Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that automate the workflow testing process. Users can configure, automate and execute repeating workflow tests associated with software updates or upgrades. In doing so, issues with the updates or upgrades are proactively prevented. To do so, a selection of one or more business processes is initially received. The one or more business processes are combined into a client workflow. Test data and assertion types are received for each business process of the one or more business processes. A script and metadata containing the client workflow name and the one or more business process names utilized to create the client workflow is stored and the client workflow can be executed in a target environment. Any errors in the client workflow are detected and a notification is provided to a user for follow-up and resolution.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that automate the workflow testing process. Users can configure, automate and execute repeating workflow tests associated with software updates or upgrades. In doing so, issues with the updates or upgrades are proactively prevented. To do so, a selection of one or more business processes is initially received. The one or more business processes are combined into a client workflow. Test data and assertion types are received for each business process of the one or more business processes. A script and metadata containing the client workflow name and the one or more business process names utilized to create the client workflow is stored and the client workflow can be executed in a target environment. Any errors in the client workflow are detected and a notification is provided to a user for follow-up and resolution.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that automate the workflow testing process. Users can configure, automate and execute repeating workflow tests associated with software updates or upgrades. In doing so, issues with the updates or upgrades are proactively prevented. To do so, a selection of one or more business processes is initially received. The one or more business processes are combined into a client workflow. Test data and assertion types are received for each business process of the one or more business processes. A script and metadata containing the client workflow name and the one or more business process names utilized to create the client workflow is stored and the client workflow can be executed in a target environment. Any errors in the client workflow are detected and a notification is provided to a user for follow-up and resolution.

Abstract: Methods, systems, and computer-readable media are disclosed herein for intelligent defect analysis. In an aspect, a client environment is monitored for defects. Upon detecting and identifying a defect, the defect is analyzed using natural language processing in order to identify one or more keywords associated with the system defect. A historical record associated with the one or more keywords is identified and one or more solutions associated with the historical record are identified based on the keywords. The keywords and associated solutions may then be displayed as a notification on a graphical user interface.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that automate the workflow testing process. Users can configure, automate and execute repeating workflow tests associated with software updates or upgrades. In doing so, issues with the updates or upgrades are proactively prevented. To do so, a selection of one or more business processes is initially received. The one or more business processes are combined into a client workflow. Test data and assertion types are received for each business process of the one or more business processes. A script and metadata containing the client workflow name and the one or more business process names utilized to create the client workflow is stored and the client workflow can be executed in a target environment. Any errors in the client workflow are detected and a notification is provided to a user for follow-up and resolution.

Abstract: A grab handle assembly for an interior of a motor vehicle includes a headliner disposed in the interior of the vehicle for mounting to a vehicle body of the motor vehicle. The headliner has a recess. The grab handle assembly also includes a grab handle disposed in the recess and spaced from the vehicle body.

Abstract: A grab handle assembly for an interior of a motor vehicle includes a headliner disposed in the interior of the vehicle for mounting to a vehicle body of the motor vehicle. The headliner has a recess. The grab handle assembly also includes a grab handle disposed in the recess and spaced from the vehicle body to absorb energy when impacted.

Abstract: A seat belt anchor assembly is provided for use in an automotive vehicle wherein the vehicle includes an occupant compartment having a side pillar forming a structural part of a vehicle body. The seat belt anchor assembly includes an anchor bolt fixedly secured to the side pillar and having a shank portion defining a bolt axis and a head portion including an outer cylindrical surface extending axially from the shank portion to an annular face facing toward an interior of the occupant compartment. The seat belt anchor assembly further includes a seat belt sling member supported by the shank portion for receiving a seat belt webbing forming an anchor point along the side pillar. The seat belt anchor assembly also includes a trim panel adapted to be secured to the side pillar for covering the anchor bolt and having an energy absorbing member extending axially between the trim panel and the head portion of the anchor bolt.

Abstract: An energy absorbing trim assembly 16 for covering an inner face of structural member 28 of a vehicle defining a passenger compartment having elongated wall portion 18 with a longitudinal axis. Wall portion 18 positionable in a covering relationship over structural member inner face 28. A plurality of swept arch members 20 are arrayed along longitudinal axis 19 in a laterally spaced relationship with respect to structural member inner face 28. Arch members 20 are elastically deformable in response to imposition of a load substantially normal to the structural member inner face 28 and plastically deformable upon contact with structural member inner face 28 to further distribute the load. Energy absorbing pedestal members 22,22' provide for the mounting of energy absorbing trim assembly 16 to a structural member inner face 28. Pedestals 22,22' are plastically deformable in response to imposition of a load substantially normal to a structural member 12.