
}
else if (NumFmla == m_arMapFormula.end())
{
//пришло число
if (NumGuides == mapGuides.end())
{
lVal = (LONG)XmlUtils::GetInteger(strParam);
if (lVal > 65535)
{
ConvertFmla( ftSumangle, lVal%65536, ptValue, (int)lVal/65536, ptValue, 0, ptValue);
eType = ptFormula;
lVal = m_lIndexDst;
}
else if (lVal < 0)
{
ConvertFmla( ftSum, 0, ptValue, 0, ptValue, abs(lVal), ptValue);
eType = ptFormula;
lVal = m_lIndexDst;
}
else
eType = ptValue;
}
else //пришла стандартная формула из набора, которую надо теперь добавить
{
LONG lNumGuides = NumGuides->second;
NSGuidesOOXML::CFormula pFormula = strGuides[lNumGuides];
//strKey = mapGuides.GetKeyAt(lNumGuides);
int ind =0;
for (std::map<std::wstring, long>::iterator p = mapGuides.begin(); p!= mapGuides.end(); ++p)
{
if (ind == lNumGuides)
{
strKey = p->first;
break;
}
}
ConvertGuid(pFormula, strKey, strGuides, mapGuides);
eType = ptFormula;
lVal = m_lIndexDst;
}
}
else
{
eType = ptFormula;
std::map<std::wstring, LONG>::iterator Val = m_arMapFormula.find(strParam);
lVal = Val->second;
}
return lVal;
}
void CConverterPPTXPPT::ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2, LONG lParam3, ParamType eType3 )
{
NSGuidesVML::CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pNewFmla.m_eType2 = eType2;
pNewFmla.m_lParam2 = lParam2;
pNewFmla.m_eType3 = eType3;
pNewFmla.m_lParam3 = lParam3;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void CConverterPPTXPPT::ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2 )
{
CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pNewFmla.m_eType2 = eType2;
pNewFmla.m_lParam2 = lParam2;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void CConverterPPTXPPT::ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1 )
{
CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void CConverterPPTXPPT::ConvertGuid ( NSGuidesOOXML::CFormula pFormula, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
LONG lParam1, lParam2, lParam3;
NSGuidesVML::ParamType eType1, eType2, eType3;
lParam1 = ConvertFmlaParam(pFormula.m_lParam1, eType1, strKey, strGuides, mapGuides);
lParam2 = ConvertFmlaParam(pFormula.m_lParam2, eType2, strKey, strGuides, mapGuides);
lParam3 = ConvertFmlaParam(pFormula.m_lParam3, eType3, strKey, strGuides, mapGuides);
switch (pFormula.m_eFormulaType)
{
case NSGuidesOOXML::CFormula::ftOOXMLSum:
ConvertFmla( ftSum, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLProduct:
ConvertFmla( ftProduct, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLIf:
ConvertFmla( ftIf, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAbsolute:
ConvertFmla( ftAbsolute, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAtan2:
ConvertFmla( ftAtan2, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLCos:
ConvertFmla( ftCos, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMax:
ConvertFmla( ftMax, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMin:
ConvertFmla( ftMin, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMod:
ConvertFmla( ftMod, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSinatan2:
ConvertFmla( ftSinatan2, lParam1, eType1, lParam2, eType2, lParam3, eType3);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLCosatan2:
ConvertFmla( ftCosatan2, lParam1, eType1, lParam2, eType2, lParam3, eType3);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSin:
ConvertFmla( ftSin, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSqrt:
ConvertFmla( ftSqrt, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLTan:
ConvertFmla( ftTan, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLVal:
ConvertFmla( ftVal, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAddDivide:
ConvertFmla( ftSum, lParam1, eType1, lParam2, eType2, 0, ptValue);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, 1, ptValue, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLPin:
ConvertFmla( ftSum, lParam1, eType1, 0, ptValue, lParam2, eType2);
ConvertFmla( ftSum, lParam2, eType2, 0, ptValue, lParam3, eType3);
ConvertFmla( ftIf, m_lIndexDst, ptFormula, lParam3, eType3, lParam2, eType2);
ConvertFmla( ftIf, m_lIndexDst-2, ptFormula, lParam1, eType1, m_lIndexDst, ptFormula);
break;
}
m_arMapFormula.insert(std::pair<std::wstring, LONG>(strKey, m_lIndexDst));
return;
}
void CConverterPPTXPPT::ConvertGuides ( std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides )
{
//стандартные формулы для пптх будем добавлять, если только они встретятся
for (size_t nIndex=32; nIndex < strGuides.size(); ++nIndex)
{
NSGuidesOOXML::CFormula pFormula = strGuides[nIndex];
std::wstring strKey;// = mapGuides.GetKeyAt(nIndex);
int ind =0;
for (std::map<std::wstring, long>::iterator p = mapGuides.begin(); p!= mapGuides.end(); ++p)
{
if (ind == nIndex)
{
strKey = p->first;
break;
}
}
ConvertGuid(pFormula, strKey, strGuides, mapGuides);
}
}
void CConverterPPTXPPT::ConvertPath(const std::wstring& xml, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
XmlUtils::CXmlNode pathLst;
if(pathLst.FromXmlString(xml))
{
XmlUtils::CXmlNodes list;
if (pathLst.GetNodes(_T("path"), list))
{
int nPathCount = list.GetCount();
for (int i=0; i<nPathCount; i++)
{
XmlUtils::CXmlNode PathNode;
if(list.GetAt(i, PathNode))
{
XmlUtils::CXmlNodes listNode;
PathNode.GetNodes(_T("*"), listNode);
bool bFill = PathNode.GetAttribute(_T("fill"), _T("norm")) != _T("none");
std::wstring stroke = PathNode.GetAttribute(_T("stroke"), _T("true"));
bool bStroke = (stroke == _T("true")) || (stroke == _T("1"));
int nNodeCount = listNode.GetCount();
for (int j=0; j<nNodeCount; j++)
{
XmlUtils::CXmlNode node;
if(listNode.GetAt(j, node))
{
bool bNum = false; //управляем запятыми
std::wstring strName = node.GetName();
if (strName == _T("moveTo"))
pPPTShape->m_strPath += _T("m");
else if (strName == _T("lnTo"))
pPPTShape->m_strPath += _T("l");
else if (strName == _T("arcTo"))
pPPTShape->m_strPath += _T("ae");
else if (strName == _T("cubicBezTo"))
pPPTShape->m_strPath += _T("c");
else if (strName == _T("quadBezTo"))
pPPTShape->m_strPath += _T("qb");
else
pPPTShape->m_strPath += _T("x");
if (strName == _T("arcTo"))
{
LONG lStartX = m_lIndexDst-1, lStartY = m_lIndexDst;
LONG lParam1, lParam2, lParam3, lParam4;
NSGuidesVML::ParamType eType1, eType2, eType3, eType4;
lParam1 = ConvertFmlaParam(node.GetAttribute(_T("wR")), eType1, node.GetAttribute(_T("wR")), strGuides, mapGuides);
lParam2 = ConvertFmlaParam(node.GetAttribute(_T("hR")), eType2, node.GetAttribute(_T("hR")), strGuides, mapGuides);
lParam3 = ConvertFmlaParam(node.GetAttribute(_T("stAng")), eType3, node.GetAttribute(_T("stAng")), strGuides, mapGuides);
lParam4 = ConvertFmlaParam(node.GetAttribute(_T("swAng")), eType4, node.GetAttribute(_T("swAng")), strGuides, mapGuides);
//stAng
ConvertFmla( ftTan, lParam3, eType3, m_lPPTX2PPT, ptAdjust);
//swAng
ConvertFmla( ftTan, lParam4, eType4, m_lPPTX2PPT, ptAdjust);
//a
ConvertFmla( ftVal, lParam1, eType1);
//b
ConvertFmla( ftVal, lParam2, eType2);
