Rectangle Jig Class

샘플 코드

// AsdkRectangleJig.h: interface for the AsdkRectangleJig class.
//
//////////////////////////////////////////////////////////////////////

#if !defined(AFX_ASDKRECTANGLEJIG_H__B797B881_525A_491D_B14C_F2B9ACA711A8__INCLUDED_)
#define AFX_ASDKRECTANGLEJIG_H__B797B881_525A_491D_B14C_F2B9ACA711A8__INCLUDED_

#if _MSC_VER > 1000
#pragma once
#endif // _MSC_VER > 1000

#include
#include
#include     // asDblArray()
#include     // acdbWcs2Ecs() & acdbUcs2Ecs()
#include     // lwpoly stuff.
#include "DataMgr.h"
#include "ViewCreator.h"

//-----------------------------------------------------------------------------
//
class CRectInfo {
public:
    CRectInfo();   
    AcGePoint3d     m_topLeftCorner;    // First point selection.
    double          m_first;            // First Chamfer distance.
    double          m_second;           // Second Chamfer distance.
    double          m_bulge;            // Bulge value.
    double          m_elev;             // Elevation.
    double          m_thick;            // Thickness.
    double          m_width;            // Width.
    double          m_radius;           // Fillet radius.
    bool            m_cornerTreatment;  // Filleting or chamfering.
    bool            m_elevHandSet;
    // m_chamfDirUnitVec is the vector direction of the chamfer of the
    // top left corner of the rectangle. The chamfer opposite the top left
    // corner will have the same vector direction and the ones on the
    // alternate corners will be perpendicular to this one.
    //
    AcGeVector3d    m_chamfDirUnitVec;  
};

class AsdkRectangleJig : public AcEdJig  
{
public:
    AsdkRectangleJig(CViewCreatorDlg* pParent);
    virtual ~AsdkRectangleJig();
public:
    virtual DragStatus sampler();
    virtual Adesk::Boolean update();
    virtual AcDbEntity* entity() const;
    
    void    doRectangle();
    AcGePoint3d BottomLeftCorner();
    AcGePoint3d TopRightCorner();

    AcGePoint3d samplerCorner;
    static AcDbObjectId m_nObjectId;
private:
    CViewCreatorDlg* m_pParent;

    AcDbPolyline*   m_pLWPoly;
    AcGePoint3d     m_TopLeftCorner;
    AcGePoint3d     m_TopRightCorner;
    AcGePoint3d     m_BottomLeftCorner;
    AcGePoint3d     m_BottomRightCorner;
    AcGeVector3d    m_vecUnitZ;       // Unit vectors in the UCS plane
    AcGeVector3d    m_vecUnitX;
    AcGeVector3d    m_vecUnitY;
};
extern AsdkDataManager rectDataMgr; // MDI Safe
#define    plineInfo rectDataMgr.docData()
#endif // !defined(AFX_ASDKRECTANGLEJIG_H__B797B881_525A_491D_B14C_F2B9ACA711A8__INCLUDED_)

2. AsdkRectangleJig.cpp
// AsdkRectangleJig.cpp: implementation of the AsdkRectangleJig class.
//
//////////////////////////////////////////////////////////////////////

#include "stdafx.h"
#include
#include "resource.h"
#include "ECRS.h"
#include "AsdkRectangleJig.h"


#ifdef _DEBUG
#undef THIS_FILE
static char THIS_FILE[]=__FILE__;
#define new DEBUG_NEW
#endif

#define MAKEUCSCOORD(x, y)      tmpPoint = (y); \
acdbWcs2Ecs(asDblArray(tmpPoint), asDblArray(tmpPoint), asDblArray(m_vecUnitZ),\
Adesk::kFalse); x[X] = tmpPoint[X]; x[Y] = tmpPoint[Y];

AsdkDataManager rectDataMgr; // MDI Safe

// ----------------------------------------------------------------------------
// Constructor.
//
CRectInfo::CRectInfo()
{
    m_topLeftCorner = AcGePoint3d();
    m_first = m_second = m_bulge = m_elev = m_thick = m_width = m_radius = 0.0;
    m_cornerTreatment = FALSE;
    m_elevHandSet = FALSE;
}

AcDbObjectId AsdkRectangleJig::m_nObjectId;
//////////////////////////////////////////////////////////////////////
// Construction/Destruction
//////////////////////////////////////////////////////////////////////
//        parameter        :
//        description        :
//        remarks                :
//        returns                :
AsdkRectangleJig::AsdkRectangleJig(CViewCreatorDlg* pParent)
{
    m_pParent = pParent;

    m_pLWPoly = new AcDbPolyline();
    samplerCorner = AcGePoint3d();
    plineInfo.m_cornerTreatment = plineInfo.m_first != 0.0
        || plineInfo.m_second != 0.0
        || plineInfo.m_radius != 0.0;
   

