void
SoHandleBoxDragger::updateArrows(void)
{
int i;
SbString str;
SoSwitch *sw;
if (this->constraintState >= CONSTRAINT_X) {
int onval = -1;
switch (this->constraintState) {
case CONSTRAINT_X:
onval = 3;
break;
case CONSTRAINT_Y:
onval = 1;
break;
case CONSTRAINT_Z:
onval = 5;
break;
}
for (i = 1; i <= 6; i++) {
str.sprintf("arrow%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
if (i == onval || i == onval + 1) {
SoInteractionKit::setSwitchValue(sw, 0);
}
else {
SoInteractionKit::setSwitchValue(sw, SO_SWITCH_NONE);
}
}
}
else if (this->whatkind == WHATKIND_TRANSLATOR) {
int num = (this->whatnum-1) & ~1;
for (i = 0; i < 6; i++) {
str.sprintf("arrow%dSwitch", i+1);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
if (i == num || i == num+1) {
SoInteractionKit::setSwitchValue(sw, SO_SWITCH_NONE);
}
else {
SoInteractionKit::setSwitchValue(sw, 0);
}
}
}
else {
for (i = 1; i <= 6; i++) {
str.sprintf("arrow%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, SO_SWITCH_NONE);
}
}
}
void TranslateRadialDragger::
dragFinish()
{
// Display inactive versions of parts...
SoSwitch *sw;
sw = SO_GET_ANY_PART(this, "translatorSwitch", SoSwitch);
setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "feedbackSwitch", SoSwitch);
setSwitchValue(sw, 0);
// Get rid of the "feedbackRotate" part. We don't need
// it since we aren't showing the feedback any more.
setAnyPart("feedbackRotate", NULL);
}
/*!
\DRAGGER_CONSTRUCTOR
\NODEKIT_PRE_DIAGRAM
\verbatim
CLASS SoRotateSphericalDragger
-->"this"
"callbackList"
"topSeparator"
"motionMatrix"
"geomSeparator"
--> "rotatorSwitch"
--> "rotator"
--> "rotatorActive"
--> "feedbackSwitch"
--> "feedback"
--> "feedbackActive"
\endverbatim
\NODEKIT_POST_DIAGRAM
\NODEKIT_PRE_TABLE
\verbatim
CLASS SoRotateSphericalDragger
PVT "this", SoRotateSphericalDragger ---
"callbackList", SoNodeKitListPart [ SoCallback, SoEventCallback ]
PVT "topSeparator", SoSeparator ---
PVT "motionMatrix", SoMatrixTransform ---
PVT "geomSeparator", SoSeparator ---
PVT "rotatorSwitch", SoSwitch ---
"rotator", SoSeparator ---
"rotatorActive", SoSeparator ---
PVT "feedbackSwitch", SoSwitch ---
"feedback", SoSeparator ---
"feedbackActive", SoSeparator ---
\endverbatim
\NODEKIT_POST_TABLE
*/
SoRotateSphericalDragger::SoRotateSphericalDragger(void)
{
SO_KIT_INTERNAL_CONSTRUCTOR(SoRotateSphericalDragger);
SO_KIT_ADD_CATALOG_ENTRY(rotatorSwitch, SoSwitch, TRUE, geomSeparator, feedbackSwitch, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotator, SoSeparator, TRUE, rotatorSwitch, rotatorActive, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(rotatorActive, SoSeparator, TRUE, rotatorSwitch, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackSwitch, SoSwitch, TRUE, geomSeparator, "", FALSE);
SO_KIT_ADD_CATALOG_ENTRY(feedback, SoSeparator, TRUE, feedbackSwitch, feedbackActive, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackActive, SoSeparator, TRUE, feedbackSwitch, "", TRUE);
if (SO_KIT_IS_FIRST_INSTANCE()) {
SoInteractionKit::readDefaultParts("rotateSphericalDragger.iv",
ROTATESPHERICALDRAGGER_draggergeometry,
static_cast<int>(strlen(ROTATESPHERICALDRAGGER_draggergeometry)));
}
SO_KIT_ADD_FIELD(rotation, (SbRotation(SbVec3f(0.0f, 0.0f, 1.0f), 0.0f)));
SO_KIT_INIT_INSTANCE();
// initialize default parts
this->setPartAsDefault("rotator", "rotateSphericalRotator");
this->setPartAsDefault("rotatorActive", "rotateSphericalRotatorActive");
this->setPartAsDefault("feedback", "rotateSphericalFeedback");
this->setPartAsDefault("feedbackActive", "rotateSphericalFeedbackActive");
// initialize swich values
SoSwitch *sw;
sw = SO_GET_ANY_PART(this, "rotatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "feedbackSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, 0);
// setup projector
this->sphereProj = new SbSpherePlaneProjector();
this->userProj = FALSE;
this->addStartCallback(SoRotateSphericalDragger::startCB);
this->addMotionCallback(SoRotateSphericalDragger::motionCB);
this->addFinishCallback(SoRotateSphericalDragger::doneCB);
this->addValueChangedCallback(SoRotateSphericalDragger::valueChangedCB);
this->fieldSensor = new SoFieldSensor(SoRotateSphericalDragger::fieldSensorCB, this);
this->fieldSensor->setPriority(0);
this->setUpConnections(TRUE, TRUE);
}
/*!
