| Geant4 Cross Reference |
1 // 1 //
2 // ******************************************* 2 // ********************************************************************
3 // * License and Disclaimer 3 // * License and Disclaimer *
4 // * 4 // * *
5 // * The Geant4 software is copyright of th 5 // * The Geant4 software is copyright of the Copyright Holders of *
6 // * the Geant4 Collaboration. It is provided 6 // * the Geant4 Collaboration. It is provided under the terms and *
7 // * conditions of the Geant4 Software License 7 // * conditions of the Geant4 Software License, included in the file *
8 // * LICENSE and available at http://cern.ch/ 8 // * LICENSE and available at http://cern.ch/geant4/license . These *
9 // * include a list of copyright holders. 9 // * include a list of copyright holders. *
10 // * 10 // * *
11 // * Neither the authors of this software syst 11 // * Neither the authors of this software system, nor their employing *
12 // * institutes,nor the agencies providing fin 12 // * institutes,nor the agencies providing financial support for this *
13 // * work make any representation or warran 13 // * work make any representation or warranty, express or implied, *
14 // * regarding this software system or assum 14 // * regarding this software system or assume any liability for its *
15 // * use. Please see the license in the file 15 // * use. Please see the license in the file LICENSE and URL above *
16 // * for the full disclaimer and the limitatio 16 // * for the full disclaimer and the limitation of liability. *
17 // * 17 // * *
18 // * This code implementation is the result 18 // * This code implementation is the result of the scientific and *
19 // * technical work of the GEANT4 collaboratio 19 // * technical work of the GEANT4 collaboration. *
20 // * By using, copying, modifying or distri 20 // * By using, copying, modifying or distributing the software (or *
21 // * any work based on the software) you ag 21 // * any work based on the software) you agree to acknowledge its *
22 // * use in resulting scientific publicati 22 // * use in resulting scientific publications, and indicate your *
23 // * acceptance of all terms of the Geant4 Sof 23 // * acceptance of all terms of the Geant4 Software license. *
24 // ******************************************* 24 // ********************************************************************
25 // 25 //
26 // 26 //
27 // 27 //
>> 28 // $Id: SoBox.cc 66373 2012-12-18 09:41:34Z gcosmo $
28 // 29 //
29 /*----------------------------HEPVis---------- 30 /*----------------------------HEPVis----------------------------------------*/
30 /* 31 /* */
31 /* Node: SoBox 32 /* Node: SoBox */
32 /* Description: Represents the G4Box Gean 33 /* Description: Represents the G4Box Geant Geometry entity */
33 /* Author: Joe Boudreau Nov 11 1996 34 /* Author: Joe Boudreau Nov 11 1996 */
34 /* 35 /* */
35 /*-------------------------------------------- 36 /*--------------------------------------------------------------------------*/
36 37
>> 38 #ifdef G4VIS_BUILD_OI_DRIVER
>> 39
37 // this : 40 // this :
38 #include "HEPVis/nodes/SoBox.h" 41 #include "HEPVis/nodes/SoBox.h"
39 42
40 #include <assert.h> 43 #include <assert.h>
41 #include <cmath> 44 #include <cmath>
42 45
43 #include <Inventor/SbBox.h> 46 #include <Inventor/SbBox.h>
