#include "StdAfx.h"
#include "geometry2json.h"
#include "CoreTools.h"
#include "shjson.h"
#include "KTCADUtilityEx.h"
#include "Base64.h"
#include "AecDb3dRoadAxisLine.h"
#include "dbobjptr.h"
#include "compare_double.h"

#define CLASS_CONVER(type, dist, src) type *dist = type::cast((src))

namespace
{
	bool checkTriangle(const AcGePoint3d &pt0
		, const AcGePoint3d &pt1
		, const AcGePoint3d &pt2
		, const double &tol = 2 )
	{
		if (pt0.distanceTo(pt1) <= tol && pt0.distanceTo(pt2) <= tol) return false;
		if (pt1.distanceTo(pt0) <= tol && pt1.distanceTo(pt2) <= tol) return false;
		if (pt2.distanceTo(pt0) <= tol && pt2.distanceTo(pt1) <= tol) return false;
		return true;
	}

	DWORD getEntityColor(AcCmEntityColor clr)
	{
		if (clr.isByACI())
		{
			return acedGetRGB(clr.colorIndex());
		}
		else if (clr.isByColor())
		{
			return RGB(clr.red(), clr.green(), clr.blue());
		}
		return 0;
	}

	DWORD getEntityColor(AcDbEntity *pEnt)
	{
		AcCmEntityColor clr = pEnt->entityColor();

		if (clr.isByACI() || clr.isByColor())
		{
			return getEntityColor(clr);
		}
		else if (clr.isByBlock())
		{
		}
		else if (clr.isByLayer())
		{
			AcDbObjectId id = pEnt->layerId();
			OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbLayerTableRecord, pLayer)
			if (pLayer)
				return getEntityColor(pLayer->entityColor());
			OPENOBJ_END()
		}
		return 0;
	}

}


#define _CRV_SET_(TT, crvPtr)\
if (!crvPtr) return;\
TT *p = TT::cast(crvPtr);\
if (p)\
set(*p)

namespace GEO2JSON
{
#pragma region _geo

	_geo::_geo(const _geo &g) {}

	_geo::_geo() {}

	std::wstring _geo::toString()
	{
		return write2Json(ToJson());
	}

	bool _geo::byString(const std::wstring &json)
	{
		WDocument doc;
		doc.Parse(json);
		if (doc.HasParseError()) return false;
		return ByJson(doc);
	}

	void _geo::addType(WValue &v)
	{
		addMember(v, _T("_type_"), (int)type());
	}

	_geo::TYPE _geo::getType(const WValue &v)
	{
		if (v.HasMember(_T("_type_")))
		{
			return (TYPE)v[_T("_type_")].GetInt();
		}

		return eNone;
	}

	_geo *_geo::createGeo(const WValue &v)
	{
		switch (getType(v))
		{
		case ePoint: return newGeo<point>(v);
		case ePlane: return newGeo<plane>(v);
		case eLine: return newGeo<line>(v);
		case eArc: return newGeo<arc>(v);
		case eCircle: return newGeo<circle>(v);
		case eEllipse: return newGeo<ellipse>(v);
		case eExtruded: return newGeo<extruded>(v);
		case eRevolved: return newGeo<revolved>(v);
		case eLoft: return newGeo<loft>(v);
		case eNone: break;
		default: break;
		}
		return NULL;
	}

	void _geo::set(const std::wstring &s) { byString(s); }

	void _geo::set(const WValue &v) { ByJson(v); }

	void tools::asCurves(const std::vector<_geo *> &geos, AcDbVoidPtrArray &ar)
	{
		for (size_t i = 0; i < geos.size(); ++i)
		{
			_geo *p(geos[i]);
			AcDbCurve *pCurve(p->asDbCurve());
			if (pCurve)
				ar.append(pCurve);
		}
	}

	void collectRegions(AcDbRegion *pReg, std::vector<AcDbRegion *> &regs)
	{
		if (!pReg) return;
		AcDbVoidPtrArray ar;
		pReg->explode(ar);
		// 只有Region和Region之间才可以进行BOOL操作
		// 所以只要炸出一个region，则其它的也都是region
		// 只要有一个不是，其它的也不会是
		for (int i = 0; i < ar.length(); ++i)
		{
			CLASS_CONVER(AcDbRegion, pR, (AcDbEntity *)ar[i]);
			CLASS_CONVER(AcDbCurve, pC, (AcDbEntity *)ar[i]);
			if (pR)
			{
				collectRegions(pR, regs);
			}
			else
			{
				regs.push_back((AcDbRegion *)pReg->clone());
				break;
			}
		}
		deleteArrayVoidPtrs< AcDbEntity>(ar);
	}

	template <class T1, class T2>
	void convertEntityByPlane(T1 *pCurve, path *pt, const AcGePlane &Plane)
	{
		AcGeMatrix3d matUCS, mat;
		matUCS.setToPlaneToWorld(Plane);
		AcGePoint3d ptUCS;
		AcGeVector3d vtX, vtY, vtZ;
		matUCS.getCoordSystem(ptUCS, vtX, vtY, vtZ);
		mat = mat.setToAlignCoordSys(
			ptUCS
			, vtX
			, vtY
			, vtZ
			, AcGePoint3d::kOrigin
			, AcGeVector3d::kXAxis
			, AcGeVector3d::kYAxis
			, AcGeVector3d::kZAxis
		);


		T1 *pNew = (T1 *)pCurve->clone();
		pNew->transformBy(mat);
		pt->_profile.push_back(new T2(*pNew));
		DELETE_PTR(pNew);
	}

	bool curve2Profile(AcDbCurve *pCurve, path *pt, AcGePlane *pPlane = NULL)
	{
		
		CLASS_CONVER(AcDbSpline, pSp, pCurve);
		if (pSp)
		{
			pt->_profile.push_back(new spline(*pSp));
		}

		CLASS_CONVER(AcDbCircle, pCir, pCurve);
		if (pCir)
		{
			if (!pPlane)
				pt->_profile.push_back(new circle(*pCir));
			else
				convertEntityByPlane<AcDbCircle, circle>(pCir, pt, *pPlane);
			return true;
		}
		CLASS_CONVER(AcDbEllipse, pEll, pCurve);
		if (pEll)
		{
			if (!pPlane)
				pt->_profile.push_back(new ellipse(*pEll));
			else
				convertEntityByPlane<AcDbEllipse, ellipse>(pEll, pt, *pPlane);
			return true;
		}
		CLASS_CONVER(AcDbLine, pLine, pCurve);
		if (pLine)
		{
			if (!pPlane)
				pt->_profile.push_back(new line(*pLine));
			else
				convertEntityByPlane<AcDbLine, line>(pLine, pt, *pPlane);
			return true;
		}
		CLASS_CONVER(AcDbArc, pArc, pCurve);
		if (pArc)
		{
			if (!pPlane)
				pt->_profile.push_back(new arc(*pArc));
			else
				convertEntityByPlane<AcDbArc, arc>(pArc, pt, *pPlane);
			return true;
		}
		CLASS_CONVER(AcDb3dPolyline, p3d, pCurve);
		if (p3d)
		{
			AcDb3dPolyline *p = (AcDb3dPolyline *)p3d->clone();
			AcDbVoidPtrArray ar;
			p->explode(ar);
			for (int i = 0; i < ar.length(); ++i)
			{
				CLASS_CONVER(AcDbCurve, pC, (AcDbEntity *)ar[i]);
				if (pC)
					curve2Profile(pC, pt);
			}
			deleteArrayVoidPtrs< AcDbEntity>(ar);
			return !pt->isEmpty();
		}
		CLASS_CONVER(AecDb3dRoadAxisLine, pRoad, pCurve);
		if (pRoad)
		{
			int count = pRoad->GetCurveSegCount();
			for (int i(0); i < count; ++i)
			{
				AcDbCurve *pC = pRoad->GetCurveSeg(i);
				if (pC)
					curve2Profile(pC, pt);
			}
			return !pt->isEmpty();
		}
		CLASS_CONVER(AcDbPolyline, pPoly, pCurve);
		if (pPoly)
		{
			AcDbPolyline *p = (AcDbPolyline *)pPoly->clone();
			AcDbVoidPtrArray ar;
			// 如果 pPlane 不为空，则说明需要进行坐标转换
			// 但是，polyline不用pPlane进行转换，而是使用自己的坐标系
			if (pPlane)
			{
				AcGePlane PolyPlane;
				AcDb::Planarity pty;
				p->getPlane(PolyPlane, pty);
				AcGeVector3d vt = p->normal();
				double elev = p->elevation();
				AcGePoint3d ptO;
				AcGeVector3d vtx, vty, vtz;
				PolyPlane.getCoordSystem(ptO, vtx, vty);
				vtz = PolyPlane.normal();
				// 按法向走 elev

				AcDbPolyline *pp = (AcDbPolyline *)p->clone();
				AcGeMatrix3d mat;
				mat = mat.setToAlignCoordSys(
					ptO, vtx, vty, vtz
					, AcGePoint3d::kOrigin, AcGeVector3d::kXAxis, AcGeVector3d::kYAxis, AcGeVector3d::kZAxis
				);
				pp->transformBy(mat);
				//mat.setToTranslation(pp->normal() * -elev);
				//pp->transformBy(mat);

				DELETE_PTR(p);
				p = pp;

			}
			if (p->explode(ar) == Acad::eOk)
			{
				for (int i = 0; i < ar.length(); ++i)
				{
					CLASS_CONVER(AcDbCurve, pC, (AcDbEntity *)ar[i]);
					if (pC)
						curve2Profile(pC, pt);
				}
				deleteArrayVoidPtrs< AcDbEntity>(ar);
			}
			DELETE_PTR(p);
			return !pt->isEmpty();
		}

		return false;
	}

	void tools::fromEntity(region::profiles &pfs, AcGePlane &plan, const AcDbEntity &ent, const bool &b2D)
	{
		// 先清空内存，防止泄漏
		deleteContainerOfStd(pfs);