LONG lstAng = m_lIndexDst-3, lswAng = m_lIndexDst-2, la = m_lIndexDst-1, lb = m_lIndexDst;
//радиус эллипса в stAng--------------------
//(b*cos)^2
ConvertFmla( ftCos, m_lIndexDst, ptFormula, m_lIndexDst-3, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
//(a*sin)^2
ConvertFmla( ftSin, m_lIndexDst-3, ptFormula, m_lIndexDst-5, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
ConvertFmla( ftSum, m_lIndexDst-2, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
ConvertFmla( ftSqrt, m_lIndexDst, ptFormula);
//r
ConvertFmla( ftProduct, la, ptFormula, lb, ptFormula, m_lIndexDst, ptFormula);
//r*cos(stAng)
ConvertFmla( ftCos, m_lIndexDst, ptFormula, lstAng, ptFormula);
//xc
ConvertFmla( ftSum, lStartX, ptFormula, 0, ptValue, m_lIndexDst, ptFormula);
//r*sin(stAng)
ConvertFmla( ftSin, m_lIndexDst-2, ptFormula, lstAng, ptFormula);
//yc
ConvertFmla( ftSum, lStartY, ptFormula, 0, ptValue, m_lIndexDst, ptFormula);
//endAng
ConvertFmla( ftSum, lstAng, ptFormula, lswAng, ptFormula, 0, ptValue);
//радиус эллипса в endAng--------------------
//(b*cos)^2
ConvertFmla( ftCos, lb, ptFormula, m_lIndexDst, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
//(a*sin)^2
ConvertFmla( ftSin, la, ptFormula, m_lIndexDst-2, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
ConvertFmla( ftSum, m_lIndexDst-2, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
ConvertFmla( ftSqrt, m_lIndexDst, ptFormula);
//r
ConvertFmla( ftProduct, la, ptFormula, lb, ptFormula, m_lIndexDst, ptFormula);
//r*cos(endAng)
ConvertFmla( ftCos, m_lIndexDst, ptFormula, m_lIndexDst-7, ptFormula);
//xEnd
ConvertFmla( ftSum, m_lIndexDst-11, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
//r*sin(endAng)
ConvertFmla( ftSin, m_lIndexDst-2, ptFormula, m_lIndexDst-9, ptFormula);
//yEnd
ConvertFmla( ftSum, m_lIndexDst-11, ptFormula, m_lIndexDst, ptFormula, 0, ptValue );
std::wstring xC = L"@" + std::to_wstring( m_lIndexDst-14);
std::wstring yC = L"@" + std::to_wstring( m_lIndexDst-12);
std::wstring wR = L"@" + std::to_wstring( la);
std::wstring hR = L"@" + std::to_wstring( lb);
//360
ConvertFmla( ftSumangle, 0, ptValue, 360, ptValue, 0, ptValue );
//360-stAng
ConvertFmla( ftSum, m_lIndexDst, ptFormula, 0, ptValue, lstAng, ptFormula);
//-1
ConvertFmla( ftSum, 0, ptValue, 0, ptValue, 1, ptValue);
//-1*swAng
ConvertFmla( ftProduct, lswAng, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
std::wstring stAng = L"@" + std::to_wstring( m_lIndexDst-2);
std::wstring swAng = L"@" + std::to_wstring( m_lIndexDst);
//std::wstring xEnd = _T(""); xEnd.Format(_T("@%d"), m_lIndexDst-5);
//std::wstring yEnd = _T(""); yEnd.Format(_T("@%d"), m_lIndexDst-4);
pPPTShape->m_strPath += xC + yC + wR + hR + stAng + swAng;
ConvertFmla( ftVal, m_lIndexDst - 6, ptFormula);
ConvertFmla( ftVal, m_lIndexDst - 5, ptFormula);
}
else
{
XmlUtils::CXmlNodes ptList;
node.GetNodes(_T("pt"), ptList);
int nPtCount = ptList.GetCount();
for (int k=0; k<nPtCount; k++)
{
bool bLastPount = false;
if ( k == nPtCount-1)
bLastPount = true;
XmlUtils::CXmlNode ptNode;
if(ptList.GetAt(k, ptNode))
{
std::wstring ptX = ptNode.GetAttribute(_T("x"));
std::wstring ptY = ptNode.GetAttribute(_T("y"));
pPPTShape->m_strPath += ConvertPathPoint( ptX, ptY, bNum, strGuides, mapGuides, bLastPount);
}
}
}
}
}
if (!bFill)
pPPTShape->m_strPath += _T("nf");
if (!bStroke)
pPPTShape->m_strPath += _T("ns");
}
pPPTShape->m_strPath += _T("e");
}
}
}
return;
}
LONG CConverterPPTXPPT::ConvertArcParam (std::wstring strParam, NSGuidesVML::ParamType &eType)
{
LONG lVal = 0;
std::map<std::wstring, LONG>::iterator NumFmla = m_arMapFormula.find(strParam);
std::map<std::wstring, LONG>::iterator NumAdj = m_arMapAdj.find(strParam);
if (NumAdj != m_arMapAdj.end())
{
eType = ptAdjust;
lVal = NumAdj->second; //индекс в map ???
}
else if (NumFmla == m_arMapFormula.end())
{
eType = ptValue;
lVal = (LONG)XmlUtils::GetInteger(strParam);
}
else
{
eType = ptFormula;
lVal = m_arMapFormula.find(strParam)->second;
}
return lVal;
}
std::wstring CConverterPPTXPPT::ConvertPathPoint (std::wstring strX, std::wstring strY, bool &bNum, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides, bool bLPoint)
{
std::wstring strRes = _T("");
ParamType eType1, eType2;
LONG lParam1, lParam2;
if (bNum)
strRes += _T(",");
lParam1 = ConvertFmlaParam(strX, eType1, strX, strGuides, mapGuides);
strRes += ConvertPathParam (lParam1, eType1, bNum);
if (bNum)
strRes += _T(",");
lParam2 = ConvertFmlaParam(strY, eType2, strY, strGuides, mapGuides);
strRes += ConvertPathParam (lParam2, eType2, bNum);
if (bLPoint)
{
ConvertFmla( ftVal, lParam1, eType1);
ConvertFmla( ftVal, lParam2, eType2);
}
return strRes;
}
std::wstring CConverterPPTXPPT::ConvertPathParam (LONG lParam, ParamType eType, bool &bNum)
{
std::wstring strRes;
if (eType == ptAdjust)
strRes = L"#";
else if (eType == ptValue)
{
bNum = true;
}
else
strRes = L"@";
strRes += std::to_wstring(lParam);
return strRes;
}
}

View File

@ -30,14 +30,12 @@
*
*/
#pragma once
#include "PptxFormula.h"
#include "../Path.h"
#include "../PPTShape/PptFormula.h"
#include "../PPTShape/PptShape.h"
#include "../PPTXShape/PptxShape.h"
#include "../PPTShape/Ppt2PptxShapeConverter.h"
namespace NSGuidesVML
{
class CConverterPPTXPPT
{
private:
@ -58,560 +56,39 @@ namespace NSGuidesVML
LONG m_lPPT2PPTX;
public:
CConverterPPTXPPT ()
{
m_lPPTX2PPT = -1;
m_lPPT2PPTX = -1;
m_lIndexDst = -1;
m_lIndexAdj = -1;
pPPTShape = new CPPTShape();
}
CConverterPPTXPPT();
inline CPPTShape* GetConvertedShape()
{
return pPPTShape;
}
void Convert ( CPPTXShape* pPPTXShape )
{
ConvertAdjastments ( pPPTXShape->m_arAdjustments, pPPTXShape->FManager.mapAdjustments );
AddSizeGuides ((LONG)pPPTXShape->FManager.GetWidth(), (LONG)pPPTXShape->FManager.GetHeight());
ConvertGuides ( pPPTXShape->FManager.strGuides, pPPTXShape->FManager.mapGuides);
ConvertPath( pPPTXShape->m_strPath, pPPTXShape->FManager.strGuides, pPPTXShape->FManager.mapGuides);
void Convert ( CPPTXShape* pPPTXShape );
void ConvertHandles (std::vector<CHandle_>& arHnd);
void ConvertAdjastments( std::vector<long> &arAdj, std::map<std::wstring, long> &mapAdj );
void ConvertTextRects (std::vector<std::wstring> &arTextRects);
void ConvertType (OOXMLShapes::ShapeType eType);
//TODO текстовые поля
//ConvertTextRects ( pPPTXShape->m_arStringTextRects );
ConvertHandles ( pPPTXShape->m_arHandles );
void AddSizeGuides (LONG lWidth, LONG lHeight);
//ConvertType ( pPPTXShape->m_eType );
//------------------------------------
int i=0;
}
LONG ConvertFmlaParam (std::wstring strParam, NSGuidesVML::ParamType &eType, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides);
void ConvertHandles (std::vector<CHandle_>& arHnd)
{
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2, LONG lParam3, ParamType eType3 );
for (size_t nIndex=0; nIndex<arHnd.size(); nIndex++)
{
CHandle_ oHandle;
//TODO переименовать названия формул и прокинуть текстовые атрибуты topleft, rightbottom в полях хендла