    // Now need to get the current UCS Z-Axis to be used as the normal vector 
    // for the rectangle. At the same time, we get the x and y unit direction 
    // vectors used later.
    //
    if(CECRS::inPaperSpace()) {
        m_vecUnitX = acdbHostApplicationServices()->workingDatabase()->pucsxdir();
        m_vecUnitY = acdbHostApplicationServices()->workingDatabase()->pucsydir();
    } else {
        m_vecUnitX = acdbHostApplicationServices()->workingDatabase()->ucsxdir();
        m_vecUnitY = acdbHostApplicationServices()->workingDatabase()->ucsydir();
    }
    
    m_vecUnitZ = m_vecUnitX.crossProduct(m_vecUnitY);
   
    // Convert the incomming UCS point to ECS coordinate system
    //
    acdbUcs2Ecs(asDblArray(plineInfo.m_topLeftCorner), 
        asDblArray(m_TopLeftCorner), asDblArray(m_vecUnitZ), Adesk::kFalse);
    acdbUcs2Ecs(asDblArray(plineInfo.m_topLeftCorner), 
        asDblArray(plineInfo.m_topLeftCorner), asDblArray(m_vecUnitZ),
        Adesk::kFalse);
    AcGePoint2d initPoint;
    initPoint = AcGePoint2d(m_TopLeftCorner[X], m_TopLeftCorner[Y]);
    
    // If the user has set the elev option from the main command prompt,
    // then this will be the default until the user again sets it to 0.0.
    // If however the user simply picks a point with or without an object
    // snap, then use the Z value of the first point picked.
    //
    if (plineInfo.m_elevHandSet == TRUE)
        m_pLWPoly->setElevation(plineInfo.m_elev);
    else    m_pLWPoly->setElevation(m_TopLeftCorner[Z]);
    
    // If we are indeed filleting or chamfering the corners, then
    // we'll add the extra verticies here to have their bulges and
    // distances from the real corner changed on the fly.
    // 
    if (plineInfo.m_cornerTreatment == TRUE) {
        for (int i = 0 ; i < 8; i++)
            m_pLWPoly->addVertexAt(i, initPoint);
    } else {
        for (int i = 0 ; i < 4; i++)
            m_pLWPoly->addVertexAt(i, initPoint);
    }
    
    m_pLWPoly->setLineWeight(AcDb::kLnWt030);
    m_pLWPoly->setNormal(m_vecUnitZ);
    m_pLWPoly->setClosed(Adesk::kTrue);
    m_pLWPoly->setThickness(plineInfo.m_thick);
    m_pLWPoly->setConstantWidth(plineInfo.m_width);
    // Get the current default linetype scale
    m_pLWPoly->setLinetypeScale(acdbHostApplicationServices()
        ->workingDatabase()->celtscale());
    // Now for jig dragger purposes, convert the point back to world
    // coordinates.
    //
    acdbEcs2Wcs(asDblArray(m_TopLeftCorner), 
        asDblArray(m_TopLeftCorner), asDblArray(m_vecUnitZ), Adesk::kFalse);
    acdbEcs2Wcs(asDblArray(plineInfo.m_topLeftCorner), 
        asDblArray(plineInfo.m_topLeftCorner), asDblArray(m_vecUnitZ),
        Adesk::kFalse);
}

AsdkRectangleJig::~AsdkRectangleJig()
{

}

//-----------------------------------------------------------------------------
// This function creates an AcDbPolyline object after the
// jig startes and aquires the necessary vertex for the opposite
// corner from the drag samples.
//
void AsdkRectangleJig::doRectangle()
{
    AcEdJig::DragStatus stat;
    
    setDispPrompt("\nOther corner: ");
    // Get the other corner now.
    //
    stat = drag();
    
    // Now add the polyline rectangle to the database's current space
    // if we return a kNormal stat from drag(). If we don't then delete
    // the polyline.
    //
        AsdkRectangleJig::m_nObjectId = AcDbObjectId::kNull;
    if (stat == kNormal){
        AsdkRectangleJig::m_nObjectId = append();
        m_pLWPoly->close();
    }else    delete m_pLWPoly;
    
    setDispPrompt("\n");
}

//-----------------------------------------------------------------------------
// This function is called by the drag function in order to
// aquire a sample input
//
AcEdJig::DragStatus AsdkRectangleJig::sampler()
{
    DragStatus stat = kNormal;
    
    setUserInputControls((UserInputControls)
        (   AcEdJig::kNoNegativeResponseAccepted
        |  AcEdJig::kNoZeroResponseAccepted)
        );
    
    setSpecialCursorType(kCrosshair);
    
    stat = acquirePoint(m_BottomRightCorner, plineInfo.m_topLeftCorner);  
    