		// 判断 ent 是否是 AcDbRegion 或 AcDbCurve，其它不处理
		AcDbRegion *pReg = AcDbRegion::cast(&ent);
		AcDbCurve *pCurve = AcDbCurve::cast(&ent);
		if (!pReg && !pCurve) return;

		// 先求出平面
		plan = getPlane(ent);
		std::vector<AcDbRegion *> regs;
		if (pReg)
		{
			bool bHasEllipse(false);
			AcGePlane regPlane;
			pReg->getPlane(regPlane);
			collectRegions(pReg, regs);
			// 收集后的 regs 内不会再炸出 AcDbRegion 对象，只有AcDbCurve对象
			// 那么，能构成Region的对象，只有 AcDbCircle和AcDbEllipse或AcDbPolyline三种
			// AcDbCircle和AcDbEllipse生成的Region只能炸出一个实体
			// AcDbPolyline生成的Region会炸出 AcdbLine和AcDbArc两种实体
			for (size_t i = 0; i < regs.size(); ++i)
			{
				AcDbVoidPtrArray ar, others;
				regs[i]->explode(ar);
				// 如果只炸出一个，只可能是 circle ellipse
				// 不可能是其它
				for (int i = 0; i < ar.length(); ++i)
				{
					AcDbEntity *pEnt = (AcDbEntity *)ar[i];
					CLASS_CONVER(AcDbCircle, pCir, pEnt);
					CLASS_CONVER(AcDbEllipse, pEll, pEnt);
					if (pCir)
					{	// 圆形只能自己构成region,处理完离开
						path *pt = new path();
						pt->_profile.push_back( new circle(pCir->center()
								, pCir->normal()
								, pCir->radius()));
						pfs.push_back(pt);
						break;
					}

					if (pEll)
					{
						// 判读是 椭圆弧还是完整椭圆
						AcGePoint3d ptS(AcGePoint3d::kOrigin), ptE(AcGePoint3d::kOrigin);
						pEll->getStartPoint(ptS);
						pEll->getEndPoint(ptE);
						if (COMPARE_DOUBLE::equal_zero(ptS.distanceTo(ptE), .0001))
						{	// 完只能自己构成region,处理完离开
							ellipse *pE = new ellipse(pEll->center()
								, pEll->majorAxis()
								, pEll->minorAxis()
								, pEll->majorAxis().length()
								, pEll->minorAxis().length()
								, 0
								, 2 * PI );
							path *pt = new path();
							pt->_profile.push_back(pE);
							pfs.push_back(pt);
							break;
						}
						else
						{
							// 不完整，会有其他curve和它构成region，等待
							others.append(pEll);
							bHasEllipse = true;
							continue;
						}
					}

					// 现在只剩 AcDbLine 和 AcDbArc
					CLASS_CONVER(AcDbLine, pL, pEnt);
					CLASS_CONVER(AcDbArc, pA, pEnt);
					if (pL || pA)
						others.append(pEnt);
				}

				// 现在处理 others，others可以组一个或多个 pf
				std::vector<AcDbPolyline *> polys;

				if (!bHasEllipse)
				{	// 没有ellipse，可以合成polyline
					CoreTools::MakePolyline(others, polys);
					for (size_t i = 0; i < polys.size(); ++i)
					{
						AcDbPolyline *p(polys[i]);
						tools::MeragePolyline(p, 2);
						path *pt = new path();
						if (curve2Profile(p, pt, b2D ? &regPlane : NULL))
							pfs.push_back(pt);
						else
							DELETE_PTR(pt);
					}
					deleteArrayVoidPtrs< AcDbEntity>(ar);
					deleteContainerOfStd(polys);
				}
				else
				{	// 有椭圆，不能合成polyline
					path *pt = new path();
					for (int i(0); i < others.length(); ++i)
					{
						curve2Profile((AcDbCurve *)others[i], pt, b2D ? &regPlane : NULL);
					}
					if (!pt->_profile.empty())
						pfs.push_back(pt);
					else
						DELETE_PTR(pt);
				}
			}

			deleteContainerOfStd(regs);
			return;
		}
		if (pCurve)
		{
			path *pt = new path();
			if (curve2Profile(pCurve, pt))
				pfs.push_back(pt);
			else
				DELETE_PTR(pt);
			return;
		}
	}

	AcDbCurve *tools::asDbPolyline(const std::vector<_geo *> &geos)
	{
		AcDbVoidPtrArray ar(0);
		asCurves(geos, ar);
		if (ar.isEmpty()) return NULL;

		// 如果 ar 内有 acdbcircle 或 acdbellipse 直接返回,如果有其它的对象直接删除
		for (int i = 0; i < ar.length(); ++i)
		{
			AcDbEntity *p((AcDbEntity *)ar[i]);
			AcDbCircle *pCir(AcDbCircle::cast(p));
			AcDbEllipse *pEll(AcDbEllipse::cast(p));
			if (pCir)
			{
				pCir = (AcDbCircle *)pCir->clone();
				deleteArrayVoidPtrs< AcDbEntity>(ar);
				return pCir;
			}
			if (pEll)
			{
				pEll = (AcDbEllipse *)pEll->clone();
				deleteArrayVoidPtrs< AcDbEntity>(ar);
				return pEll;
			}
		}

		AcDbPolyline *pPoly(NULL);
		std::vector<AcDbPolyline *> polys;
		if (CoreTools::MakePolyline(ar, polys))
			pPoly = (AcDbPolyline *)polys[0]->clone();

		deleteContainerOfStd(polys);
		deleteArrayVoidPtrs< AcDbEntity>(ar);
		return pPoly;
	}

	AcDbRegion *tools::asDbRegion(const std::vector<_geo *> &geos)
	{
		AcDbVoidPtrArray ar(0);
		asCurves(geos, ar);
		if (ar.isEmpty()) return NULL;
		AcDbRegion *pReg = CoreTools::createRegion(ar);
		deleteArrayVoidPtrs< AcDbEntity>(ar);
		return pReg;
	}

	AcGePlane tools::getPlane(const AcDbEntity &ent)
	{
		AcGePlane pln = AcGePlane::kXYPlane;
		AcDb::Planarity pty = AcDb::kNonPlanar;
		if (ent.getPlane(pln, pty) == Acad::eOk)
			return pln;

		CLASS_CONVER(AcDbCurve, pCurve, &ent);
		CLASS_CONVER(AcDbRegion, pReg, &ent);
		if (pCurve)
		{
			CLASS_CONVER(AcDbLine, pLine, &ent);
			CLASS_CONVER(AcDbArc, pArc, &ent);
			CLASS_CONVER(AcDbCircle, pCir, &ent);
			CLASS_CONVER(AcDbEllipse, pEll, &ent);
			CLASS_CONVER(AcDbPolyline, pPoly, &ent);
			if (pLine)
				return pln;
			else if (pCir)
				return AcGePlane(pCir->center(), pCir->normal());
			else if (pArc)
				return AcGePlane(pArc->center(), pArc->normal());
			else if (pEll)
				return AcGePlane(pEll->center(), pEll->normal());
			else if (pPoly)
			{
				AcDbExtents ext;
				pPoly->getGeomExtents(ext);
				AcGePoint3d ptM = CoreTools::MidPt(ext.maxPoint(), ext.minPoint());
				return AcGePlane(ptM, pPoly->normal());
			}
		}
		else if (pReg)
		{
			AcDbExtents ext;
			pReg->getGeomExtents(ext);
			AcGePoint3d ptM = CoreTools::MidPt(ext.maxPoint(), ext.minPoint());
			AcGeVector3d vt(AcGeVector3d::kIdentity);
			pReg->getNormal(vt);
			return AcGePlane(ptM, vt);
		}

		return pln;
	}

	void tools::MeragePolyline(AcDbPolyline *pPoly, const double &tol)
	{
		AcGeLineSeg3d segLine;
		AcGeCircArc3d segArc;
		double dBulge(.0), dSegLen(.0);
		AcGePoint2d pt;

		int nNumOfSeg(pPoly->numVerts() - 1);
		if (nNumOfSeg <= 1) return;

		for (int i(0); i < nNumOfSeg; ++i)
		{
			AcDbPolyline::SegType st = pPoly->segType(i);
			if (st == AcDbPolyline::kLine)
			{
				pPoly->getLineSegAt(i, segLine);
				dSegLen = segLine.length();
				
			}
			else if (st == AcDbPolyline::kArc)
			{
				pPoly->getArcSegAt(i, segArc);
				dSegLen = segArc.length(segArc.paramOf(segArc.startPoint())
					, segArc.paramOf(segArc.endPoint()));
			}
			else
				continue;

			if (dSegLen > tol || COMPARE_DOUBLE::equal_zero(dSegLen, 1e-6)) continue;

			if (i == nNumOfSeg - 1) // 最后一段
			{	// 删除最后一个节点，延长倒数第二个点
				pPoly->getPointAt(i + 1, pt);
				pPoly->setPointAt(i, pt);
				pPoly->removeVertexAt(i + 1);
				i = -1;
				nNumOfSeg = pPoly->numVerts() - 1;
			}
			else
			{	// 删除第一个点，第二个点延长
				pPoly->getPointAt(i, pt);
				pPoly->setPointAt(i + 1, pt);
				pPoly->removeVertexAt(i);
				i = -1;
				nNumOfSeg = pPoly->numVerts() - 1;
			}

			continue;
		}
	}

	int tools::makeVertexLoop(const AcGePoint3dArray &pts, AcGePoint3dArray &loop, const double &tol)
	{
		if (pts.length() < 3) return 0;

		loop.append(pts.first());

		for (int i(1); i < pts.length(); ++i)
		{
			if (loop.last().distanceTo(pts[i]) <= tol)
				continue;
			else
				loop.append(pts[i]);
		}

		if (loop.length() < 3) return 0;