\DRAGGER_CONSTRUCTOR
\NODEKIT_PRE_DIAGRAM
\verbatim
CLASS SoScale2Dragger
-->"this"
"callbackList"
"topSeparator"
"motionMatrix"
"geomSeparator"
--> "scalerSwitch"
--> "scaler"
--> "scalerActive"
--> "feedbackSwitch"
--> "feedback"
--> "feedbackActive"
\endverbatim
\NODEKIT_POST_DIAGRAM
\NODEKIT_PRE_TABLE
\verbatim
CLASS SoScale2Dragger
PVT "this", SoScale2Dragger ---
"callbackList", SoNodeKitListPart [ SoCallback, SoEventCallback ]
PVT "topSeparator", SoSeparator ---
PVT "motionMatrix", SoMatrixTransform ---
PVT "geomSeparator", SoSeparator ---
PVT "scalerSwitch", SoSwitch ---
"scaler", SoSeparator ---
"scalerActive", SoSeparator ---
PVT "feedbackSwitch", SoSwitch ---
"feedback", SoSeparator ---
"feedbackActive", SoSeparator ---
\endverbatim
\NODEKIT_POST_TABLE
*/
SoScale2Dragger::SoScale2Dragger(void)
{
SO_KIT_INTERNAL_CONSTRUCTOR(SoScale2Dragger);
SO_KIT_ADD_CATALOG_ENTRY(scalerSwitch, SoSwitch, TRUE, geomSeparator, feedbackSwitch, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(scaler, SoSeparator, TRUE, scalerSwitch, scalerActive, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(scalerActive, SoSeparator, TRUE, scalerSwitch, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackSwitch, SoSwitch, TRUE, geomSeparator, "", FALSE);
SO_KIT_ADD_CATALOG_ENTRY(feedback, SoSeparator, TRUE, feedbackSwitch, feedbackActive, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackActive, SoSeparator, TRUE, feedbackSwitch, "", TRUE);
if (SO_KIT_IS_FIRST_INSTANCE()) {
SoInteractionKit::readDefaultParts("scale2Dragger.iv",
SCALE2DRAGGER_draggergeometry,
static_cast<int>(strlen(SCALE2DRAGGER_draggergeometry)));
}
SO_KIT_ADD_FIELD(scaleFactor, (1.0f, 1.0f, 1.0f));
SO_KIT_INIT_INSTANCE();
// initialize default parts
this->setPartAsDefault("scaler", "scale2Scaler");
this->setPartAsDefault("scalerActive", "scale2ScalerActive");
this->setPartAsDefault("feedback", "scale2Feedback");
this->setPartAsDefault("feedbackActive", "scale2FeedbackActive");
// initialize swich values
SoSwitch *sw;
sw = SO_GET_ANY_PART(this, "scalerSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "feedbackSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, 0);
// setup projector
this->planeProj = new SbPlaneProjector();
this->addStartCallback(SoScale2Dragger::startCB);
this->addMotionCallback(SoScale2Dragger::motionCB);
this->addFinishCallback(SoScale2Dragger::finishCB);
this->addValueChangedCallback(SoScale2Dragger::valueChangedCB);
this->fieldSensor = new SoFieldSensor(SoScale2Dragger::fieldSensorCB, this);
this->fieldSensor->setPriority(0);
this->setUpConnections(TRUE, TRUE);
}
void
SoHandleBoxDragger::updateSwitches(void)
{
int i;
SbString str;
SoSwitch *sw;
if (this->whatkind == WHATKIND_UNIFORM) {
if (this->ctrlDown) {
const int *ptr = uniform_ctrl_lookup[this->whatnum-1];
for (i = 0; i < 6; i++) {
str.sprintf("extruder%dSwitch", ptr[i]);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, i < 3 ? 1 : 0);
}
}
else {
for (i = 1; i <= 6; i++) {
str.sprintf("extruder%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, 1);
}
}
str.sprintf("uniform%dSwitch", this->whatnum);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, 1);
}
else if (this->whatkind == WHATKIND_EXTRUDER) {
int othernum = ((this->whatnum-1) & ~1) + 1;
if (othernum == this->whatnum) othernum++;
str.sprintf("extruder%dSwitch", this->whatnum);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, 1);
str.sprintf("extruder%dSwitch", othernum);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, this->ctrlDown ? 0 : 1);
}
else {
this->setAllPartsActive(TRUE);
this->updateArrows();
}
}
void TranslateRadialDragger::
dragStart()
{
// Display the 'active' parts...
SoSwitch *sw;
sw = SO_GET_ANY_PART(this, "translatorSwitch", SoSwitch);
setSwitchValue(sw, 1);
sw = SO_GET_ANY_PART(this, "feedbackSwitch", SoSwitch);
setSwitchValue(sw, 1);
// Establish the projector line.
// The direction of translation goes from the center of the
// dragger toward the point that was hit, in local space.
// For the center, use (0,0,0).
SbVec3f startLocalHitPt = getLocalStartingPoint();
lineProj->setLine(SbLine(SbVec3f(0, 0, 0), startLocalHitPt));
// orient the feedback geometry.
orientFeedbackGeometry(startLocalHitPt);
}
/*!
Sets values for the internal SoSwitch parts. If \a activechild ==
\c NULL, all feedback is deactivated.