44 #include <Inventor/fields/SoSFFloat.h> 47 #include <Inventor/fields/SoSFFloat.h>
45 #include <Inventor/misc/SoChildList.h> 48 #include <Inventor/misc/SoChildList.h>
46 #include <Inventor/nodes/SoSeparator.h> 49 #include <Inventor/nodes/SoSeparator.h>
47 #include <Inventor/nodes/SoCube.h> 50 #include <Inventor/nodes/SoCube.h>
48 #include <Inventor/nodes/SoScale.h> 51 #include <Inventor/nodes/SoScale.h>
49 #include <Inventor/actions/SoAction.h> 52 #include <Inventor/actions/SoAction.h>
50 #include <Inventor/nodes/SoIndexedFaceSet.h> 53 #include <Inventor/nodes/SoIndexedFaceSet.h>
51 #include <Inventor/SoPrimitiveVertex.h> 54 #include <Inventor/SoPrimitiveVertex.h>
52 #include <Inventor/elements/SoTextureCoordinat 55 #include <Inventor/elements/SoTextureCoordinateElement.h>
53 56
54 // This statement is required 57 // This statement is required
55 SO_NODE_SOURCE(SoBox) 58 SO_NODE_SOURCE(SoBox)
56 59
57 // Constructor 60 // Constructor
58 SoBox::SoBox() { 61 SoBox::SoBox() {
59 // This statement is required 62 // This statement is required
60 SO_NODE_CONSTRUCTOR(SoBox); 63 SO_NODE_CONSTRUCTOR(SoBox);
61 64
62 // Data fields are initialized like this: 65 // Data fields are initialized like this:
63 SO_NODE_ADD_FIELD(fDx, (1.0)) 66 SO_NODE_ADD_FIELD(fDx, (1.0));
64 SO_NODE_ADD_FIELD(fDy, (1.0)) 67 SO_NODE_ADD_FIELD(fDy, (1.0));
65 SO_NODE_ADD_FIELD(fDz, (1.0)) 68 SO_NODE_ADD_FIELD(fDz, (1.0));
66 SO_NODE_ADD_FIELD(alternateRep, (NULL) 69 SO_NODE_ADD_FIELD(alternateRep, (NULL));
67 children = new SoChildList(this); 70 children = new SoChildList(this);
68 } 71 }
69 72
70 // Destructor 73 // Destructor
71 SoBox::~SoBox() { 74 SoBox::~SoBox() {
72 delete children; 75 delete children;
73 } 76 }
74 77
75 78
76 // initClass 79 // initClass
77 void SoBox::initClass(){ 80 void SoBox::initClass(){
78 // This statement is required. 81 // This statement is required.
79 static bool first = true; << 82 SO_NODE_INIT_CLASS(SoBox,SoShape,"Shape");
80 if (first) { <<
81 first = false; <<
82 SO_NODE_INIT_CLASS(SoBox,SoShape,"Shape"); <<
83 } <<
84 } 83 }
85 84
86 85
87 // generatePrimitives 86 // generatePrimitives
88 void SoBox::generatePrimitives(SoAction *actio 87 void SoBox::generatePrimitives(SoAction *action) {
89 // This variable is used to store each verte 88 // This variable is used to store each vertex
90 SoPrimitiveVertex pv; 89 SoPrimitiveVertex pv;
91 90
92 // Access the stat from the action 91 // Access the stat from the action
93 SoState *state = action->getState(); 92 SoState *state = action->getState();
94 93
95 // See if we have to use a texture coordinat 94 // See if we have to use a texture coordinate function,
96 // rather than generating explicit texture c 95 // rather than generating explicit texture coordinates.
97 SbBool useTexFunction= 96 SbBool useTexFunction=
98 (SoTextureCoordinateElement::getType(state 97 (SoTextureCoordinateElement::getType(state) ==
99 SoTextureCoordinateElement::FUNCTION); 98 SoTextureCoordinateElement::FUNCTION);
100 99
101 // If we need to generate texture coordinate 100 // If we need to generate texture coordinates with a function,
102 // we'll need an SoGLTextureCoordinateElemen 101 // we'll need an SoGLTextureCoordinateElement. Otherwise, we'll
103 // set up the coordinates directly. 102 // set up the coordinates directly.