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2 );
pPPTShape->m_arHandles.push_back(oHandle);
}
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1 );
return;
}
void ConvertGuid ( NSGuidesOOXML::CFormula pFormula, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides);
void ConvertAdjastments( std::vector<long> &arAdj, std::map<std::wstring, long> &mapAdj )
{
int i=0;
for( std::map<std::wstring, long>::iterator pPair = mapAdj.begin(); pPair != mapAdj.end(); i++, ++pPair)
{
m_arMapAdj.insert(std::pair<std::wstring, LONG>(pPair->first, ++m_lIndexAdj));
pPPTShape->m_arAdjustments.push_back(arAdj[i]);
}
//это аджасменты для перевода углов tan(angle, adj)
//тк все угла в формулах считаются в pptx
//pptx->ppt
pPPTShape->m_arAdjustments.push_back(3114601);
m_lPPTX2PPT = ++m_lIndexAdj;
//ppt->pptx
pPPTShape->m_arAdjustments.push_back(2783638);
m_lPPT2PPTX = ++m_lIndexAdj;
return;
}
void ConvertGuides ( std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides );
void ConvertTextRects (std::vector<std::wstring> &arTextRects)
{
pPPTShape->m_arStringTextRects.insert( pPPTShape->m_arStringTextRects.end(), arTextRects.begin(), arTextRects.end());
return;
}
void ConvertPath(const std::wstring& xml, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides);
void ConvertType (OOXMLShapes::ShapeType eType)
{
switch (eType)
{
case OOXMLShapes::sptCRect:
pPPTShape->m_eType = PPTShapes::sptCRect;
break;
case OOXMLShapes::sptCArc:
pPPTShape->m_eType = PPTShapes::sptCRect;
break;
default:
pPPTShape->m_eType = PPTShapes::sptCustom;
}
return;
}
LONG ConvertArcParam (std::wstring strParam, NSGuidesVML::ParamType &eType);
void AddSizeGuides (LONG lWidth, LONG lHeight)
{
//TODO прокинуть w и h в формулах
NSGuidesVML::CFormula pNewFmla3;
pNewFmla3.m_eFormulaType = ftVal;
pNewFmla3.m_lIndex = ++m_lIndexDst;
pNewFmla3.m_eType1 = ptValue;
pNewFmla3.m_lParam1 = 21600;// lWidth;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla3);
m_arMapFormula.insert(std::pair<std::wstring, LONG>(_T("w"), m_lIndexDst));
std::wstring ConvertPathPoint (std::wstring strX, std::wstring strY, bool &bNum, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides, bool bLPoint);
pNewFmla3.m_lIndex = ++m_lIndexDst;
pNewFmla3.m_eType1 = ptValue;
pNewFmla3.m_lParam1 = 21600;//lHeight;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla3);
m_arMapFormula.insert(std::pair<std::wstring, LONG>(_T("h"), m_lIndexDst));
return;
}
LONG ConvertFmlaParam (std::wstring strParam, NSGuidesVML::ParamType &eType, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
LONG lVal = 0;
std::map<std::wstring, LONG>::iterator NumFmla = m_arMapFormula.find(strParam);
std::map<std::wstring, LONG>::iterator NumAdj = m_arMapAdj.find(strParam);
std::map<std::wstring, LONG>::iterator NumGuides = mapGuides.find(strParam);
if (NumAdj != m_arMapAdj.end())
{
eType = ptAdjust;
lVal = NumAdj->second;
}
else if (NumFmla == m_arMapFormula.end())
{
//пришло число
if (NumGuides == mapGuides.end())
{
lVal = (LONG)XmlUtils::GetInteger(strParam);
if (lVal > 65535)
{
ConvertFmla( ftSumangle, lVal%65536, ptValue, (int)lVal/65536, ptValue, 0, ptValue);
eType = ptFormula;
lVal = m_lIndexDst;
}
else if (lVal < 0)
{
ConvertFmla( ftSum, 0, ptValue, 0, ptValue, abs(lVal), ptValue);
eType = ptFormula;
lVal = m_lIndexDst;
}
else
eType = ptValue;
}
else //пришла стандартная формула из набора, которую надо теперь добавить
{
LONG lNumGuides = NumGuides->second;
NSGuidesOOXML::CFormula pFormula = strGuides[lNumGuides];
//strKey = mapGuides.GetKeyAt(lNumGuides);
int ind =0;
for (std::map<std::wstring, long>::iterator p = mapGuides.begin(); p!= mapGuides.end(); ++p)
{
if (ind == lNumGuides)
{
strKey = p->first;
break;
}
}
ConvertGuid(pFormula, strKey, strGuides, mapGuides);
eType = ptFormula;
lVal = m_lIndexDst;
}
}
else
{
eType = ptFormula;
std::map<std::wstring, LONG>::iterator Val = m_arMapFormula.find(strParam);
lVal = Val->second;
}
return lVal;
}
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2, LONG lParam3, ParamType eType3 )
{
NSGuidesVML::CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pNewFmla.m_eType2 = eType2;
pNewFmla.m_lParam2 = lParam2;
pNewFmla.m_eType3 = eType3;
pNewFmla.m_lParam3 = lParam3;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1, LONG lParam2, ParamType eType2 )
{
CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pNewFmla.m_eType2 = eType2;
pNewFmla.m_lParam2 = lParam2;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void ConvertFmla ( FormulaType eFmlaType, LONG lParam1, ParamType eType1 )
{
CFormula pNewFmla;
pNewFmla.m_lIndex = ++m_lIndexDst;
pNewFmla.m_eFormulaType = eFmlaType;
pNewFmla.m_eType1 = eType1;
pNewFmla.m_lParam1 = lParam1;
pPPTShape->m_oManager.m_arFormulas.push_back(pNewFmla);
return;
}
void ConvertGuid ( NSGuidesOOXML::CFormula pFormula, std::wstring strKey, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
LONG lParam1, lParam2, lParam3;
NSGuidesVML::ParamType eType1, eType2, eType3;
lParam1 = ConvertFmlaParam(pFormula.m_lParam1, eType1, strKey, strGuides, mapGuides);
lParam2 = ConvertFmlaParam(pFormula.m_lParam2, eType2, strKey, strGuides, mapGuides);
lParam3 = ConvertFmlaParam(pFormula.m_lParam3, eType3, strKey, strGuides, mapGuides);
switch (pFormula.m_eFormulaType)
{
case NSGuidesOOXML::CFormula::ftOOXMLSum:
ConvertFmla( ftSum, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLProduct:
ConvertFmla( ftProduct, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLIf:
ConvertFmla( ftIf, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAbsolute:
ConvertFmla( ftAbsolute, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAtan2:
ConvertFmla( ftAtan2, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLCos:
ConvertFmla( ftCos, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMax:
ConvertFmla( ftMax, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMin:
ConvertFmla( ftMin, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLMod:
ConvertFmla( ftMod, lParam1, eType1, lParam2, eType2, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSinatan2:
ConvertFmla( ftSinatan2, lParam1, eType1, lParam2, eType2, lParam3, eType3);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLCosatan2:
ConvertFmla( ftCosatan2, lParam1, eType1, lParam2, eType2, lParam3, eType3);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSin:
ConvertFmla( ftSin, lParam1, eType1, lParam2, eType2);
ConvertFmla( ftTan, m_lIndexDst, ptFormula, m_lPPT2PPTX, ptAdjust);
break;
case NSGuidesOOXML::CFormula::ftOOXMLSqrt:
ConvertFmla( ftSqrt, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLTan:
ConvertFmla( ftTan, lParam1, eType1, lParam2, eType2);
break;
case NSGuidesOOXML::CFormula::ftOOXMLVal:
ConvertFmla( ftVal, lParam1, eType1);
break;
case NSGuidesOOXML::CFormula::ftOOXMLAddDivide:
ConvertFmla( ftSum, lParam1, eType1, lParam2, eType2, 0, ptValue);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, 1, ptValue, lParam3, eType3);