*/
void
SoCenterballDragger::setSwitches(SoDragger * activechild)
{
SoSwitch *sw;
if (activechild == NULL || coin_safe_cast<SoNode *>(activechild) == rotator.getValue()) {
// special feedback when rotator is activated/deactiveated
int switchval = activechild != NULL ? 1 : 0;
sw = SO_GET_ANY_PART(this, "XCenterChanger.translatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
sw = SO_GET_ANY_PART(this, "YCenterChanger.translatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
sw = SO_GET_ANY_PART(this, "ZCenterChanger.translatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
sw = SO_GET_ANY_PART(this, "XRotator.rotatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
sw = SO_GET_ANY_PART(this, "YRotator.rotatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
sw = SO_GET_ANY_PART(this, "ZRotator.rotatorSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, switchval);;
}
// internal feedback
int vals[3] = { SO_SWITCH_NONE, SO_SWITCH_NONE, SO_SWITCH_NONE };
if (coin_safe_cast<SoNode *>(activechild) == XRotator.getValue()) {
vals[0] = 0;
}
else if (coin_safe_cast<SoNode *>(activechild) == YRotator.getValue()) {
vals[1] = 0;
}
else if (coin_safe_cast<SoNode *>(activechild) == ZRotator.getValue()) {
vals[2] = 0;
}
else if (activechild != NULL) {
vals[0] = vals[1] = vals[2] = 0;
}
sw = SO_GET_ANY_PART(this, "XAxisSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, vals[0]);
sw = SO_GET_ANY_PART(this, "YAxisSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, vals[1]);
sw = SO_GET_ANY_PART(this, "ZAxisSwitch", SoSwitch);
SoInteractionKit::setSwitchValue(sw, vals[2]);
}
void TranslateRadialDragger::
orientFeedbackGeometry(
const SbVec3f &localDir)
{
// By default, feedback geometry aligns with the x axis.
// Rotate so that it points in the given direction.
SbRotation rotXToDir = SbRotation(SbVec3f(1, 0, 0), localDir);
// Give this rotation to the "feedbackRotate" part.
SoRotation *myPart = SO_GET_ANY_PART(this, "feedbackRotate", SoRotation);
myPart->rotation.setValue(rotXToDir);
}
/*!
Activate or deactive all dragger geometry parts.
*/
void
SoHandleBoxDragger::setAllPartsActive(SbBool onoroff)
{
int i;
int val = onoroff ? 1 : 0;
SoSwitch *sw;
SbString str;
for (i = 1; i <= 6; i++) {
str.sprintf("translator%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, val);
}
for (i = 1; i <= 6; i++) {
str.sprintf("extruder%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, val);
}
for (i = 1; i <= 8; i++) {
str.sprintf("uniform%dSwitch", i);
sw = SO_GET_ANY_PART(this, str.getString(), SoSwitch);
SoInteractionKit::setSwitchValue(sw, val);
}
this->updateArrows();
}
/*! \COININTERNAL */
void
SoCenterballDragger::fieldSensorCB(void * d, SoSensor *)
{
SoCenterballDragger * thisp = static_cast<SoCenterballDragger *>(d);
// Save center variable and translate dragger to correct position
thisp->savedcenter = thisp->center.getValue();
SbMatrix centermat;
centermat.setTranslate(thisp->savedcenter);
SoMatrixTransform * mt =
SO_GET_ANY_PART(thisp, "translateToCenter", SoMatrixTransform);
mt->matrix = centermat;
SbMatrix matrix = thisp->getMotionMatrix();
thisp->workFieldsIntoTransform(matrix);
thisp->setMotionMatrix(matrix);
}
/*!
Should be called after motion matrix has been updated by a child
dragger.
*/
void
SoCenterballDragger::transferCenterDraggerMotion(SoDragger * childdragger)
{
if (coin_assert_cast<SoNode *>(childdragger) == XCenterChanger.getValue() ||
coin_assert_cast<SoNode *>(childdragger) == YCenterChanger.getValue() ||
coin_assert_cast<SoNode *>(childdragger) == ZCenterChanger.getValue()) {
// translate part of matrix should not change. Move motion
// into center instead.
SbVec3f transl;
SbMatrix matrix = this->getMotionMatrix();
transl[0] = matrix[3][0];
transl[1] = matrix[3][1];
transl[2] = matrix[3][2];
SbVec3f difftransl = transl - this->savedtransl;
{ // consider rotation before translating
SbRotation rot = this->rotation.getValue();
SbMatrix tmp;
tmp.setRotate(rot.inverse());
tmp.multVecMatrix(difftransl, difftransl);
}
this->centerFieldSensor->detach();
this->center = difftransl + this->savedcenter;
this->centerFieldSensor->attach(&this->center);
matrix[3][0] = this->savedtransl[0];
matrix[3][1] = this->savedtransl[1];
matrix[3][2] = this->savedtransl[2];
SbBool oldval = this->enableValueChangedCallbacks(FALSE);
this->setMotionMatrix(matrix);
this->enableValueChangedCallbacks(oldval);
SoMatrixTransform *mt = SO_GET_ANY_PART(this, "translateToCenter", SoMatrixTransform);
matrix.setTranslate(this->center.getValue());
mt->matrix = matrix;
}
}
void SoFileSubgraph::readFile(const char *fileName){
// open the input file
SoInput sceneInput;
if (!sceneInput.openFile(fileName)) {
SoDebugError::post("SoFileSubgraph::readFile()",
"Cannot open file '%s'",
fileName);
return;
}
if (!sceneInput.isValidFile()){
SoDebugError::post("SoFileSubgraph::readFile()",
"file '%s' is not a valid Inventor file",
fileName);
return;
}
else{
SoDebugError::postInfo("SoFileSubgraph::readFile()",
"file '%s' read successfully",
fileName);
}
// read the whole file into the database
SoSeparator *subgraph=SoDB::readAll(&sceneInput);
subgraph->ref();
if (subgraph ==NULL) {
SoDebugError::post("SoFileSubgraph::readFile()",
"problem reading contents of file '%s'",
fileName);
return;
}
SoSeparator *graphRoot=SO_GET_ANY_PART(this,"root",SoSeparator);
graphRoot->addChild(subgraph);
sceneInput.closeFile();
}
////////////////////////////////////////////////////////////////////////
//
// Description:
// This routine sets the limitBox.
// The limit box is defined in a space aligned and scaled as
// LOCAL space, but with it's center remaining fixed in WORLD
// space.