104 const SoTextureCoordinateElement *tce = NULL 103 const SoTextureCoordinateElement *tce = NULL;
105 SbVec4f texCoord; 104 SbVec4f texCoord;
106 if (useTexFunction) { 105 if (useTexFunction) {
107 tce = SoTextureCoordinateElement::getInsta 106 tce = SoTextureCoordinateElement::getInstance(state);
108 } 107 }
109 else { 108 else {
110 texCoord[2] = 0.0; 109 texCoord[2] = 0.0;
111 texCoord[3] = 1.0; 110 texCoord[3] = 1.0;
112 } 111 }
113 SbVec3f point, normal; 112 SbVec3f point, normal;
114 113
115 114
116 ////////////////////////////////////////// 115 //////////////////////////////////////////
117 //---------------------------------------- 116 //----------------------------------------
118 #define GEN_VERTEX(pv,x,y,z,s,t,nx,ny,nz) \ 117 #define GEN_VERTEX(pv,x,y,z,s,t,nx,ny,nz) \
119 point.setValue(x,y,z); \ 118 point.setValue(x,y,z); \
120 normal.setValue(nx,ny,nz); \ 119 normal.setValue(nx,ny,nz); \
121 if (useTexFunction) { \ 120 if (useTexFunction) { \
122 texCoord=tce->get(point,normal); \ 121 texCoord=tce->get(point,normal); \
123 } \ 122 } \
124 else { \ 123 else { \
125 texCoord[0]=s; \ 124 texCoord[0]=s; \
126 texCoord[1]=t; \ 125 texCoord[1]=t; \
127 } \ 126 } \
128 pv.setPoint(point); \ 127 pv.setPoint(point); \
129 pv.setNormal(normal); \ 128 pv.setNormal(normal); \
130 pv.setTextureCoords(texCoord); \ 129 pv.setTextureCoords(texCoord); \
131 shapeVertex(&pv); 130 shapeVertex(&pv);
132 //---------------------------------------- 131 //----------------------------------------
133 ////////////////////////////////////////// 132 //////////////////////////////////////////
134 133
135 const int NPOINTS=8, NFACES=6, NINDICES = NF 134 const int NPOINTS=8, NFACES=6, NINDICES = NFACES*5;
136 int indices[NINDICES] = {3,2,1,0, SO_END_FAC 135 int indices[NINDICES] = {3,2,1,0, SO_END_FACE_INDEX, //z back.
137 4,5,6,7, SO_END_FACE_INDEX, //z fron 136 4,5,6,7, SO_END_FACE_INDEX, //z front.
138 0,1,5,4, SO_END_FACE_INDEX, //y up. 137 0,1,5,4, SO_END_FACE_INDEX, //y up.
139 1,2,6,5, SO_END_FACE_INDEX, //x left 138 1,2,6,5, SO_END_FACE_INDEX, //x left.
140 2,3,7,6, SO_END_FACE_INDEX, //y down 139 2,3,7,6, SO_END_FACE_INDEX, //y down.
141 3,0,4,7, SO_END_FACE_INDEX}; //x righ 140 3,0,4,7, SO_END_FACE_INDEX}; //x right.
142 141
143 142
144 // points for the eight vertices 143 // points for the eight vertices
145 float points[NPOINTS][3]; 144 float points[NPOINTS][3];
146 points[0][0] = fDx.getValue(); 145 points[0][0] = fDx.getValue();
147 points[0][1] = fDy.getValue(); 146 points[0][1] = fDy.getValue();
148 points[0][2] = -fDz.getValue(); 147 points[0][2] = -fDz.getValue();
149 148
150 points[1][0] = -fDx.getValue(); 149 points[1][0] = -fDx.getValue();
151 points[1][1] = fDy.getValue(); 150 points[1][1] = fDy.getValue();
152 points[1][2] = -fDz.getValue(); 151 points[1][2] = -fDz.getValue();
153 152
154 points[2][0] = -fDx.getValue(); 153 points[2][0] = -fDx.getValue();
155 points[2][1] = -fDy.getValue(); 154 points[2][1] = -fDy.getValue();
156 points[2][2] = -fDz.getValue(); 155 points[2][2] = -fDz.getValue();
157 156
158 points[3][0] = fDx.getValue(); 157 points[3][0] = fDx.getValue();
159 points[3][1] = -fDy.getValue(); 158 points[3][1] = -fDy.getValue();
160 points[3][2] = -fDz.getValue(); 159 points[3][2] = -fDz.getValue();
