Abstract: Systems and methods permit or cause content to be displayed by a plurality of gaming displays, such as gaming machine displays and/or external displays. Content may be synchronously displayed by multiple gaming displays, such as one or more EGM displays and one or more external gaming displays, where the content which is displayed by the different displays may be the same or be different, and may be provided by a content controller and/or may be provided or triggered by a gaming machine. The systems and methods permit or cause content to be synchronously displayed across multiple gaming displays, such as in time and/or space. In some examples, the content is configured as a content “package” which is associated with one or more displays.

Abstract: A hinged system includes a preassembled hinge module for pivotally coupling a first component to a second component. The preassembled hinge module includes a shaft, a torque element frictionally engaging the shaft, and a housing. The housing includes a cover, a side wall, and a rear wall that define an interior space enclosed within the housing. The interior space receives the torque element inside the housing. The cover defines a first aperture, and the rear wall defines a second aperture, the first aperture and the second aperture aligned with a pivot axis of the shaft. The shaft extends through at least the first aperture, the interior space, and the second aperture. The shaft is separate from, and configured to be mounted to, the first component. The housing is separate from, and configured to be mounted to, the second component.

Abstract: Disclosed herein are compounds that are Hematopoietic Progenitor Kinase 1 (HPK1) inhibitors having a structure according to Formula I, and compositions containing those compounds. Methods of preparing the compounds, and methods of using the compounds for the treatment of diseases, disorders, or conditions are also described.

Abstract: Embodiments are generally directed to compression in machine learning and deep learning processing. An embodiment of an apparatus for compression of untyped data includes a graphical processing unit (GPU) including a data compression pipeline, the data compression pipeline including a data port coupled with one or more shader cores, wherein the data port is to allow transfer of untyped data without format conversion, and a 3D compression/decompression unit to provide for compression of untyped data to be stored to a memory subsystem and decompression of untyped data from the memory subsystem.

Abstract: An elastic request handling technique limits a number of threads used to service input/output (I/O) requests of a low-latency I/O workload received by a file system server executing on a cluster having a plurality of nodes deployed in a virtualization environment. The limited number of threads (server threads) is constantly maintained as “active” and running on virtual central processing units (vCPUs) of a node. The file system server spawns and organizes the active server threads as one or more pools of threads. The server prioritizes the low-latency I/O requests by loading them onto the active threads and allowing the requests to run on those active threads to completion, thereby obviating overhead associated with lock contention and vCPU migration after a context switch (i.e., to avoid rescheduling a thread on a different vCPU after execution of the thread was suspended).

Abstract: Examples of file analytics systems are described that may obtain metadata data and events data from a virtualized file server. The file analytics systems may detect one or more events from the events data matching a criteria indicating malicious activity. The file analytics systems may validate the detection of malicious activity. The validation may be performed by comparing the file type, such as the MIME type, of sample files before and after the suspected malicious activity. The systems may recover a share of the distributed file server including the one or more affected files by replacing the one or more affected files with stored versions of the one or more affected files from a snapshot of the share taken prior to the detected malicious activity.

Abstract: Examples described herein are generally directed towards file share access, and more specifically towards a mechanism to connect file shares at the protocol level in a distributed file server environment. In operation, a first FSVM hosting a first file share may receive a request by a client to access a location in a name space. The first FSVM may determine the location is at a second file share linked to the first file share. The first FSVM may provide access to the second file share to the client. In some examples, the first file share and the second file share may be linked at the directory level.

Abstract: An example file server manager updates a selected share of a destination distributed file server based on a snapshot of at least a portion of a selected share of a source distributed file server. The selected share of the destination distributed file server is updated while the source distributed file server serves client requests for storage items of the selected share of the source distributed file server. The file server manager receives a request to failover from the source distributed file server to the destination distributed file server and configures the destination distributed file server to service read and write requests for storage items of the selected share of the destination distributed file server. The file server manager further redirects client requests for storage items of the selected share of the source distributed file server to the destination distributed file server by updating active directory information.

Abstract: According to some embodiment, a backup storage system receives, by a first phase of a data deduplication pipeline, a request from a client for reading or writing a data segment associated with a data stream stored in or to a storage system. In response to the request, the system retrieves, by the first phase, load parameters associated with a second phase in the data deduplication pipeline. For each of the load parameters associated with the second phase, the system determines, by the first phase, whether the load parameter has exceeded a load threshold associated with the second phase. The system throttles, by the first phase, performance of a specific job in the data deduplication pipeline by the second phase in response to a determination that at least one of the load parameters associated with the second job phase has exceeded the load threshold associated with the second phase.

Abstract: According to some embodiment, a backup storage system receives a plurality of input/output (IO) requests at the storage system. The IO requests include random IO requests and sequential IO requests. The storage system determines whether there is a pending random IO request from the plurality of IO requests. In response to determining that there is a pending random IO request, the storage system determines whether a total latency of the sequential IO requests exceeds a predicted latency of the pending random IO request. The storage system services the pending random IO request in response to determining that the total latency of the sequential IO requests exceeds the predicted latency of the pending random IO request.