Abstract: Diagnostics and boot up for AV hardware and software of a computer system of an autonomous vehicle may be performed based at least on receiving a shutdown or power off indication, then a computing state of the computer system may be suspended with the computer system entering a low-power mode. The suspended computing state can be rapidly restored without requiring a reboot and diagnostics for key-on. To ensure the integrity of the saved computing state, the computer system may exit the low-power mode, rerun the diagnostics, reload the programs, and then reenter the low-power mode. Restoring the suspended computing state may be triggered by a user inserting an ignition key, pressing a button to turn on the vehicle, opening a door to the vehicle, remotely unlocking the vehicle, remotely starting the vehicle, etc.

Abstract: Diagnostics and boot up for AV hardware and software of a computer system of an autonomous vehicle may be performed based at least on receiving a shutdown or power off indication, then a computing state of the computer system may be suspended with the computer system entering a low-power mode. The suspended computing state can be rapidly restored without requiring a reboot and diagnostics for key-on. To ensure the integrity of the saved computing state, the computer system may exit the low-power mode, rerun the diagnostics, reload the programs, and then reenter the low-power mode. Restoring the suspended computing state may be triggered by a user inserting an ignition key, pressing a button to turn on the vehicle, opening a door to the vehicle, remotely unlocking the vehicle, remotely starting the vehicle, etc.

Abstract: Diagnostics and boot up for AV hardware and software of a computer system of an autonomous vehicle may be performed based at least on receiving a shutdown or power off indication, then a computing state of the computer system may be suspended with the computer system entering a low-power mode. The suspended computing state can be rapidly restored without requiring a reboot and diagnostics for key-on. To ensure the integrity of the saved computing state, the computer system may exit the low-power mode, rerun the diagnostics, reload the programs, and then reenter the low-power mode. Restoring the suspended computing state may be triggered by a user inserting an ignition key, pressing a button to turn on the vehicle, opening a door to the vehicle, remotely unlocking the vehicle, remotely starting the vehicle, etc.

Abstract: During functional/normal operation of an integrated circuit including multiple independent processing elements (such as processors), a selected independent processing element is taken offline (e.g., by stopping functional operation of the independent processing element), and the functionality of the selected independent processing element is then tested while the remaining independent processing elements continue functional operation (e.g., standard application-specific operations). This enables the selected processing element to be robustly tested without stopping the regular operation of the integrated circuit.

Abstract: An electrostatic clamp for supporting a substrate includes a substrate region, an electrode region at an edge of the substrate region, a support layer, an electrically conductive layer, a contact layer, and an electrode. The support layer has a body having first and second surfaces that are substantially parallel to each other and disposed on opposite sides of the body. A through-hole is disposed in the electrode region and provides access between the first and second surfaces. The electrically conductive layer is disposed on the second surface of the support layer. The contact layer disposed on the electrically conductive layer. The contact layer is uninterrupted in the electrode region and comprises burls in the substrate region. The burls contact the substrate when the electrostatic clamp is supporting the substrate. The electrode is disposed in the through-hole and is electrically coupled to the electrically conductive layer.

Abstract: An application host (such as a web application server) may execute a set of applications on behalf of a set of users. Such applications may not be fully trusted, and a two-way isolation of the distributed resources of an application (e.g., the executing application, the application user interface on the user's computer, and server- and client-side stored resources) from other applications may be desirable. This isolation may be promoted utilizing the cross-domain restriction policies of each user's computer by allocating a distinct subdomain of the application host for each application. The routing of network requests to a large number of distinct subdomains may be economized by mapping all distinct subdomains to the address of the domain of the application host. Moreover, the application user interfaces may be embedded in an isolation construct (e.g., an IFRAME HTML element) to promote two-way isolation among application user interfaces and client-side application resources.

Abstract: Methods, systems, and computer-storage media for intelligently creating and using routing connections between on-premises servers within a client and nodes of a data center are provided. When routing connections being requested by the client are not presently established, a caching service within the data center is programmed to direct a client's cache request over available routing connections, thereby scaling out storage capacity across the data center. When routing connections being requested by the client are established, a load balancer within the data center is programmed to direct the cache request over a requested routing connection, thereby bypassing intervening hops within the data center, such as gateway nodes that host instances of the caching service. To bypass intervening hops, the client network is provided with access to a client-side routing table for identifying an appropriate network key and a connection table for identifying a routing connection mapped to the network key.

Abstract: Methods, systems, and computer-storage media for intelligently creating and using routing connections between on-premises servers within a client and nodes of a data center are provided. When routing connections being requested by the client are not presently established, a caching service within the data center is programmed to direct a client's cache request over available routing connections, thereby scaling out storage capacity across the data center. When routing connections being requested by the client are established, a load balancer within the data center is programmed to direct the cache request over a requested routing connection, thereby bypassing intervening hops within the data center, such as gateway nodes that host instances of the caching service. To bypass intervening hops, the client network is provided with access to a client-side routing table for identifying an appropriate network key and a connection table for identifying a routing connection mapped to the network key.

Abstract: An application host (such as a web application server) may execute a set of applications on behalf of a set of users. Such applications may not be fully trusted, and a two-way isolation of the distributed resources of an application (e.g., the executing application, the application user interface on the user's computer, and server- and client-side stored resources) from other applications may be desirable. This isolation may be promoted utilizing the cross-domain restriction policies of each user's computer by allocating a distinct subdomain of the application host for each application. The routing of network requests to a large number of distinct subdomains may be economized by mapping all distinct subdomains to the address of the domain of the application host. Moreover, the application user interfaces may be embedded in an isolation construct (e.g., an IFRAME HTML element) to promote two-way isolation among application user interfaces and client-side application resources.

Abstract: Portions of a computing environment (such as a user's mesh) may restrict accessing to particular types of access by particular applications. The computer may support applications executing within a virtual environment (such as a web browser) by brokering such access through a token-based system. When an application requests a particular type of access (e.g., writing to a particular data object), the computer may contact an authorization server with the credentials of the application to request the specified access, and may receive and store an authorization token. The computer may then access the computing environment with the authorization token, and may return the results to the application within the virtual environment. Additional features may further support such applications; e.g., a programmatic interface may be provided in a familiar language, such as JavaScript, whereby applications can request access to particular data objects and identify authorized access capabilities.

Abstract: Portions of a computing environment (such as a user's mesh) may restrict accessing to particular types of access by particular applications. The computer may support applications executing within a virtual environment (such as a web browser) by brokering such access through a token-based system. When an application requests a particular type of access (e.g., writing to a particular data object), the computer may contact an authorization server with the credentials of the application to request the specified access, and may receive and store an authorization token. The computer may then access the computing environment with the authorization token, and may return the results to the application within the virtual environment. Additional features may further support such applications; e.g., a programmatic interface may be provided in a familiar language, such as JavaScript, whereby applications can request access to particular data objects and identify authorized access capabilities.

Abstract: A data path controller, a computer device, an apparatus and a method are disclosed for integrating power management functions into a data path controller to manage power consumed by processors and peripheral devices. By embedding power management within the data path controller, the data path controller can advantageously modify its criteria in-situ so that it can adapt its power management actions in response to changes in processors and peripheral devices. In addition, the data path controller includes a power-managing interface that provides power-monitoring ports for monitoring and/or quantifying power consumption of various components. In one embodiment, the data path controller includes a power-monitoring interface for selectably monitoring power of a component.