break;
case NSGuidesOOXML::CFormula::ftOOXMLPin:
ConvertFmla( ftSum, lParam1, eType1, 0, ptValue, lParam2, eType2);
ConvertFmla( ftSum, lParam2, eType2, 0, ptValue, lParam3, eType3);
ConvertFmla( ftIf, m_lIndexDst, ptFormula, lParam3, eType3, lParam2, eType2);
ConvertFmla( ftIf, m_lIndexDst-2, ptFormula, lParam1, eType1, m_lIndexDst, ptFormula);
break;
}
m_arMapFormula.insert(std::pair<std::wstring, LONG>(strKey, m_lIndexDst));
return;
}
void ConvertGuides ( std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides )
{
//стандартные формулы для пптх будем добавлять, если только они встретятся
for (size_t nIndex=32; nIndex < strGuides.size(); ++nIndex)
{
NSGuidesOOXML::CFormula pFormula = strGuides[nIndex];
std::wstring strKey;// = mapGuides.GetKeyAt(nIndex);
int ind =0;
for (std::map<std::wstring, long>::iterator p = mapGuides.begin(); p!= mapGuides.end(); ++p)
{
if (ind == nIndex)
{
strKey = p->first;
break;
}
}
ConvertGuid(pFormula, strKey, strGuides, mapGuides);
}
}
void ConvertPath(const std::wstring& xml, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides)
{
XmlUtils::CXmlNode pathLst;
if(pathLst.FromXmlString(xml))
{
XmlUtils::CXmlNodes list;
if (pathLst.GetNodes(_T("path"), list))
{
int nPathCount = list.GetCount();
for (int i=0; i<nPathCount; i++)
{
XmlUtils::CXmlNode PathNode;
if(list.GetAt(i, PathNode))
{
XmlUtils::CXmlNodes listNode;
PathNode.GetNodes(_T("*"), listNode);
bool bFill = PathNode.GetAttribute(_T("fill"), _T("norm")) != _T("none");
std::wstring stroke = PathNode.GetAttribute(_T("stroke"), _T("true"));
bool bStroke = (stroke == _T("true")) || (stroke == _T("1"));
int nNodeCount = listNode.GetCount();
for (int j=0; j<nNodeCount; j++)
{
XmlUtils::CXmlNode node;
if(listNode.GetAt(j, node))
{
bool bNum = false; //управляем запятыми
std::wstring strName = node.GetName();
if (strName == _T("moveTo"))
pPPTShape->m_strPath += _T("m");
else if (strName == _T("lnTo"))
pPPTShape->m_strPath += _T("l");
else if (strName == _T("arcTo"))
pPPTShape->m_strPath += _T("ae");
else if (strName == _T("cubicBezTo"))
pPPTShape->m_strPath += _T("c");
else if (strName == _T("quadBezTo"))
pPPTShape->m_strPath += _T("qb");
else
pPPTShape->m_strPath += _T("x");
if (strName == _T("arcTo"))
{
LONG lStartX = m_lIndexDst-1, lStartY = m_lIndexDst;
LONG lParam1, lParam2, lParam3, lParam4;
NSGuidesVML::ParamType eType1, eType2, eType3, eType4;
lParam1 = ConvertFmlaParam(node.GetAttribute(_T("wR")), eType1, node.GetAttribute(_T("wR")), strGuides, mapGuides);
lParam2 = ConvertFmlaParam(node.GetAttribute(_T("hR")), eType2, node.GetAttribute(_T("hR")), strGuides, mapGuides);
lParam3 = ConvertFmlaParam(node.GetAttribute(_T("stAng")), eType3, node.GetAttribute(_T("stAng")), strGuides, mapGuides);
lParam4 = ConvertFmlaParam(node.GetAttribute(_T("swAng")), eType4, node.GetAttribute(_T("swAng")), strGuides, mapGuides);
//stAng
ConvertFmla( ftTan, lParam3, eType3, m_lPPTX2PPT, ptAdjust);
//swAng
ConvertFmla( ftTan, lParam4, eType4, m_lPPTX2PPT, ptAdjust);
//a
ConvertFmla( ftVal, lParam1, eType1);
//b
ConvertFmla( ftVal, lParam2, eType2);
LONG lstAng = m_lIndexDst-3, lswAng = m_lIndexDst-2, la = m_lIndexDst-1, lb = m_lIndexDst;
//радиус эллипса в stAng--------------------
//(b*cos)^2
ConvertFmla( ftCos, m_lIndexDst, ptFormula, m_lIndexDst-3, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
//(a*sin)^2
ConvertFmla( ftSin, m_lIndexDst-3, ptFormula, m_lIndexDst-5, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
ConvertFmla( ftSum, m_lIndexDst-2, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
ConvertFmla( ftSqrt, m_lIndexDst, ptFormula);
//r
ConvertFmla( ftProduct, la, ptFormula, lb, ptFormula, m_lIndexDst, ptFormula);
//r*cos(stAng)
ConvertFmla( ftCos, m_lIndexDst, ptFormula, lstAng, ptFormula);
//xc
ConvertFmla( ftSum, lStartX, ptFormula, 0, ptValue, m_lIndexDst, ptFormula);
//r*sin(stAng)
ConvertFmla( ftSin, m_lIndexDst-2, ptFormula, lstAng, ptFormula);
//yc
ConvertFmla( ftSum, lStartY, ptFormula, 0, ptValue, m_lIndexDst, ptFormula);
//endAng
ConvertFmla( ftSum, lstAng, ptFormula, lswAng, ptFormula, 0, ptValue);
//радиус эллипса в endAng--------------------
//(b*cos)^2
ConvertFmla( ftCos, lb, ptFormula, m_lIndexDst, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
//(a*sin)^2
ConvertFmla( ftSin, la, ptFormula, m_lIndexDst-2, ptFormula);
ConvertFmla( ftProduct, m_lIndexDst, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
ConvertFmla( ftSum, m_lIndexDst-2, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
ConvertFmla( ftSqrt, m_lIndexDst, ptFormula);
//r
ConvertFmla( ftProduct, la, ptFormula, lb, ptFormula, m_lIndexDst, ptFormula);
//r*cos(endAng)
ConvertFmla( ftCos, m_lIndexDst, ptFormula, m_lIndexDst-7, ptFormula);
//xEnd
ConvertFmla( ftSum, m_lIndexDst-11, ptFormula, m_lIndexDst, ptFormula, 0, ptValue);
//r*sin(endAng)
ConvertFmla( ftSin, m_lIndexDst-2, ptFormula, m_lIndexDst-9, ptFormula);
//yEnd
ConvertFmla( ftSum, m_lIndexDst-11, ptFormula, m_lIndexDst, ptFormula, 0, ptValue );
std::wstring xC = L"@" + std::to_wstring( m_lIndexDst-14);
std::wstring yC = L"@" + std::to_wstring( m_lIndexDst-12);
std::wstring wR = L"@" + std::to_wstring( la);
std::wstring hR = L"@" + std::to_wstring( lb);
//360
ConvertFmla( ftSumangle, 0, ptValue, 360, ptValue, 0, ptValue );
//360-stAng
ConvertFmla( ftSum, m_lIndexDst, ptFormula, 0, ptValue, lstAng, ptFormula);
//-1
ConvertFmla( ftSum, 0, ptValue, 0, ptValue, 1, ptValue);
//-1*swAng
ConvertFmla( ftProduct, lswAng, ptFormula, m_lIndexDst, ptFormula, 1, ptValue);
std::wstring stAng = L"@" + std::to_wstring( m_lIndexDst-2);
std::wstring swAng = L"@" + std::to_wstring( m_lIndexDst);
//std::wstring xEnd = _T(""); xEnd.Format(_T("@%d"), m_lIndexDst-5);
//std::wstring yEnd = _T(""); yEnd.Format(_T("@%d"), m_lIndexDst-4);
pPPTShape->m_strPath += xC + yC + wR + hR + stAng + swAng;
ConvertFmla( ftVal, m_lIndexDst - 6, ptFormula);
ConvertFmla( ftVal, m_lIndexDst - 5, ptFormula);
}
else
{
XmlUtils::CXmlNodes ptList;
node.GetNodes(_T("pt"), ptList);
int nPtCount = ptList.GetCount();
for (int k=0; k<nPtCount; k++)
{
bool bLastPount = false;
if ( k == nPtCount-1)
bLastPount = true;
XmlUtils::CXmlNode ptNode;
if(ptList.GetAt(k, ptNode))
{
std::wstring ptX = ptNode.GetAttribute(_T("x"));
std::wstring ptY = ptNode.GetAttribute(_T("y"));
pPPTShape->m_strPath += ConvertPathPoint( ptX, ptY, bNum, strGuides, mapGuides, bLastPount);
}
}
}
}
}
if (!bFill)
pPPTShape->m_strPath += _T("nf");
if (!bStroke)
pPPTShape->m_strPath += _T("ns");
}
pPPTShape->m_strPath += _T("e");
}
}
}
return;
}
LONG ConvertArcParam (std::wstring strParam, NSGuidesVML::ParamType &eType)
{
LONG lVal = 0;
std::map<std::wstring, LONG>::iterator NumFmla = m_arMapFormula.find(strParam);
std::map<std::wstring, LONG>::iterator NumAdj = m_arMapAdj.find(strParam);
if (NumAdj != m_arMapAdj.end())
{
eType = ptAdjust;
lVal = NumAdj->second; //индекс в map ???