		// 最后,比一下第一点和最后一点
		if (loop.last().distanceTo(loop.first()) <= tol)
			loop.removeLast();

		if (loop.length() < 3) return 0;

		return loop.length();
	}

	bool tools::fromFace(tessellations &ss, AcDbFace *pFace)
	{
		if (!pFace) return false;

		int r(-1), g(-1), b(-1);

		DWORD clr = getEntityColor(pFace);

		AcGePoint3d pt0, pt1, pt2, pt3;
		pFace->getVertexAt(0, pt0);
		pFace->getVertexAt(1, pt1);
		pFace->getVertexAt(2, pt2);
		pFace->getVertexAt(3, pt3);

		AcGePoint3dArray pts, _pts;
		pts.append(pt0);
		pts.append(pt1);
		pts.append(pt2);
		pts.append(pt3);

		if (makeVertexLoop(pts, _pts))
			ss.push_back(tessellation(_pts, clr));
		else
			return false;

		return true;
	}

	int tools::solid2Face(AcDb3dSolid *pSolid, tessellations &ss)
	{
		if (!pSolid) return 0;

		AcDbExtents ext;
		pSolid->getGeomExtents(ext);
		AcGeVector3d vt = ext.maxPoint() - ext.minPoint();

		AcDbFaceterSettings faceter = {};
		faceter.faceterMeshType = 2;
		faceter.faceterMaxEdgeLength = vt.length() * .01;

		AcGePoint3dArray vertexArray;
		AcArray<Adesk::Int32> faceArray;
		AcGiFaceData *faceData(NULL);
		if (!acdbGetObjectMesh(pSolid, &faceter, vertexArray, faceArray, faceData) == Acad::eOk) return 0;

		if (faceData)
		{
			delete[] faceData->trueColors();
			delete[] faceData->materials();
			delete faceData;
		}

		AcDbSubDMesh *pMesh = new AcDbSubDMesh();
		pMesh->setSubDMesh(vertexArray, faceArray, 0);

		int nRel((int)ss.size());

		AcDbVoidPtrArray arptrs;
		pMesh->explode(arptrs);
		for (int i(0); i < arptrs.length(); ++i)
		{
			AcDbFace *pFace = AcDbFace::cast((AcDbEntity *)arptrs[i]);
			if (pFace)
				fromFace(ss, pFace);
			else
				acutPrintf(_T("\ndkdkdkddk"));
		}
		nRel = (int)ss.size() - nRel;

		DELETE_PTR(pMesh);
		deleteArrayVoidPtrs< AcDbEntity>(arptrs);

		return nRel;
	}
#pragma endregion

#pragma region point
	point::point(const double &x, const double &y, const double &z): _x(x), _y(y), _z(z) {}

	point::point(const AcGePoint3d &pt): _x(pt.x), _y(pt.y), _z(pt.z) {}

	point::point(const AcGeVector3d &vt): _x(vt.x), _y(vt.y), _z(vt.z) {}

	point::point(std::wstring &s): _x(.0), _y(.0), _z(.0) { _geo::set(s); }

	point::point(const WValue &v): _x(.0), _y(.0), _z(.0) { _geo::set(v); }

	void point::set(const double &x, const double &y, const double &z) { _x = x; _y = y; _z = z; }

	void point::set(const AcGePoint3d &pt) { _x = pt.x; _y = pt.y; _z = pt.z; }

	void point::set(const AcGeVector3d &vt) { _x = vt.x; _y = vt.y; _z = vt.z; }

	AcGePoint3d point::asPnt3d() { return AcGePoint3d(_x, _y, _z); }

	AcGeVector3d point::asVec3d() { return AcGeVector3d(_x, _y, _z); }

	WValue &point::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("x"), _x);
		addMember(v, _T("y"), _y);
		addMember(v, _T("z"), _z);
		return v;
	}

	bool point::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("x")) && v.HasMember(_T("y")) && v.HasMember(_T("z")))
		{
			_x = v[_T("x")].GetDouble();
			_y = v[_T("y")].GetDouble();
			_z = v[_T("z")].GetDouble();
			return true;
		}
		return false;
	}

	_geo *point::clone() { return new point(_x, _y, _z); }

	_geo::TYPE point::type() { return _geo::ePoint; }

	point &point::operator = (const point &pt) { _x = pt._x; _y = pt._y; _z = pt._z; return *this; }

	point &point::operator = (const AcGeVector3d &vt) { _x = vt.x; _y = vt.y; _z = vt.z; return *this; }

	point &point::operator = (const AcGePoint3d &pt) { _x = pt.x; _y = pt.y; _z = pt.z; return *this; }

	point &point::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	point &point::operator=(const WValue &v) { _geo::set(v); return *this; }

	byte* point::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(this);
		return p;
	}

	void point::byBinary(byte *p)
	{
		CMemTools mem(p);
		int type;
		mem.read<int>(&type);
		*this = mem.read_point();
	}

	unsigned long point::memLen()
	{
		return 3 * sizeof(double) + sizeof(int);
	}
#pragma endregion

#pragma region matrix
	matrix::matrix() { }

	matrix::~matrix() { }

	matrix::matrix(const vector &x, const vector &y, const vector &z, const point &o)
		: _x(x), _y(y), _z(z), _o(o) { }

	matrix::matrix(const AcGeMatrix3d &m) { set(m); }

	matrix::matrix(const matrix &m) { set(m); }

	matrix::matrix(const std::wstring &s) { _geo::set(s); }

	matrix::matrix(const WValue &v) { _geo::set(v); }

	matrix &matrix::operator = (const AcGeMatrix3d &m) { set(m); return *this; }

	matrix &matrix::operator = (std::wstring &s) { _geo::set(s); return *this; }

	matrix &matrix::operator = (const matrix &m) { set(m); return *this; }

	matrix &matrix::operator=(const WValue &v) { _geo::set(v); return *this; }

	void matrix::set(const AcGeMatrix3d &m)
	{
		AcGeVector3d vtX, vtY, vtZ;
		AcGePoint3d org;
		m.getCoordSystem(org, vtX, vtY, vtZ);
		_x = vector(vtX);
		_y = vector(vtY);
		_z = vector(vtZ);
		_o = point(org);
	}

	void matrix::set(const matrix &m) { _x = m._x; _y = m._y; _z = m._z; _o = m._o; }

	AcGeMatrix3d matrix::asMatrix3d()
	{
		AcGeMatrix3d mat;
		mat.setCoordSystem(_o.asPnt3d(), _x.asVec3d(), _y.asVec3d(), _z.asVec3d());
		return mat;
	}

	WValue &matrix::ToJson()
	{
		_v.SetObject();
		addMember(_v, _T("x"), _x.ToJson());
		addMember(_v, _T("y"), _y.ToJson());
		addMember(_v, _T("z"), _z.ToJson());
		addMember(_v, _T("o"), _o.ToJson());
		return _v;
	}

	bool matrix::ByJson(const WValue &v)
	{
		MCIt itX(v.FindMember(_T("x")));
		MCIt itY(v.FindMember(_T("y")));
		MCIt itZ(v.FindMember(_T("z")));
		MCIt itO(v.FindMember(_T("o")));
		if (itX != v.MemberEnd() && itY != v.MemberEnd() && itZ != v.MemberEnd() && itO != v.MemberEnd())
		{
			_x.ByJson(itX->value);
			_y.ByJson(itY->value);
			_z.ByJson(itZ->value);
			_o.ByJson(itO->value);
			return true;
		}
		return false;
	}

	_geo *matrix::clone() { return new matrix(*this); }

	_geo::TYPE matrix::type() { return eMatrix; }

	unsigned long matrix::memLen()
	{
		return 4 * _x.memLen() + sizeof(int);
	}

	byte* matrix::toBinary()
	{
		byte *p = makeMem();

		int _type((int)type());

		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_x);
		mem.write_point(&_y);
		mem.write_point(&_z);
		mem.write_point(&_o);
		return p;
	}

	void matrix::byBinary(byte *p)
	{
		CMemTools mem(p);
		int type;
		mem.read<int>(&type);
		_x = mem.read_point();
		_y = mem.read_point();
		_z = mem.read_point();
		_o = mem.read_point();
	}
#pragma endregion

#pragma region binary
	binary::binary(): _data(NULL), _len(0) { }

	binary::~binary() { DELETE_ARR_(_data); _len = 0; }

	binary::binary(const byte *data, const size_t &len): _data(NULL), _len(0) { set(data, len); }

	binary::binary(const binary &b): _data(NULL), _len(0) { set(b._data, b._len); }

	binary::binary(const std::wstring &s): _data(NULL), _len(0) { _geo::set(s); }

	binary::binary(const WValue &v): _data(NULL), _len(0) { _geo::set(v); }

	binary &binary::operator=(const binary &b) { set(b._data, b._len); return *this; }

	binary &binary::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	binary &binary::operator=(const WValue &v) { _geo::set(v); return *this; }

	void binary::set(const binary &b) { set(b._data, b._len); }

	void binary::set(const byte *data, const size_t &len)
	{
		this->~binary();
		_data = new byte[len];
		_len = len;
		::memset(_data, 0, sizeof(byte) * _len);
		::memcpy(_data, data, sizeof(byte) * _len);
	}