//
// Use: static private
//
void
SoDragPointDragger::updateLimitBoxAndFeedback()
//
////////////////////////////////////////////////////////////////////////
{
// This gets called in the constructor, while the ref count is still 0.
// Since there will be some ref'ing and unref'ing done inside here,
// add a temporary ref and undo it at the end.
ref();
if ( xFeedback.getValue() != oldXAxisNode ||
yFeedback.getValue() != oldYAxisNode ||
zFeedback.getValue() != oldZAxisNode ) {
oldXAxisNode = SO_GET_ANY_PART(this,"xFeedback",SoSeparator);
oldYAxisNode = SO_GET_ANY_PART(this,"yFeedback",SoSeparator);
oldZAxisNode = SO_GET_ANY_PART(this,"zFeedback",SoSeparator);
// Get the bounds of the axis parts.
static SoGetBoundingBoxAction *bba = NULL;
if (bba == NULL)
bba = new SoGetBoundingBoxAction(getViewportRegion());
else
bba->setViewportRegion(getViewportRegion());
float xMin, yMin, zMin, xMax, yMax, zMax;
SbVec3f min, max;
bba->apply(xFeedback.getValue());
bba->getBoundingBox().getBounds( xMin, yMin, zMin, xMax, yMax, zMax );
min[0] = xMin;
max[0] = xMax;
bba->apply(yFeedback.getValue());
bba->getBoundingBox().getBounds( xMin, yMin, zMin, xMax, yMax, zMax );
min[1] = yMin;
max[1] = yMax;
bba->apply(zFeedback.getValue());
bba->getBoundingBox().getBounds( xMin, yMin, zMin, xMax, yMax, zMax );
min[2] = zMin;
max[2] = zMax;
// The limit box is defined in a space aligned and scaled as
// LOCAL space, but with it's center remaining fixed in WORLD
// space.
SbVec3f newDiag = (max - min) / 2.0;
// Give a default size of 1, in case no axis parts exist.
for (int i = 0; i < 3; i++) {
if (newDiag[i] <= getMinScale())
newDiag[i] = 1.0;
}
SbVec3f oldDiag = limitBox.getMax() -
limitBox.getCenter();
// If the size of the boundingBox has changed...
if ( newDiag != oldDiag ) {
// curEdit point needs to be the current origin expressed in world
// space (i.e., this bizarro space).
SbMatrix localToWorld = getLocalToWorldMatrix();
SbVec3f zeroPt(0,0,0);
localToWorld.multVecMatrix( zeroPt, zeroPt );
limitBox.setBounds(zeroPt - newDiag, zeroPt + newDiag );
}
}
setFeedbackGeometry();
// undo the temporary ref.
unrefNoDelete();
}
SbBool
SoXipPlot2Columns::setUpConnections( SbBool onOff, SbBool doItAlways )
{
if( !doItAlways && connectionsSetUp == onOff )
return onOff;
try
{
if ( onOff )
{
// We connect AFTER base class.
SoBaseKit::setUpConnections( onOff, FALSE );
SoMaterial* faceMaterial = SO_GET_ANY_PART( this, "mFaceMaterial", SoMaterial );
if( faceMaterial )
{
faceMaterial->diffuseColor.connectFrom( &faceColor );
faceMaterial->transparency.connectFrom( &faceTransparency );
}
SoBaseColor* borderBaseColor = SO_GET_ANY_PART( this, "mBorderColor", SoBaseColor );
if( borderBaseColor )
{
borderBaseColor->rgb.connectFrom( &borderColor );
}
SoDrawStyle* borderStyle = SO_GET_ANY_PART( this, "mBorderStyle", SoDrawStyle );
if( borderStyle )
{
borderStyle->lineWidth.connectFrom( &borderWidth );
}
}
else
{
SoMaterial* faceMaterial = SO_GET_ANY_PART( this, "mFaceMaterial", SoMaterial );
if( faceMaterial )
{
faceMaterial->diffuseColor.disconnect();
faceMaterial->transparency.disconnect();
}
SoBaseColor* borderBaseColor = SO_GET_ANY_PART( this, "mBorderColor", SoBaseColor );
if( borderBaseColor )
{
borderBaseColor->rgb.disconnect();
}
SoDrawStyle* borderStyle = SO_GET_ANY_PART( this, "mBorderStyle", SoDrawStyle );
if( borderStyle )
{
borderStyle->lineWidth.disconnect();
}
SoBaseKit::setUpConnections( onOff, FALSE );
}
}
catch(...)
{
SoDebugError::post( __FILE__, "Cannot setup connections" );
return true;
}
return !( connectionsSetUp = onOff );
}
/*! \COININTERNAL
Called when dragger is selected (picked) by the user.