}
else if (NumFmla == m_arMapFormula.end())
{
eType = ptValue;
lVal = (LONG)XmlUtils::GetInteger(strParam);
}
else
{
eType = ptFormula;
lVal = m_arMapFormula.find(strParam)->second;
}
return lVal;
}
std::wstring ConvertPathPoint (std::wstring strX, std::wstring strY, bool &bNum, std::vector<NSGuidesOOXML::CFormula> &strGuides, std::map<std::wstring, long> &mapGuides, bool bLPoint)
{
std::wstring strRes = _T("");
ParamType eType1, eType2;
LONG lParam1, lParam2;
if (bNum)
strRes += _T(",");
lParam1 = ConvertFmlaParam(strX, eType1, strX, strGuides, mapGuides);
strRes += ConvertPathParam (lParam1, eType1, bNum);
if (bNum)
strRes += _T(",");
lParam2 = ConvertFmlaParam(strY, eType2, strY, strGuides, mapGuides);
strRes += ConvertPathParam (lParam2, eType2, bNum);
if (bLPoint)
{
ConvertFmla( ftVal, lParam1, eType1);
ConvertFmla( ftVal, lParam2, eType2);
}
return strRes;
}
std::wstring ConvertPathParam (LONG lParam, ParamType eType, bool &bNum)
{
std::wstring strRes;
if (eType == ptAdjust)
strRes = L"#";
else if (eType == ptValue)
{
bNum = true;
}
else
strRes = L"@";
strRes += std::to_wstring(lParam);
return strRes;
}
std::wstring ConvertPathParam (LONG lParam, ParamType eType, bool &bNum);
};
}

View File

@ -40,60 +40,331 @@
#define max(a,b) (((a)>(b))?(a):(b))
#endif
double NSGuidesOOXML::CFormula::Calculate(NSGuidesOOXML::CFormulaManager* pManager)
namespace NSGuidesOOXML
{
if ((0 == m_lIndex) || (-m_lIndex > (int)pManager->Guides->size()) || (m_lIndex > (int)pManager->Adjustments->size()))
return 0.0;
if((m_lIndex < 0) && (dNonDefResult > (*pManager->Guides)[-m_lIndex-1]))
return (*pManager->Guides)[-m_lIndex-1];
if((m_lIndex > 0) && (NonDefResult != (*pManager->Adjustments)[m_lIndex-1]))
return (*pManager->Adjustments)[m_lIndex-1];
double a = pManager->GetValue(m_lParam1);
double b = pManager->GetValue(m_lParam2);
double c = pManager->GetValue(m_lParam3);
//double c = (double)c1;
double dRes = 0.0;
try
CFormula::FormulaType CFormula::GetFormula(std::wstring strName, bool& bRes)
{
// теперь нужно просто посчитать
switch (m_eFormulaType)
bRes = true;
if (_T("+-") == strName) return ftOOXMLSum;
else if (_T("*/") == strName) return ftOOXMLProduct;
else if (_T("+/") == strName) return ftOOXMLAddDivide;
else if (_T("abs") == strName) return ftOOXMLAbsolute;
else if (_T("min") == strName) return ftOOXMLMin;
else if (_T("max") == strName) return ftOOXMLMax;
else if (_T("?:") == strName) return ftOOXMLIf;
else if (_T("sqrt") == strName) return ftOOXMLSqrt;
else if (_T("mod") == strName) return ftOOXMLMod;
else if (_T("sin") == strName) return ftOOXMLSin;
else if (_T("cos") == strName) return ftOOXMLCos;
else if (_T("tan") == strName) return ftOOXMLTan;
else if (_T("at2") == strName) return ftOOXMLAtan2;
else if (_T("sat2") == strName) return ftOOXMLSinatan2;
else if (_T("cat2") == strName) return ftOOXMLCosatan2;
else if (_T("pin") == strName) return ftOOXMLPin;
else if (_T("val") == strName) return ftOOXMLVal;
else bRes = false;
return ftOOXMLVal;
}
CFormula::CFormula(long ind)
{
m_sName = _T("");
m_eFormulaType = ftOOXMLSum;
m_lIndex = ind;
m_lParam1 = _T("0");
m_lParam2 = _T("0");
m_lParam3 = _T("0");
}
CFormula& CFormula::operator =(const CFormula& src)
{
m_sName = src.m_sName;
m_eFormulaType = src.m_eFormulaType;
m_lIndex = src.m_lIndex;
m_lParam1 = src.m_lParam1;
m_lParam2 = src.m_lParam2;
m_lParam3 = src.m_lParam3;
return *this;
}
void CFormula::FromString(std::wstring strFormula)
{
std::vector<std::wstring> oArrayParams;
boost::algorithm::split(oArrayParams, strFormula, boost::algorithm::is_any_of(L" "), boost::algorithm::token_compress_on);
int nCount = (int)oArrayParams.size();
if (0 >= nCount)
return;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
// ParamType ptType = ptValue;
if (1 < nCount)
m_lParam1 = oArrayParams[1];
if (2 < nCount)
m_lParam2 = oArrayParams[2];
if (3 < nCount)
m_lParam3 = oArrayParams[3];
}
double CFormula::Calculate(NSGuidesOOXML::CFormulaManager* pManager)
{
if ((0 == m_lIndex) || (-m_lIndex > (int)pManager->Guides->size()) || (m_lIndex > (int)pManager->Adjustments->size()))
return 0.0;
if((m_lIndex < 0) && (dNonDefResult > (*pManager->Guides)[-m_lIndex-1]))
return (*pManager->Guides)[-m_lIndex-1];
if((m_lIndex > 0) && (NonDefResult != (*pManager->Adjustments)[m_lIndex-1]))
return (*pManager->Adjustments)[m_lIndex-1];
double a = pManager->GetValue(m_lParam1);
double b = pManager->GetValue(m_lParam2);
double c = pManager->GetValue(m_lParam3);
//double c = (double)c1;
double dRes = 0.0;
try
{
case ftOOXMLSum: { dRes = a + b - c; break; }
case ftOOXMLProduct: {/*if(0==c1)c=1.0;*/ dRes = (a * b)/c; break; }
case ftOOXMLAddDivide: {/*if(0==c1)c=1.0;*/ dRes = (a + b)/c; break; }
case ftOOXMLAbsolute: { dRes = abs(a); break; }
case ftOOXMLMin: { dRes = min(a, b); break; }
case ftOOXMLMax: { dRes = max(a, b); break; }
case ftOOXMLIf: { dRes = (a > 0) ? b : c; break; }
case ftOOXMLSqrt: { dRes = sqrt(a); break; }
case ftOOXMLMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftOOXMLSin: { dRes = a * sin(b * RadKoef); break; }
case ftOOXMLCos: { dRes = a * cos(b * RadKoef); break; }
case ftOOXMLTan: { dRes = a * tan(b * RadKoef); break; }
case ftOOXMLAtan2: { dRes = atan2(b,a)/RadKoef; break; }
case ftOOXMLSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftOOXMLCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftOOXMLPin: { dRes = (b < a) ? a :((b > c) ? c : b);break; }
case ftOOXMLVal: { dRes = a; break; }
default: break;
};
}
catch (...)