	WValue &binary::ToJson()
	{
		WValue &v(_v);
		v.SetObject();

		std::wstring ws(_T(""));

		addMember(v, _T("len"), _len);
		if (_len)
		{
			std::string s = Base64::Encode((char *)_data, _len);
			ws = Base64::ansii2Unicode(s.c_str(), CP_UTF8);
		}
		addMember(v, _T("data"), ws.c_str());

		return v;
	}

	bool binary::ByJson(const WValue &v)
	{
		MCIt itLen = v.FindMember(_T("len"));
		MCIt itData = v.FindMember(_T("data"));
		if (itLen != v.MemberEnd() && itData != v.MemberEnd())
		{
			this->~binary();

			_len = itLen->value.GetInt64();
			std::wstring ws = itData->value.GetString();
			std::string s = Base64::unicode2Ansii(ws.c_str(), CP_UTF8);

			char *p(NULL);
			// 这么写的原因是 decode() 函数有问题，反回的长度会大于原有长度，其内存会用0补齐
			// 所以，这里直接用原有长度，并不会影响内存的释放。
			if (Base64::Decode(s, p) >= _len)
			{
				_data = (byte *)p;
				return true;
			}
			else
			{
				this->~binary();
				DELETE_ARR_(p);
				return false;
			}
		}
		return false;
	}

	_geo *binary::clone() { return new binary(_data, _len); }

	_geo::TYPE binary::type() { return eBinary; }
#pragma endregion

#pragma region plane
	plane::plane() {}

	plane::plane(const point &pt, const vector &vt): _origin(pt), _normal(vt) { }

	plane::plane(const AcGePoint3d &ori, const AcGeVector3d &vt): _origin(ori), _normal(vt) {}

	plane::plane(const AcGePlane &plan) { set(plan); }

	plane::plane(const std::wstring &s) { _geo::set(s); }
	plane::plane(const WValue &v) { _geo::set(v); }

	void plane::set(const AcGePoint3d &ori, const AcGeVector3d &vt) { _origin = ori, _normal = vt; }

	void plane::set(const AcGePlane &plan)
	{
		AcGePoint3d ptOrg(AcGePoint3d::kOrigin);
		AcGeVector3d vt;
		plan.get(ptOrg, vt, vt);
		_origin = ptOrg;
		_normal = plan.normal();
	}

	AcGePlane plane::asGePlane() { return AcGePlane(_origin.asPnt3d(), _normal.asVec3d()); }

	WValue &plane::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("origin"), _origin.ToJson());
		addMember(v, _T("normal"), _normal.ToJson());
		return v;
	}

	bool plane::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("origin")) && v.HasMember(_T("normal")))
		{
			if (!_origin.ByJson(v[_T("origin")])) return false;
			if (!_normal.ByJson(v[_T("normal")])) return false;
			return true;
		}
		return false;
	}

	_geo *plane::clone() { return new plane(_origin, _normal); }

	_geo::TYPE plane::type() { return _geo::ePlane; }

	plane &plane::operator = (const plane &plan) { _origin = plan._origin; _normal = plan._normal; return *this; }

	plane &plane::operator = (const AcGePlane &plan) { *this = plane(plan); return *this; }

	plane &plane::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	plane &plane::operator=(const WValue &v) { _geo::set(v); return *this; }

	unsigned long plane::memLen()
	{
		return 2 * _origin.memLen() + sizeof(int);
	}

	byte* plane::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_origin);
		mem.write_point(&_normal);
		return p;
	}

	void plane::byBinary(byte *p)
	{
		CMemTools mem(p);
		int type;
		mem.read<int>(&type);
		_origin = mem.read_point();
		_normal = mem.read_point();
	}

#pragma endregion

#pragma region line
	line::line() {}

	line::line(const point &s, const point &e): _start(s), _end(e) {}

	line::line(const AcGePoint3d &s, const AcGePoint3d &e): _start(s), _end(e) {}

	line::line(const AcDbLine &l): _start(l.startPoint()), _end(l.endPoint()) {}

	line::line(const AcDbObjectId &id) { set(id); }

	line::line(const std::wstring &s) { _geo::set(s); }

	line::line(const WValue &v) { _geo::set(v); }

	void line::set(const AcGePoint3d &s, const AcGePoint3d &e) { _start = s; _end = e; }

	void line::set(const AcDbLine &l) { _start = l.startPoint(); _end = l.endPoint(); }

	void line::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbLine, p)
			if (p) set(*p);
		OPENOBJ_END()
	}

	void line::set(const AcDbCurve *pCurve) { _CRV_SET_(AcDbLine, pCurve); }

	AcDbLine *line::asDbLine() { return new AcDbLine(_start.asPnt3d(), _end.asPnt3d()); }

	AcDbCurve *line::asDbCurve() { return asDbLine(); }

	WValue &line::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("start"), _start.ToJson());
		addMember(v, _T("end"), _end.ToJson());
		return v;
	}

	bool line::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("start")) && v.HasMember(_T("end")))
		{
			if (!_start.ByJson(v[_T("start")])) return false;
			if (!_end.ByJson(v[_T("end")])) return false;
			return true;
		}
		return false;
	}

	_geo *line::clone() { return new line(_start, _end); }

	_geo::TYPE line::type() { return _geo::eLine; }

	line &line::operator = (const line &l) { _start = l._start; _end = l._end; return *this; }

	line &line::operator = (const AcDbLine &l) { _start = l.startPoint(); _end = l.endPoint(); return *this; }

	line &line::operator=(const AcDbObjectId &id) { set(id); return *this; }

	line &line::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	line &line::operator=(const WValue &v) { _geo::set(v); return *this; }

	unsigned long line::memLen()
	{
		return 2 * _start.memLen() + sizeof(int);
	}

	byte* line::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_start);
		mem.write_point(&_end);
		return p;
	}

	void line::byBinary(byte *p)
	{
		int type;
		CMemTools mem(p);
		mem.read<int>(&type);
		_start = mem.read_point();
		_end = mem.read_point();
	}
#pragma endregion

#pragma region arc
	arc::arc() {}

	arc::arc(const point &s, const point &m, const point &e): _start(s), _middle(m), _end(e) { }

	arc::arc(const AcDbArc &a) { set(a); }

	arc::arc(const AcDbObjectId &id) { set(id); }

	arc::arc(const std::wstring &s) { _geo::set(s); }

	arc::arc(const WValue &v) { _geo::set(v); }

	void arc::set(const AcDbArc &a)
	{
		AcGePoint3d pts(AcGePoint3d::kOrigin)
			, pte(AcGePoint3d::kOrigin)
			, ptm(AcGePoint3d::kOrigin);
		double dL(.0);
		a.getStartPoint(pts);
		a.getEndPoint(pte);
		a.getDistAtPoint(pte, dL);
		a.getPointAtDist(dL * .5, ptm);
		_start = pts;
		_middle = ptm;
		_end = pte;
	}

	void arc::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbArc, p)
			if (p) set(*p);
		OPENOBJ_END()
	}

	void arc::set(const AcDbCurve *pCurve) { _CRV_SET_(AcDbArc, pCurve); }

	AcDbArc *arc::asDbArc()
	{
		AcGeCircArc3d geArc(_start.asPnt3d(), _middle.asPnt3d(), _end.asPnt3d());
		return CoreTools::geArc2DbArc(geArc);
	}

	AcDbCurve *arc::asDbCurve() { return asDbArc(); }

	WValue &arc::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("start"), _start.ToJson());
		addMember(v, _T("middle"), _middle.ToJson());
		addMember(v, _T("end"), _end.ToJson());
		return v;
	}

	bool arc::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("start")) && v.HasMember(_T("end")) && v.HasMember(_T("middle")))
		{
			if (!_start.ByJson(v[_T("start")])) return false;
			if (!_middle.ByJson(v[_T("middle")])) return false;
			if (!_end.ByJson(v[_T("end")])) return false;
			return true;
		}
		return false;
	}

	_geo *arc::clone() { return new arc(_start, _middle, _end); }

	_geo::TYPE arc::type() { return _geo::eArc; }

	arc &arc::operator = (const AcDbArc &a) { *this = arc(a); return *this; }

	arc &arc::operator = (const arc &a) { _start = a._start; _middle = a._middle; _end = a._end; return *this; }

	arc &arc::operator=(const AcDbObjectId &id) { set(id); return *this; }

	arc &arc::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	arc &arc::operator=(const WValue &v) { _geo::set(v); return *this; }

	unsigned long arc::memLen()
	{
		return 3 * _start.memLen() + sizeof(int);
	}

	byte *arc::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_start);
		mem.write_point(&_middle);
		mem.write_point(&_end);
		return p;
	}

	void arc::byBinary(byte *p)
	{
		int type;
		CMemTools mem(p);
		mem.read<int>(&type);
		_start = mem.read_point();
		_middle = mem.read_point();
		_end = mem.read_point();
	}
#pragma endregion

#pragma region circle
	circle::circle(): _radius(.0) {}

	circle::circle(const point &c, const vector &n, const double &r): _center(c), _normal(n), _radius(r) { }

	circle::circle(const AcDbCircle &cir): _center(cir.center()), _normal(cir.normal()), _radius(cir.radius()) { }

	circle::circle(const AcDbObjectId &id) { set(id); }

	circle::circle(const std::wstring &s) { _geo::set(s); }

	circle::circle(const WValue &v) { _geo::set(v); }

	void circle::set(const AcDbCircle &cir) { _center = cir.center(); _normal = cir.normal(); _radius = cir.radius(); }

	void circle::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbCircle, p)
			if (p) set(*p);
		OPENOBJ_END()
	}

	void circle::set(const AcDbCurve *pCurve) { _CRV_SET_(AcDbCircle, pCurve); }

	AcDbCircle *circle::asDbCircle() { return new AcDbCircle(_center.asPnt3d(), _normal.asVec3d(), _radius); }