*/
void
SoHandleBoxDragger::dragStart(void)
{
SoHandleBoxDragger_invalidate_surroundscale(this);
static const char translatorname[] = "translator";
static const char extrudername[] = "extruder";
static const char uniformname[] = "uniform";
const SoPath *pickpath = this->getPickPath();
SbBool found = FALSE;
this->whatkind = WHATKIND_NONE;
this->whatnum = 0;
int i;
SbString str;
if (!found) {
for (i = 1; i <= 6; i++) {
str.sprintf("%s%d", translatorname, i);
if (pickpath->findNode(this->getNodeFieldNode(str.getString())) >= 0||
this->getSurrogatePartPickedName() == str.getString()) break;
}
if (i <= 6) {
found = TRUE;
this->whatkind = WHATKIND_TRANSLATOR;
this->whatnum = i;
}
}
if (!found) {
for (i = 1; i <= 6; i++) {
str.sprintf("%s%d", extrudername, i);
if (pickpath->findNode(this->getNodeFieldNode(str.getString()))>= 0 ||
this->getSurrogatePartPickedName() == str.getString()) break;
}
if (i <= 6) {
found = TRUE;
this->whatkind = WHATKIND_EXTRUDER;
this->whatnum = i;
}
}
if (!found) {
for (i = 1; i <= 8; i++) {
str.sprintf("%s%d", uniformname, i);
if (pickpath->findNode(this->getNodeFieldNode(str.getString()))>= 0 ||
this->getSurrogatePartPickedName() == str.getString()) break;
}
if (i <= 8) {
found = TRUE;
this->whatkind = WHATKIND_UNIFORM;
this->whatnum = i;
}
}
assert(found);
if (!found) return;
SbVec3f startPt = this->getLocalStartingPoint();
switch(this->whatkind) {
case WHATKIND_TRANSLATOR:
{
SbVec3f n;
if (this->whatnum <= 2) {
n = SbVec3f(0.0f, 1.0f, 0.0f);
}
else if (this->whatnum <= 4) {
n = SbVec3f(1.0f, 0.0f, 0.0f);
}
else {
n = SbVec3f(0.0f, 0.0f, 1.0f);
}
SbVec3f localPt;
{
SbMatrix mat, inv;
this->getSurroundScaleMatrices(mat, inv);
inv.multVecMatrix(startPt, localPt);
}
this->planeProj->setPlane(SbPlane(n, startPt));
SbLine myline(SbVec3f(0.0f, 0.0f, 0.0f), n);
SoTranslation *t = SO_GET_ANY_PART(this, "arrowTranslation", SoTranslation);
t->translation = myline.getClosestPoint(localPt);
if (this->getEvent()->wasShiftDown()) {
this->getLocalToWorldMatrix().multVecMatrix(startPt, this->worldRestartPt);
this->constraintState = CONSTRAINT_WAIT;
}
}
break;
case WHATKIND_EXTRUDER:
this->lineProj->setLine(SbLine(this->getDraggerCenter(), startPt));
this->ctrlOffset = this->calcCtrlOffset(startPt);
break;
case WHATKIND_UNIFORM:
this->lineProj->setLine(SbLine(this->getDraggerCenter(), startPt));
this->ctrlOffset = this->calcCtrlOffset(startPt);
break;
}
this->ctrlDown = this->getEvent()->wasCtrlDown();
this->updateSwitches();
}
////////////////////////////////////////////////////////////////////////
//
// Description:
// Constructor
//
SoDragPointDragger::SoDragPointDragger()
//
////////////////////////////////////////////////////////////////////////
{
SO_KIT_CONSTRUCTOR(SoDragPointDragger);
isBuiltIn = TRUE;
SO_KIT_ADD_CATALOG_ENTRY(noRotSep, SoSeparator, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xTranslatorSwitch, SoSwitch, FALSE,
noRotSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xTranslator, SoTranslate1Dragger, TRUE,
xTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(xyTranslatorSwitch, SoSwitch, FALSE,
noRotSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xyTranslator, SoTranslate2Dragger, TRUE,
xyTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(rotXSep, SoSeparator, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotX, SoRotation, TRUE,
rotXSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xzTranslatorSwitch, SoSwitch, FALSE,
rotXSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xzTranslator, SoTranslate2Dragger, TRUE,
xzTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(rotYSep, SoSeparator, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotY, SoRotation, TRUE,
rotYSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(zTranslatorSwitch, SoSwitch, FALSE,
rotYSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(zTranslator, SoTranslate1Dragger, TRUE,
zTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(yzTranslatorSwitch, SoSwitch, FALSE,
rotYSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yzTranslator, SoTranslate2Dragger, TRUE,
yzTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(rotZSep, SoSeparator, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotZ, SoRotation, TRUE,
rotZSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yTranslatorSwitch, SoSwitch, FALSE,
rotZSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yTranslator, SoTranslate1Dragger, TRUE,
yTranslatorSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(xFeedbackSwitch, SoSwitch, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xFeedbackSep, SoSeparator, FALSE,
xFeedbackSwitch,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xFeedbackTranslation, SoTranslation, FALSE,
xFeedbackSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(xFeedback, SoSeparator, TRUE,
xFeedbackSep,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(yFeedbackSwitch, SoSwitch, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yFeedbackSep, SoSeparator, FALSE,
yFeedbackSwitch,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yFeedbackTranslation, SoTranslation, FALSE,
yFeedbackSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yFeedback, SoSeparator, TRUE,
yFeedbackSep,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(zFeedbackSwitch, SoSwitch, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(zFeedbackSep, SoSeparator, FALSE,
zFeedbackSwitch,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(zFeedbackTranslation, SoTranslation, FALSE,
zFeedbackSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(zFeedback, SoSeparator, TRUE,
zFeedbackSep,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(planeFeedbackSep, SoSeparator, FALSE,
topSeparator, geomSeparator,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(planeFeedbackTranslation, SoTranslation, FALSE,
planeFeedbackSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(planeFeedbackSwitch, SoSwitch, FALSE,
planeFeedbackSep,\x0,FALSE);
SO_KIT_ADD_CATALOG_ENTRY(yzFeedback, SoSeparator, TRUE,
planeFeedbackSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(xzFeedback, SoSeparator, TRUE,
planeFeedbackSwitch,\x0,TRUE);
SO_KIT_ADD_CATALOG_ENTRY(xyFeedback, SoSeparator, TRUE,
planeFeedbackSwitch,\x0,TRUE);
// read geometry for shared parts
if (SO_KIT_IS_FIRST_INSTANCE())
readDefaultParts("dragPointDragger.iv",geomBuffer,sizeof(geomBuffer) );
// The field that reflects where the dragger has been translated to
SO_KIT_ADD_FIELD(translation, (0.0, 0.0, 0.0));
SO_KIT_INIT_INSTANCE();
// Cached values to make updating the feedback geometry more efficient
oldXAxisNode = NULL;
oldYAxisNode = NULL;
oldZAxisNode = NULL;
//******************
// Set up the parts.
