/* * $Header: /home/dave/Source/xtrkcad_5_1_2a/app/bin/RCS/cjoin.c,v 1.3 2019/07/24 15:11:51 dave Exp $ * * JOINS * */ /* XTrkCad - Model Railroad CAD * Copyright (C) 2005 Dave Bullis * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation; either version 2 of the License, or * (at your option) any later version. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the Free Software * Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */ #include "track.h" #include "ccurve.h" #include "cstraigh.h" #include "cjoin.h" #include "ccornu.h" #include "i18n.h" #include "utility.h" #include "math.h" #include "messages.h" #include "param.h" #include "cundo.h" #include "cselect.h" #include "fileio.h" static BOOL_T debug = 0; static int log_join = 0; typedef struct { curveType_e type; BOOL_T flip; coOrd arcP; DIST_T arcR; ANGLE_T arcA0, arcA1; coOrd pos[2]; } joinRes_t; static struct { STATE_T state; int joinMoveState; BOOL_T cornuMode; struct { TRKTYP_T realType; track_p trk; coOrd pos; EPINX_T ep; trackParams_t params; } inp[2]; joinRes_t jRes; coOrd inp_pos[2]; easementData_t jointD[2]; dynArr_t anchors; } Dj; /***************************************************************************** * * JOIN * */ static BOOL_T JoinWithStraight( coOrd pos0, ANGLE_T a0, coOrd pos1, ANGLE_T a1, joinRes_t * res ) /* * Determine a track from a point and angle (pos1,a1) to * a straight (given by an origin and angle: pos0, a0) */ { coOrd Px; ANGLE_T b, c; DIST_T d; DIST_T k; coOrd off; DOUBLE_T beyond; b = NormalizeAngle( a0 - a1 ); LOG( log_join, 2, ( "JwL: pos0=[%0.3f %0.3f] a0=%0.3f pos1=[%0.3f %0.3f] a1=%0.3f b=%0.3f\n", pos0.x, pos0.y, a0, pos1.x, pos1.y, a1, b ) ) /* 3 - cases: */ if (b >= 360.0-connectAngle/2.0 || b <= connectAngle/2.0) { /* CASE 1: antiparallel */ FindPos( &off, NULL, pos1, pos0, a0, 10000.0 ); res->arcR = off.y/2.0; res->arcA1 = 180.0; LOG( log_join, 3, ("JwL: parallel: off.y=%0.3f\n", off.y ) ) res->arcA0 = NormalizeAngle( a1 - 90.0 ); Translate( &res->arcP, pos1, res->arcA0, res->arcR ); if (res->arcR > 0.0) { res->flip = 0; } else { res->arcR = -res->arcR; res->flip = 1; } } else if (b >= 180.0-connectAngle/2.0 && b <= 180.0+connectAngle/2.0) { /* CASE 2: parallel, possibly colinear? */ FindPos( &off, &beyond, pos0, pos1, a0, 100000.0 ); LOG( log_join, 3, ("JwL: colinear? off.y=%0.3f\n", off.y ) ) if (off.y > -connectDistance && off.y < connectDistance) { res->type = curveTypeStraight; res->pos[0]=pos0; res->pos[1]=pos1; LOG( log_join, 2, (" = STRAIGHT [%0.3f %0.3f] [%0.3f %0.3f]\n", pos0.x, pos0.y, pos1.x, pos1.y ) ) return TRUE; } else { res->type = curveTypeNone; ErrorMessage( MSG_SELECTED_TRACKS_PARALLEL ); return TRUE; } } else { /* CASE 3: intersecting */ if (!FindIntersection( &Px, pos0, a0, pos1, a1 )) { res->type = curveTypeNone; ErrorMessage( MSG_SELECTED_TRACKS_PARALLEL ); return TRUE; } d = FindDistance( pos1, Px ); k = NormalizeAngle( FindAngle(pos1, Px) - a1 ); c = (b > 180.0) ? (360.0-b) : b; if (k < 90.0 && k > 270.0) c += 180.0; LOG( log_join, 3, (" Px=[%0.3f %0.3f] b=%0.3f c=%0.3f d=%0.3f k=%0.3f\n", Px.x, Px.y, b, c, d, k ) ) res->arcR = d * sin(D2R(c/2.0))/cos(D2R(c/2.0)); res->arcA1 = 180.0-c; if (90.0arcA1 = 360.0 - res->arcA1; if ( (res->arcA1>180.0) == (b>180.0) ) { Translate( &res->arcP, pos1, a1-90.0, res->arcR ); res->arcA0 = NormalizeAngle( a0 - 90.0 ); res->flip = FALSE; } else { Translate( &res->arcP, pos1, a1+90.0, res->arcR ); res->arcA0 = NormalizeAngle( a1 - 90.0 ); res->flip = TRUE; } } LOG( log_join, 2, (" = CURVE @ Pc=[%0.3f %0.3f] R=%0.3f A0=%0.3f A1=%0.3f Flip=%d\n", res->arcP.x, res->arcP.y, res->arcR, res->arcA0, res->arcA1, res->flip ) ) if (res->arcR<0.0) res->arcR = - res->arcR; res->type = curveTypeCurve; d = D2R(res->arcA1); if (d < 0.0) d = 2*M_PI + d; if (!debug) InfoMessage( _("Curved Track: Radius=%s Length=%s"), FormatDistance(res->arcR), FormatDistance(res->arcR*d) ); return TRUE; } static BOOL_T JoinWithCurve( coOrd pos0, DIST_T r0, EPINX_T ep0, coOrd pos1, ANGLE_T a1, /* Angle perpendicular to track at (pos1) */ joinRes_t * res ) /* * Determine a track point and angle (pos1,a1) to * a curve (given by center and radius (pos0, r0). * Curve endPt (ep0) determines whether the connection is * clockwise or counterclockwise. */ { coOrd p1, pt; DIST_T d, r; ANGLE_T a, aa, A0, A1; /* Compute angle of line connecting endPoints: */ Translate( &p1, pos1, a1, -r0 ); aa = FindAngle( p1, pos0 ); a = NormalizeAngle( aa - a1 ); LOG( log_join, 2, ("JwA: pos0=[%0.3f %0.3f] r0=%0.3f ep0=%d pos1=[%0.3f %0.3f] a1=%0.3f\n", pos0.x, pos0.y, r0, ep0, pos1.x, pos1.y, a1 ) ) LOG( log_join, 3, (" p1=[%0.3f %0.3f] aa=%0.3f a=%0.3f\n", p1.x, p1.y, aa, a ) ) if ( (ep0==1 && a > 89.5 && a < 90.5) || (ep0==0 && a > 269.5 && a < 270.5) ) { /* The long way around! */ ErrorMessage( MSG_CURVE_TOO_LARGE ); res->type = curveTypeNone; } else if ( (ep0==0 && a > 89.5 && a < 90.5) || (ep0==1 && a > 269.5 && a < 270.5) ) { /* Straight: */ PointOnCircle( &pt, pos0, r0, a1); LOG( log_join, 2, (" = STRAIGHT [%0.3f %0.3f] [%0.3f %0.3f]\n", pt.x, pt.y, pos1.x, pos1.y ) ) if (!debug) InfoMessage( _("Straight Track: Length=%s Angle=%0.3f"), FormatDistance(FindDistance( pt, pos1 )), PutAngle(FindAngle( pt, pos1 )) ); res->type = curveTypeStraight; res->pos[0]=pt; res->pos[1]=pos1; res->flip = FALSE; } else { /* Curve: */ d = FindDistance( p1, pos0 ) / 2.0; r = d/cos(D2R(a)); Translate( &res->arcP, p1, a1, r ); res->arcR = r-r0; LOG( log_join, 3, (" Curved d=%0.3f C=[%0.3f %0.3f], r=%0.3f a=%0.3f arcR=%0.3f\n", d, res->arcP.x, res->arcP.y, r, a, res->arcR ) ) if ( (ep0==0) == (res->arcR<0) ) { A1 = 180 + 2*a; A0 = a1; res->flip = TRUE; } else { A1 = 180 - 2*a; A0 = a1 - A1; res->flip = FALSE; } if (res->arcR>=0) { A0 += 180.0; } else { res->arcR = - res->arcR; } res->arcA0 = NormalizeAngle( A0 ); res->arcA1 = NormalizeAngle( A1 ); if ( res->arcR*2.0*M_PI*res->arcA1/360.0 > mapD.size.x+mapD.size.y ) { ErrorMessage( MSG_CURVE_TOO_LARGE ); res->type = curveTypeNone; return TRUE; } LOG( log_join, 3, (" A0=%0.3f A1=%0.3f R=%0.3f\n", res->arcA0, res->arcA1, res->arcR ) ) d = D2R(res->arcA1); if (d < 0.0) d = 2*M_PI + d; if (!debug) InfoMessage( _("Curved Track: Radius=%s Length=%s Angle=%0.3f"), FormatDistance(res->arcR), FormatDistance(res->arcR*d), PutAngle(res->arcA1) ); res->type = curveTypeCurve; } return TRUE; } /***************************************************************************** * * JOIN * */ static STATUS_T AdjustJoint( BOOL_T adjust, ANGLE_T a1, DIST_T eR[2], ANGLE_T normalAngle ) /* * Compute how to join 2 tracks and then compute the transition-curve * from the 2 tracks to the joint. * The 2nd contact point (Dj.inp[1].pos) can be moved by (Dj.jointD[1].x) * before computing the connection curve. This allows for the * transition-curve. * * This function is called iteratively to fine-tune the offset (X) required * for the transition-curves. * The first call does not move the second contact point. Subsequent calls * move the contact point by the previously computed offset. * Hopefully, this converges on a stable value for the offset quickly. */ { coOrd p0, p1; ANGLE_T a0=0; coOrd pc; DIST_T eRc; DIST_T l, d=0; if (adjust) Translate( &p1, Dj.inp[1].pos, a1, Dj.jointD[1].x ); else p1 = Dj.inp[1].pos; switch ( Dj.inp[0].params.type ) { case curveTypeCurve: if (adjust) { a0 = FindAngle( Dj.inp[0].params.arcP, Dj.jRes.pos[0] ); Translate( &pc, Dj.inp[0].params.arcP, a0, Dj.jointD[0].x ); LOG( log_join, 2, (" Move P0 X%0.3f A%0.3f P1 X%0.3f A%0.3f SC%d FL%d\n", Dj.jointD[0].x, a0, Dj.jointD[1].x, a1, Dj.jointD[0].Scurve, Dj.jointD[0].flip ) ) } else { pc = Dj.inp[0].params.arcP; } if (!JoinWithCurve( pc, Dj.inp[0].params.arcR, Dj.inp[0].params.ep, p1, normalAngle, &Dj.jRes )) return FALSE; break; case curveTypeStraight: if (adjust) { a0 = Dj.inp[0].params.angle + (Dj.jointD[0].negate?-90.0:+90.0); Translate( &p0, Dj.inp[0].params.lineOrig, a0, Dj.jointD[0].x ); LOG( log_join, 2, (" Move P0 X%0.3f A%0.3f P1 X%0.3f A%0.3f\n", Dj.jointD[0].x, a0, Dj.jointD[1].x, a1 ) ) } else { p0 = Dj.inp[0].params.lineOrig; } if (!JoinWithStraight( p0, Dj.inp[0].params.angle, p1, Dj.inp[1].params.angle, &Dj.jRes )) return FALSE; break; default: break; } if (Dj.jRes.type == curveTypeNone) { return FALSE; } if (Dj.jRes.type == curveTypeCurve) { eRc = Dj.jRes.arcR; if (Dj.jRes.flip==1) eRc = -eRc; } else eRc = 0.0; if ( ComputeJoint( eR[0], eRc, &Dj.jointD[0] ) == E_ERROR || ComputeJoint( -eR[1], -eRc, &Dj.jointD[1] ) == E_ERROR ) { return FALSE; } #ifdef LATER for (inx=0; inx<2; inx++) { if (Dj.inp[inx].params.type == curveTypeStraight ) { d = FindDistance( Dj.inp[inx].params.lineOrig, Dj.inp_pos[inx] ); if (d < Dj.jointD[inx].d0) { InfoMessage( _("Track (%d) is too short for transition-curve by %0.3f"), GetTrkIndex(Dj.inp[inx].trk), PutDim(fabs(Dj.jointD[inx].d0-d)) ); return FALSE; } } } #endif l = Dj.jointD[0].d0 + Dj.jointD[1].d0; if (Dj.jRes.type == curveTypeCurve ) { d = Dj.jRes.arcR * Dj.jRes.arcA1 * 2.0*M_PI/360.0; } else if (Dj.jRes.type == curveTypeStraight ) { d = FindDistance( Dj.jRes.pos[0], Dj.jRes.pos[1] ); } d -= l; if ( d <= minLength ) { if (!debug) InfoMessage( _("Connecting track is too short by %0.3f"), PutDim(fabs(minLength-d)) ); return FALSE; } if (Dj.jRes.type == curveTypeCurve) { PointOnCircle( &Dj.jRes.pos[Dj.jRes.flip], Dj.jRes.arcP, Dj.jRes.arcR, Dj.jRes.arcA0 ); PointOnCircle( &Dj.jRes.pos[1-Dj.jRes.flip], Dj.jRes.arcP, Dj.jRes.arcR, Dj.jRes.arcA0+Dj.jRes.arcA1 ); } if (adjust) Translate( &Dj.inp_pos[0], Dj.jRes.pos[0], a0+180.0, Dj.jointD[0].x ); return TRUE; } static STATUS_T DoMoveToJoin( coOrd pos ) { if ( selectedTrackCount <= 0 ) { ErrorMessage( MSG_NO_SELECTED_TRK ); return C_CONTINUE; } if ( (Dj.inp[Dj.joinMoveState].trk = OnTrack( &pos, TRUE, TRUE )) == NULL ) return C_CONTINUE; if (!CheckTrackLayer( Dj.inp[Dj.joinMoveState].trk ) ) return C_CONTINUE; Dj.inp[Dj.joinMoveState].params.ep = PickUnconnectedEndPoint( pos, Dj.inp[Dj.joinMoveState].trk ); /* CHECKME */ if ( Dj.inp[Dj.joinMoveState].params.ep == -1 ) { #ifdef LATER ErrorMessage( MSG_NO_ENDPTS ); #endif return C_CONTINUE; } #ifdef LATER if ( GetTrkEndTrk( Dj.inp[Dj.joinMoveState].trk, Dj.inp[Dj.joinMoveState].params.ep ) ) { ErrorMessage( MSG_SEL_EP_CONN ); return C_CONTINUE; } #endif if (Dj.joinMoveState == 0) { Dj.joinMoveState++; InfoMessage( GetTrkSelected(Dj.inp[0].trk)? _("Click on an unselected End-Point"): _("Click on a selected End-Point") ); Dj.inp[0].pos = pos; return C_CONTINUE; } if ( GetTrkSelected(Dj.inp[0].trk) == GetTrkSelected(Dj.inp[1].trk) ) { ErrorMessage( MSG_2ND_TRK_NOT_SEL_UNSEL, GetTrkSelected(Dj.inp[0].trk) ? _("unselected") : _("selected") ); return C_CONTINUE; } if (GetTrkSelected(Dj.inp[0].trk)) MoveToJoin( Dj.inp[0].trk, Dj.inp[0].params.ep, Dj.inp[1].trk, Dj.inp[1].params.ep ); else MoveToJoin( Dj.inp[1].trk, Dj.inp[1].params.ep, Dj.inp[0].trk, Dj.inp[0].params.ep ); Dj.joinMoveState = 0; return C_TERMINATE; } typedef enum {NO_LINE,FIRST_END,HAVE_LINE,HAVE_SECOND_LINE} LineState_t; static struct { LineState_t line_state; int joinMoveState; track_p curr_line; struct { TRKTYP_T realType; track_p line; coOrd pos; coOrd end; int cnt; } inp[2]; joinRes_t jRes; coOrd inp_pos[2]; dynArr_t anchors_da; trackParams_t params; dynArr_t newLine; } Dl; #define anchors(N) DYNARR_N(trkSeg_t,Dl.anchors_da,N) void AddAnchorEnd(coOrd p) { DIST_T d = tempD.scale*0.15; DYNARR_APPEND(trkSeg_t,Dl.anchors_da,1); trkSeg_p a = &DYNARR_LAST(trkSeg_t,Dl.anchors_da); a->type = SEG_CRVLIN; a->width = 0; a->u.c.a0 = 0.0; a->u.c.a1 = 360.0; a->u.c.center = p; a->u.c.radius = d/2; a->color = wDrawColorPowderedBlue; } static STATUS_T CmdJoinLine( wAction_t action, coOrd pos ) /* * Join 2 lines. */ { switch (action&0xFF) { case C_START: InfoMessage( _("Left click - Select first draw object end") ); Dl.line_state = NO_LINE; Dl.joinMoveState = 0; tempSegs_da.cnt = 0; DYNARR_RESET(trkSeg_t,Dl.newLine); Dl.curr_line = NULL; return C_CONTINUE; case wActionMove: DYNARR_RESET(trkSeg_t,Dl.anchors_da); Dl.curr_line = NULL; coOrd pos1= pos; Dl.curr_line = OnTrack( &pos1, FALSE, FALSE ); if (!Dl.curr_line) return C_CONTINUE; if (IsTrack(Dl.curr_line)) { Dl.curr_line = NULL; return C_CONTINUE; } if (!QueryTrack(Dl.curr_line,Q_GET_NODES)) { Dl.curr_line = NULL; return C_CONTINUE; } if (!GetTrackParams(PARAMS_NODES,Dl.curr_line,pos,&Dl.params)) { Dl.curr_line = NULL; return C_CONTINUE; } if ( (Dl.line_state != NO_LINE) && (Dl.inp[0].line == Dl.curr_line) && (IsClose(FindDistance(Dl.inp[0].pos,Dl.params.lineOrig)) ) ) { Dl.curr_line = NULL; } else { AddAnchorEnd(Dl.params.lineOrig); } break; case C_DOWN: DYNARR_RESET(trkSeg_t,Dl.anchors_da); Dl.curr_line = NULL; if (Dl.line_state == NO_LINE) { Dl.curr_line = OnTrack( &pos, FALSE, FALSE); if (!Dl.curr_line || IsTrack(Dl.curr_line)) { InfoMessage( _("Not a line - Try again") ); return C_CONTINUE; } if (!QueryTrack(Dl.curr_line,Q_GET_NODES)) return C_CONTINUE; if (!GetTrackParams(PARAMS_NODES,Dl.curr_line,pos,&Dl.params)) return C_CONTINUE; Dl.line_state = HAVE_LINE; Dl.inp[0].line = Dl.curr_line; Dl.inp[0].pos = Dl.params.lineOrig; Dl.inp[0].end = Dl.params.lineEnd; DYNARR_SET(trkSeg_t,Dl.newLine,1); DYNARR_LAST(trkSeg_t,Dl.newLine).type = SEG_POLY; DYNARR_LAST(trkSeg_t,Dl.newLine).color = wDrawColorBlack; DYNARR_LAST(trkSeg_t,Dl.newLine).width = 0; DYNARR_LAST(trkSeg_t,Dl.newLine).u.p.polyType = POLYLINE; DYNARR_LAST(trkSeg_t,Dl.newLine).u.p.pts = MyMalloc(sizeof(pts_t)*Dl.params.nodes.cnt); DYNARR_LAST(trkSeg_t,Dl.newLine).u.p.cnt = Dl.params.nodes.cnt; //Copy in reverse as we want this point to be last for (int i=0;i0) DrawSegs( &tempD, zero, 0.0, &anchors(0), Dl.anchors_da.cnt, trackGauge, wDrawColorPreviewSelected ); break; case C_TEXT: case C_OK: default:; } return C_CONTINUE; } void AnchorTempLine(coOrd p0, coOrd p1) { DYNARR_APPEND(trkSeg_t,Dj.anchors,1); trkSeg_p p = &DYNARR_LAST(trkSeg_t,Dj.anchors); p->type = SEG_STRLIN; p->color = wDrawColorBlue; p->width = 0.0; p->u.l.pos[0] = p0; p->u.l.pos[1] = p1; } void AnchorTempCircle(coOrd center,DIST_T radius, ANGLE_T a0, ANGLE_T a1) { DYNARR_APPEND(trkSeg_t,Dj.anchors,1); trkSeg_p p = &DYNARR_LAST(trkSeg_t,Dj.anchors); p->type = SEG_CRVLIN; p->color = wDrawColorBlue; p->width = 0.0; p->u.c.a0 =a0; p->u.c.a1 = a1; p->u.c.radius = radius; p->u.c.center = center; } void AnchorPoint(coOrd center) { DYNARR_APPEND(trkSeg_t,Dj.anchors,1); trkSeg_p p = &DYNARR_LAST(trkSeg_t,Dj.anchors); p->type = SEG_CRVLIN; p->color = wDrawColorAqua; p->width = 0.0; p->u.c.a0 =0.0; p->u.c.a1 = 360.0; p->u.c.radius = mainD.scale/4; p->u.c.center = center; } static DIST_T desired_radius = 0.0; static paramFloatRange_t r_0_10000 = { 0.0, 100000.0 }; static paramData_t joinPLs[] = { #define joinRadPD (joinPLs[0]) #define joinRadI 0 { PD_FLOAT, &desired_radius, "radius", PDO_DIM, &r_0_10000, N_("Desired Radius") } }; static paramGroup_t joinPG = { "join-fixed", 0, joinPLs, sizeof joinPLs/sizeof joinPLs[0] }; BOOL_T AdjustPosToRadius(coOrd *pos, DIST_T desired_radius, ANGLE_T an0, ANGLE_T an1) { coOrd point1,point2; switch ( Dj.inp[1].params.type ) { case curveTypeCurve: if (Dj.inp[0].params.type == curveTypeStraight) { coOrd newP, newP1; //Offset curve by desired_radius DIST_T newR1; newR1 = Dj.inp[1].params.arcR + desired_radius*((fabs(an1-Dj.inp[1].params.arcA0)<1.0)?1:-1); if (newR1<=0.0) { if (debug) InfoMessage("Zero Radius C1"); return FALSE; } //Offset line by desired_radius Translate(&newP,Dj.inp[0].params.lineEnd,an0,desired_radius); Translate(&newP1,Dj.inp[0].params.lineOrig,an0,desired_radius); if (debug) AnchorTempLine(newP,newP1); //Intersect - this is the joining curve center if (debug) AnchorTempCircle(Dj.inp[1].params.arcP,newR1,Dj.inp[1].params.arcA0,Dj.inp[1].params.arcA1); if (!FindArcAndLineIntersections(&point1,&point2,Dj.inp[1].params.arcP,newR1,newP,newP1)) return FALSE; } else if (Dj.inp[0].params.type == curveTypeCurve) { //Offset curve by desired_radius DIST_T newR0; newR0 = Dj.inp[0].params.arcR + desired_radius*((fabs(an0-Dj.inp[0].params.arcA0)<1.0)?1:-1); if (newR0<=0.0) { if (debug) InfoMessage("Zero Radius C0"); return FALSE; } //Offset curve by desired_radius if (debug) AnchorTempCircle(Dj.inp[0].params.arcP,newR0,Dj.inp[0].params.arcA0,Dj.inp[0].params.arcA1); DIST_T newR1; newR1 = Dj.inp[1].params.arcR + desired_radius*((fabs(an1-Dj.inp[1].params.arcA0)<1.0)?1:-1); if (newR1<=0.0) { if (debug) InfoMessage("Zero Radius C1"); return FALSE; } //Intersect - this is the joining curve center if (debug) AnchorTempCircle(Dj.inp[1].params.arcP,newR1,Dj.inp[1].params.arcA0,Dj.inp[1].params.arcA1); if (!FindArcIntersections(&point1,&point2,Dj.inp[0].params.arcP,newR0,Dj.inp[1].params.arcP,newR1)) return FALSE; } if (debug) { AnchorPoint(point1); AnchorPoint(point2); } break; case curveTypeStraight: if (Dj.inp[0].params.type == curveTypeStraight) { coOrd newI,newP0,newP01, newP1, newP11; //Offset line1 by desired_radius Translate(&newP0,Dj.inp[0].params.lineEnd,an0,desired_radius); Translate(&newP01,Dj.inp[0].params.lineOrig,an0,desired_radius); if (debug) AnchorTempLine(newP0,newP01); //Offset line2 by desired_radius Translate(&newP1,Dj.inp[1].params.lineEnd,an1,desired_radius); Translate(&newP11,Dj.inp[1].params.lineOrig,an1,desired_radius); if (debug) AnchorTempLine(newP1,newP11); if (!FindIntersection(&newI,newP0,Dj.inp[0].params.angle,newP1,Dj.inp[1].params.angle)) return FALSE; point1 = point2 = newI; } else if (Dj.inp[0].params.type == curveTypeCurve) { coOrd newP, newP1; //Offset curve by desired_radius DIST_T newR0; newR0 = Dj.inp[0].params.arcR + desired_radius*((fabs(an0-Dj.inp[0].params.arcA0)<1.0)?1:-1); if (newR0<=0.0) { if (debug) InfoMessage("Zero Radius C0"); return FALSE; } if (debug) AnchorTempCircle(Dj.inp[0].params.arcP,newR0,Dj.inp[0].params.arcA0,Dj.inp[0].params.arcA1); //Offset line by desired_radius Translate(&newP,Dj.inp[1].params.lineEnd,an1,desired_radius); Translate(&newP1,Dj.inp[1].params.lineOrig,an1,desired_radius); if (debug) AnchorTempLine(newP,newP1); //Intersect - this is the joining curve center if (!FindArcAndLineIntersections(&point1,&point2,Dj.inp[0].params.arcP,newR0,newP,newP1)) return FALSE; } if (debug) { AnchorPoint(point1); AnchorPoint(point2); } break; default: return FALSE; } if (FindDistance(*pos,point1)<=FindDistance(*pos,point2)) { if (Dj.inp[1].params.type == curveTypeCurve) { ANGLE_T a = FindAngle(Dj.inp[1].params.arcP,point1); Translate(pos,Dj.inp[1].params.arcP,a,Dj.inp[1].params.arcR); } else { Translate(pos,point1,NormalizeAngle(an1+180),desired_radius); } } else { if (Dj.inp[1].params.type == curveTypeCurve) { ANGLE_T a = FindAngle(Dj.inp[1].params.arcP,point2); Translate(pos,Dj.inp[1].params.arcP,a,Dj.inp[1].params.arcR); } else Translate(pos,point2,NormalizeAngle(an1+180),desired_radius); } return TRUE; } void AddAnchorJoin(coOrd pos, ANGLE_T angle) { DIST_T d = tempD.scale*0.15; DYNARR_APPEND(trkSeg_t,Dj.anchors,1); trkSeg_p a = &DYNARR_LAST(trkSeg_t,Dj.anchors); a->type = SEG_CRVLIN; a->width = 0; a->u.c.a0 = 0.0; a->u.c.a1 = 360.0; a->u.c.center = pos; a->u.c.radius = d/2; a->color = wDrawColorBlue; DYNARR_SET(trkSeg_t,Dj.anchors,Dj.anchors.cnt+5); DrawArrowHeads(&DYNARR_N(trkSeg_t,Dj.anchors,Dj.anchors.cnt-5),pos,angle,FALSE,wDrawColorBlue); } static BOOL_T infoSubst = FALSE; static track_p anchor_trk; static coOrd anchor_pos; static ANGLE_T anchor_angle = 0.0; static STATUS_T CmdJoin( wAction_t action, coOrd pos ) /* * Join 2 tracks. */ { DIST_T d=0, l; coOrd off, p1; EPINX_T ep; track_p trk=NULL; DOUBLE_T beyond; STATUS_T rc; ANGLE_T normalAngle=0; EPINX_T inx; ANGLE_T a, a1; DIST_T eR[2]; BOOL_T ok; wControl_p controls[2]; char * labels[1]; switch (action&0xFF) { case C_START: if (joinPLs[0].control==NULL) { ParamCreateControls(&joinPG, NULL); } if (selectedTrackCount==0) InfoMessage( _("Left click - join with track") ); else InfoMessage( _("Left click - join with track, Shift Left click - move to join") ); DYNARR_RESET(trkSeg_t,Dj.anchors); Dj.state = 0; Dj.joinMoveState = 0; Dj.cornuMode = FALSE; /*ParamGroupRecord( &easementPG );*/ infoSubst = FALSE; anchor_trk = NULL; if (easementVal < 0.0) return CmdCornu(action, pos); return C_CONTINUE; case wActionMove: anchor_trk = NULL; DYNARR_RESET(rkSeg_t,Dj.anchors); if ((easementVal < 0) && Dj.joinMoveState == 0 ) return CmdCornu(action, pos); if ( Dj.state >= 2) return C_CONTINUE; if ( (trk = OnTrack( &pos, FALSE, TRUE )) == NULL) return C_CONTINUE; if (!CheckTrackLayer( trk ) ) return C_CONTINUE; if ((Dj.state > 0) && (trk == Dj.inp[0].trk)) return C_CONTINUE; trackParams_t moveParams; if (!GetTrackParams( PARAMS_1ST_JOIN, trk, pos, &moveParams )) return C_CONTINUE; ep = PickUnconnectedEndPointSilent(pos,trk); if (ep <0) return C_CONTINUE; if (IsClose(FindDistance(GetTrkEndPos(trk,ep),pos))) anchor_angle = GetTrkEndAngle(trk,ep); else anchor_angle = FindAngle(pos,GetTrkEndPos(trk,ep)); anchor_trk = trk; anchor_pos = pos; AddAnchorJoin(pos,anchor_angle); break; case C_DOWN: if ( !Dj.cornuMode && ((Dj.state == 0 && (MyGetKeyState() & WKEY_SHIFT) != 0) || Dj.joinMoveState != 0) ) return DoMoveToJoin( pos ); if (easementVal < 0.0 && Dj.joinMoveState == 0) { Dj.cornuMode = TRUE; return CmdCornu(action, pos); } DYNARR_SET( trkSeg_t, tempSegs_da, 3 ); tempSegs(0).color = drawColorBlack; tempSegs(0).width = 0; tempSegs(1).color = drawColorBlack; tempSegs(1).width = 0; tempSegs(2).color = drawColorBlack; tempSegs(2).width = 0; tempSegs_da.cnt = 0; Dj.joinMoveState = 0; /* Populate (Dj.inp[0]) and check for connecting abutting tracks */ if (Dj.state == 0) { if ( (Dj.inp[0].trk = OnTrack( &pos, TRUE, TRUE )) == NULL) return C_CONTINUE; if (!CheckTrackLayer( Dj.inp[0].trk ) ) return C_CONTINUE; Dj.inp[0].pos = pos; LOG( log_join, 1, ("JOIN: 1st track %d @[%0.3f %0.3f]\n", GetTrkIndex(Dj.inp[0].trk), Dj.inp[0].pos.x, Dj.inp[1].pos.y ) ) if (!GetTrackParams( PARAMS_1ST_JOIN, Dj.inp[0].trk, pos, &Dj.inp[0].params )) return C_CONTINUE; Dj.inp[0].realType = GetTrkType(Dj.inp[0].trk); InfoMessage( _("Select 2nd track") ); Dj.state = 1; wPrefGetFloat("misc", "desired_radius", &desired_radius, desired_radius); controls[0] = joinRadPD.control; controls[1] = NULL; labels[0] = N_("Desired Radius"); InfoSubstituteControls(controls, labels); infoSubst = TRUE; joinRadPD.option |= PDO_NORECORD; ParamLoadControls(&joinPG); ParamGroupRecord(&joinPG); return C_CONTINUE; } else { if ( (Dj.inp[1].trk = OnTrack( &pos, FALSE, TRUE )) == NULL) return C_CONTINUE; if (!CheckTrackLayer( Dj.inp[1].trk ) ) return C_CONTINUE; Dj.inp[1].pos = pos; if (!GetTrackParams( PARAMS_2ND_JOIN, Dj.inp[1].trk, pos, &Dj.inp[1].params )) return C_CONTINUE; if ( Dj.inp[0].trk == Dj.inp[1].trk ) { ErrorMessage( MSG_JOIN_SAME ); return C_CONTINUE; } if (infoSubst) InfoSubstituteControls(NULL, NULL); infoSubst = FALSE; Dj.inp[1].realType = GetTrkType(Dj.inp[1].trk); if ( IsCurveCircle( Dj.inp[0].trk ) ) Dj.inp[0].params.ep = PickArcEndPt( Dj.inp[0].params.arcP, Dj.inp[0].pos, pos ); if ( IsCurveCircle( Dj.inp[1].trk ) ) Dj.inp[1].params.ep = PickArcEndPt( Dj.inp[1].params.arcP, pos, Dj.inp[0].pos ); LOG( log_join, 1, (" 2nd track %d, @[%0.3f %0.3f] EP0=%d EP1=%d\n", GetTrkIndex(Dj.inp[1].trk), Dj.inp[1].pos.x, Dj.inp[1].pos.y, Dj.inp[0].params.ep, Dj.inp[1].params.ep ) ) LOG( log_join, 1, ("P1=[%0.3f %0.3f]\n", pos.x, pos.y ) ) BOOL_T only_merge = FALSE; if ( (Dj.inp[0].params.ep >=0) && (GetTrkEndTrk(Dj.inp[0].trk,Dj.inp[0].params.ep) != NULL)) { if (GetTrkEndTrk(Dj.inp[0].trk,Dj.inp[0].params.ep) != Dj.inp[1].trk) { only_merge = TRUE; ErrorMessage( MSG_TRK_ALREADY_CONN, _("First") ); return C_CONTINUE; } } if ( (Dj.inp[1].params.ep >= 0) && (GetTrkEndTrk(Dj.inp[1].trk,Dj.inp[1].params.ep) != NULL)) { if (GetTrkEndTrk(Dj.inp[1].trk,Dj.inp[1].params.ep) != Dj.inp[0].trk) { only_merge = TRUE; ErrorMessage( MSG_TRK_ALREADY_CONN, _("Second") ); return C_CONTINUE; } } rc = C_CONTINUE; if ( MergeTracks( Dj.inp[0].trk, Dj.inp[0].params.ep, Dj.inp[1].trk, Dj.inp[1].params.ep ) ) { rc = C_TERMINATE; } else if (only_merge) { rc = C_TERMINATE; } else if ( Dj.inp[0].params.ep >= 0 && Dj.inp[1].params.ep >= 0 ) { if ( Dj.inp[0].params.type == curveTypeStraight && Dj.inp[1].params.type == curveTypeStraight && ExtendStraightToJoin( Dj.inp[0].trk, Dj.inp[0].params.ep, Dj.inp[1].trk, Dj.inp[1].params.ep ) ) rc = C_TERMINATE; if ( ConnectAbuttingTracks( Dj.inp[0].trk, Dj.inp[0].params.ep, Dj.inp[1].trk, Dj.inp[1].params.ep ) ) rc = C_TERMINATE; } if ( rc == C_TERMINATE ) { return rc; } if ( QueryTrack( Dj.inp[0].trk, Q_CANNOT_BE_ON_END ) || QueryTrack( Dj.inp[1].trk, Q_CANNOT_BE_ON_END ) ) { ErrorMessage( MSG_JOIN_EASEMENTS ); return C_CONTINUE; } Dj.state = 2; Dj.jRes.flip = FALSE; } tempSegs_da.cnt = 0; /* no break */ case C_MOVE: if (easementVal < 0 && Dj.cornuMode) return CmdCornu(action, pos); LOG( log_join, 3, ("P1=[%0.3f %0.3f]\n", pos.x, pos.y ) ) if (Dj.state != 2) return C_CONTINUE; DYNARR_RESET(trkSeg_t,Dj.anchors); //Fix Pos onto the line of the second track if (Dj.inp[1].params.type == curveTypeStraight) { ANGLE_T a = NormalizeAngle(FindAngle(Dj.inp[1].params.lineOrig,pos)-Dj.inp[1].params.angle); DIST_T d = FindDistance(Dj.inp[1].params.lineOrig,pos); Translate(&pos,Dj.inp[1].params.lineOrig,Dj.inp[1].params.angle,d*cos(D2R(a))); } else { ANGLE_T a = FindAngle(Dj.inp[1].params.arcP,pos); Translate(&pos,Dj.inp[1].params.arcP,a,Dj.inp[1].params.arcR); } if ((desired_radius != 0.0) && ((Dj.inp[0].params.type == curveTypeStraight) || (Dj.inp[0].params.type == curveTypeCurve)) && ((Dj.inp[1].params.type == curveTypeStraight) || (Dj.inp[1].params.type == curveTypeCurve)) && Dj.jRes.type==curveTypeCurve ) { ANGLE_T na0=0.0,na1=0.0; coOrd end0, end1; ANGLE_T a0,a1; end0 = GetTrkEndPos(Dj.inp[0].trk,Dj.inp[0].params.ep); end1 = GetTrkEndPos(Dj.inp[1].trk,Dj.inp[1].params.ep); if (Dj.inp[0].params.type == curveTypeStraight) { a0 = DifferenceBetweenAngles(Dj.inp[0].params.angle,FindAngle(Dj.jRes.pos[0], pos)); na0 = NormalizeAngle( Dj.inp[0].params.angle + ((a0>0.0)?90.0:-90.0)); } else { na0 = Dj.inp[0].params.arcA0; if (FindDistance(Dj.inp[0].params.arcP,pos)0.0)?90.0:-90.0)); } else { na1 = Dj.inp[1].params.arcA0; if (FindDistance(Dj.inp[1].params.arcP,Dj.jRes.pos[0])Dj.inp[1].params.arcA0+Dj.inp[1].params.arcA1) || (a< Dj.inp[1].params.arcA0)) { beyond = 1.0; } } //Suppress result unless on track and close to user position (when on track) if (beyond>-0.01 && IsClose(FindDistance(pos,pos1))) { pos = pos1; DYNARR_APPEND(trkSeg_t,Dj.anchors,1); trkSeg_p p = &DYNARR_LAST(trkSeg_t,Dj.anchors); p->type= SEG_CRVLIN; p->width = 0; p->color = wDrawColorBlue; p->u.c.center = pos; p->u.c.a1= 360.0; p->u.c.a0 = 0.0; p->u.c.radius = tempD.scale*0.25/2; } } } tempSegs_da.cnt = 0; tempSegs(0).color = drawColorBlack; ok = FALSE; /* Populate (Dj.inp[1]) */ if ( QueryTrack(Dj.inp[1].trk,Q_REFRESH_JOIN_PARAMS_ON_MOVE) ) { if ( !GetTrackParams( PARAMS_2ND_JOIN, Dj.inp[1].trk, pos, &Dj.inp[1].params ) ) return C_CONTINUE; } beyond = 1.0; switch ( Dj.inp[1].params.type ) { case curveTypeCurve: normalAngle = FindAngle( Dj.inp[1].params.arcP, pos ); Dj.inp[1].params.angle = NormalizeAngle( normalAngle + ((Dj.inp[1].params.ep==0)?