Brigham Young University

Other

Kelly Eric Bowman

Joshua Coburn

Charles Greg Jensen

Robert Freeman

Charles Gregory Jensen

Ammon Hepworth

Richard R Watson

Walter Edward Red

Daniel Staves

Jared Calvin Briggs

Bryce Parker DeFigueiredo

Brett Stone

Jordan Johnson

Timothy A Bright

Scott Jackson

Dan Staves

Jessica Collyer

Scott Christensen

M Scott Christensen

Abigail Christensen

Jon Tsai

Joanna Hugo

Jacob Wardell

Spencer Carter

A computer-implemented method for sharing CAx data includes receiving CAx data in a first CAx format from a first client, storing the CAx data in a plurality of alternate formats, receiving a request for the CAx data from a second client, providing the CAx data to the second client using at least one alternate format of the plurality of alternate formats responsive to receiving the request for the CAx data from the second client. An apparatus and system corresponding to the above method is also disclosed herein.

Data sharing in CAx applications

A method, executed by at least one processor, may include executing a first CAx application configured to enable a first user to edit a first 3D proprietary model comprising a plurality of features for a part that is to be manufactured, wherein the first 3D proprietary model is encoded in a first CAx format. The method may also include, executing a synchronization plugin module for the first CAx application and detecting, with the synchronization plugin module, a request by the first user to generate a first 2D manufacturing drawing and model corresponding to a selected view of the part that is to be manufactured. The method may also include initiating generation of a 2D collaborative model corresponding to the first 2D manufacturing model and initiating storage of the 2D collaborative model on a collaborative data store. A corresponding system and computer readable medium are also disclosed herein.

Collaborative editing of manufacturing drawings

A computer-implemented method for an interoperable hierarchical model for conducting multiuser CAx OPERATIONS may include (1) storing a model of an engineering object in a plurality of data nodes that are interconnected with a plurality of dependency references that specify one or more parent nodes for each non-root node of the plurality of data nodes, the plurality of data nodes and the plurality of dependency references corresponding to a directed acyclic graph, (2) indicating an operational order for each data node that has a common parent, and (3) executing in the indicated operational order a CAx-related function for each data node. Various other methods and systems are also disclosed.

Interoperable hierarchical model for conducting multiuser CAx operations

A system for concurrent CAx workflow includes a collaborative server that manages a model of an engineering object, the model comprising at least design data and analysis data corresponding to the design data, a design client for editing of the design data by a design user, an analysis client for editing of the analysis data by an analysis user concurrent with editing of the design data by the design user; and wherein the collaborative server and the analysis client are collectively configured (i.e., one or both are configured) to enable the analysis user to edit the analysis data, view a plurality of geometric elements within the design data, and create a reference within the analysis data to a selected geometric element of the plurality of geometric elements within the design data. A corresponding apparatus, method, and computer-readable medium are also disclosed herein.

System and method for concurrent multi-user CAx workflow

An apparatus, method, and program product are disclosed for collaborative product lifecycle management. One apparatus includes a data processing module that receives product lifecycle management ('PLM') data from multiple client applications in a collaborative environment. The PLM data may be in a client specific format. The apparatus includes a subscription module that receives one or more subscription requests from each client application. Moreover, the apparatus includes a conversion module that converts the PLM data from the client specific format to a generic format. The apparatus includes a storage module that stores the generic format of the PLM data. The conversion module may convert subscription data from the generic format to the client specific format. The subscription data may correspond to the PLM data stored in the generic format. The subscription module may provide the subscription data to the multiple client applications based on the one or more subscription requests.

Collaborative product lifecycle management

A computer-implemented method for providing CAx data may include (1) storing a model of an engineering object as a group of nodes including one or more feature nodes, (2) associating a corresponding transaction history with each feature node, the transaction history indicating one or more states for a feature over time, and (3) determining a state of a selected feature node at a selected point in time by accessing the corresponding transaction history of the selected feature node. Various other methods and systems are also disclosed.

Systems and methods for providing CAx data

A method, executed by at least one processor, may include storing, within a set of memory locations within a storage medium, data for a feature of an engineering object in a first client format and a collaborative server format that is different than the first client format, the first client format corresponding to a first CAx application operable by a first user, the collaborative server format corresponding to a collaborative server. The method may also include updating the data for the feature in both the first client format and the collaborative server format in response to receiving an update to the feature from, or detecting an update to the feature by, the first CAx application or the collaborative server. A corresponding system and computer readable medium are also disclosed herein.

Collaborative CAx updates

Embodiments are presented for topology graph optimization. A design geometry is represented as a graph. Engineering objectives and constraints are associated with a graph representation of a design geometry. The graph representation of the design geometry is iteratively refined for analysis using an optimization algorithm. The graph representation of the design geometry is evaluated according to constraints and objectives associated with the desired resulting design. The optimization results can be further refined by updating objectives and constraints. The optimization results may be machined directly.

Topology graph optimization

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Provo, UT, United States of America

Kelly Eric Bowman