	AcDbCurve *circle::asDbCurve() { return asDbCircle(); }

	WValue &circle::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("center"), _center.ToJson());
		addMember(v, _T("normal"), _normal.ToJson());
		addMember(v, _T("radius"), WValue(_radius).Move());
		return v;
	}

	bool circle::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("center")) && v.HasMember(_T("normal")) && v.HasMember(_T("radius")))
		{
			if (!_center.ByJson(v[_T("center")])) return false;
			if (!_normal.ByJson(v[_T("normal")])) return false;
			_radius = v[_T("radius")].GetDouble();
			return true;
		}
		return false;
	}

	_geo *circle::clone()
	{
		return new circle(_center, _normal, _radius);
	}

	_geo::TYPE circle::type() { return _geo::eCircle; }

	circle &circle::operator = (const circle &cir) { _center = cir._center; _normal = cir._normal; _radius = cir._radius; return *this; }

	circle &circle::operator = (const AcDbCircle &cir) { _center = cir.center(); _normal = cir.normal(); _radius = cir.radius(); return *this; }

	circle &circle::operator=(const AcDbObjectId &id) { set(id); return *this; }

	circle &circle::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	circle &circle::operator=(const WValue &v) { _geo::set(v); return *this; }

	unsigned long circle::memLen()
	{
		return 2 * _center.memLen() + sizeof(double) + sizeof(int);
	}

	byte *circle::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_center);
		mem.write_point(&_normal);
		mem.write<double>(&_radius);
		return p;
	}

	void circle::byBinary(byte *p)
	{
		int type;
		CMemTools mem(p);
		mem.read<int>(&type);
		_center = mem.read_point();
		_normal = mem.read_point();
		mem.read<double>(&_radius);
	}
#pragma endregion

#pragma region ellipse
	ellipse::ellipse(): _xRadius(.0), _yRadius(.0), _startParam(.0), _endParam(.0) {}

	ellipse::ellipse(const point &c
		, const vector &x
		, const vector &y
		, const double &xr
		, const double &yr
		, const double &sp
		, const double &ep)
		: _center(c)
		, _xAxis(x)
		, _yAxis(y)
		, _xRadius(xr)
		, _yRadius(yr)
		, _startParam(sp)
		, _endParam(ep) { }

	ellipse::ellipse(const AcDbEllipse &e) { set(e); }

	ellipse::ellipse(const AcDbObjectId &id) { set(id); }

	ellipse::ellipse(const ellipse &e) { set(e); }

	ellipse::ellipse(const std::wstring &s) { _geo::set(s); }

	ellipse::ellipse(const WValue &v) { _geo::set(v); }

	void ellipse::set(const ellipse &e)
	{
		_center = e._center;
		_xAxis = e._xAxis;
		_yAxis = e._yAxis;
		_xRadius = e._xRadius;
		_yRadius = e._yRadius;
		_startParam = e._startParam;
		_endParam = e._endParam;
	}

	void ellipse::set(const AcDbEllipse &e)
	{
		_center = e.center();
		_xAxis = e.majorAxis();
		_yAxis = e.minorAxis();
		_xRadius = e.majorAxis().length();
		_yRadius = e.minorAxis().length();
		_startParam = e.paramAtAngle(e.startAngle());
		_endParam = e.paramAtAngle(e.endAngle());
	}


	void ellipse::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbEllipse, p)
			if (p) set(*p);
		OPENOBJ_END()
	}


	void ellipse::set(const AcDbCurve *pCurve) { _CRV_SET_(AcDbEllipse, pCurve); }

	AcDbEllipse *ellipse::asDbEllipse()
	{
		AcGeVector3d vtNormal = _xAxis.asVec3d().crossProduct(_yAxis.asVec3d());
		AcDbEllipse *pEll = new AcDbEllipse(_center.asPnt3d()
			, vtNormal
			, _xAxis.asVec3d()
			, _yRadius / _xRadius);

		double dSA = pEll->angleAtParam(_startParam);
		double dEA = pEll->angleAtParam(_endParam);
		pEll->setStartAngle(dSA);
		pEll->setEndAngle(dEA);
		return pEll;
	}

	AcDbCurve *ellipse::asDbCurve() { return asDbEllipse(); }

	WValue &ellipse::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);
		addMember(v, _T("center"), _center.ToJson());
		addMember(v, _T("xAxis"), _xAxis.ToJson());
		addMember(v, _T("yAxis"), _yAxis.ToJson());
		addMember(v, _T("xRadius"), _xRadius);
		addMember(v, _T("yRadius"), _yRadius);
		addMember(v, _T("startParam"), _startParam);
		addMember(v, _T("endParam"), _endParam);
		return v;
	}

	bool ellipse::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("center"))
			&& v.HasMember(_T("xAxis"))
			&& v.HasMember(_T("yAxis"))
			&& v.HasMember(_T("xRadius"))
			&& v.HasMember(_T("yRadius"))
			&& v.HasMember(_T("startParam"))
			&& v.HasMember(_T("endParam")))
		{
			if (!_center.ByJson(v[_T("center")])) return false;
			if (!_xAxis.ByJson(v[_T("xAxis")])) return false;
			if (!_yAxis.ByJson(v[_T("yAxis")])) return false;
			_xRadius = v[_T("xRadius")].GetDouble();
			_yRadius = v[_T("yRadius")].GetDouble();
			_startParam = v[_T("startParam")].GetDouble();
			_endParam = v[_T("endParam")].GetDouble();
			return true;
		}
		return false;
	}

	_geo *ellipse::clone() { return new ellipse(*this); }

	_geo::TYPE ellipse::type() { return _geo::eEllipse; }

	ellipse &ellipse::operator = (const ellipse &e) { set(e); return *this; }

	ellipse &ellipse::operator = (const AcDbEllipse &e) { set(e); return *this; }

	ellipse &ellipse::operator=(const AcDbObjectId &id) { set(id); return *this; }

	ellipse &ellipse::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	ellipse &ellipse::operator=(const WValue &v) { _geo::set(v); return *this; }

	unsigned long ellipse::memLen()
	{
		return 3 * _center.memLen() + 4 * sizeof(double) + sizeof(int);
	}

	byte *ellipse::toBinary()
	{
		int _type((int)type());
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write_point(&_center);
		mem.write_point(&_xAxis);
		mem.write_point(&_yAxis);
		mem.write<double>(&_xRadius);
		mem.write<double>(&_yRadius);
		mem.write<double>(&_startParam);
		mem.write<double>(&_endParam);
		return p;
	}

	void ellipse::byBinary(byte *p)
	{
		int type;
		CMemTools mem(p);
		mem.read<int>(&type);
		_center = mem.read_point();
		_xAxis = mem.read_point();
		_yAxis = mem.read_point();
		mem.read<double>(&_xRadius);
		mem.read<double>(&_yRadius);
		mem.read<double>(&_startParam);
		mem.read<double>(&_endParam);
	}
#pragma endregion

#pragma region spline
	_geo::TYPE spline::type() { return _geo::eSpline; }

	spline::spline() { }

	spline::spline(const AcDbSpline &pl) { set(pl); }

	spline::spline(const spline &pl) { set(pl); }

	void spline::set(const AcDbSpline &sp)
	{
	#if ARX > 18
		_spType = sp.type();
	#else
		_spType = sp.hasFitData() ? 0 : 1;
	#endif
		_fitPts.clear();
		_controlPts.clear();

		AcGePoint3dArray fits_pts, control_pts;
		AcGePoint3d pt;
		AcGeVector3d vt1, vt2;
	#if ARX < 19
		sp.getFitData(fits_pts
			, _degree_fit
			, _fitTolerance
			, _tangentsExist
			, vt1
			, vt2
		);
	#else
		AcGe::KnotParameterization knotp;
		sp.getFitData(fits_pts
			, _tangentsExist
			, vt1
			, vt2
			, knotp
			, _degree_fit
			, _fitTolerance
		);
		_knotParam = (int)knotp;
	#endif
		for (int i(0); i < fits_pts.length(); ++i)
			_fitPts.push_back(fits_pts[i]);

		_startTangent = vt1;
		_endTangent = vt2;

		sp.getNurbsData(_degree_nurb
			, _rational
			, _closed
			, _periodic
			, control_pts
			, _knots
			, _weights
			, _controlPtTol
			, _knotTol);
		for (int i(0); i < control_pts.length(); ++i)
			_controlPts.push_back(control_pts[i]);
	}

	void spline::set(const spline &pl)
	{
		_spType = pl._spType;
		_fitPts.clear();
		_controlPts.clear();
		_fitPts.assign(pl._fitPts.begin(), pl._fitPts.end());
		_controlPts.assign(pl._controlPts.begin(), pl._controlPts.end());

		_tangentsExist = pl._tangentsExist;
		_startTangent = pl._startTangent;
		_endTangent = pl._endTangent;
		_knotParam = pl._knotParam;
		_degree_fit = pl._degree_fit;
		_fitTolerance = pl._fitTolerance;

		_degree_nurb = pl._degree_nurb;
		_rational = pl._degree_nurb;
		_closed = pl._degree_nurb;
		_periodic = pl._degree_nurb;
		_knots.removeAll();
		_knots.append(pl._knots);
		_weights.removeAll();
		_weights.append(pl._weights);
		_knotTol = pl._knotTol;
		_controlPtTol = pl._controlPtTol;
	}

	void spline::set(const AcDbObjectId &id)
	{
		AcDbObjectPointer<AcDbSpline> ptr(id, AcDb::kForRead);
		if (ptr.openStatus() != Acad::eOk) return;
		set(*ptr.object());
	}

	void spline::set(const AcDbCurve *pCurve) { _CRV_SET_(AcDbSpline,pCurve); }

	AcDbCurve *spline::asDbCurve()
	{
		AcGePoint3dArray arpts;
		AcDbSpline *p(new AcDbSpline());

