Fixed some timing bugs with mplay:

• Saving .pic files when the frame rate has been changed from 30should work properly now.
• Changing the frame rate shouldn't cause images to reload any more.
• Using the 'Shift to start at frame' and 'Frame Range' overrides inthe sequence manager should work properly now.

Fixed some timing bugs with mplay:

• Saving .pic files when the frame rate has been changed from 30should work properly now.
• Changing the frame rate shouldn't cause images to reload any more.
• Using the 'Shift to start at frame' and 'Frame Range' overrides inthe sequence manager should work properly now.

Fixed some timing bugs with mplay:

• Saving .pic files when the frame rate has been changed from 30should work properly now.
• Changing the frame rate shouldn't cause images to reload any more.
• Using the 'Shift to start at frame' and 'Frame Range' overrides inthe sequence manager should work properly now.

When the FPS is changed in mplay, the current frame no longer jumps to a different value.

When the FPS is changed in mplay, the current frame no longer jumps to a different value.

When the FPS is changed in mplay, the current frame no longer jumps to a different value.

When the FPS is changed in mplay, the current frame no longer jumps to a different value.

When the FPS is changed in mplay, the current frame no longer jumps to a different value.

The translation, rotation, and scaling of the objects can be individually cleaned (i.e. the transformation parameters like translation distances or rotation angles set to default values, without moving the object). Cleaning has the effect of setting the rest reference frame of the object to the current position of the object. Until now only the whole transformation could be cleaned, and this change enables cleaning of the translation, rotation, and scaling separately.

The translation, rotation, and scaling of the objects can be individually cleaned (i.e. the transformation parameters like translation distances or rotation angles set to default values, without moving the object). Cleaning has the effect of setting the rest reference frame of the object to the current position of the object. Until now only the whole transformation could be cleaned, and this change enables cleaning of the translation, rotation, and scaling separately.

The translation, rotation, and scaling of the objects can be individually cleaned (i.e. the transformation parameters like translation distances or rotation angles set to default values, without moving the object). Cleaning has the effect of setting the rest reference frame of the object to the current position of the object. Until now only the whole transformation could be cleaned, and this change enables cleaning of the translation, rotation, and scaling separately.

The translation, rotation, and scaling of the objects can be individually cleaned (i.e. the transformation parameters like translation distances or rotation angles set to default values, without moving the object). Cleaning has the effect of setting the rest reference frame of the object to the current position of the object. Until now only the whole transformation could be cleaned, and this change enables cleaning of the translation, rotation, and scaling separately.

The translation, rotation, and scaling of the objects can be individually cleaned (i.e. the transformation parameters like translation distances or rotation angles set to default values, without moving the object). Cleaning has the effect of setting the rest reference frame of the object to the current position of the object. Until now only the whole transformation could be cleaned, and this change enables cleaning of the translation, rotation, and scaling separately.

When you access a negative indexed track or input in the CHOP access functions, Houdini no longer crashes.

When you access a negative indexed track or input in the CHOP access functions, Houdini no longer crashes.

When you access a negative indexed track or input in the CHOP access functions, Houdini no longer crashes.

When you access a negative indexed track or input in the CHOP access functions, Houdini no longer crashes.

When you access a negative indexed track or input in the CHOP access functions, Houdini no longer crashes.

Fixing problems where the Pixel COP would not work properly for alpha planes. Also fixing problems where it would only write to the first component when operating on floating point planes that weren't color or alpha.

Fixing problems where the Pixel COP would not work properly for alpha planes. Also fixing problems where it would only write to the first component when operating on floating point planes that weren't color or alpha.

Fixing problems where the Pixel COP would not work properly for alpha planes. Also fixing problems where it would only write to the first component when operating on floating point planes that weren't color or alpha.

Fixing problems where the Pixel COP would not work properly for alpha planes. Also fixing problems where it would only write to the first component when operating on floating point planes that weren't color or alpha.

Fixing problems where the Pixel COP would not work properly for alpha planes. Also fixing problems where it would only write to the first component when operating on floating point planes that weren't color or alpha.

Added blending to the AttribTransfer SOP. This creates a fall-off zone where the interpolated source attributes are blended with the existing destination attributes. Corrected string and capture weight transfers for groups. Changed vertex transfers so that each destination vertex is first mapped to the closest source primitive, using its barycenter, and only those vertices belonging to the closest source primitive are used in the transfer.

Added blending to the AttribTransfer SOP. This creates a fall-off zone where the interpolated source attributes are blended with the existing destination attributes. Corrected string and capture weight transfers for groups. Changed vertex transfers so that each destination vertex is first mapped to the closest source primitive, using its barycenter, and only those vertices belonging to the closest source primitive are used in the transfer.