//******************
// Set up the rotations to orient the draggers correctly.
SoRotation *myRotX = new SoRotation;
SoRotation *myRotY = new SoRotation;
SoRotation *myRotZ = new SoRotation;
myRotX->rotation = SbRotation( SbVec3f(1,0,0), 1.57079 );
myRotY->rotation = SbRotation( SbVec3f(0,1,0), 1.57079 );
myRotZ->rotation = SbRotation( SbVec3f(0,0,1), 1.57079 );
setAnyPartAsDefault("rotX", myRotX );
setAnyPartAsDefault("rotY", myRotY );
setAnyPartAsDefault("rotZ", myRotZ );
// CREATE THE CHILD DRAGGERS.
// Create the translate1Draggers...
SoTranslate1Dragger *myXTrans, *myYTrans, *myZTrans;
myXTrans = SO_GET_ANY_PART(this,"xTranslator",SoTranslate1Dragger);
myYTrans = SO_GET_ANY_PART(this,"yTranslator",SoTranslate1Dragger);
myZTrans = SO_GET_ANY_PART(this,"zTranslator",SoTranslate1Dragger);
// Create the translate2Draggers...
SoTranslate2Dragger *myYZTrans, *myXZTrans, *myXYTrans;
myYZTrans = SO_GET_ANY_PART(this,"yzTranslator",SoTranslate2Dragger);
myXZTrans = SO_GET_ANY_PART(this,"xzTranslator",SoTranslate2Dragger);
myXYTrans = SO_GET_ANY_PART(this,"xyTranslator",SoTranslate2Dragger);
//******************
// The feedback parts jump around as the limit box changes. That is, they
// stay fixed in space while the dragger moves around.
// However, they jump to a new location when the dragger nears the edge.
// These parts a separate translation node, since they move differently
// than the dragger itself.
//******************
//******************
// The feedback parts jump around as the limit box changes. That is, they
// stay fixed in space while the dragger moves around.
// However, they jump to a new location when the dragger nears the edge.
// These parts a separate translation node, since they move differently
// than the dragger itself.
//
// Only one plane or one axis is shown at a time, depending on which
// translator has initiated the dragging.
//******************
setPartAsDefault("xFeedback", "dragPointXFeedback");
setPartAsDefault("yFeedback", "dragPointYFeedback");
setPartAsDefault("zFeedback", "dragPointZFeedback");
setPartAsDefault("yzFeedback", "dragPointYZFeedback");
setPartAsDefault("xzFeedback", "dragPointXZFeedback");
setPartAsDefault("xyFeedback", "dragPointXYFeedback");
//********************
// initialize state, limitbox, gesture variables
//********************
// To begin with, only the yTranslator and xzTranslators are turned on.
// You can switch between pairs of line/plane draggers by hitting the
// CONTROL key
setSwitchValue(xTranslatorSwitch.getValue(), SO_SWITCH_NONE );
setSwitchValue(yTranslatorSwitch.getValue(), 0 );
setSwitchValue(zTranslatorSwitch.getValue(), SO_SWITCH_NONE );
setSwitchValue(yzTranslatorSwitch.getValue(), SO_SWITCH_NONE );
setSwitchValue(xzTranslatorSwitch.getValue(), 0 );
setSwitchValue(xyTranslatorSwitch.getValue(), SO_SWITCH_NONE );
// ??? Would be cool to be able to choose a free
// axis, rotate it around to whatever direction, maybe even
// have it snap to things in the scene, then constrain
// dragging to that line.
// Start off inactive
currentDragger = NULL;
// The state of the modifier keys
shftDown = FALSE;
// Need to initialize since checkBoxLimits will look at it...
startLocalHitPt.setValue(0,0,0);
// The jump axes will jump when the edit point gets within
// 10% of their ends
jumpLimit = .1;
// makes the offsetWorkLimit box
limitBox.makeEmpty();
updateLimitBoxAndFeedback();
// These will be called by the child draggers after they call
// their own callbacks...
addStartCallback( &SoDragPointDragger::startCB );
addMotionCallback( &SoDragPointDragger::motionCB );
addFinishCallback( &SoDragPointDragger::finishCB );
// When modify keys are released, we need to turn off any constraints.
addOtherEventCallback( &SoDragPointDragger::metaKeyChangeCB );
// Updates the translation field when the motionMatrix is set.
addValueChangedCallback( &SoDragPointDragger::valueChangedCB );
// Updates the motionMatrix when the translation field is set.
fieldSensor = new SoFieldSensor( &SoDragPointDragger::fieldSensorCB, this);
fieldSensor->setPriority( 0 );
setUpConnections( TRUE, TRUE );
}
/*!
