A workflow project design system, method, and apparatus are disclosed. An example method includes creating a mapping between an executable version of an object-orientated process and an un-executable version of the object-orientated process. The method also includes transmitting the un-executable version of the object-orientated process and a toolset file to a client device for display in a web browser. The method further includes receiving from the client device a modify instruction to modify at least one of attributes or properties of the un-executable version of the object-orientated process and updating the executable version of the object-orientated process based on the modify instruction. Additionally, the method includes receiving an execution instruction to execute the workflow project, executing the updated executable version of the object-orientated process to generate a result of the workflow project, and transmitting to the client device the result for display within the user interface.

Systems and methods are disclosed for automated generation of integrated circuit designs and associated data. These allow the design of processors and SoCs by a single, non-expert who understands high-level requirements; allow the en masse exploration of the design-space through the generation processors across the design-space via simulation, or emulation; allow the easy integration of IP cores from multiple third parties into an SoC; allow for delivery of a multi-tenant service for producing processors and SoCs that are customized while also being pre-verified and delivered with a complete set of developer tools, documentation and related outputs. Some embodiments, provide direct delivery, or delivery into a cloud hosting environment, of finished integrated circuits embodying the processors and SoCs.

This application discloses a computing system implementing a design verification tool to perform functional verification on a circuit design describing an electronic device and collect samples of performance data during the functional verification. The computing system can also include a performance visualization tool to generate a profile presentation based on the samples of performance data. The profile presentation, when displayed, can annunciate portions of the circuit design corresponding to at least one performance hotspot. The performance visualization tool can receive a data reduction request based on the performance hotspot annunciated by the profile presentation. The data reduction request can identify a subset of the performance data in the profile presentation. The performance visualization tool can generate a refined profile presentation based, at least in part, on the samples of performance data and the subset of the performance data identified in the data reduction request.

The present invention is a system, comprising: isolate at least one wall panel from a building model; process a first set of data associated with the characteristics of the wall panel members, wherein the characteristics are related to the profile and length; process a second set of data associated with the assembly of the wall panel; create an assembly process of the wall panel, wherein an assembly and disassembly of the wall panel is performed to determine at least one assembly process based on the order of connecting the wall panel members from a construction perspective; formulate a package of the wall panel, wherein the package is organized based on assembly process; adjust the orientation of the members within the package based on the shipping vessel limitations and the other bundles of the model which are contained within the shipping vessel; and generate a graphical representation of the package.

A computer-aided design (CAD) system and corresponding method enable users to manage and share information related to a three-dimensional (3D) context of a 3D CAD model with ease. The method creates a 3D-link targeting the 3D context. The 3D-link includes a static link and a variable link. The static link re-directs to the variable link in response to a user opening the 3D-link. The variable link enables (i) the 3D CAD model to be located and opened and (ii) the 3D context to be displayed within the 3D CAD model. The method stores the 3D-link in a database. The 3D-link enables the 3D context to be shared between or among users via sharing of the 3D-link from the database. The 3D-link plays an important role in helping design engineers collaborate by eliminating the need to create pictures or copies of 3D models that may become outdated.

A method, apparatus, system, and computer program product generates construction metrics. Building means, methods, and limitations of construction for one or more companies are gathered in a computer. A digital building information model (BIM) is acquired. Fabrication and construction parameters are extracted from the BIM. Construction metrics (for the BIM) are generated by combining the building means, methods, and limitations with the extracted fabrication and construction parameters. The construction metrics are then visualized in a modeling application and/or used to output construction process documentation.

User interfaces, systems, methods, devices, media, and instructions are described for a client/contractor management and communication system with augmented reality (AR) and/or virtual reality (VR) interface elements. In one embodiment, a device receives finish and inspiration information associated with a home improvement project from a client and structures this information into finish pin data with associated project context information and 3D model data. The device uses this information to automatically generate and update a project chart for the project, along with 3D models for various subproject positions within a project chart. This information is then presented to the client and associated contractors as part of a user interface for a client/contractor system. A project chart interface enables access to 3D models in an AR or VR interface to display models of the project and various project data associated with different positions in a project chart.

Implementations of a method of designing a module semiconductor product may include receiving a selection of a module type, one or more die, a placement of one or more wires, clips, or pins; and generating, using a processor, a module configuration file. The method may include generating a module bonding diagram using a build diagram system module; selecting one or more SPICE models corresponding with the die; and generating a product SPICE model and a three dimensional model for the module semiconductor product. The method may include generating one or more datasheet characteristics of the module semiconductor product with at least the product SPICE model and the product simulation module, generating a product datasheet for the module semiconductor product using the datasheet formation module, and providing access to at least the module bonding diagram, the product SPICE model, the three dimensional model, and the product datasheet to the user.

A system for instantaneous communication between simulators is presented. The system includes a plurality of simulation devices, wherein each simulation device includes a computing device, wherein the computing device is configured to receive an input datum, simulate a vehicle performance model output, generate a simulation datum as a function of the performance model output, and transmit the simulation datum to a communication device. The system further includes a mesh network configured to communicatively connect the plurality of simulation devices. The system further includes a communication device, wherein the communication device includes, an authentication module, and a plurality of communication components, wherein each communication component configured to facilitate real-time communication between the plurality of simulation devices. The system further includes at least a database, wherein the at least a database configured to store the simulation datum.

A method is provided for dimensioning a cross section of a structural product, the cross section having an arbitrary shape. The method includes defining and thereby producing a first definition of the cross section, and accessing template cross sections of various shapes, the template cross sections having respective second definitions of the template cross sections. The method includes performing a comparison of the first definition of the cross section and the respective second definitions of the template cross sections. The method includes identifying a matching one of the template cross sections based on the comparison, the matching one of the template cross sections further having respective locations from which the matching one of the template cross sections is dimensioned. And the method includes applying the respective locations to the cross section, and dimensioning the cross section from the respective locations.