Servicenow, Inc.

Msc.software Corporation

Hexagon Manufacturing Intelligence, Inc.

Michel Abou Samah

Jacob Samuel Burman

James Harvey Leedom

Harry Thomas Nelson

Alberto Alvarado Jimenez

Douglas Brennan

Russell Samuel Sarbora

Juell Chase Solaegui

Nikhil Dvivedi

Reynaldo Hernandez

Craig Brian Santa Ruiz

Derek Gregory Stainer

Sharon Elizabeth Carmichael Ehlert

Kylin Follenweider

Kurt Joseph Zettel, Ii

Kunaseelan Kanthasamy

Richard Kenneth Reybok

Ryan Christopher Currier

Harold Byun

Scott Lewis

Sachin Shivarama Nayak

Zhe Wang

James Gavin Erbes

Patrice Tollenaere

Frank Mueller

Yu Xia

Arul Arangan

A system could include persistent storage containing application components. A plurality of software applications could be installed on the system. The software applications could be respectively associated context records that include references to application components that provide some behavior or data for the software applications. The system could also include processors configured to perform operations. The operations could include receiving a request to generate a topology map for a software application and identifying, based on a context record for the software application, a subset of application components that provide some behavior or data for the software application. The operations could further include determining relationship types between pairs of application components and generating a topology map for the software application. The subset of application components may be represented as nodes in the topology map, and edges between the nodes may be defined from relationship types between corresponding pairs of application components.

Application and related object schematic viewer for software application change tracking and management

Embodiments described herein relate to apparatuses and methods for generating face pair surfaces of a solid, including, but not limited to, identifying at least two face pairs including a first face pair and a second face pair. Each of the first and second face pairs including at least two face pair surfaces, graphically displaying the at least two face pairs, and receiving user input for at least one of (1) merging the first face pair and the second face pair, (2) deleting the first face pair, (3) adding a third face pair, (4) adding an additional surface to one of the at least two face pair surfaces of the first face pair, (5) removing at least one face pair surface of the first face pair, or (6) splitting the second face pair into at least a fourth and a fifth face pair, and determining at least one adjusted face pair based on the user input.

Systems and methods for providing incremental mid-surface for computer simulation

A first workflow item grouping container and a second workflow item grouping container are a part of a collection of workflow item grouping containers organizing an end-to-end multi-process workflow solution. An identification and execution condition of the first workflow item grouping container and an identification and execution condition of the second workflow item grouping container are received. A specification of one or more workflow items belonging to the first workflow item grouping container and a specification of one or more workflow items belonging to the second workflow item grouping container are received. Each of the one or more workflow items belonging to the first and second workflow item grouping containers has an individually configurable execution condition and corresponds to a different individual activity of the end-to-end multi-process workflow solution.

Multi-process workflow designer

A user modifiable user interface representation of a first workflow item grouping container and a second workflow item grouping container are provided. The first and second item grouping containers are part of a collection of workflow item grouping containers organizing a design of an end-to-end multi-process workflow solution. An interactive user interface representation of a first workflow item belonging to the first workflow item grouping container and a second workflow item belonging to the second workflow item grouping container are provided. The first and second workflow items correspond to different individual activities of the end-to-end multi-process workflow solution. A user is able to interact with the interactive user interface representation of the first workflow item to modify a workflow property of the first workflow item and to interact with the interactive user interface representation of the second workflow item to modify a workflow property of the second workflow item.

Multi-process workflow designer user interface

Providing are incident response techniques useful for personas with a variety of experience levels are described. The incident response techniques include a graphical user interface (GUI) for providing a variety of different views for different personas. The graphical user interface may provide a landing page for providing a queue of risk-score prioritized incidents, an incident playbook for providing default or customizable instructions for resolving a particular incident to lesser-experienced personas, an explore container for facilitating efficient navigation of data associated with a particular incident by more-experienced personas, and an activity stream container for providing an overview of activities that have been performed with regard to a particular incident to more-experienced or supervising personas. The explore container may also be integrated with tools for performing actions with the data without leaving the graphical user interface.

Incident response techniques

Systems and methods are described herein for enabling direct modeling for a mesh model, including, but not limited to, obtaining a mesh model of a physical object, the mesh model comprising a plurality of elements, determining at least one feature associated with at least some of the plurality of elements of the mesh model, and manipulating the plurality of elements of the mesh model by manipulating the at least one feature.

Finite element based direct modeling

A method for simulating a physical object includes receiving user input to move an edge or plane of a simulated surface from a first location to a second location that is across an edge of the surface. The method also includes generating a visual display that is configured to inform the user that the movement of an edge to the second location across an edge of the surface is unpermitted.

Interactive edge manipulation systems and methods

Embodiments are directed to a method for receiving a user selection of a first object of a simulated model and selecting a second object of the simulated model based on the received selection of the first object. The method includes generating an offset object similar to the first object, wherein the position of the offset object is based on the position of the first object and second object. The method includes generating a manipulation tool configured to allow a user to change the position of the offset object relative to the first object and second object. The method further includes generating a manipulation tool. The manipulation tool allows a user to change the position of the offset object relative to the first and second objects. The manipulation tool includes a first marker and a second marker associated with the first and second objects, one or more third markers that may or may not be associated with the offset object.

Manipulation tool for offset surface of a simulation model

Growing community of inventors

San Diego, CA, United States of America

Michel Abou Samah