    // Now project the point at the crosshairs to the ECS of the 
    // polyline being drawn.
    //
    AcGePlane planeParallelToUCS(m_TopLeftCorner, m_vecUnitZ);    
    m_BottomRightCorner = m_BottomRightCorner.project(planeParallelToUCS, m_vecUnitZ);
    
    // If the newly acquired point is the same as it was
    // in the last sample, then we return kNoChange so that
    // AsdkRectangleJig::update() will not be called and the
    // last update call will be able to finish thus allowing
    // the polyline to fully elaborate.
    //
    if (samplerCorner != m_BottomRightCorner) {
        // m_BottomRightCorner will be used to update the remaining corners
        // in AsdkRectangleJig::update() below.
        //
        samplerCorner = m_BottomRightCorner;
    } else if (stat == AcEdJig::kNormal)
        return AcEdJig::kNoChange;
    
    return stat;
}

//-----------------------------------------------------------------------------
// This function is called to update the entity based on the
// input values
//
Adesk::Boolean AsdkRectangleJig::update()
{
    AcGePoint2d adjustedPoint;
    AcGePoint3d tmpPoint;       // Used by MAKEUCSCOORD macro.
    
    // We'll use the AcGeLine::intersectWith() function to infer the
    // remaining points.
    //
    AcGeLine3d lineX, lineY;
    lineX.set(m_TopLeftCorner, m_vecUnitX);
    lineY.set(m_BottomRightCorner, m_vecUnitY);
    // Top right corner is intersection of lineX and lineY.
    //
    lineX.intersectWith(lineY, m_TopRightCorner);
    
    lineX.set(m_BottomRightCorner, m_vecUnitX);
    lineY.set(m_TopLeftCorner, m_vecUnitY);
    // Bottom left corner is intersection of lineX and lineY.
    //
    lineX.intersectWith(lineY, m_BottomLeftCorner);
    
    AcGeVector3d tmpXVec, tmpYVec;
    // Check to see if we have flipped around the X or Y axis.
    //
    bool bXFlip = m_vecUnitX.dotProduct(m_TopLeftCorner - m_TopRightCorner)  >0;
    bool bYFlip = m_vecUnitY.dotProduct(m_TopLeftCorner - m_BottomLeftCorner)<0; 
    
    // If the rectangle is dragged into the first or third quadrant,
    // we need to reverse the sign of the bulge as well as reverse
    // the x and y direction vectors.
    //
    tmpXVec = bXFlip ? -1 * m_vecUnitX : m_vecUnitX;
    tmpYVec = bYFlip ? -1 * m_vecUnitY : m_vecUnitY;
    
    // Now update the polyline with the latest setting
    //
    if (plineInfo.m_cornerTreatment) {
        // We are going to fillet of chamfer this polyline rectangle. As such,
        // the constructor has added the extra points at the corners to allow
        // for there placement and bulge values to be updated on the fly.
        // If, during the dragging, the rectangle is still too small to show the
        // given radius or chamfer edges, the we will put the extra points in the 
        // corners and set the bulges to 0.0, so the rectangle retains its 
        // square corners until the user stretches the rectangle to a size large
        // enough to have the corner treatment displayed.
        //
        
        // Use temporaries to see if we're too small to show fillet/chamfer, so
        // we don't need to convert back to world.
        // 
        AcGePoint2d point_TL, point_TR, point_BL;
        MAKEUCSCOORD(point_TL, m_TopLeftCorner);
        MAKEUCSCOORD(point_TR, m_TopRightCorner);
        MAKEUCSCOORD(point_BL, m_BottomLeftCorner);
        
        bool tooSmall = (point_TL.distanceTo(point_TR)
            < plineInfo.m_first + plineInfo.m_second)
            || (point_TL.distanceTo(point_BL)
            < plineInfo.m_first + plineInfo.m_second);
        if (tooSmall) {
            // Still to small to show the corner treatment.
            //
            m_pLWPoly->setBulgeAt(0, 0.0);
            MAKEUCSCOORD(adjustedPoint, m_TopLeftCorner);
            m_pLWPoly->setPointAt(0, adjustedPoint);
            m_pLWPoly->setPointAt(1, adjustedPoint);
            

           m_pLWPoly->setBulgeAt(2, 0.0);  
            MAKEUCSCOORD(adjustedPoint, m_TopRightCorner);
            m_pLWPoly->setPointAt(2, adjustedPoint);
            m_pLWPoly->setPointAt(3, adjustedPoint);
            
            m_pLWPoly->setBulgeAt(4, 0.0);  
            MAKEUCSCOORD(adjustedPoint, m_BottomRightCorner);
            m_pLWPoly->setPointAt(4, adjustedPoint);
            m_pLWPoly->setPointAt(5, adjustedPoint);
            
            m_pLWPoly->setBulgeAt(6, 0.0);  
            MAKEUCSCOORD(adjustedPoint, m_BottomLeftCorner);
            m_pLWPoly->setPointAt(6, adjustedPoint);
            m_pLWPoly->setPointAt(7, adjustedPoint);
        } else {
            double tmpBulge;
            
            tmpBulge = ((!bXFlip && !bYFlip) || (bXFlip && bYFlip))
                ? plineInfo.m_bulge : -plineInfo.m_bulge;
            
