A system for calculating a cost for a wire harness assembly includes a controller. The controller receives a computer generated three-dimensional (3D) model of the wire harness assembly for extracting a number of parameters from the computer generated 3D model, the number of parameters being associated with a material of one or more components of the wire harness assembly, dimensions of the one or more components of the wire harness assembly, and a manufacturing process of the wire harness assembly. The controller also analyzes the number of parameters for determining the cost for the wire harness assembly. The controller further generates a report indicative of the cost for the wire harness assembly. The system also includes a user interface communicably coupled with the controller. The user interface receives and presents the report indicative of the cost for the wire harness assembly.

A wax model of a required coping is produced using CNC machining techniques based on a virtual model of the coping created from digital data obtained from the intraoral cavity. The dental coping is then fabricated from the wax model.

A plurality of scanned prints of a product part and a scan-path are received. A shape of a minimum printable feature of the product part is determined by analyzing the respective prints in a scan-path representation. A manufacturing error of the minimum printable feature is determined based on the analysis. A manufacturing error of a shape of the part is determined based on the determined manufacturing error of the minimum printable feature. An estimated manufactured shape of the part is produced based on the determined manufacturing error of the part.

In some embodiments, techniques are provided for verifying that a fabrication system can fabricate a proposed segmented design. A paintbrush pattern that represents capabilities of the fabrication system is determined. One or more forbidden patterns that the fabrication system is not capable of fabricating are determined based on the paintbrush pattern. The proposed segmented design is then searched for the forbidden patterns. If any forbidden patterns are found, the proposed segmented design is determined to not be fabricable by the fabrication system. If no forbidden patterns are found, then the proposed segmented design is determined to be fabricable by the fabrication system.

In some embodiments, techniques are provided for verifying that a fabrication system can fabricate a proposed segmented design. A paintbrush pattern that represents capabilities of the fabrication system is determined. One or more forbidden patterns that the fabrication system is not capable of fabricating are determined based on the paintbrush pattern. The proposed segmented design is then searched for the forbidden patterns. If any forbidden patterns are found, the proposed segmented design is determined to not be fabricable by the fabrication system. If no forbidden patterns are found, then the proposed segmented design is determined to be fabricable by the fabrication system.

A method for automatically generating a bill of process in a manufacturing system comprising: receiving design information representative of a product to be produced; iteratively performing simulations of the manufacturing system; identifying manufacturing actions based on the simulations; optimizing the identified manufacturing actions to efficiently produce the product to be produced; generating, by the manufacturing system, a bill of process for producing the product. Simulations may be performed using a digital twin of the product being produced and a digital twin of the environment. System actions are optimized using a reinforcement learning technique to automatically produce a bill of process based on the design information of the product and task specifications.

The present disclosure is directed to a system and method of designing, fabricating, and shipping comprising the steps: providing an electronic platform; prompting a user to describe an article on a canvas on said electronic platform; assigning a designer to generate a design of said article; generating said design of said article by said designer based on said description provided by said user; assigning a consultant to improve said design from a fabrication standpoint; improving said design from a fabrication standpoint; assigning a fabricator; fabricating said article by said fabricator; assigning a deliverer; delivering said article to said user.

An information processing apparatus executes a simulation of a process state being executed in a semiconductor manufacturing apparatus using a simulation model of the semiconductor manufacturing apparatus. The information processing apparatus includes: a physical sensor data acquisition unit that acquires physical sensor data measured at the semiconductor manufacturing apparatus that executes a process according to a process parameter; and a simulation execution unit that executes a simulation by the simulation model according to the process parameter including the physical sensor data, and calculate virtual sensor data and virtual process result data. The physical sensor data acquired by the physical sensor data acquisition unit includes a temperature of a gas introduced into the semiconductor manufacturing apparatus that executes the process.

Provided is a system, method, and computer program product for generating a three-dimensional (3D) printable file of a complete object by re-assembling pieces of a broken object using generative adversarial network techniques. A processor may generate a 3D scan of each piece of a plurality of pieces of a broken object. The processor may assemble the 3D scan of each piece of the plurality of pieces to generate a re-assembled object, where the re-assembled object includes one or more gaps. The processor may fill the one or more gaps in the re-assembled object to create a complete object. The processor may generate a 3D printable file of the complete object.

Methods for modeling of parts with lattice structures and corresponding systems and computer-readable mediums. A method includes receiving a model of an object to be manufactured. The method includes receiving a user specification of a void region within the model to create a lattice. The method includes performing a trimming operation to create a trimmed lattice by tessellating void surfaces and grouping together at least one row of connected rods to be treated as a single entity.