	#if ARX > 18
		p->setType((SplineType)_spType);
	#else
	#endif

		if (!_fitPts.empty() && _spType == 0)
		{
			for (size_t i(0); i < _fitPts.size(); ++i)
				arpts.append(_fitPts[i].asPnt3d());
		//#if ARX < 19
			p->setFitData(arpts
				, _degree_fit
				, _fitTolerance
				, _startTangent.asVec3d()
				, _endTangent.asVec3d()
			);
		//#else
		//	AcGe::KnotParameterization knotp = (AcGe::KnotParameterization)_knotParam;
		//	if (knotp == AcGe::kCustomParameterization)
		//		knotp = AcGe::kUniform;

		//	p->setFitData(arpts
		//		, _startTangent.asVec3d()
		//		, _endTangent.asVec3d()
		//		, knotp
		//		, _degree_fit
		//		, _fitTolerance
		//	);
		//#endif
		}

		if (!_controlPts.empty() && _spType == 1)
		{
			for (size_t i(0); i < _controlPts.size(); ++i)
				arpts.append(_controlPts[i].asPnt3d());

			p->setNurbsData(_degree_nurb
				, _rational
				, _closed
				, _periodic
				, arpts
				, _knots
				, _weights
				, _controlPtTol
				, _knotTol);
		}

		return p;
	}

	WValue& spline::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);

		addMember(v, _T("splineType"), _spType);

		WValue ar;
		ar.SetArray();

		for (size_t i(0); i < _fitPts.size(); ++i)
			pushBack(ar, _fitPts[i].ToJson());
		addMember(v, _T("f_points"), ar);
		addMember(v, _T("f_degree"), _degree_fit);
		addMember(v, _T("tangentsExist"), _tangentsExist);
		addMember(v, _T("startTangent"), vector(_startTangent).ToJson());
		addMember(v, _T("endTangent"), vector(_endTangent).ToJson());
		addMember(v, _T("knotParam"), _knotParam);
		addMember(v, _T("fitTolerance"), _fitTolerance);

		ar.SetArray();
		for (size_t i(0); i < _controlPts.size(); ++i)
			pushBack(ar, _controlPts[i].ToJson());
		addMember(v, _T("c_points"), ar);
		addMember(v, _T("c_degree"), _degree_nurb);
		addMember(v, _T("rational"), _rational);
		addMember(v, _T("closed"), _closed);
		addMember(v, _T("periodic"), _periodic);

		ar.SetArray();
		for (int i(0); i < _knots.length(); ++i)
			pushBack(ar, _knots[i]);
		addMember(v, _T("knots"), ar);

		ar.SetArray();
		for (int i(0); i < _weights.length(); ++i)
			pushBack(ar, _weights[i]);
		addMember(v, _T("weights"), ar);

		addMember(v, _T("controlPtTol"), _controlPtTol);
		addMember(v, _T("knotTol"), _knotTol);

		return v;
	}

	bool spline::ByJson(const WValue &v) { return false; }

	_geo *spline::clone() { return new spline(*this); }

	spline &spline::operator = (const spline &pl) { set(pl); return *this; }

	spline& spline::operator = (const AcDbSpline &pl) { set(pl); return *this;}

	spline& spline::operator = (const AcDbObjectId &id) { set(id); return *this;}

	unsigned long spline::memLen()
	{
		point pt;
		unsigned long len = sizeof(int) + sizeof(int);
		len += sizeof(size_t);
		len += (unsigned long)_fitPts.size() * pt.memLen();	// _fitPts
		len += sizeof(Adesk::Boolean);			// _tangentsExist
		len += pt.memLen();						// _startTangent
		len += pt.memLen();						// _endTangent
		len += sizeof(int);						// _knotParam
		len += sizeof(int);						// _degree_fit
		len += sizeof(double);					// _fitTolerance
		len += sizeof(size_t);
		len += (unsigned long)_controlPts.size() * pt.memLen();	// _controlPts
		len += sizeof(int);							// _degree_nurb
		len += sizeof(Adesk::Boolean);				// _rational
		len += sizeof(Adesk::Boolean);				// _closed
		len += sizeof(Adesk::Boolean);				// _periodic
		len += sizeof(int);
		len += _knots.length() * sizeof(double);		// _knots
		len += sizeof(int);
		len += _weights.length() * sizeof(double);		// _weights
		len += sizeof(double);						// _controlPtTol
		len += sizeof(double);						// _knotTol
		return len;
	}

	byte *spline::toBinary()
	{
		int _type((int)type());
		point pt;
		size_t num(0);
		int num1(0);
		byte *p = makeMem();
		CMemTools mem(p);
		mem.write<int>(&_type);
		mem.write<int>(&_spType);
		num = _fitPts.size();
		mem.write<size_t>(&num);

		for (int i(0); i < num; ++i)
			mem.write_point(&_fitPts[i]);

		mem.write<Adesk::Boolean>(&_tangentsExist);
		mem.write_point(&_startTangent);
		mem.write_point(&_endTangent);
		mem.write<int>(&_knotParam);
		mem.write<int>(&_degree_fit);
		mem.write<double>(&_fitTolerance);
		num = _controlPts.size();
		mem.write<size_t>(&num);

		for (int i(0); i < num; ++i)
			mem.write_point(&_controlPts[i]);

		mem.write<int>(&_degree_nurb);
		mem.write<Adesk::Boolean>(&_rational);
		mem.write<Adesk::Boolean>(&_closed);
		mem.write<Adesk::Boolean>(&_periodic);

		num1 = _knots.length();
		mem.write<int>(&num1);
		mem.write<double>(_knots.asArrayPtr(), num1);

		num1 = _weights.length();
		mem.write<int>(&num1);
		mem.write<double>(_weights.asArrayPtr(), num1);

		mem.write<double>(&_controlPtTol);
		mem.write<double>(&_knotTol);

		return p;
	}

	void spline::byBinary(byte *p)
	{
		size_t num(0);
		int num1(0);
		int type;

		CMemTools mem(p);
		mem.read<int>(&type);
		mem.read<int>(&_spType);

		mem.read<size_t>(&num);
		for (size_t i(0); i < num; ++i)
			_fitPts.push_back(mem.read_point());

		mem.read<Adesk::Boolean>(&_tangentsExist);
		_startTangent = mem.read_point();
		_endTangent = mem.read_point();
		mem.read<int>(&_knotParam);
		mem.read<int>(&_degree_fit);
		mem.read<double>(&_fitTolerance);
		mem.read<size_t>(&num);
		for (size_t i(0); i < num; ++i)
			_controlPts.push_back(mem.read_point());

		mem.read<int>(&_degree_nurb);
		mem.read<Adesk::Boolean>(&_rational);
		mem.read<Adesk::Boolean>(&_closed);
		mem.read<Adesk::Boolean>(&_periodic);

		mem.read<int>(&num1);
		_knots.setLogicalLength(num1);
		mem.read<double>(_knots.asArrayPtr(), num1);

		mem.read<int>(&num1);
		_weights.setLogicalLength(num1);
		mem.read<double>(_weights.asArrayPtr(), num1);

		mem.read<double>(&_controlPtTol);
		mem.read<double>(&_knotTol);
	}

#pragma endregion

#pragma region path
	path::path(): _profile(0) { }

	path::~path() { clear(); }

	path::path(const AcDbEntity &ent) { set(ent); }

	path::path(const AcDbObjectId &id) { set(id); }

	path::path(const std::wstring &s) { _geo::set(s); }

	path::path(const WValue &v) { _geo::set(v); }

	path &path::operator=(const profile &pf) { set(pf); return *this; }

	path &path::operator=(const path &reg) { set(reg); return *this; }

	path &path::operator=(const AcDbEntity &ent) { set(ent); return *this; }

	path &path::operator=(const AcDbObjectId &id) { set(id); return *this; }

	path &path::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	path &path::operator=(const WValue &v) { _geo::set(v); return *this; }

	void path::set(const path &pt) { set(pt._profile); }

	void path::set(const profile &pf)
	{
		clear();
		for (size_t i = 0; i < pf.size(); ++i)
			_profile.push_back(pf[i]->clone());
	}

	void path::set(const AcDbEntity &ent)
	{
		clear();
		AcGePlane plan;
		region::profiles pfs;
		tools::fromEntity(pfs, plan, ent, false);
		if (!pfs.empty())
		{
			set(*pfs[0]);
			// 只用第一个,其它的释放
			for (size_t i = 1; i < pfs.size(); ++i)
				pfs[i]->clear();
		}
		_plane = plan;
	}

	void path::set(const AcDbCurve *pCurve)
	{
		const AcDbEntity *p((const AcDbEntity *)pCurve);
		set(*p);
	}

	void path::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbEntity, pEnt)
			if (pEnt) set(*pEnt);
		OPENOBJ_END()
	}

	void path::clear() { deleteContainerOfStd(_profile); }

	bool path::isEmpty() { return _profile.empty(); }

	AcDbCurve *path::asDbCurve()
	{
		AcDbCurve *pCrv = tools::asDbPolyline(_profile);
		if (pCrv)
			return pCrv;
		return NULL;
	}

	AcDbRegion *path::asDbRegion()
	{
		AcDbRegion *pReg = tools::asDbRegion(_profile);
		if (pReg)
			return pReg;
		return NULL;
	}