161 160
162 points[4][0] = fDx.getValue(); 161 points[4][0] = fDx.getValue();
163 points[4][1] = fDy.getValue(); 162 points[4][1] = fDy.getValue();
164 points[4][2] = fDz.getValue(); 163 points[4][2] = fDz.getValue();
165 164
166 points[5][0] = -fDx.getValue(); 165 points[5][0] = -fDx.getValue();
167 points[5][1] = fDy.getValue(); 166 points[5][1] = fDy.getValue();
168 points[5][2] = fDz.getValue(); 167 points[5][2] = fDz.getValue();
169 168
170 points[6][0] = -fDx.getValue(); 169 points[6][0] = -fDx.getValue();
171 points[6][1] = -fDy.getValue(); 170 points[6][1] = -fDy.getValue();
172 points[6][2] = fDz.getValue(); 171 points[6][2] = fDz.getValue();
173 172
174 points[7][0] = fDx.getValue(); 173 points[7][0] = fDx.getValue();
175 points[7][1] = -fDy.getValue(); 174 points[7][1] = -fDy.getValue();
176 points[7][2] = fDz.getValue(); 175 points[7][2] = fDz.getValue();
177 176
178 float normals[NFACES][3]; 177 float normals[NFACES][3];
179 //z back. 178 //z back.
180 normals[0][0] = 0 ; normals[0][1] = 0; 179 normals[0][0] = 0 ; normals[0][1] = 0; normals [0][2] = -1;
181 //z front. 180 //z front.
182 normals[1][0] = 0 ; normals[1][1] = 0; 181 normals[1][0] = 0 ; normals[1][1] = 0; normals [1][2] = 1;
183 //y up. 182 //y up.
184 normals[2][0] = 0 ; normals[2][1] = 1; 183 normals[2][0] = 0 ; normals[2][1] = 1; normals [2][2] = 0;
185 //x left. 184 //x left.
186 normals[3][0] = -1 ; normals[3][1] = 0; 185 normals[3][0] = -1 ; normals[3][1] = 0; normals [3][2] = 0;
187 //y down. 186 //y down.
188 normals[4][0] = 0 ; normals[4][1] = -1; 187 normals[4][0] = 0 ; normals[4][1] = -1; normals [4][2] = 0;
189 //x right. 188 //x right.
190 normals[5][0] = 1 ; normals[5][1] = 0; 189 normals[5][0] = 1 ; normals[5][1] = 0; normals [5][2] = 0;
191 190
192 float x,y,z; 191 float x,y,z;
193 int index; 192 int index;
194 for (int nf=0;nf<NFACES;nf++) { 193 for (int nf=0;nf<NFACES;nf++) {
195 beginShape(action,TRIANGLE_FAN); 194 beginShape(action,TRIANGLE_FAN);
196 index = indices[nf * 5]; 195 index = indices[nf * 5];
197 x = points[index][0]; 196 x = points[index][0];
198 y = points[index][1]; 197 y = points[index][1];
199 z = points[index][2]; 198 z = points[index][2];
200 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0] 199 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0],normals[nf][1],normals[nf][2]);
201 index = indices[nf * 5 + 1]; 200 index = indices[nf * 5 + 1];
202 x = points[index][0]; 201 x = points[index][0];
203 y = points[index][1]; 202 y = points[index][1];
204 z = points[index][2]; 203 z = points[index][2];
205 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0] 204 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0],normals[nf][1],normals[nf][2]);
206 index = indices[nf * 5 + 2]; 205 index = indices[nf * 5 + 2];
207 x = points[index][0]; 206 x = points[index][0];
208 y = points[index][1]; 207 y = points[index][1];
209 z = points[index][2]; 208 z = points[index][2];
210 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0] 209 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0],normals[nf][1],normals[nf][2]);
211 index = indices[nf * 5 + 3]; 210 index = indices[nf * 5 + 3];
212 x = points[index][0]; 211 x = points[index][0];