-90.0:90.0)); PointOnCircle( &Dj.inp[1].pos, Dj.inp[1].params.arcP, Dj.inp[1].params.arcR, normalAngle ); if (Dj.inp[0].params.ep == Dj.inp[1].params.ep) normalAngle = NormalizeAngle( normalAngle + 180.0 ); break; case curveTypeStraight: FindPos( &off, &beyond, pos, Dj.inp[1].params.lineOrig, Dj.inp[1].params.angle, 100000 ); Translate( &Dj.inp[1].pos, Dj.inp[1].params.lineOrig, Dj.inp[1].params.angle, off.x ); normalAngle = NormalizeAngle( Dj.inp[1].params.angle + ((Dj.inp[0].params.ep==0)?-90.0:90.0) ); break; case curveTypeNone: case curveTypeBezier: case curveTypeCornu: break; } /* Compute the radius of the 2 tracks, for ComputeE() */ for (inx=0;inx<2;inx++) if (Dj.inp[inx].params.type == curveTypeCurve) { eR[inx] = Dj.inp[inx].params.arcR; if (Dj.inp[inx].params.ep == inx) eR[inx] = - eR[inx]; } else eR[inx] = 0.0; if (!AdjustJoint( FALSE, 0.0, eR, normalAngle )) goto errorReturn; /*return C_CONTINUE;*/ if (beyond < -0.000001) { #ifdef VERBOSE printf("pos=[%0.3f,%0.3f] lineOrig=[%0.3f,%0.3f], angle=%0.3f = off=[%0.3f,%0.3f], beyond=%0.3f\n", pos.x, pos.y, Dj.inp[1].params.lineOrig.x, Dj.inp[1].params.lineOrig.y, Dj.inp[1].params.angle, off.x, off.y, beyond ); #endif InfoMessage( _("Beyond end of 2nd track") ); goto errorReturn; } Dj.inp_pos[0] = Dj.jRes.pos[0]; Dj.inp_pos[1] = Dj.jRes.pos[1]; LOG( log_join, 3, (" -E POS0=[%0.3f %0.3f] POS1=[%0.3f %0.3f]\n", Dj.jRes.pos[0].x, Dj.jRes.pos[0].y, Dj.jRes.pos[1].x, Dj.jRes.pos[1].y ) ) if ( Dj.jointD[0].x!=0.0 || Dj.jointD[1].x!=0.0 ) { /* Compute the transition-curve, hopefully twice is enough */ a1 = Dj.inp[1].params.angle + (Dj.jointD[1].negate?-90.0:+90.0); if ((!AdjustJoint( TRUE, a1, eR, normalAngle )) || (!AdjustJoint( TRUE, a1, eR, normalAngle )) ) goto errorReturn; /*return C_CONTINUE;*/ if (logTable(log_join).level >= 3) { Translate( &p1, Dj.jRes.pos[1], a1+180.0, Dj.jointD[1].x ); LogPrintf(" X0=%0.3f, P1=[%0.3f %0.3f]\n", FindDistance( Dj.inp_pos[0], Dj.jRes.pos[0] ), p1.x, p1.y ); LogPrintf(" E+ POS0=[%0.3f %0.3f]..[%0.3f %0.3f] POS1=[%0.3f %0.3f]..[%0.3f %0.3f]\n", Dj.inp_pos[0].x, Dj.inp_pos[0].y, Dj.jRes.pos[0].x, Dj.jRes.pos[0].y, p1.x, p1.y, Dj.jRes.pos[1].x, Dj.jRes.pos[1].y ); } } switch ( Dj.inp[0].params.type ) { case curveTypeStraight: FindPos( &off, &beyond, Dj.inp_pos[0], Dj.inp[0].params.lineOrig, Dj.inp[0].params.angle, 100000.0 ); if (beyond < 0.0) { InfoMessage(_("Beyond end of 1st track")); goto errorReturn; /*Dj.jRes.type = curveTypeNone; return C_CONTINUE;*/ } d = FindDistance( Dj.inp_pos[0], Dj.inp[0].params.lineOrig ); break; case curveTypeCurve: if (IsCurveCircle(Dj.inp[0].trk)) { d = 10000.0; } else { a = FindAngle( Dj.inp[0].params.arcP, Dj.inp_pos[0] ); if (Dj.inp[0].params.ep == 0) a1 = NormalizeAngle( Dj.inp[0].params.arcA0+Dj.inp[0].params.arcA1-a ); else a1 = NormalizeAngle( a-Dj.inp[0].params.arcA0 ); d = Dj.inp[0].params.arcR * a1 * 2.0*M_PI/360.0; } break; case curveTypeCornu: case curveTypeBezier: case curveTypeNone: InfoMessage( _("First Track Type not supported for non-Cornu Join") ); goto errorReturn; default: AbortProg( "cmdJoin - unknown type[0]" ); } d -= Dj.jointD[0].d0; if ( d <= minLength ) { ErrorMessage( MSG_TRK_TOO_SHORT, _("First "), PutDim(fabs(minLength-d)) ); goto errorReturn; /*Dj.jRes.type = curveTypeNone; return C_CONTINUE;*/ } switch ( Dj.inp[1].params.type ) { case curveTypeStraight: d = FindDistance( Dj.inp_pos[1], Dj.inp[1].params.lineOrig ); break; case curveTypeCurve: if (IsCurveCircle(Dj.inp[1].trk)) { d = 10000.0; } else { a = FindAngle( Dj.inp[1].params.arcP, Dj.inp_pos[1] ); if (Dj.inp[1].params.ep == 0) a1 = NormalizeAngle( Dj.inp[1].params.arcA0+Dj.inp[1].params.arcA1-a ); else a1 = NormalizeAngle( a-Dj.inp[1].params.arcA0 ); d = Dj.inp[1].params.arcR * a1 * 2.0*M_PI/360.0; } break; case curveTypeCornu: case curveTypeBezier: case curveTypeNone: InfoMessage( _("Second Track Type not supported for non-Cornu Join") ); goto errorReturn; default: AbortProg( "cmdJoin - unknown type[1]" ); } d -= Dj.jointD[1].d0; if ( d <= minLength ) { ErrorMessage( MSG_TRK_TOO_SHORT, _("Second "), PutDim(fabs(minLength-d)) ); goto errorReturn; /*Dj.jRes.type = curveTypeNone; return C_CONTINUE;*/ } l = Dj.jointD[0].d0 + Dj.jointD[1].d0; if ( l > 0.0 ) { if ( Dj.jRes.type == curveTypeCurve ) { d = Dj.jRes.arcR * Dj.jRes.arcA1 * 2.0*M_PI/360.0; } else if ( Dj.jRes.type == curveTypeStraight ) { d = FindDistance( Dj.jRes.pos[0], Dj.jRes.pos[1] ); } if ( d < l ) { ErrorMessage( MSG_TRK_TOO_SHORT, _("Connecting "), PutDim(fabs(minLength-d)) ); goto errorReturn; /*Dj.jRes.type = curveTypeNone; return C_CONTINUE;*/ } } /* Setup temp track */ for ( ep=0; ep<2; ep++ ) { switch( Dj.inp[ep].params.type ) { case curveTypeCurve: tempSegs(tempSegs_da.cnt).type = SEG_CRVTRK; tempSegs(tempSegs_da.cnt).u.c.center = Dj.inp[ep].params.arcP; tempSegs(tempSegs_da.cnt).u.c.radius = Dj.inp[ep].params.arcR; if (IsCurveCircle( Dj.inp[ep].trk )) break; a = FindAngle( Dj.inp[ep].params.arcP, Dj.inp_pos[ep] ); a1 = NormalizeAngle( a-Dj.inp[ep].params.arcA0 ); if (a1 <= Dj.inp[ep].params.arcA1) break; if (Dj.inp[ep].params.ep == 0) { tempSegs(tempSegs_da.cnt).u.c.a0 = a; tempSegs(tempSegs_da.cnt).u.c.a1 = NormalizeAngle(Dj.inp[ep].params.arcA0-a); } else { tempSegs(tempSegs_da.cnt).u.c.a0 = Dj.inp[ep].params.arcA0+Dj.inp[ep].params.arcA1; tempSegs(tempSegs_da.cnt).u.c.a1 = a1-Dj.inp[ep].params.arcA1; } tempSegs_da.cnt++; break; case curveTypeStraight: if ( FindDistance( Dj.inp[ep].params.lineOrig, Dj.inp[ep].params.lineEnd ) < FindDistance( Dj.inp[ep].params.lineOrig, Dj.inp_pos[ep] ) ) { tempSegs(tempSegs_da.cnt).type = SEG_STRTRK; tempSegs(tempSegs_da.cnt).u.l.pos[0] = Dj.inp[ep].params.lineEnd; tempSegs(tempSegs_da.cnt).u.l.pos[1] = Dj.inp_pos[ep]; tempSegs_da.cnt++; } break; default: ; } } ok = TRUE; errorReturn: if (!ok) tempSegs(tempSegs_da.cnt).color = drawColorRed; switch( Dj.jRes.type ) { case curveTypeCurve: tempSegs(tempSegs_da.cnt).type = SEG_CRVTRK; tempSegs(tempSegs_da.cnt).u.c.center = Dj.jRes.arcP; tempSegs(tempSegs_da.cnt).u.c.radius = Dj.jRes.arcR; tempSegs(tempSegs_da.cnt).u.c.a0 = Dj.jRes.arcA0; tempSegs(tempSegs_da.cnt).u.c.a1 = Dj.jRes.arcA1; tempSegs_da.cnt++; break; case curveTypeStraight: tempSegs(tempSegs_da.cnt).type = SEG_STRTRK; tempSegs(tempSegs_da.cnt).u.l.pos[0] = Dj.jRes.pos[0]; tempSegs(tempSegs_da.cnt).u.l.pos[1] = Dj.jRes.pos[1]; tempSegs_da.cnt++; break; case curveTypeNone: tempSegs_da.cnt = 0; break; default: AbortProg( "Bad track type %d", Dj.jRes.type ); } if (!ok) Dj.jRes.type = curveTypeNone; return C_CONTINUE; case C_UP: if (Dj.state == 0) { if (easementVal<0 && Dj.cornuMode) return CmdCornu(action, pos); else return C_CONTINUE; } if (Dj.state == 1) { InfoMessage( _("Select 2nd track") ); return C_CONTINUE; } tempSegs(0).color = drawColorBlack; tempSegs_da.cnt = 0; if (Dj.jRes.type == curveTypeNone) { Dj.state = 1; InfoMessage( _("Select 2nd track") ); return C_CONTINUE; } UndoStart( _("Join Tracks"), "newJoin" ); switch (Dj.jRes.type) { case curveTypeStraight: trk = NewStraightTrack( Dj.jRes.pos[0], Dj.jRes.pos[1] ); Dj.jRes.flip = FALSE; break; case curveTypeCurve: trk = NewCurvedTrack( Dj.jRes.arcP, Dj.jRes.arcR, Dj.jRes.arcA0, Dj.jRes.arcA1, 0 ); break; case curveTypeNone: case curveTypeBezier: case curveTypeCornu: return C_CONTINUE; } CopyAttributes( Dj.inp[0].trk, trk ); UndrawNewTrack( Dj.inp[0].trk ); UndrawNewTrack( Dj.inp[1].trk ); ep = Dj.jRes.flip?1:0; Dj.state = 0; DYNARR_RESET(trkSeg_t,Dj.anchors); rc = C_TERMINATE; if (easementVal == 0.0) wPrefSetFloat("misc", "desired_radius", desired_radius); if ( (!JoinTracks( Dj.inp[0].trk, Dj.inp[0].params.ep, Dj.inp_pos[0], trk, ep, Dj.jRes.pos[0], &Dj.jointD[0] ) ) || (!JoinTracks( Dj.inp[1].trk, Dj.inp[1].params.ep, Dj.inp_pos[1], trk, 1-ep, Dj.jRes.pos[1], &Dj.jointD[1] ) ) ) rc = C_ERROR; UndoEnd(); DrawNewTrack( Dj.inp[0].trk ); DrawNewTrack( Dj.inp[1].trk ); DrawNewTrack( trk ); if (infoSubst) InfoSubstituteControls(NULL, NULL); infoSubst = FALSE; return rc; case C_CANCEL: if (infoSubst) InfoSubstituteControls(NULL, NULL); infoSubst = FALSE; break; case C_REDRAW: if ( Dj.joinMoveState == 1 || Dj.state == 1 ) { DrawFillCircle( &tempD, Dj.inp[0].pos, 0.10*mainD.scale, selectedColor ); } else if (easementVal<0 && Dj.joinMoveState == 0) return CmdCornu(action,pos); if (Dj.anchors.cnt) DrawSegs(&tempD, zero, 0.0, &(((trkSeg_t *)Dj.anchors.ptr)[0]), Dj.anchors.cnt,trackGauge,wDrawColorBlack); DrawSegs( &tempD, zero, 0.0, &tempSegs(0), tempSegs_da.cnt, trackGauge, wDrawColorBlack ); break; case C_TEXT: case C_OK: if (easementVal<0 && Dj.cornuMode) return CmdCornu(action,pos); if (infoSubst) InfoSubstituteControls(NULL, NULL); infoSubst = FALSE; } return C_CONTINUE; } /***************************************************************************** * * INITIALIZATION * */ #include "bitmaps/join.xpm" #include "bitmaps/joinline.xpm" void InitCmdJoin( wMenu_p menu ) { ButtonGroupBegin( _("Join"), "cmdJoinSetCmd", _("Join") ); joinCmdInx = AddMenuButton( menu, CmdJoin, "cmdJoinTrack", _("Join Track"), wIconCreatePixMap(join_xpm), LEVEL0_50, IC_STICKY|IC_POPUP|IC_WANT_MOVE, ACCL_JOIN, NULL ); AddMenuButton( menu, CmdJoinLine, "cmdJoinLine", _("Join Lines"), wIconCreatePixMap(joinline_xpm), LEVEL0_50, IC_STICKY|IC_POPUP|IC_WANT_MOVE, ACCL_JOIN, NULL ); ButtonGroupEnd(); log_join = LogFindIndex( "join" ); }