Abstract: A computer-implemented method for concurrent multi-user computer-aided manufacturing may include (1) receiving a tool path descriptor resulting from a tool path request on a local copy of a part model, (2) submitting the tool path descriptor to a server for application to a shared copy of the part model, (3) receiving, from the server, shared model data corresponding to the tool path descriptor, and (4) applying the shared model data to the local part model. Various other methods and systems are also disclosed.

Abstract: A computer-implemented method for finite analysis pre-processing may include (1) receiving a processing request that identifies a geometries within a design space and a finite analysis pre-processing operation to be performed thereon, (2) determining an interface that is common to a first geometry and a second geometry of the geometries, and (3) conducting the finite analysis pre-processing operation on at least the interface between the first geometry and the second geometry previous to concurrently conducting the finite analysis pre-processing operation on an unprocessed portion of the first geometry and an unprocessed portion of the second geometry. Various other methods and systems are also disclosed herein.

Abstract: A computer-implemented method for storing CAx data includes storing a model of an engineering object within a CAx database, receiving a request to add a feature to the model of the engineering object, verifying each parameter associated with the request against an object oriented interface corresponding to the parameter, and adding the feature to the model of an engineering object within the CAx database. Each parameter may reference a class object within the CAx database. Verifying each parameter may include verifying the class object against the object oriented interface corresponding to that parameter. A corresponding system and computer program product are also disclosed herein.

Abstract: A computer-implemented method for concurrent multi-user computer-aided manufacturing may include (1) receiving a tool path descriptor resulting from a tool path request on a local copy of a part model, (2) submitting the tool path descriptor to a server for application to a shared copy of the part model, (3) receiving, from the server, shared model data corresponding to the tool path descriptor, and (4) applying the shared model data to the local part model. Various other methods and systems are also disclosed.

Abstract: A computer-implemented method for finite analysis pre-processing may include (1) receiving a processing request that identifies a geometries within a design space and a finite analysis pre-processing operation to be performed thereon, (2) determining an interface that is common to a first geometry and a second geometry of the geometries, and (3) conducting the finite analysis pre-processing operation on at least the interface between the first geometry and the second geometry previous to concurrently conducting the finite analysis pre-processing operation on an unprocessed portion of the first geometry and an unprocessed portion of the second geometry. Various other methods and systems are also disclosed herein.

Abstract: A method for efficiently implementing an N-step manufacturing process for producing a mechanical part may include creating a parametric master model that represents a part to be produced in an N-step manufacturing process. The method may also include using the parametric master model to create process plans for the N-step manufacturing process. After manufacturing step i of the N-step manufacturing process, the method may include receiving information concerning values of parameters in the parametric master model as they exist after manufacturing step i of the N-step manufacturing process. Updates to the parametric master model may be made based on the information that was received. The process plans corresponding to manufacturing step i+1 of the N-step manufacturing process may be updated based on the updated parametric master model.