	WValue &path::ToJson()
	{
		WValue &v(_v), ar;
		v.SetObject();
		addType(v);
		ar.SetArray();
		for (size_t i = 0; i < _profile.size(); ++i)
		{
			pushBack(ar, _profile[i]->ToJson());
		}
		addMember(v, _T("profile"), ar);
		addMember(v, _T("plane"), _plane.ToJson());
		return v;
	}

	bool path::ByJson(const WValue &v)
	{
		clear();
		MCIt vPath = v.FindMember(_T("profile"));
		if (vPath != v.MemberEnd())
		{
			WCValue &v = vPath->value;
			for (WCValue::ConstValueIterator it = v.Begin(); it != v.End(); ++it)
				_profile.push_back(createGeo(*it));
			return true;
		}
		return false;
	}

	_geo *path::clone() { return new path(*this); }

	_geo::TYPE path::type() { return ePath; }

	unsigned long path::memLen()
	{
		unsigned long len(sizeof(size_t));
		len += sizeof(int);
		for (size_t i(0); i < _profile.size(); ++i)
			len += _profile[i]->memLen();
		len += _plane.memLen();
		return len;
	}

	byte *path::toBinary()
	{
		int _type((int)type());
		byte *p(makeMem());
		CMemTools mem(p);
		mem.write<int>(&_type);
		size_t num(_profile.size());
		mem.write<size_t>(&num);
		for (size_t i(0); i < _profile.size(); ++i)
			mem.write(_profile[i]->toBinary(), _profile[i]->memLen(), true);

		mem.write(_plane.toBinary(), _plane.memLen(), true);

		return p;
	}

	void path::byBinary(byte *p)
	{
		int type;
		CMemTools mem(p);
		mem.read<int>(&type);
		size_t num(0);
		mem.read<size_t>(&num);
		for (size_t i(0); i < num; ++i)
		{
			_geo *pGeo = tools::makeGeoPtr(mem.curPos());
			if (pGeo)
			{
				mem.forward(pGeo->memLen());
				_profile.push_back(pGeo);
			}
		}
		_plane.byBinary(mem.curPos());
	}

#pragma endregion

#pragma region region
	region::region(): _profiles(0) { }

	region::~region() { clear(); }

	region::region(const AcDbEntity &ent, bool b2D): _b2D(b2D) { set(ent); }

	region::region(const AcDbObjectId &id, bool b2D): _b2D(b2D) { set(id); }

	region::region(const std::wstring &s, bool b2D): _b2D(b2D) { _geo::set(s); }

	region::region(const WValue &v, bool b2D): _b2D(b2D) { _geo::set(v); }

	region &region::operator=(const region &reg) { set(reg); return *this; }

	region &region::operator=(const AcDbEntity &ent) { set(ent); return *this; }

	region &region::operator=(const AcDbObjectId &id) { set(id); return *this; }

	region &region::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	region &region::operator=(const WValue &v) { _geo::set(v); return *this; }

	void region::set(const region &reg)
	{
		clear();
		for (size_t i = 0; i < reg._profiles.size(); ++i)
			_profiles.push_back((path *)reg._profiles[i]->clone());
		_plane = reg._plane;
	}

	void region::set(const AcDbEntity &ent)
	{
		clear();
		AcGePlane plan;
		tools::fromEntity(_profiles, plan, ent, _b2D);
		_plane = plan;
	}

	void region::set(const AcDbObjectId &id)
	{
		OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbEntity, p)
			if (p) set(*p);
		OPENOBJ_END()
	}

	AcDbCurve *region::asDbCurve()
	{
		AcDbCurve *pCrv(NULL);
		std::vector<AcDbCurve *> crvs;
		asDbCurve(crvs);
		if (!crvs.empty())
			pCrv = (AcDbCurve *)crvs[0]->clone();
		deleteContainerOfStd(crvs);
		return pCrv;
	}

	void region::asDbCurve(std::vector<AcDbCurve *> &crvs)
	{
		for (size_t i = 0; i < _profiles.size(); ++i)
		{
			AcDbCurve *pCrv = _profiles[i]->asDbCurve();
			if (pCrv)
				crvs.push_back(pCrv);
		}
	}

	void region::asDbRegion(std::vector<AcDbRegion *> &regs)
	{
		for (size_t i = 0; i < _profiles.size(); ++i)
		{
			AcDbRegion *pReg = _profiles[i]->asDbRegion();
			if (pReg)
				regs.push_back(pReg);
		}
	}

	AcDbRegion *region::asDbRegion()
	{
		AcDbRegion *pReg(NULL);
		std::vector<AcDbRegion *> regs;
		asDbRegion(regs);
		if (!regs.empty())
			pReg = (AcDbRegion *)regs[0]->clone();
		deleteContainerOfStd(regs);
		return pReg;
	}

	void region::clear() { deleteContainerOfStd(_profiles); }

	bool region::isEmpty() { return _profiles.empty(); }

	WValue &region::ToJson()
	{
		WValue &v(_v), ar3D, ar2D;
		v.SetObject();
		addType(v);
		ar3D.SetArray();
		ar2D.SetArray();

		for (size_t i = 0; i < _profiles.size(); ++i)
		{
			path *pf(_profiles[i]);
			pushBack(ar3D, pf->ToJson());
		}
		addMember(v, _T("profiles"), ar3D);
		addMember(v, _T("plane"), _plane.ToJson());

		return v;
	}

	bool region::ByJson(const WValue &v)
	{
		MCIt itPfs = v.FindMember(_T("profiles"));
		MCIt itPlan = v.FindMember(_T("plane"));
		if (itPfs != v.MemberEnd() && itPlan != v.MemberEnd())
		{
			const WCValue &pfs = itPfs->value;
			for (WValue::ConstValueIterator itPf = pfs.Begin(); itPf != pfs.End(); ++itPf)
			{
				path *pt = new path();
				if (pt->ByJson(*itPf))
					_profiles.push_back(pt);
			}
			_plane.ByJson(itPlan->value);
			return true;
		}
		return false;
	}

	_geo *region::clone() { return new region(*this); }

	_geo::TYPE region::type() { return eRegion; }
#pragma endregion

#pragma region extruded
	extruded::extruded() {}

	extruded::extruded(const region &r, const path &p) { set(r, p); }

	extruded::extruded(const AcDbEntity &reg, const AcDbCurve &curve) { _region.set(reg); _path.set(curve); }

	extruded::extruded(const AcDbObjectId &reg, const AcDbObjectId &curve) { set(reg, curve); }

	extruded::extruded(const std::wstring &s) { _geo::set(s); }

	extruded::extruded(const WValue &v) { _geo::set(v); }

	extruded::~extruded() {}

	void extruded::set(const AcDbEntity &reg, const AcDbCurve &curve) { *this = extruded(reg, curve); }

	void extruded::set(const region &r, const path &p) { _region.set(r); _path.set(p); }

	void extruded::set(const AcDbObjectId &reg, const AcDbObjectId &curve)
	{
		_region.set(reg);
		_path.set(curve);
	}

	AcDbCurve *extruded::DbRegion1() { return _region.asDbCurve(); }

	AcDbRegion *extruded::DbRegion2() { return _region.asDbRegion(); }

	AcDbCurve *extruded::DbPath() { return _path.asDbCurve(); }

	WValue &extruded::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);

		addMember(v, _T("region"), _region.ToJson());
		addMember(v, _T("path"), _path.ToJson());

		return v;
	}

	bool extruded::ByJson(const WValue &v)
	{
		if (v.HasMember(_T("region")) && v.HasMember(_T("path")))
		{
			WCValue &region = v[_T("region")];
			WCValue &path = v[_T("path")];
			if (!region.IsArray() || !path.IsArray()) return false;
			if (!_region.ByJson(region)) return false;
			if (!_path.ByJson(path)) return false;
			return true;
		}
		return false;
	}

	_geo *extruded::clone() { return new extruded(_region, _path); }

	_geo::TYPE extruded::type() { return _geo::eExtruded; }

	extruded &extruded::operator = (const extruded &ed) { set(ed._region, ed._path); return *this; }

	extruded &extruded::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	extruded &extruded::operator=(const WValue &v) { _geo::set(v); return *this; }
#pragma endregion

#pragma region revolved
	revolved::revolved(): extruded() {}

	revolved::revolved(const AcDbEntity &reg, const AcDbCurve &curve): extruded(reg, curve) { }

	revolved::revolved(const AcDbObjectId &reg, const AcDbObjectId &curve) { extruded::set(reg, curve); }

	revolved::revolved(const std::wstring &s) { _geo::set(s); }

	revolved::revolved(const WValue &v) { _geo::set(v); }

	_geo::TYPE revolved::type() { return _geo::eRevolved; }

	revolved &revolved::operator = (const revolved &ed) { extruded::set(ed._region, ed._path); return *this; }

	revolved &revolved::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	revolved &revolved::operator=(const WValue &v) { _geo::set(v); return *this; }
#pragma endregion

#pragma region sweep
	sweep::sweep(): extruded() {}

	sweep::sweep(const AcDbEntity &reg, const AcDbCurve &curve): extruded(reg, curve) { }

	sweep::sweep(const AcDbObjectId &reg, const AcDbObjectId &curve) { extruded::set(reg, curve); }

	sweep::sweep(const std::wstring &s) { _geo::set(s); }

	sweep::sweep(const WValue &v) { _geo::set(v); }

	_geo::TYPE sweep::type() { return _geo::eSweep; }

	sweep &sweep::operator = (const sweep &ed) { extruded::set(ed._region, ed._path); return *this; }

	sweep &sweep::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	sweep &sweep::operator=(const WValue &v) { _geo::set(v); return *this; }
#pragma endregion

