It is no longer possible to wire into or out of a node that has no inputs or outputs when connecting by clicking on the node itself.

It is no longer possible to wire into or out of a node that has no inputs or outputs when connecting by clicking on the node itself.

It is no longer possible to wire into or out of a node that has no inputs or outputs when connecting by clicking on the node itself.

It is no longer possible to wire into or out of a node that has no inputs or outputs when connecting by clicking on the node itself.

The Rest Position SOP is less aggressive about reusing geometry, this should prevent it from maintaining rnml or Pref attributes when it shouldn't.

The Rest Position SOP is less aggressive about reusing geometry, this should prevent it from maintaining rnml or Pref attributes when it shouldn't.

The Rest Position SOP is less aggressive about reusing geometry, this should prevent it from maintaining rnml or Pref attributes when it shouldn't.

The Rest Position SOP is less aggressive about reusing geometry, this should prevent it from maintaining rnml or Pref attributes when it shouldn't.

The Rest Position SOP is less aggressive about reusing geometry, this should prevent it from maintaining rnml or Pref attributes when it shouldn't.

The metaimport() function now handles importing integer values. The result is equivalent to: int metaimport(int handle; string name; vector p, int ival) { int rcode; float fval; rcode = metaimport(handle, name, p, fval); if (rcode) ival = rint(fval);

return rcode;

}

The metaimport() function now handles importing integer values. The result is equivalent to: int metaimport(int handle; string name; vector p, int ival) { int rcode; float fval; rcode = metaimport(handle, name, p, fval); if (rcode) ival = rint(fval);

return rcode;

}

The metaimport() function now handles importing integer values. The result is equivalent to: int metaimport(int handle; string name; vector p, int ival) { int rcode; float fval; rcode = metaimport(handle, name, p, fval); if (rcode) ival = rint(fval);

return rcode;

}

The metaimport() function now handles importing integer values. The result is equivalent to: int metaimport(int handle; string name; vector p, int ival) { int rcode; float fval; rcode = metaimport(handle, name, p, fval); if (rcode) ival = rint(fval);

return rcode;

}

The metaimport() function now handles importing integer values. The result is equivalent to: int metaimport(int handle; string name; vector p, int ival) { int rcode; float fval; rcode = metaimport(handle, name, p, fval); if (rcode) ival = rint(fval);

return rcode;

}

The Fluid Shelf tools for converting an object to smoke, fire, or liquid now behave differently. Rather than building an isooffset inside the object to use as a source, they instead create a static object inside the simulation which is used as a source. The place to go to adjust the resolution of your object is thus consistent and familiar to those that have used RBD.

Also, instead of replacing the source with the smoke, we instead create a new object to store the smoke or liquid.

The Fluid Shelf tools for converting an object to smoke, fire, or liquid now behave differently. Rather than building an isooffset inside the object to use as a source, they instead create a static object inside the simulation which is used as a source. The place to go to adjust the resolution of your object is thus consistent and familiar to those that have used RBD.

Also, instead of replacing the source with the smoke, we instead create a new object to store the smoke or liquid.

The Fluid Shelf tools for converting an object to smoke, fire, or liquid now behave differently. Rather than building an isooffset inside the object to use as a source, they instead create a static object inside the simulation which is used as a source. The place to go to adjust the resolution of your object is thus consistent and familiar to those that have used RBD.

Also, instead of replacing the source with the smoke, we instead create a new object to store the smoke or liquid.

The Fluid Shelf tools for converting an object to smoke, fire, or liquid now behave differently. Rather than building an isooffset inside the object to use as a source, they instead create a static object inside the simulation which is used as a source. The place to go to adjust the resolution of your object is thus consistent and familiar to those that have used RBD.

Also, instead of replacing the source with the smoke, we instead create a new object to store the smoke or liquid.

The Fluid Shelf tools for converting an object to smoke, fire, or liquid now behave differently. Rather than building an isooffset inside the object to use as a source, they instead create a static object inside the simulation which is used as a source. The place to go to adjust the resolution of your object is thus consistent and familiar to those that have used RBD.

Also, instead of replacing the source with the smoke, we instead create a new object to store the smoke or liquid.

Implemented hou.ParmTuple.setAutoscope() and hou.ParmTuple.lock().

Implemented hou.ParmTuple.setAutoscope() and hou.ParmTuple.lock().

Implemented hou.ParmTuple.setAutoscope() and hou.ParmTuple.lock().

Implemented hou.ParmTuple.setAutoscope() and hou.ParmTuple.lock().

Implemented hou.ParmTuple.setAutoscope() and hou.ParmTuple.lock().

Fixed a bunch of POP tools that were broken when hou.Node.relativePathTo was fixed.