A system and method for real time updating of process applications includes a first execution engine executing a first process application to control a process device, an update manager receiving an updated software, the update manager being a second software container deployed in the deployment unit; initializing the updated software in a second execution engine; determining an application state of the first process application; instructing a transfer of the application state from the first execution engine to the second execution engine; instructing the second execution engine to execute the updated process application using the received application state; and instructing the first execution engine to stop writing output signals for the process device, and instructing the second execution engine to write output signals for the process device.

This document discloses techniques, apparatuses, and systems for inter-service communication management to manage inter-service communication between a server-side service and a client-side service. The inter-service management system may comprise memory and a controller configured to perform the inter-service communication management. In aspects, a configuration file may be used to obtain information specifying a first inter-service communication mechanism for communicating one or more messages between the client-side and server-side services. The inter-service communication management system may instantiate a stub associated with the inter-service communication mechanism information, which can be used to communicate a message from the server-side service to a proxy that interacts with the client-side service. The message may then be forwarded from the proxy to the client-side service to enable inter-service communication between the server-side service and the client-side service.

An inter-process communication method and apparatus, a computer device and a computer-readable medium. The method comprising: initializing a calling process and a called process, having respective page tables and virtual memories, and a callback function is defined in the called process; running a thread of the calling process by using the page table of the calling process; executing an instruction of the callback function in the thread of the calling process by switching a page table in use from the page table of the calling process to the page table of the called process, so as to generate a return value of the callback function; and switching the page table in use from the page table of the called process back to the page table of the calling process, and using the page table of the calling process to receive the return value of the callback function.

Systems and methods for designing an information processing system are described. In one embodiment, a design space is partitioned into a plurality of independent partitions based on a defined set of rules. A unique processing core is assigned to each partition. A plurality of starting points is generated for each partition, where each starting point is associated with a machine learning algorithm. The starting points for each partition may include a performance driven seed and an area-driven seed. A set of feasible designs associated with the information processing system are determined.

Overhead of sending data from one application to another by doing input and output processing can be costly. The present invention provides a method of transmitting data with a low overhead between applications in a multi-tenant runtime environment. The multi-tenant runtime detects a connection between tenants, and then performs low-overhead data transmission mechanisms by cloning data from one tenant space to another tenant space, while keeping the data isolated for two tenants.

Examples are disclosed that relate to managing workloads provided by a plurality of clients to a shared resource. One example provides a computing device comprising a processor and a storage device storing instructions executable by the processor. The instructions are executable to provide a first workload from a first client and a second workload from a second client to a shared memory accessible by the first client, the second client, and a resource configured to process the first workload and the second workload. The computing device is configured to determine that an exception has occurred while processing the first workload, and to take an action to prevent execution of at least some additional work from the first client. The instructions are further executable to receive a result of processing the second workload after taking the action to prevent the execution of the additional work.

The present disclosure provides systems, methods, and computer-readable media for mediating communications between two processes not running in a common container. A request from a requesting process running in a first container to communicate with one or more target processes outside the first container is received, and a device file accessible to the first container is created. The inter-container communication is then routed from the requesting process through the created device file, and on to the target process.

The present disclosure is related to performing speculation in, for example, a memory device or a computing system that includes a memory device. Speculation can be used to identify data that is accessed together or to predict data that will be accessed with greater frequency. The identified data can be organized to improve efficiency in providing access to the data.

This disclosure describes efficient communication of surface texture data between system on a chip (SOC) integrated circuits. An example system includes a first integrated circuit, and at least one second integrated circuit communicatively coupled to the first integrated circuit by a communication interface. The first integrated circuit, upon determining that surface texture data of a frame to be rendered for display by the second SoC integrated circuit is to be updated, (a) transmits the surface texture data in one or more update packets to the second integrated circuit using the communication interface, and (b) transmits a command to the second integrated circuit indicating that the surface texture data of the frame has been updated using the communication interface. The second integrated circuit, upon receipt of the command, (a) sets a pointer to a location in the display buffer storing the surface texture data of the frame, and (b) renders the surface texture data of the frame for display on a display device.

Aspects of the current subject matter are directed to an approach in which a parallel load operation of file ID mapping containers is accomplished at start and/or restart of a database system. Parallel load operation of file ID mapping and/or large binary object (LOB) file ID mapping is done among a plurality of scanning engines into a plurality of data buffers that are associated with each of the plurality of scanning engines. Each scanning engine operates on a certain path of a page chain of a page structure including the mapping, causing the page chain to be split among scanning engines to process maps. Contents of the data buffers are pushed to mapping engines via a queue. The mapping engines load the file ID mapping and the LOB file ID mapping into maps for in-system access.