Abstract: A frontend of a platform of a multiplatform system can be monitored for user input. Upon receiving a user input that includes particular content, a data object describing the context in which the user input was provided may be created. One or more automations may be selected from an automation database based on a similarity to the determined context. The selected automations can be automatically displayed for the user, thereby encouraging the user to leverage automations across multiple platforms without requiring the user to switch between different platforms and without requiring the user to learn or understand platform-specific automation engines.

Abstract: A frontend of a platform of a multiplatform system can be monitored for user input. Upon receiving a user input that includes particular content, a data object describing the context in which the user input was provided may be created. One or more automations may be selected from an automation database based on a similarity to the determined context. The selected automations can be automatically displayed for the user, thereby encouraging the user to leverage automations across multiple platforms without requiring the user to switch between different platforms and without requiring the user to learn or understand platform-specific automation engines.

Abstract: In one embodiment, a branch processing method, comprising: assigning plural branch instructions for a given clock cycle to primary branch information and secondary branch information; routing the primary branch information along a first path having adder logic and the secondary branch information along a second path having no adder logic; and writing the primary branch information including a displacement branch target address to a branch order table (BOT) and the secondary branch information without a target address to the BOT.

Abstract: In one embodiment, a microprocessor, comprising: an instruction cache configured to receive an instruction fetch comprising a first byte portion and a second byte portion; a side cache tag array configured to signal further processing of the second byte portion in addition to the first byte portion based on a hit of the side cache tag array; and a side cache data array configured to store instruction data for the second byte portion.

Abstract: In one embodiment, a microprocessor, comprising: an instruction cache configured to receive an instruction fetch comprising a first byte portion and a second byte portion; a side cache tag array configured to signal further processing of the second byte portion in addition to the first byte portion based on a hit of the side cache tag array; and a side cache data array configured to store instruction data for the second byte portion.

Abstract: In one embodiment, a branch processing method, comprising: assigning plural branch instructions for a given clock cycle to primary branch information and secondary branch information; routing the primary branch information along a first path having adder logic and the secondary branch information along a second path having no adder logic; and writing the primary branch information including a displacement branch target address to a branch order table (BOT) and the secondary branch information without a target address to the BOT.

Abstract: A computer system and corresponding method are used to assist in planning a trajectory for a surgical insertion into a skull to a target representing an anatomical region.

Abstract: A virtual reality (VR) attraction method includes implementing a kit corresponding to plans associated with VR representations. The kit includes fixed accessories, moveable accessories, a platform having a pattern of markings, and sections. The platform has mounts to affix the fixed stage accessories to the platform. The pattern identifies coordinates corresponding to a location of the mounts. The sections interconnect according to the pattern to form the platform. The platform is configurable according to stage plans.

Abstract: A virtual reality (VR) experience augmentation method includes: generating VR representations, each preprogrammed to simulate a virtual environment with virtually represented objects; associating stage kits with one or more of the representations, each kit having a modular stage and stage accessories, the modular stage marked to aid assembly; and building one of the kits, by: assembling the accessories to the stage according to the one of the kits by using coordinates identified by stage markings; and configuring a motion tracking system to track a VR participant's movements and movements of one of more of the stage accessories by communicating identity, location and/or orientation information to a VR simulation engine. Locations and orientations of the objects within the virtual environment correspond to locations and orientations of the stage accessories that are arranged according to the one of the kits.

Abstract: A comprehensive solution is provided to transforming locations and retail spaces into high-traffic VR attractions that provide a VR experience blended with a real-world tactile experience. A modular stage and kit of stage accessories suitable for a wide variety of commercial venues contains all of the necessary equipment, infrastructure, technology and content to assemble and operate a tactile, onsite VR attraction. Utilizing a modular set of set design and physical props, the physical structure and layout of the installations are designed to be easily rearranged and adapted to new VR content, without requiring extensive construction or specialized expertise.

