In one implementation, systems and methods are provided for developing a computer-implemented digital experience application having a first and a second micro-application. Each micro-application includes a front end interface configured to receive and display information. The first micro-application includes a first event manager configured to detect an application event belonging to a category, and a first state manager configured to detect an application state belonging to the category. The digital experience application further includes a driver application configured to host the first and second micro-applications, an event hub configured to receive the detected application event from the first micro-application, and a state store configured to store the detected application state received from the first micro-application. The second micro-application includes a second event manager configured to receive the detected application event from the event hub, and a second state manager configured to receive the detected application state from the state store.

In one implementation, systems and methods are provided for developing a computer-implemented digital experience application having a first and a second micro-application. Each micro-application includes a front end interface configured to receive and display information. The first micro-application includes a first event manager configured to detect an application event belonging to a category, and a first state manager configured to detect an application state belonging to the category. The digital experience application further includes a driver application configured to host the first and second micro-applications, an event hub configured to receive the detected application event from the first micro-application, and a state store configured to store the detected application state received from the first micro-application. The second micro-application includes a second event manager configured to receive the detected application event from the event hub, and a second state manager configured to receive the detected application state from the state store.

An SoC device has a boot-code memory that stores boot code and a boot core that accesses the boot-code memory to execute the boot code at startup. The boot core is capable of executing application code after the startup is complete. One or more master cores execute application code. An access control circuit prevents the boot core from accessing the boot-code memory when application code is being executed.

An SoC device has a boot-code memory that stores boot code and a boot core that accesses the boot-code memory to execute the boot code at startup. The boot core is capable of executing application code after the startup is complete. One or more master cores execute application code. An access control circuit prevents the boot core from accessing the boot-code memory when application code is being executed.

Embodiments disclosed are directed to a system that performs steps to transmit, to a client device, a host application for storage on a browser of the client device. The host application is used to facilitate loading of a micro-frontend application onto the browser at runtime of the host application, for integration with and use in conjunction with the host application. The system also receives, from the host application, a request to load the micro-frontend application onto the browser. Based on receiving the request, a manifest file is accessed indicating a version of the micro-frontend application to be loaded onto the browser. The micro-frontend application is retrieved based on the version indicated in the manifest file and transmitted to the host application for loading onto the browser.

Embodiments disclosed are directed to a system that performs steps to transmit, to a client device, a host application for storage on a browser of the client device. The host application is used to facilitate loading of a micro-frontend application onto the browser at runtime of the host application, for integration with and use in conjunction with the host application. The system also receives, from the host application, a request to load the micro-frontend application onto the browser. Based on receiving the request, a manifest file is accessed indicating a version of the micro-frontend application to be loaded onto the browser. The micro-frontend application is retrieved based on the version indicated in the manifest file and transmitted to the host application for loading onto the browser.

Persistent storage may be arranged to store sets of configuration data respectively corresponding to applications. One or more processors of a computational instance may be configured to: receive, from a data source, a set of configuration data corresponding to an application deployable on a network related to the computational instance, wherein the set of configuration data defines components, packages, and environments, wherein the packages include one or more of the components, and wherein the environments include one or more of the packages; write, to the persistent storage, a representation of the set of configuration data; look up one or more policies applicable to the set of configuration data; and validate, by a policy engine, the set of configuration data by applying the one or more policies to the set of configuration data.

According to one embodiment of the present disclosure, a semiconductor system may be disclosed. The semiconductor system according to the one embodiment may include, for example, a plurality of electronic devices and a host apparatus. The host apparatus may simultaneously initialize the plurality of electronic devices in units of group.

A BIOS/OS key provisioning system includes an NVMe storage device coupled to a server device via a network. The server device includes an operating system engine and a BIOS engine. Subsequent to a current initialization of the server device and prior to an immediately subsequent initialization of the server device, the BIOS engine retrieves a key from a key storage subsystem and stores the key in a BIOS memory subsystem. When the BIOS engine receives a current key request that identifies the key from the operating system engine and determines that the key stored in the BIOS memory system has not previously been accessed subsequent to the current initialization and prior to the subsequent initialization, it provides the key from the BIOS memory subsystem to the operating system, and prevents the key from being provided from the BIOS memory subsystem in response to any subsequent key request.

A processor comprises a microarchitectural feature and dynamic tuning unit (DTU) circuitry. The processor executes a program for first and second execution windows with the microarchitectural feature disabled and enabled, respectively. The DTU circuitry automatically determines whether the processor achieved worse performance in the second execution window. In response to determining that the processor achieved worse performance in the second execution window, the DTU circuitry updates a usefulness state for a selected address of the program to denote worse performance. In response to multiple consecutive determinations that the processor achieved worse performance with the microarchitectural feature enabled, the DTU circuitry automatically updates the usefulness state to denote a confirmed bad state. In response to the usefulness state denoting the confirmed bad state, the DTU circuitry automatically disables the microarchitectural feature for the selected address for execution windows after the second execution window. Other embodiments are described and claimed.