{
dRes = 0.0;
// теперь нужно просто посчитать
switch (m_eFormulaType)
{
case ftOOXMLSum: { dRes = a + b - c; break; }
case ftOOXMLProduct: {/*if(0==c1)c=1.0;*/ dRes = (a * b)/c; break; }
case ftOOXMLAddDivide: {/*if(0==c1)c=1.0;*/ dRes = (a + b)/c; break; }
case ftOOXMLAbsolute: { dRes = abs(a); break; }
case ftOOXMLMin: { dRes = min(a, b); break; }
case ftOOXMLMax: { dRes = max(a, b); break; }
case ftOOXMLIf: { dRes = (a > 0) ? b : c; break; }
case ftOOXMLSqrt: { dRes = sqrt(a); break; }
case ftOOXMLMod: { dRes = sqrt(a*a + b*b + c*c); break; }
case ftOOXMLSin: { dRes = a * sin(b * RadKoef); break; }
case ftOOXMLCos: { dRes = a * cos(b * RadKoef); break; }
case ftOOXMLTan: { dRes = a * tan(b * RadKoef); break; }
case ftOOXMLAtan2: { dRes = atan2(b,a)/RadKoef; break; }
case ftOOXMLSinatan2: { dRes = a * sin(atan2(c,b)); break; }
case ftOOXMLCosatan2: { dRes = a * cos(atan2(c,b)); break; }
case ftOOXMLPin: { dRes = (b < a) ? a :((b > c) ? c : b);break; }
case ftOOXMLVal: { dRes = a; break; }
default: break;
};
}
catch (...)
{
dRes = 0.0;
}
//long lResult = (long)dRes;
if(m_lIndex < 0)
{
(*pManager->Guides)[-m_lIndex-1] = dRes;
// переопределим формулу
pManager->mapGuides.insert(std::pair<std::wstring, long>(m_sName, -m_lIndex-1));
}
else
(*pManager->Adjustments)[m_lIndex-1] = (long)dRes;
return dRes;
}
//long lResult = (long)dRes;
if(m_lIndex < 0)
void CFormulaManager::SetWidthHeight(double w, double h)
{
(*pManager->Guides)[-m_lIndex-1] = dRes;
// переопределим формулу
pManager->mapGuides.insert(std::pair<std::wstring, long>(m_sName, -m_lIndex-1));
if((w >= 0) && (h >= 0))
{
Clear();
if(w > h)
{
h = (h * ShapeSize)/w;
if(h < 1.0) h = 1.0;
w = ShapeSize;
}
else if(w < h)
{
w = (w * ShapeSize)/h;
if(w < 1.0) w = 1.0;
h = ShapeSize;
}
else
{
w = ShapeSize;
h = ShapeSize;
}
m_lShapeWidth = w;
m_lShapeHeight = h;
}
}
CFormulaManager::CFormulaManager(std::vector<long>& a, std::vector<double>& g)
{
Adjustments = &a;
Guides = &g;
m_lShapeWidth = ShapeSize;
m_lShapeHeight = ShapeSize;
AddGuide(_T("3cd4"), _T("val 16200000")); //The units here are in 60,000ths of a degree. This is equivalent to 270 degrees.
AddGuide(_T("3cd8"), _T("val 8100000")); //The units here are in 60,000ths of a degree. This is equivalent to 135 degrees.
AddGuide(_T("5cd8"), _T("val 13500000")); //The units here are in 60,000ths of a degree. This is equivalent to 225 degrees.
AddGuide(_T("7cd8"), _T("val 18900000")); //The units here are in 60,000ths of a degree. This is equivalent to 315 degrees.
AddGuide(_T("b"), _T("val h")); //This is the bottom edge of the shape and since the top edge of the shape is considered the 0 point, the
//bottom edge is thus the shape height.
AddGuide(_T("cd2"), _T("val 10800000")); //The units here are in 60,000ths of a degree. This is equivalent to 180 degrees.
AddGuide(_T("cd4"), _T("val 5400000")); //The units here are in 60,000ths of a degree. This is equivalent to 90 degrees.
AddGuide(_T("cd8"), _T("val 2700000")); //The units here are in 60,000ths of a degree. This is equivalent to 45 degrees.
AddGuide(_T("hc"), _T("*/ w 1 2")); //This is the horizontal center of the shape which is just the width divided by 2.
AddGuide(_T("hd2"), _T("*/ h 1 2")); //This is 1/2 the shape height.
AddGuide(_T("hd3"), _T("*/ h 1 3")); //This is 1/3 the shape height.
AddGuide(_T("hd4"), _T("*/ h 1 4")); //This is 1/4 the shape height.
AddGuide(_T("hd5"), _T("*/ h 1 5")); //This is 1/5 the shape height.
AddGuide(_T("hd6"), _T("*/ h 1 6")); //This is 1/6 the shape height.
AddGuide(_T("hd8"), _T("*/ h 1 8")); //This is 1/8 the shape height.
AddGuide(_T("l"), _T("val 0")); //This is the left edge of the shape and the left edge of the shape is considered the horizontal 0 point.
AddGuide(_T("ls"), _T("max w h")); //This is the longest side of the shape. This value is either the width or the height depending on which is greater.
AddGuide(_T("r"), _T("val w")); //This is the right edge of the shape and since the left edge of the shape is considered the 0 point, the right edge
//is thus the shape width.
AddGuide(_T("ss"), _T("min w h")); //This is the shortest side of the shape. This value is either the width or the height depending on which is
//smaller.
AddGuide(_T("ssd2"), _T("*/ ss 1 2")); //This is 1/2 the shortest side of the shape.
AddGuide(_T("ssd4"), _T("*/ ss 1 4")); //This is 1/4 the shortest side of the shape.
AddGuide(_T("ssd6"), _T("*/ ss 1 6")); //This is 1/6 the shortest side of the shape.
AddGuide(_T("ssd8"), _T("*/ ss 1 8")); //This is 1/8 the shortest side of the shape.
AddGuide(_T("t"), _T("val 0")); //This is the top edge of the shape and the top edge of the shape is considered the vertical 0 point.
AddGuide(_T("vc"), _T("*/ h 1 2")); //This is the vertical center of the shape which is just the height divided by 2.
AddGuide(_T("wd2"), _T("*/ w 1 2")); //This is 1/2 the shape width.
AddGuide(_T("wd4"), _T("*/ w 1 4")); //This is 1/4 the shape width.
AddGuide(_T("wd5"), _T("*/ w 1 5")); //This is 1/5 the shape width.
AddGuide(_T("wd6"), _T("*/ w 1 6")); //This is 1/6 the shape width.
AddGuide(_T("wd8"), _T("*/ w 1 8")); //This is 1/8 the shape width.
AddGuide(_T("wd10"), _T("*/ w 1 10")); //This is 1/10 the shape width.
AddGuide(_T("wd32"), _T("*/ w 1 32")); //This is 1/32 the shape width.