#pragma region loft
	loft::loft():_regions(0) {}

	loft::loft(std::vector<region *> regs) { set(regs); }

	loft::loft(const AcDbVoidPtrArray &regs) { set(regs); }

	loft::loft(const AcDbObjectIdArray &ids) { set(ids); }

	loft::loft(const std::wstring &s) { _geo::set(s); }

	loft::loft(const WValue &v) { _geo::set(v); }

	loft::~loft() { deleteContainerOfStd(_regions); }

	void loft::getRegions(AcDbVoidPtrArray &ar, const bool &byPoly)
	{
		for (size_t i = 0; i < _regions.size(); ++i)
			ar.append(!byPoly ? (AcDbEntity *)_regions[i]->asDbRegion() : (AcDbEntity *)_regions[i]->asDbCurve());
	}

	void loft::set(const AcDbVoidPtrArray &regs)
	{
		deleteContainerOfStd(_regions);
		for (int i = 0; i < regs.length(); ++i)
		{
			region *p = new region(*(AcDbEntity *)regs[i]);
			if (!p->isEmpty())
				_regions.push_back(p);
			else
				DELETE_PTR(p);
		}
	}

	void loft::set(const AcDbObjectIdArray &ids)
	{
		deleteContainerOfStd(_regions);
		for (int i = 0; i < ids.length(); ++i)
		{
			region *p = new region(ids[i]);
			if (!p->isEmpty())
				_regions.push_back(p);
			else
				DELETE_PTR(p);
		}
	}

	void loft::set(const std::vector<region *> &regs)
	{
		deleteContainerOfStd(_regions);
		for (size_t i = 0; i < regs.size(); ++i)
			_regions.push_back((region *)regs[i]->clone());
	}

	loft &loft::operator=(const loft &l) { set(l._regions); return *this; }

	loft &loft::operator=(const std::wstring &s) { _geo::set(s); return *this; }

	loft &loft::operator=(const WValue &v) { _geo::set(v); return *this; }

	WValue &loft::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);

		WValue regs;
		regs.SetArray();
		for (size_t i = 0; i < _regions.size(); ++i)
		{
			pushBack(regs, _regions[i]->ToJson());
		}

		addMember(v, _T("regions"), regs);

		return v;
	}

	bool loft::ByJson(const WValue &v)
	{
		if (!v.HasMember(_T("regions"))) return false;
		WCValue &regions = v[_T("regions")];
		if (!regions.IsArray()) return false;

		deleteContainerOfStd(_regions);
		for (WValue::ConstValueIterator it = regions.Begin(); it != regions.End(); ++it)
		{
			region *p = new region();
			if (p->ByJson(*it))
				_regions.push_back(p);
			else
				DELETE_PTR(p);
		}
		return true;
	}

	_geo *loft::clone() { return new loft(_regions); }

	_geo::TYPE loft::type() { return _geo::eLoft; }
#pragma endregion

#pragma region tessellation
	WValue& tessellation::ToJson()
	{
		WValue &v(_v);
		v.SetObject();
		addType(v);

		WValue ar;
		ar.SetArray();
		for (int i(0); i < _pts.length(); ++i)
			pushBack(ar, point(_pts[i]).ToJson());

		addMember(v, _T("_pts_"), ar);

		addMember(v, _T("_r"), _r);
		addMember(v, _T("_g"), _g);
		addMember(v, _T("_b"), _b);
		return v;
	}

	_geo* tessellation::clone()
	{
		return new tessellation(_pts, RGB(_r, _g, _b));
	}

	void tessellation::set(const AcGePoint3dArray &pts, const DWORD dwClr)
	{
		_pts.removeAll();
		_pts.append(pts);
		_r = GetRValue(dwClr);
		_g = GetGValue(dwClr);
		_b = GetBValue(dwClr);
	}

	tessellation &tessellation::operator = (const tessellation &t)
	{
		set(t._pts, RGB(t._r, t._g, t._b));
		return *this;
	}
#pragma endregion
}

#include "KTCadUtility.h"
#include "aecdbwall.h"
void _export_test_()
{
	/*
	byte b[10] = { 0,1,2,3,4,5,6,7,8,9 };

	std::wstring s = GEO2JSON::binary(b, 10).toString();

	GEO2JSON::binary xx(s);

	GEO2JSON::point pt(1., 2., 3.);
	WValue v;
	addMember(v, _T("pt"), pt.ToJson());
	addMember(v, _T("string"), _T("test"));
	addMember(v, _T("bool"), false);
	addMember(v, _T("int"), 11);
	addMember(v, _T("unsigned"), 11);
	addMember(v, _T("double"), 1.1);
	addMember(v, _T("float"), 1.1f);
	addMember(v, _T("__int64"), __int64(11));
	addMember(v, _T("unsigned __int64"), unsigned __int64(22));

	WValue ar;
	ar.SetArray();
	pushBack(ar, 1);
	pushBack(ar, 2);
	pushBack(ar, 3);
	pushBack(ar, 4);
	addMember(v, _T("array"), ar);

	std::wstring ws = write2Json(v);

	addMember(v, _T("pt"), GEO2JSON::point(5., 6., 7.).ToJson());
	addMember(v, _T("string"), _T("abcd"));

	ar.SetNull();
	ar.SetArray();
	pushBack(ar, 6);
	pushBack(ar, 7);
	pushBack(ar, 8);
	pushBack(ar, 9);
	addMember(v, _T("array"), ar);

	ws = write2Json(v);
	return;
*/
/*AecDbObjXDataMap data;

AcGePoint3d pt;
AcGeVector3d vt;
AcGeMatrix3d mat;

mat.setCoordSystem(AcGePoint3d(100, 100, 100), AcGeVector3d::kXAxis, AcGeVector3d::kYAxis, AcGeVector3d::kZAxis);


AcGeMatrix3d mat_t(mat);
mat_t.setTranslation(AcGeVector3d(.5, .5, .5));
SHJson::json2File(_T("d:\\桌面\\matrix_t.json"), GEO2JSON::matrix(mat_t).ToJson());

AcGeMatrix3d mat_s(mat);
mat_s.setToScaling(.5);
SHJson::json2File(_T("d:\\桌面\\matrix_s.json"), GEO2JSON::matrix(mat_s).ToJson());

AcGeMatrix3d mat_r(mat);
mat_r.setToRotation(.5 * PI, AcGeVector3d::kZAxis);
SHJson::json2File(_T("d:\\桌面\\matrix_r.json"), GEO2JSON::matrix(mat_r).ToJson());


SHJson::json2File(_T("d:\\桌面\\matrix.json"), GEO2JSON::matrix(mat).ToJson());

TCHAR *psz = _T("abcdefg");
std::wstring bs = GEO2JSON::binary((byte*)psz, sizeof(TCHAR) * (_tcslen(psz) + 1)).toString();
SHJson::json2File(_T("d:\\桌面\\binary.json"), GEO2JSON::binary((byte*)psz, sizeof(TCHAR) * (_tcslen(psz) + 1)).ToJson());

GEO2JSON::binary b(bs);

TCHAR *pb = (TCHAR *)b._data;

return;

AcDbObjectId id;
char p[10] = { 0 };

data.SetAt(_T("int"), 1);
data.SetAt(_T("double"), 1.0);
data.SetAt(_T("point"), pt);
data.SetAt(_T("vector"), vt);
data.SetAt(_T("matrix"), mat);
data.SetAt(_T("binary"), p, 10);
data.SetAt(_T("objectid"), id);
data.SetAt(_T("string"), _T("string"));

WValue &v = data.ToJson();

std::wstring s = write2Json(v);

acutPrintf(_T("%s"), s.c_str());

return;*/


/*
ads_name ents, ent;
AcDbObjectId idEnt1, idEnt2;

resbuf *pRb = acutBuildList(RTDXF0, _T("Line,Arc,Circle"), 0);
int nRes = CKTCadUtility::SelectEntities(_T("\n请选择一个polyline或region."), ents, pRb);
acutRelRb(pRb);
if (nRes != RTNORM) return;

AcDbObjectId id;
Adesk::Int32 lLen(0L);
acedSSLength(ents, &lLen);

AcDbVoidPtrArray ar;
for (long i = 0; i < lLen; ++i)
{
	if (acedSSName(ents, i, ent) != RTNORM) continue;
	if (acdbGetObjectId(id, ent) != Acad::eOk) continue;
	OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbEntity, pEnt)
	if (pEnt)
	{
		ar.append(pEnt->clone());
	}
	OPENOBJ_END()
}
acedSSFree(ents);

std::vector<AcDbPolyline*> polys;
CoreTools::MakePolyline(ar, polys);

for (int i = 0; i < polys.size(); ++i)
{
	AcDbPolyline *pPoly = polys[i];
	if (pPoly)
		CoreTools::AddToModelSpace(pPoly);
}

deleteContainerOfArx(ar);

return;
*/
	ads_name ent;
	resbuf *pRb = acutBuildList(RTDXF0, _T("Region"), 0);
	int nRes = CKTCadUtility::SelectEntity(_T("\n请选择一个polyline或region."), ent, pRb);
	acutRelRb(pRb);
	if (nRes != RTNORM) return;
	AcDbObjectId id;
	if (acdbGetObjectId(id, ent) != Acad::eOk) return;

	CString str;
	OPENOBJ_BEGIN(id, AcDb::kForRead, AcDbRegion, pReg)
		CoreTools::RegionToString(pReg, str);
	OPENOBJ_END()

		CStdioFile file;
	if (file.Open(_T("d:\\xxx.sat"), CFile::modeCreate | CFile::modeWrite))
	{
		file.WriteString(str);
		file.Close();
	}
}