\DRAGGER_CONSTRUCTOR
\NODEKIT_PRE_DIAGRAM
\verbatim
CLASS SoCenterballDragger
-->"this"
"callbackList"
"topSeparator"
"motionMatrix"
--> "translateToCenter"
--> "surroundScale"
--> "antiSquish"
--> "lightModel"
"geomSeparator"
--> "XAxisSwitch"
--> "XAxis"
--> "YAxisSwitch"
--> "YAxis"
--> "ZAxisSwitch"
--> "ZAxis"
--> "rotator"
--> "YRotator"
--> "ZCenterChanger"
--> "rotX90"
--> "ZRotator"
--> "YCenterChanger"
--> "rotY90"
--> "XCenterChanger"
--> "rot2X90"
--> "XRotator"
\endverbatim
\NODEKIT_POST_DIAGRAM
\NODEKIT_PRE_TABLE
\verbatim
CLASS SoCenterballDragger
PVT "this", SoCenterballDragger ---
"callbackList", SoNodeKitListPart [ SoCallback, SoEventCallback ]
PVT "topSeparator", SoSeparator ---
PVT "motionMatrix", SoMatrixTransform ---
"translateToCenter", SoMatrixTransform ---
"surroundScale", SoSurroundScale ---
"antiSquish", SoAntiSquish ---
"lightModel", SoLightModel ---
PVT "geomSeparator", SoSeparator ---
"rotator", SoRotateSphericalDragger ---
"YRotator", SoRotateCylindricalDragger ---
"ZCenterChanger", SoTranslate2Dragger ---
PVT "rotX90", SoRotation ---
"ZRotator", SoRotateCylindricalDragger ---
"YCenterChanger", SoTranslate2Dragger ---
PVT "rotY90", SoRotation ---
"XCenterChanger", SoTranslate2Dragger ---
PVT "rot2X90", SoRotation ---
PVT "XAxisSwitch", SoSwitch ---
"XAxis", SoSeparator ---
PVT "YAxisSwitch", SoSwitch ---
"YAxis", SoSeparator ---
PVT "ZAxisSwitch", SoSwitch ---
"ZAxis", SoSeparator ---
"XRotator", SoRotateCylindricalDragger ---
\endverbatim
\NODEKIT_POST_TABLE
*/
SoCenterballDragger::SoCenterballDragger(void)
{
SO_KIT_INTERNAL_CONSTRUCTOR(SoCenterballDragger);
SO_KIT_ADD_CATALOG_ENTRY(XAxis, SoSeparator, TRUE, XAxisSwitch, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(XAxisSwitch, SoSwitch, TRUE, geomSeparator, YAxisSwitch, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(XCenterChanger, SoTranslate2Dragger, TRUE, topSeparator, rot2X90, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(XRotator, SoRotateCylindricalDragger, TRUE, topSeparator, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(YAxis, SoSeparator, TRUE, YAxisSwitch, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(YAxisSwitch, SoSwitch, TRUE, geomSeparator, ZAxisSwitch, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(YCenterChanger, SoTranslate2Dragger, TRUE, topSeparator, rotY90, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(YRotator, SoRotateCylindricalDragger, TRUE, topSeparator, ZCenterChanger, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(ZAxis, SoSeparator, TRUE, ZAxisSwitch, "", TRUE);
SO_KIT_ADD_CATALOG_ENTRY(ZAxisSwitch, SoSwitch, TRUE, geomSeparator, "", FALSE);
SO_KIT_ADD_CATALOG_ENTRY(ZCenterChanger, SoTranslate2Dragger, TRUE, topSeparator, rotX90, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(ZRotator, SoRotateCylindricalDragger, TRUE, topSeparator, YCenterChanger, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(antiSquish, SoAntiSquish, FALSE, topSeparator, lightModel, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(lightModel, SoLightModel, TRUE, topSeparator, geomSeparator, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(rot2X90, SoRotation, TRUE, topSeparator, XRotator, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotX90, SoRotation, TRUE, topSeparator, ZRotator, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotY90, SoRotation, TRUE, topSeparator, XCenterChanger, FALSE);
SO_KIT_ADD_CATALOG_ENTRY(rotator, SoRotateSphericalDragger, TRUE, topSeparator, YRotator, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(surroundScale, SoSurroundScale, TRUE, topSeparator, antiSquish, TRUE);
SO_KIT_ADD_CATALOG_ENTRY(translateToCenter, SoMatrixTransform, TRUE, topSeparator, surroundScale, TRUE);
if (SO_KIT_IS_FIRST_INSTANCE()) {
SoInteractionKit::readDefaultParts("centerballDragger.iv",
CENTERBALLDRAGGER_draggergeometry,
static_cast<int>(strlen(CENTERBALLDRAGGER_draggergeometry)));
}
SO_KIT_ADD_FIELD(rotation, (SbRotation(SbVec3f(0.0f, 0.0f, 1.0f), 0.0f)));
SO_KIT_ADD_FIELD(center, (0.0f, 0.0f, 0.0f));
SO_KIT_INIT_INSTANCE();
// create subdraggers
SO_GET_ANY_PART(this, "XCenterChanger", SoTranslate2Dragger);
SO_GET_ANY_PART(this, "YCenterChanger", SoTranslate2Dragger);
SO_GET_ANY_PART(this, "ZCenterChanger", SoTranslate2Dragger);
SO_GET_ANY_PART(this, "XRotator", SoRotateCylindricalDragger);
SO_GET_ANY_PART(this, "YRotator", SoRotateCylindricalDragger);
SO_GET_ANY_PART(this, "ZRotator", SoRotateCylindricalDragger);
SO_GET_ANY_PART(this, "rotator", SoRotateSphericalDragger);
// create default parts
this->setPartAsDefault("XAxis", "centerballXAxis");
this->setPartAsDefault("YAxis", "centerballYAxis");
this->setPartAsDefault("ZAxis", "centerballZAxis");
// initialize some nodes
SoRotation *rot;
rot = SO_GET_ANY_PART(this, "rot2X90", SoRotation);
rot->rotation = SbRotation(SbVec3f(1.0f, 0.0f, 0.0f), (static_cast<float>(M_PI))*0.5f);
rot = SO_GET_ANY_PART(this, "rotX90", SoRotation);
rot->rotation = SbRotation(SbVec3f(1.0f, 0.0f, 0.0f), (static_cast<float>(M_PI))*0.5f);
rot = SO_GET_ANY_PART(this, "rotY90", SoRotation);
rot->rotation = SbRotation(SbVec3f(0.0f, 1.0f, 0.0f), (static_cast<float>(M_PI))*0.5f);
// reset default flags for parts we set to a default value
this->rot2X90.setDefault(TRUE);
this->rotX90.setDefault(TRUE);
this->rotY90.setDefault(TRUE);
SoAntiSquish *squish = SO_GET_ANY_PART(this, "antiSquish", SoAntiSquish);
squish->sizing = SoAntiSquish::LONGEST_DIAGONAL;
squish->recalcAlways = FALSE;
SoMatrixTransform *mt = SO_GET_ANY_PART(this, "translateToCenter", SoMatrixTransform);
mt->matrix = SbMatrix::identity();
this->addValueChangedCallback(SoCenterballDragger::valueChangedCB);
this->rotFieldSensor = new SoFieldSensor(SoCenterballDragger::fieldSensorCB, this);
this->centerFieldSensor = new SoFieldSensor(SoCenterballDragger::fieldSensorCB, this);
this->setUpConnections(TRUE, TRUE);
}
TranslateRadialDragger::
TranslateRadialDragger()
{
SO_KIT_CONSTRUCTOR(TranslateRadialDragger);
SO_KIT_ADD_CATALOG_ENTRY(validitySwitch, SoBlinker, TRUE,
geomSeparator, , FALSE);
SO_KIT_ADD_CATALOG_ENTRY(materialSwitch, SoSwitch, TRUE,
validitySwitch, , FALSE);
// Put this under geomSeparator so it draws efficiently.
