OTS/OTSCPP/OTSData/BSEImg.cpp

#include "stdafx.h"
#include "BSEImg.h"


namespace OTSDATA {

	IMPLEMENT_SERIAL(CBSEImg, CObject, 1)

		// constructor
		CBSEImg::CBSEImg()
		: m_pnImageData(NULL)
	{
		// set chat data to 0
		Init();
	}

	// constructor
	CBSEImg::CBSEImg(CRect a_rectImage)
		: m_pnImageData(NULL)
	{
		// set chat data to 0
		Init();

		// set image rectangle and create memory for image data
		SetImageRect(a_rectImage);
	}

	// copy constructor
	CBSEImg::CBSEImg(const CBSEImg& a_oSource)
		: m_pnImageData(NULL)
	{
		// can't copy itself
		if (&a_oSource == this)
		{
			return;
		}

		// copy data over 
		Duplicate(a_oSource);
	}

	// copy constructor
	CBSEImg::CBSEImg(CBSEImg* a_poSource)
		: m_pnImageData(NULL)
	{
		// input check
		ASSERT(a_poSource);
		if (!a_poSource)
		{
			return;
		}

		// can't copy itself
		if (a_poSource == this)
		{
			return;
		}

		// copy data over 
		Duplicate(*a_poSource);
	}

	// =operator
	CBSEImg& CBSEImg::operator=(const CBSEImg& a_oSource)
	{
		// cleanup
		Cleanup();

		// copy the class data over
		Duplicate(a_oSource);

		// return class
		return *this;
	}

	// destructor
	CBSEImg::~CBSEImg()
	{
		// cleanup 
		Cleanup();

	}

	// CBSEImage functions
	void CBSEImg::Serialize(CArchive& ar)
	{
		if (ar.IsStoring())
		{
			ar << m_rectImage;
			ar.Write(m_pnImageData, sizeof(BYTE) * m_rectImage.Width() * m_rectImage.Height());
		}
		else
		{
			ar >> m_rectImage;
			InitImageData(m_rectImage.Width(), m_rectImage.Height());
			ar.Read(m_pnImageData, sizeof(BYTE) * m_rectImage.Width() * m_rectImage.Height());
		}

		CObject::Serialize(ar);
	}

	/*void CBSEImg::Serialize(bool isStoring, tinyxml2::XMLDocument * classDoc, tinyxml2::XMLElement * rootNode)
	{
		xmls::xRect xrectImage;

		this->Register("rectImage", &xrectImage);

		if (isStoring)
		{
			xrectImage = m_rectImage;

			Slo::Serialize(true, classDoc, rootNode);
		}
		else
		{
			xmls::Slo::Serialize(false, classDoc, rootNode);

			m_rectImage = xrectImage.value();
		}
	}*/

	// public
	// set image rectangle and create memory for image data
	void CBSEImg::SetImageRect(const CRect& a_rectImage)
	{
		// set chat data to 0
		InitChartData();

		// set image rectangle
		m_rectImage = a_rectImage;

		// create memory for image data
		InitImageData(a_rectImage.Width(), a_rectImage.Height());
	}

	// Initial image data
	void CBSEImg::InitImageData(int imgwidth, int imgheight)
	{
		// cleanup image data
		if (m_pnImageData)
		{
			delete[]m_pnImageData;
			m_pnImageData = NULL;
		}
		m_rectImage = new CRect(0, 0, imgwidth, imgheight);
		// create memory for image data
	
			m_pnImageData = new BYTE[imgwidth * imgheight];
			memset(m_pnImageData, 0, sizeof(BYTE) * imgwidth* imgheight);
		
	}

	// set image data
	void CBSEImg::SetImageData(BYTE* a_pnImageData,int imgwidth,int imgheight)
	{
		// input check
		//AMICS_ASSERT(a_pnImageData);
		if (!a_pnImageData)
		{
			return;
		}

		// initialize image data
		InitImageData(imgwidth,imgheight);


			// copy image data over
			memcpy(m_pnImageData, a_pnImageData, sizeof(BYTE) * imgwidth * imgheight);
		
	}

	// initial chart data
	void CBSEImg::InitChartData()
	{
		// set chart data to 0
		memset(m_nBSEChart, 0, sizeof(WORD) * MAXBYTE);
	}

	// set chart data
	void CBSEImg::SetChartData()
	{
		// set chart data to 0
		InitChartData();

		// make sure that image data is OK
		if (m_rectImage.IsRectEmpty() || !m_pnImageData)
		{
			// No image, return
			ASSERT(FALSE);
			return;
		}

		// set chart data
		long nDataSize = m_rectImage.Width() * m_rectImage.Height();
		for (long i = 0; i < nDataSize; ++i)
		{
			BYTE nValue = m_pnImageData[i];
			++m_nBSEChart[nValue];
		}
	}

	// calculate chart data BSE high value
	// return chart data BSE high value, -1 if there is no image
	//
	long CBSEImg::CalBSEChartHigh()
	{
		// set return to -1 
		long nRet = -1;