}
CFormulaManager::~CFormulaManager()
{
mapAdjustments.clear();
mapGuides.clear();
strAdjustments.clear();
strGuides.clear();
Adjustments->clear();
Guides->clear();
}
CFormulaManager& CFormulaManager::operator =(const CFormulaManager& manager)
{
m_lShapeWidth = manager.m_lShapeWidth;
m_lShapeHeight = manager.m_lShapeWidth;
mapAdjustments.clear();
for (std::map<std::wstring, long>::const_iterator pPair = manager.mapAdjustments.begin(); pPair != manager.mapAdjustments.end(); ++pPair)
{
mapAdjustments.insert(std::pair<std::wstring, long>(pPair->first, pPair->second));
}
mapGuides.clear();
for (std::map<std::wstring, long>::const_iterator pPair = manager.mapGuides.begin(); pPair != manager.mapGuides.end(); ++pPair)
{
mapGuides.insert(std::pair<std::wstring, long>(pPair->first, pPair->second));
}
strAdjustments.clear();
for(size_t i = 0; i < manager.strAdjustments.size(); i++)
{
strAdjustments.push_back(manager.strAdjustments[i]);
}
strGuides.clear();
for(size_t i = 0; i < manager.strGuides.size(); i++)
{
strGuides.push_back(manager.strGuides[i]);
}
Adjustments->clear();
for(size_t i = 0; i < manager.Adjustments->size(); i++)
{
Adjustments->push_back((*manager.Adjustments)[i]);
}
Guides->clear();
for(size_t i = 0; i < manager.Guides->size(); i++)
{
Guides->push_back((*manager.Guides)[i]);
}
return *this;
}
void CFormulaManager::AddAdjustment(const std::wstring& name, const std::wstring& fmla)
{
std::map<std::wstring, long>::const_iterator pPair = mapAdjustments.find(name);
if(pPair != mapAdjustments.end())
{
strAdjustments[pPair->second].FromString(fmla);
(*Adjustments)[pPair->second] = NonDefResult;
return;
}
CFormula formula( (int)strAdjustments.size() + 1);
formula.m_sName = name;
formula.FromString(fmla);
strAdjustments.push_back(formula);
Adjustments->push_back(NonDefResult);
mapAdjustments.insert(std::pair<std::wstring, long>(name, (long)strAdjustments.size() - 1));
}
void CFormulaManager::AddGuide(const std::wstring& name, const std::wstring& fmla)
{
/*
long num = mapGuides.FindKey(name);
if(num >= 0)
{
strGuides[mapGuides.GetValueAt(num)].FromString(fmla);
(*Guides)[mapGuides.GetValueAt(num)] = dNonDefResult;
return;
}
*/
// формулы могут повторяться!!!
// тогда по мере расчитывания они перетирают друг друга
CFormula formula( -1 -(int)strGuides.size());
formula.m_sName = name;
formula.FromString(fmla);
strGuides.push_back(formula);
Guides->push_back(dNonDefResult);
mapGuides.insert(std::pair<std::wstring, long>(name, (long)strGuides.size() - 1));
}
double CFormulaManager::GetValue(std::wstring str)
{
if(str == _T("w")) return m_lShapeWidth;
if(str == _T("h")) return m_lShapeHeight;
std::map<std::wstring, long>::iterator numGuide = mapGuides.find(str);
std::map<std::wstring, long>::iterator numAdj = mapAdjustments.find(str);
if(numGuide != mapGuides.end())
{
double res = (*Guides)[numGuide->second];
if(res < dNonDefResult)
return res;
return strGuides[numGuide->second].Calculate(this);
}
if(numAdj != mapAdjustments.end())
{
long res = (*Adjustments)[numAdj->second];
if(res != NonDefResult)
return res;
return strAdjustments[numAdj->second].Calculate(this);
}
return XmlUtils::GetInteger(str);
}
void CFormulaManager::Clear()
{
//for(long i = 0; i < Adjustments.size(); i++)
// Adjustments[i] = NonDefResult;
for(size_t i = 0; i < Guides->size(); i++)
(*Guides)[i] = dNonDefResult;
}
void CFormulaManager::ReCalculateGuides()
{
Clear();
for(size_t i = 0; i < strGuides.size(); i++)
(*Guides)[i] = strGuides[i].Calculate(this);
}
else
(*pManager->Adjustments)[m_lIndex-1] = (long)dRes;
return dRes;
}

View File

@ -72,30 +72,7 @@ namespace NSGuidesOOXML
ftOOXMLVal = 16 // a
};
static FormulaType GetFormula(std::wstring strName, bool& bRes)
{
bRes = true;
if (_T("+-") == strName) return ftOOXMLSum;
else if (_T("*/") == strName) return ftOOXMLProduct;
else if (_T("+/") == strName) return ftOOXMLAddDivide;
else if (_T("abs") == strName) return ftOOXMLAbsolute;
else if (_T("min") == strName) return ftOOXMLMin;
else if (_T("max") == strName) return ftOOXMLMax;
else if (_T("?:") == strName) return ftOOXMLIf;
else if (_T("sqrt") == strName) return ftOOXMLSqrt;
else if (_T("mod") == strName) return ftOOXMLMod;
else if (_T("sin") == strName) return ftOOXMLSin;
else if (_T("cos") == strName) return ftOOXMLCos;
else if (_T("tan") == strName) return ftOOXMLTan;
else if (_T("at2") == strName) return ftOOXMLAtan2;
else if (_T("sat2") == strName) return ftOOXMLSinatan2;
else if (_T("cat2") == strName) return ftOOXMLCosatan2;
else if (_T("pin") == strName) return ftOOXMLPin;
else if (_T("val") == strName) return ftOOXMLVal;
else bRes = false;
return ftOOXMLVal;
}
static FormulaType GetFormula(std::wstring strName, bool& bRes);
public:
FormulaType m_eFormulaType;
@ -105,55 +82,16 @@ namespace NSGuidesOOXML
std::wstring m_lParam1;
std::wstring m_lParam2;
std::wstring m_lParam3;
public:
CFormula(long ind = 0)
{
m_sName = _T("");
m_eFormulaType = ftOOXMLSum;
m_lIndex = ind;
m_lParam1 = _T("0");
m_lParam2 = _T("0");
m_lParam3 = _T("0");
}
CFormula& operator =(const CFormula& src)
{
m_sName = src.m_sName;
m_eFormulaType = src.m_eFormulaType;
m_lIndex = src.m_lIndex;
m_lParam1 = src.m_lParam1;
m_lParam2 = src.m_lParam2;
m_lParam3 = src.m_lParam3;
return *this;
}
void FromString(std::wstring strFormula)
{
std::vector<std::wstring> oArrayParams;
boost::algorithm::split(oArrayParams, strFormula, boost::algorithm::is_any_of(L" "), boost::algorithm::token_compress_on);
int nCount = (int)oArrayParams.size();
if (0 >= nCount)
return;
bool bRes = true;
m_eFormulaType = GetFormula(oArrayParams[0], bRes);
// ParamType ptType = ptValue;
if (1 < nCount)
m_lParam1 = oArrayParams[1];
if (2 < nCount)
m_lParam2 = oArrayParams[2];
if (3 < nCount)
m_lParam3 = oArrayParams[3];
}
CFormula(long ind = 0);
CFormula& operator =(const CFormula& src);
void FromString(std::wstring strFormula);
double Calculate(CFormulaManager* pManager);
};
class CFormulaManager
class CFormulaManager
{
private:
double m_lShapeWidth;
@ -166,32 +104,8 @@ public:
std::vector<long>* Adjustments;
std::vector<double>* Guides;
void SetWidthHeight(double w, double h)
{
if((w >= 0) && (h >= 0))
{
Clear();
if(w > h)
{
h = (h * ShapeSize)/w;
if(h < 1.0) h = 1.0;
w = ShapeSize;
}
else if(w < h)
{
w = (w * ShapeSize)/h;
if(w < 1.0) w = 1.0;
h = ShapeSize;
}
else
{
w = ShapeSize;
h = ShapeSize;
}
m_lShapeWidth = w;
m_lShapeHeight = h;
}
}
void SetWidthHeight(double w, double h);
inline double GetWidth()
{
return m_lShapeWidth;
@ -202,187 +116,16 @@ public:
}
public:
CFormulaManager(std::vector<long>& a, std::vector<double>& g)
{
Adjustments = &a;
Guides = &g;
m_lShapeWidth = ShapeSize;
m_lShapeHeight = ShapeSize;
AddGuide(_T("3cd4"), _T("val 16200000")); //The units here are in 60,000ths of a degree. This is equivalent to 270 degrees.