SO_KIT_ADD_CATALOG_ENTRY(translatorSwitch, SoSwitch, TRUE,
geomSeparator, , FALSE);
SO_KIT_ADD_CATALOG_ENTRY(translator, SoSeparator, TRUE,
translatorSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(translatorActive, SoSeparator, TRUE,
translatorSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackRotate, SoRotation, TRUE,
geomSeparator, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackSwitch, SoSwitch, TRUE,
geomSeparator, , FALSE);
SO_KIT_ADD_CATALOG_ENTRY(feedback, SoSeparator, TRUE,
feedbackSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(feedbackActive, SoSeparator, TRUE,
feedbackSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(materialPlaced, SoMaterial, TRUE,
materialSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(materialNormal, SoMaterial, TRUE,
materialSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(materialActive, SoMaterial, TRUE,
materialSwitch, , TRUE);
SO_KIT_ADD_CATALOG_ENTRY(materialInvalid, SoMaterial, TRUE,
validitySwitch, , TRUE);
// Read geometry resources. Only do this the first time we
// construct one. 'geomBuffer' contains our compiled in
// defaults. The user can override these by specifying new
// scene graphs in the file:
// $(SO_DRAGGER_DIR)/translateRadialDragger.iv
if(SO_KIT_IS_FIRST_INSTANCE())
readDefaultParts("translateRadialDragger.iv", geomBuffer,
sizeof(geomBuffer) - 1);
// Field that always shows current position of the dragger.
SO_KIT_ADD_FIELD(translation, (0.0, 0.0, 0.0));
// Creates the parts list for this nodekit
SO_KIT_INIT_INSTANCE();
// Create the parts of the dragger. This dragger has five
// parts that we need to create: "translator",
// "translatorActive", "feedback," and "feedbackActive" will
// be created using the resource mechanism. They are looked
// up in the global dictionary.
// "rotator," used to position the feedback so it points in
// the direction selected by the user, will just be a plain
// old SoRotation node.
// We call 'setPartAsDefault' because we are installing
// default geometries from the resource files. By calling
// 'setPartAsDefault' instead of 'setPart', we insure that
// these parts will not write to file unless they are
// changed later.
setPartAsDefault("translator",
"translateRadialTranslator");
setPartAsDefault("translatorActive",
"translateRadialTranslatorActive");
setPartAsDefault("feedback",
"translateRadialFeedback");
setPartAsDefault("feedbackActive",
"translateRadialFeedbackActive");
setPartAsDefault("materialNormal",
"translateNormalMaterial");
setPartAsDefault("materialActive",
"translateActiveMaterial");
setPartAsDefault("materialPlaced",
"translatePlacedMaterial");
setPartAsDefault("materialInvalid",
"translateInvalidMaterial");
// Set the switch parts to 0 to display the inactive parts.
// The parts "translatorSwitch" and "feedbackSwitch"
// are not public parts. (i.e., when making the catalog, the
// isPublic flag was set FALSE, so users cannot access them)
// To retrieve the parts we must use the SO_GET_ANY_PART
// macro which calls the protected method getAnyPart().
SoSwitch *sw;
sw = SO_GET_ANY_PART(this, "translatorSwitch", SoSwitch);
setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "feedbackSwitch", SoSwitch);
setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "materialSwitch", SoSwitch);
setSwitchValue(sw, 0);
sw = SO_GET_ANY_PART(this, "validitySwitch", SoBlinker);
setSwitchValue(sw, 0);
// This dragger does motion along a line,
// so we create a line projector.
lineProj = new SbLineProjector();
// Add the callback functions that will be called when
// the user clicks, drags, and releases.
addStartCallback(&TranslateRadialDragger::startCB);
addMotionCallback(&TranslateRadialDragger::motionCB);
addFinishCallback(&TranslateRadialDragger::finishCB);
// Updates the translation field when the dragger moves.
addValueChangedCallback(&TranslateRadialDragger::valueChangedCB);
// Updates the motionMatrix (and thus moves the dragger
// through space) to a new location whenever the translation
// field is changed from the outside.
fieldSensor = new SoFieldSensor(
&TranslateRadialDragger::fieldSensorCB, this);
fieldSensor->setPriority(0);
setUpConnections(TRUE, TRUE);
}