		// check if there is image 
		if (m_rectImage.IsRectEmpty() || !m_pnImageData)
		{
			// NO image, return -1
			return nRet;
		}

		// calculate chart data BSE high value
		for (long i = 0; i < MAXBYTE; ++i)
		{
			nRet = max(nRet, m_nBSEChart[i]);
		}

		// return chart data BSE high value
		return  nRet;
	}

	// calculate chart data BSE low value
	// return chart data BSE low value, -1 if there is no image
	//
	long CBSEImg::CalBSEChartLow()
	{
		// set return to 255 the highest value
		long nRet = MAXBYTE;

		// check if there is image 
		if (m_rectImage.IsRectEmpty() || !m_pnImageData)
		{
			// NO image, return -1
			return -1;
		}

		// calculate chart data BSE low value
		for (long i = 0; i < MAXBYTE; ++i)
		{
			nRet = min(nRet, m_nBSEChart[i]);
		}

		// return chart data BSE low value
		return  nRet;
	}

	// get point BSE value 
	// return point BSE value, -1 if there is no image or point is not in the image
	int CBSEImg::GetBSEValue(const CPoint& a_position)
	{
		// set return to -1 
		long nRet = -1;

		// check if there is image 
		if (m_rectImage.IsRectEmpty() || !m_pnImageData)
		{
			// NO image, return -1
			return nRet;
		}

		// check if the point is in the image
		if (!m_rectImage.PtInRect(a_position))
		{
			// not in the image, return -1
			return nRet;
		}

		// note: BSE region should start from 0,0, otherwise need to calculate the position.
		nRet = m_pnImageData[a_position.x + a_position.y * m_rectImage.Width()];

		// return get point BSE value 
		return  nRet;
	}

	// get BSE value by x, y position values
	// return point BSE value, -1 if there is no image or position is not in the image
	int CBSEImg::GetBSEValue(const int a_nX, const int a_nY)
	{
		// convert position value to point
		CPoint pos(a_nX, a_nY);

		// calculate and return get position BSE value 
		return GetBSEValue(pos);
	}
	void CBSEImg::SetBSEValue(const int a_nX, const int a_nY,int value)
	{
		// convert position value to point
		CPoint pos(a_nX, a_nY);

		// set return to -1 
		long nRet = -1;

		// check if there is image 
		if (m_rectImage.IsRectEmpty() || !m_pnImageData)
		{
			// NO image, return -1
			return ;
		}

		// check if the point is in the image
		if (!m_rectImage.PtInRect(pos))
		{
			// not in the image, return -1
			return ;
		}

		// note: BSE region should start from 0,0, otherwise need to calculate the position.
		 m_pnImageData[pos.x + pos.y * m_rectImage.Width()]=value;
		// calculate and return get position BSE value 
		 //GetBSEValue(pos);
	}
	int CBSEImg::GetValueDirect(const CPoint& a_position) const
	{
		return (0 <= a_position.x) && (0 <= a_position.y) && (a_position.x < m_rectImage.Width()) && (a_position.y < m_rectImage.Height())
			? m_pnImageData[a_position.x + a_position.y * m_rectImage.Width()]
			: 0;
	}

	// check if the image contains any given gray level pixel
	bool CBSEImg::DoesContainPixelValue(int inValue, int a_nPixel /*= 1*/) const
	{
		int pixelCount = m_rectImage.Width() * m_rectImage.Height();
		int nFindPixel = 0;
		for (int i = 0; i < pixelCount; ++i)
		{
			if (m_pnImageData[i] == inValue)
			{
				// find a same gray level pixel
				++nFindPixel;

				if (nFindPixel >= a_nPixel)
				{

					return true;
				}
			}
		}
		return false;
	}

	// calculate image area
	// return image area, return 0 if there no image
	DWORD CBSEImg::CalArea()
	{
		// set return to 0
		DWORD nRet = 0;

		// check image data
		if (!m_pnImageData)
		{
			// return 0 if there no image 
			return nRet;
		}

		// calculate image area 
		BYTE* pData = m_pnImageData;
		for (long i = 0; i < m_rectImage.Width(); ++i)
		{
			for (long j = 0; j < m_rectImage.Height(); ++j)
			{
				if (*pData != 0)
				{
					++nRet;
				}
				++pData;
			}
		}

		// return calculated area value
		return nRet;
	}

	// protected

	// cleanup 
	void CBSEImg::Cleanup()
	{
		// clean image data 
		if (m_pnImageData)
		{
			delete m_pnImageData;
			m_pnImageData = NULL;
		}

	}

	// initialization
	void CBSEImg::Init()
	{
		m_rectImage.SetRectEmpty();
		InitChartData();
	}

	// duplication
	void CBSEImg::Duplicate(const CBSEImg& a_oSource)
	{
		// initialization
		Init();

		// copy data
		SetImageRect(a_oSource.GetImageRect());
		auto r = a_oSource.GetImageRect();
		SetImageData(a_oSource.GetImageDataPointer(),r.Width(),r.Height());
	}

}