AddGuide(_T("3cd8"), _T("val 8100000")); //The units here are in 60,000ths of a degree. This is equivalent to 135 degrees.
AddGuide(_T("5cd8"), _T("val 13500000")); //The units here are in 60,000ths of a degree. This is equivalent to 225 degrees.
AddGuide(_T("7cd8"), _T("val 18900000")); //The units here are in 60,000ths of a degree. This is equivalent to 315 degrees.
AddGuide(_T("b"), _T("val h")); //This is the bottom edge of the shape and since the top edge of the shape is considered the 0 point, the
//bottom edge is thus the shape height.
AddGuide(_T("cd2"), _T("val 10800000")); //The units here are in 60,000ths of a degree. This is equivalent to 180 degrees.
AddGuide(_T("cd4"), _T("val 5400000")); //The units here are in 60,000ths of a degree. This is equivalent to 90 degrees.
AddGuide(_T("cd8"), _T("val 2700000")); //The units here are in 60,000ths of a degree. This is equivalent to 45 degrees.
AddGuide(_T("hc"), _T("*/ w 1 2")); //This is the horizontal center of the shape which is just the width divided by 2.
AddGuide(_T("hd2"), _T("*/ h 1 2")); //This is 1/2 the shape height.
AddGuide(_T("hd3"), _T("*/ h 1 3")); //This is 1/3 the shape height.
AddGuide(_T("hd4"), _T("*/ h 1 4")); //This is 1/4 the shape height.
AddGuide(_T("hd5"), _T("*/ h 1 5")); //This is 1/5 the shape height.
AddGuide(_T("hd6"), _T("*/ h 1 6")); //This is 1/6 the shape height.
AddGuide(_T("hd8"), _T("*/ h 1 8")); //This is 1/8 the shape height.
AddGuide(_T("l"), _T("val 0")); //This is the left edge of the shape and the left edge of the shape is considered the horizontal 0 point.
AddGuide(_T("ls"), _T("max w h")); //This is the longest side of the shape. This value is either the width or the height depending on which is greater.
AddGuide(_T("r"), _T("val w")); //This is the right edge of the shape and since the left edge of the shape is considered the 0 point, the right edge
//is thus the shape width.
AddGuide(_T("ss"), _T("min w h")); //This is the shortest side of the shape. This value is either the width or the height depending on which is
//smaller.
AddGuide(_T("ssd2"), _T("*/ ss 1 2")); //This is 1/2 the shortest side of the shape.
AddGuide(_T("ssd4"), _T("*/ ss 1 4")); //This is 1/4 the shortest side of the shape.
AddGuide(_T("ssd6"), _T("*/ ss 1 6")); //This is 1/6 the shortest side of the shape.
AddGuide(_T("ssd8"), _T("*/ ss 1 8")); //This is 1/8 the shortest side of the shape.
AddGuide(_T("t"), _T("val 0")); //This is the top edge of the shape and the top edge of the shape is considered the vertical 0 point.
AddGuide(_T("vc"), _T("*/ h 1 2")); //This is the vertical center of the shape which is just the height divided by 2.
AddGuide(_T("wd2"), _T("*/ w 1 2")); //This is 1/2 the shape width.
AddGuide(_T("wd4"), _T("*/ w 1 4")); //This is 1/4 the shape width.
AddGuide(_T("wd5"), _T("*/ w 1 5")); //This is 1/5 the shape width.
AddGuide(_T("wd6"), _T("*/ w 1 6")); //This is 1/6 the shape width.
AddGuide(_T("wd8"), _T("*/ w 1 8")); //This is 1/8 the shape width.
AddGuide(_T("wd10"), _T("*/ w 1 10")); //This is 1/10 the shape width.
AddGuide(_T("wd32"), _T("*/ w 1 32")); //This is 1/32 the shape width.
}
CFormulaManager(std::vector<long>& a, std::vector<double>& g);
~CFormulaManager();
~CFormulaManager()
{
mapAdjustments.clear();
mapGuides.clear();
strAdjustments.clear();
strGuides.clear();
Adjustments->clear();
Guides->clear();
}
CFormulaManager& operator =(const CFormulaManager& manager);
CFormulaManager& operator =(const CFormulaManager& manager)
{
m_lShapeWidth = manager.m_lShapeWidth;
m_lShapeHeight = manager.m_lShapeWidth;
mapAdjustments.clear();
for (std::map<std::wstring, long>::const_iterator pPair = manager.mapAdjustments.begin(); pPair != manager.mapAdjustments.end(); ++pPair)
{
mapAdjustments.insert(std::pair<std::wstring, long>(pPair->first, pPair->second));
}
void AddAdjustment(const std::wstring& name, const std::wstring& fmla);
void AddGuide(const std::wstring& name, const std::wstring& fmla);
mapGuides.clear();
for (std::map<std::wstring, long>::const_iterator pPair = manager.mapGuides.begin(); pPair != manager.mapGuides.end(); ++pPair)
{
mapGuides.insert(std::pair<std::wstring, long>(pPair->first, pPair->second));
}
strAdjustments.clear();
for(size_t i = 0; i < manager.strAdjustments.size(); i++)
{
strAdjustments.push_back(manager.strAdjustments[i]);
}
strGuides.clear();
for(size_t i = 0; i < manager.strGuides.size(); i++)
{
strGuides.push_back(manager.strGuides[i]);
}
Adjustments->clear();
for(size_t i = 0; i < manager.Adjustments->size(); i++)
{
Adjustments->push_back((*manager.Adjustments)[i]);
}
Guides->clear();
for(size_t i = 0; i < manager.Guides->size(); i++)
{
Guides->push_back((*manager.Guides)[i]);
}
return *this;
}
void AddAdjustment(const std::wstring& name, const std::wstring& fmla)
{
std::map<std::wstring, long>::const_iterator pPair = mapAdjustments.find(name);
if(pPair != mapAdjustments.end())
{
strAdjustments[pPair->second].FromString(fmla);
(*Adjustments)[pPair->second] = NonDefResult;
return;
}
CFormula formula( (int)strAdjustments.size() + 1);
formula.m_sName = name;
formula.FromString(fmla);
strAdjustments.push_back(formula);
Adjustments->push_back(NonDefResult);
mapAdjustments.insert(std::pair<std::wstring, long>(name, (long)strAdjustments.size() - 1));
}
void AddGuide(const std::wstring& name, const std::wstring& fmla)
{
/*
long num = mapGuides.FindKey(name);
if(num >= 0)
{
strGuides[mapGuides.GetValueAt(num)].FromString(fmla);
(*Guides)[mapGuides.GetValueAt(num)] = dNonDefResult;
return;
}
*/
// формулы могут повторяться!!!
// тогда по мере расчитывания они перетирают друг друга
CFormula formula( -1 -(int)strGuides.size());
formula.m_sName = name;
formula.FromString(fmla);
strGuides.push_back(formula);
Guides->push_back(dNonDefResult);
mapGuides.insert(std::pair<std::wstring, long>(name, (long)strGuides.size() - 1));
}
double GetValue(std::wstring str)
{
if(str == _T("w")) return m_lShapeWidth;
if(str == _T("h")) return m_lShapeHeight;
std::map<std::wstring, long>::iterator numGuide = mapGuides.find(str);
std::map<std::wstring, long>::iterator numAdj = mapAdjustments.find(str);
if(numGuide != mapGuides.end())
{
double res = (*Guides)[numGuide->second];
if(res < dNonDefResult)
return res;
return strGuides[numGuide->second].Calculate(this);
}
if(numAdj != mapAdjustments.end())
{
long res = (*Adjustments)[numAdj->second];
if(res != NonDefResult)
return res;
return strAdjustments[numAdj->second].Calculate(this);
}
return XmlUtils::GetInteger(str);
}
void Clear()
{
//for(long i = 0; i < Adjustments.size(); i++)
// Adjustments[i] = NonDefResult;
for(size_t i = 0; i < Guides->size(); i++)
(*Guides)[i] = dNonDefResult;
}
void ReCalculateGuides()
{
Clear();
for(size_t i = 0; i < strGuides.size(); i++)
(*Guides)[i] = strGuides[i].Calculate(this);
}
double GetValue(std::wstring str);
void Clear();
void ReCalculateGuides();
};
}