Mask COPs now work correctly when the pushbutton "RGBA" scope is selected, but the field is cleared. Previously, nothing would be scoped.

Added new WireCapture and WireDeform SOPs.

Added new WireCapture and WireDeform SOPs.

Added new WireCapture and WireDeform SOPs.

Added new WireCapture and WireDeform SOPs.

Added new WireCapture and WireDeform SOPs.

Added new WireCapture and WireDeform SOPs.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

We now have an HDK example of Multiparms and Dynamic Paths. The example is a stripped down version of the Object Merge SOP.

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

When patterns are expanded now, if the pattern matches a sub-network, then all the contents of the sub-network are automatically added to the pattern's expansion. This refers to light masks, shadow masks, reflection masks, active lights (Output drivers) and active objects (Output drivers). For example, the pattern: "light*,subnet1" will match all objects named "light*" as well as all the contents in the sub-network (or OTL) named "subnet1".

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.

Vertex transfers now checks to see if there is a coincident vertex in the reference, in which case the closest reference primitive is selected with respect to the destination primitive's barycenter. Otherwise, the destination vertex's position is used, as usual. Note that only the vertices of the selected reference primitive is used in the transfer.