Patent classifications
G06F9/30003
FUNCTION DEFINED EVENT STREAMS FROM MULTIPLE EVENT STREAMS AND EVENTS
Disclosed are techniques for function-defined output streams corresponding to combinations of events published to one or more event notification streams in an event-driven architecture with a plurality of event notification streams. An output function is received defining a combination of event notifications with criteria for selecting which event notifications to combine from one or more event notification streams. The one or more event notification streams are parsed, and event notifications are selected to initialize a new event notification stream, where event notifications in this stream correspond to instances of the output function when provided a set of event notifications from the one or more event notification streams as input values. When an event notification is published to the one or more event notification streams meeting the criteria specified in the output function, the new event notification stream publishes an event notification corresponding to an output value from the output function.
Image capture device with a spherical capture mode and a non-spherical capture mode
An image capture device may switch operation between a spherical capture mode or a non-spherical capture mode. Operation of the image capture device in the spherical capture mode includes generation of spherical visual content based on the visual content generated by multiple image sensors. Operation of the image capture device in the non-spherical capture mode includes generation of non-spherical visual content based on visual content generated by a single image sensor.
Apparatus and method for triggering action
An apparatus and method are provided for triggering action performance. One example apparatus comprises memory access circuitry to retrieve a data value from a memory location of a memory. The apparatus further comprises action triggering circuitry to determine whether the data value is to be interpreted according to a first interpretation or a second interpretation and, when it is determined that the data value is to be interpreted according to the second interpretation, determine whether the data value defines an action to be performed. When it is determined that the data value defines an action to be performed, the action triggering circuitry is to trigger performance of the action.
Testing and remediating compliance controls
Users of an endpoint remediation system can be assigned to different roles, from which they can request exceptions, approve exceptions, and/or enable remediation on endpoint devices. The compliance scanning and enforcing process can be automated, while allowing entities to request and/or approve certain exceptions. Therefore, security compliance for customers can be actively managed to provide visibility to the endpoint device compliance state at any time.
Neural network processing based on subgraph recognition
Systems and methods for providing executable instructions to a neural network processor are provided. In one example, a system comprises a database that stores a plurality of executable instructions and a plurality of subgraph identifiers, each subgraph identifier of the plurality of subgraph identifiers being associated with a subset of instructions of the plurality of executable instructions. The system further includes a compiler configured to: identify a computational subgraph from a computational graph of a neural network model; compute a subgraph identifier for the computational subgraph, based on whether the subgraph identifier is included in the plurality of subgraph identifiers, either: obtain, from the database, first instructions associated with the subgraph identifier; or generate second instructions representing the computational subgraph; and provide the first instructions or the second instructions for execution by a neural network processor to perform computation operations for the neural network model.
Streaming execution for a quantum processing system
Interactions between a classical computing system and a quantum computing system can be structured to increase the effective memory available to hold instructions for a quantum processor. The system stores a schedule of compiled quantum processing instructions in a memory storage location on a classical computing system. A small program memory is included in close proximity to a control system for the quantum processor on the quantum computing system. The classical computing system sends a subset of instructions from the schedule of quantum instructions to the program memory. The control system manages execution of the instructions by accessing them at the program memory and configuring the quantum processor accordingly. While the quantum processor executes the instructions, additional instructions are transferred from the classical computing system to the program memory to await execution. The quantum system can execute many instructions quickly without idling while instructions are fetched from a large memory.
VIDEO DISPLAY DEVICE AND COOPERATIVE CONTROL METHOD IN VIDEO DISPLAY DEVICE
For establishing cooperation among an external device 30, a video display device and a remote control terminal and to achieve cooperative operation among these devices that affords a high level of operability to a user with less burden, the video display device to which an external device and a remote control terminal that remotely operates the external device can be connected, comprising: a connection detection section configured to detect a connection of the external device to the video display device; a cooperation establishment section configured to generate a start signal for initiate an application software accepting an operation instruction to the external device on the remote control terminal when the connection detection section detects the connection of the external device; and a communication interface configured to transmit the start signal to the remote control terminal.
Shader core instruction to invoke depth culling
Systems, apparatuses, and methods for executing a shader core instruction to invoke depth culling are disclosed. A shader core executes an instruction to invoke a culling function on a depth culling unit for one or more entities prior to completing a corresponding draw call. The shader core provides a mode and coordinates to the depth culling unit as a result of executing the instruction. The depth culling unit implements the culling function to access a live depth buffer to determine whether one or more primitives corresponding to the entities are occluded. The culling unit returns indication(s) to the shader core regarding the result(s) of processing the one or more primitives. For example, if the results indicate a primitive is occluded, the shader core cancels the draw call for the primitive.
Video display device and cooperative control method in video display device
For establishing cooperation among an external device 30, a video display device 10 and a remote control terminal 20 and to achieve cooperative operation among these devices that affords a high level of operability to a user with less burden, the video display device 10 to which an external device 30 and a remote control terminal 20 that remotely operates the external device can be connected, comprising: a connection detection section 140 configured to detect a connection of the external device 30 to the video display device 10; a cooperation establishment section 120 configured to generate a start signal for initiate an application software accepting an operation instruction to the external device 30 on the remote control terminal 20 when the connection detection section 140 detects the connection of the external device 30; and a communication interface 18 configured to transmit the start signal to the remote control terminal.
Three-dimensional fabricating apparatus and three-dimensional fabricating method
According to an embodiment, a three-dimensional fabricating apparatus includes a supply unit, a flattening unit, a discharge unit, and a controller. The supply unit is configured to supply powder. The flattening unit is configured to flatten a surface of the supplied powder and form a powder layer. The discharge unit is configured to discharge a first fabrication liquid solidifying the powder and a second fabrication liquid not solidifying the powder onto a surface of the powder layer. The controller is configured to cause the discharge unit to discharge the first fabrication liquid and the second fabrication liquid in accordance with a discharge pattern in which the second fabrication liquid is discharged to a region adjacent to at least some of a plurality of regions in which the first fabrication liquid is discharged.