Abstract: A system includes an offer datastores including one or more offers from one or more merchants, a registered card module to register one or more payment cards to be used for a purchase transaction, a transaction matching module to identify the one or more merchants from a collection of purchase transaction data and to match the purchase transaction of the identified one or more merchants with one or more offers in the offer datastore from the identified one or more merchants, and a rewards module to determine an incentive to be applied to the one or more payment cards based on any offer associated with the matched merchant and generate a qualified transaction data to be transmitted to an issuer of the one or more payment cards.

Abstract: A virtual reality system includes a stage kit, a motion tracking system, and a VR engine. The kit corresponds to plans associated with VR representations, and includes fixed and moveable props that are represented in one or more of the representations. The kit has a stage including a marked platform with accessory mounts to affix the fixed props to the platform, and stage sections that are interconnected according to the markings to form said platform. The platform is configurable according to differently dimensioned plans. The motion tracking system generates tracking information corresponding to the props and a VR participant on the stage. The VR simulation engine receives the tracking information, and employs that tracking information to generate the VR representations that simulate a virtual environment with virtually represented objects corresponding to the props, where the props are arranged according to a corresponding stage plan.

Abstract: A virtual reality (VR) system is provided that mixes real-world tactile stimulation with audiovisual stimulation provided through VR headgear. The VR system uses three sets of components. The first set comprises mobile objects that are tracked using motion tracking LEDs. The second set comprises stationary objects that are tracked using wires connected to an I/O controller to a game server. The third set comprises objects that are not tracked at all, but which are depicted with a thematic rendering in the VR world. A grid is set up that provides discrete locations for setting up both stationary and mobile components. A VR game server serves constructs of a VR world having thematically-embellished virtual objects that appear to be located in positions and orientations that match the positions and orientations of the components of the first, second, and third sets.

Abstract: A computer system and corresponding method are used to assist in planning a trajectory for a surgical insertion into a skull to a target representing an anatomical region.

Abstract: A virtual reality system includes a stage kit, a motion tracking system, and a VR engine. The kit corresponds to plans associated with VR representations, and includes fixed and moveable props that are represented in one or more of the representations. The kit has a stage including a marked platform with accessory mounts to affix the fixed props to the platform, and stage sections that are interconnected according to the markings to form said platform. The platform is configurable according to differently dimensioned plans. The motion tracking system generates tracking information corresponding to the props and a VR participant on the stage. The VR simulation engine receives the tracking information, and employs that tracking information to generate the VR representations that simulate a virtual environment with virtually represented objects corresponding to the props, where the props are arranged according to a corresponding stage plan.

Abstract: A virtual reality (VR) attraction method includes implementing a kit corresponding to plans associated with VR representations. The kit includes fixed accessories, moveable accessories, a platform having a pattern of markings, and sections. The platform has mounts to affix the fixed stage accessories to the platform. The pattern identifies coordinates corresponding to a location of the mounts. The sections interconnect according to the pattern to form the platform. The platform is configurable according to stage plans.

Abstract: A virtual reality (VR) experience augmentation method includes: generating VR representations, each preprogrammed to simulate a virtual environment with virtually represented objects; associating stage kits with one or more of the representations, each kit having a modular stage and stage accessories, the modular stage marked to aid assembly; and building one of the kits, by: assembling the accessories to the stage according to the one of the kits by using coordinates identified by stage markings; and configuring a motion tracking system to track a VR participant's movements and movements of one of more of the stage accessories by communicating identity, location and/or orientation information to a VR simulation engine. Locations and orientations of the objects within the virtual environment correspond to locations and orientations of the stage accessories that are arranged according to the one of the kits.

Abstract: A system and method are provided for using a computer system to assist in planning a trajectory (960A, 960B) for a surgical insertion into a skull. The method comprises providing the computer system with a three-dimensional representation of the skull and of critical objects located within the skull, wherein the critical objects comprise anatomical features to be avoided during the surgical insertion. The method further comprises providing the computer system with a target location (770, 970) for the insertion within the skull. The method further comprises generating by the computer system a first set comprising a plurality of entry points, each entry point (760) representing a surface location on the skull, and each entry point (760) being associated (2D) with a trajectory (960A, 960B) from the entry point (760) to the target location (770, 970).