            // Now we will set adjustedPoint to the intersection of the rectangle
            // sides with the place where the new end points will be.
            //
            m_pLWPoly->setBulgeAt(0, tmpBulge);
            MAKEUCSCOORD(adjustedPoint,
                m_TopLeftCorner + (-plineInfo.m_first * tmpYVec));
            m_pLWPoly->setPointAt(0, adjustedPoint);
            
            MAKEUCSCOORD(adjustedPoint,
                m_TopLeftCorner + plineInfo.m_second * tmpXVec);
            m_pLWPoly->setPointAt(1, adjustedPoint);
            
            m_pLWPoly->setBulgeAt(2, tmpBulge); 
            MAKEUCSCOORD(adjustedPoint,
                m_TopRightCorner + (-plineInfo.m_first * tmpXVec));
            m_pLWPoly->setPointAt(2, adjustedPoint);
            
            MAKEUCSCOORD(adjustedPoint,
                m_TopRightCorner + (-plineInfo.m_second * tmpYVec));
            m_pLWPoly->setPointAt(3, adjustedPoint);
           
            m_pLWPoly->setBulgeAt(4, tmpBulge);
            MAKEUCSCOORD(adjustedPoint,
                m_BottomRightCorner + plineInfo.m_first * tmpYVec);
            m_pLWPoly->setPointAt(4, adjustedPoint);
            
            MAKEUCSCOORD(adjustedPoint,
                m_BottomRightCorner + (-plineInfo.m_second * tmpXVec));
            m_pLWPoly->setPointAt(5, adjustedPoint);
            
           m_pLWPoly->setBulgeAt(6, tmpBulge);
            MAKEUCSCOORD(adjustedPoint,
                m_BottomLeftCorner + plineInfo.m_first * tmpXVec);
            m_pLWPoly->setPointAt(6, adjustedPoint);
            
            MAKEUCSCOORD(adjustedPoint,
                m_BottomLeftCorner + plineInfo.m_second * tmpYVec);
            m_pLWPoly->setPointAt(7, AcGePoint2d(adjustedPoint[X],
                adjustedPoint[Y]));
        }
    } else {
        // If this polyline is not having its corners treated, ie chamfered, or 
        // filleted then simply update the corners. Since we knew this ahead of 
        // time, the constructor did not add any extra verticies at the corners.
        //
        MAKEUCSCOORD(adjustedPoint, m_TopLeftCorner);
        m_pLWPoly->setPointAt(0, adjustedPoint);
        
        MAKEUCSCOORD(adjustedPoint, m_TopRightCorner);
        m_pLWPoly->setPointAt(1, adjustedPoint);
        
        MAKEUCSCOORD(adjustedPoint, m_BottomRightCorner);
        m_pLWPoly->setPointAt(2, adjustedPoint);
        
        MAKEUCSCOORD(adjustedPoint, m_BottomLeftCorner);
        m_pLWPoly->setPointAt(3, adjustedPoint);
    } 
    return Adesk::kTrue;
}

//-----------------------------------------------------------------------------
// This function must be implemented to return a pointer to
// the entity being manipulated by the jig.
//
AcDbEntity* AsdkRectangleJig::entity() const
{
    return m_pLWPoly;
}

//        parameter        :
//        description        :
//        remarks                :
//        returns                :
AcGePoint3d AsdkRectangleJig::BottomLeftCorner(){
    AcGePoint3d ptBottomLeft=m_BottomLeftCorner;

    ptBottomLeft.x = (m_BottomRightCorner.x < ptBottomLeft.x) ? m_BottomRightCorner.x : tBottomLeft.x;
    ptBottomLeft.y = (m_TopLeftCorner.y < ptBottomLeft.y) ? m_TopLeftCorner.y : tBottomLeft.y;

    return ptBottomLeft;
}

//        parameter        :
//        description        :
//        remarks                :
//        returns                :
AcGePoint3d AsdkRectangleJig::TopRightCorner(){
    AcGePoint3d ptTopRight=m_TopRightCorner;

   ptTopRight.x = (m_TopLeftCorner.x > ptTopRight.x) ? m_TopLeftCorner.x : ptTopRight.x;
    ptTopRight.y = (m_BottomRightCorner.y > ptTopRight.y) ? m_BottomRightCorner.y : tTopRight.y;

    return ptTopRight;
}