213 y = points[index][1]; 212 y = points[index][1];
214 z = points[index][2]; 213 z = points[index][2];
215 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0] 214 GEN_VERTEX(pv,x,y,z,0.0,0.0,normals[nf][0],normals[nf][1],normals[nf][2]);
216 endShape(); 215 endShape();
217 } 216 }
218 } 217 }
219 218
220 // getChildren 219 // getChildren
221 SoChildList *SoBox::getChildren() const { 220 SoChildList *SoBox::getChildren() const {
222 return children; 221 return children;
223 } 222 }
224 223
225 224
226 // computeBBox 225 // computeBBox
227 void SoBox::computeBBox(SoAction *, SbBox3f &b 226 void SoBox::computeBBox(SoAction *, SbBox3f &box, SbVec3f ¢er ){
228 SbVec3f vmin(-fDx.getValue(),-fDy.getValue() 227 SbVec3f vmin(-fDx.getValue(),-fDy.getValue(),-fDz.getValue()),
229 vmax( fDx.getValue(), fDy.getValue() 228 vmax( fDx.getValue(), fDy.getValue(), fDz.getValue());
230 center.setValue(0,0,0); 229 center.setValue(0,0,0);
231 box.setBounds(vmin,vmax); 230 box.setBounds(vmin,vmax);
232 } 231 }
233 232
234 233
235 234
236 235
237 // updateChildren 236 // updateChildren
238 void SoBox::updateChildren() { 237 void SoBox::updateChildren() {
239 238
240 239
241 // Redraw the G4Box.... 240 // Redraw the G4Box....
242 241
243 assert(children->getLength()==1); 242 assert(children->getLength()==1);
244 SoSeparator *sep = (SoS 243 SoSeparator *sep = (SoSeparator *) ( *children)[0];
245 SoScale *scale = (SoS 244 SoScale *scale = (SoScale *)( sep->getChild(0));
246 //SoCube *cube = (S 245 //SoCube *cube = (SoCube *)( sep->getChild(1));
247 scale->scaleFactor.setValue(fDx.getValue(), 246 scale->scaleFactor.setValue(fDx.getValue(), fDy.getValue(), fDz.getValue());
248 } 247 }
249 248
250 // generateChildren 249 // generateChildren
251 void SoBox::generateChildren() { 250 void SoBox::generateChildren() {
252 251
253 // A box consists of a set of scale factors 252 // A box consists of a set of scale factors and a
254 // cube. 253 // cube.
255 254
256 assert(children->getLength() ==0); 255 assert(children->getLength() ==0);
257 SoSeparator *sep = new SoS 256 SoSeparator *sep = new SoSeparator();
258 SoScale *scale = new SoS 257 SoScale *scale = new SoScale();
259 SoCube *cube = new SoC 258 SoCube *cube = new SoCube();
260 259
261 sep->addChild(scale); 260 sep->addChild(scale);
262 sep->addChild(cube); 261 sep->addChild(cube);
263 children->append(sep); 262 children->append(sep);
264 } 263 }
265 264
266 // generateAlternateRep 265 // generateAlternateRep
267 void SoBox::generateAlternateRep() { 266 void SoBox::generateAlternateRep() {
268 267
269 // This routine sets the alternate represent 268 // This routine sets the alternate representation to the child
270 // list of this mode. 269 // list of this mode.
271 270
272 if (children->getLength() == 0) generateChil 271 if (children->getLength() == 0) generateChildren();
273 updateChildren(); 272 updateChildren();
274 alternateRep.setValue((SoSeparator *) ( *ch 273 alternateRep.setValue((SoSeparator *) ( *children)[0]);
275 } 274 }
276 275
277 // clearAlternateRep 276 // clearAlternateRep
278 void SoBox::clearAlternateRep() { 277 void SoBox::clearAlternateRep() {
279 alternateRep.setValue(NULL); 278 alternateRep.setValue(NULL);
280 } 279 }
>> 280
>> 281 #endif
281 282