G06F9/445

LATENCY REDUCTION IN FEEDBACK-BASED SYSTEM PERFORMANCE DETERMINATION

The present disclosure is directed to a technique to reduce latency in feedback-based system performance determination. A system receives, from an application developer device, indications of an in-application event and a first input value for an application content delivery profile. The system receives, via an interface from an application developed by an application developer and executed by a computing device remote from the data processing system and different from the application developer device, a ping indicative of an occurrence of the in-application event on the computing device. The system merges data from the ping with internal data determined by the data processing system to generate merged data. The system determines a predicted performance for the in-application event and provides an indication of the predicted performance. The system configures, responsive to the indication of the predicted performance, the application content delivery profile with a second input value.

FAULT-TOLERANT VARIABLE REGION REPAVING DURING FIRMWARE OVER THE AIR UPDATE

Variables utilized in device firmware that provides various boot and runtime services are repaved in a fault-tolerant manner within a secure store in a durable, non-volatile device memory during an FOTA update process. A spare region in the secure store is utilized to temporarily hold a back-up of a primary region in which the firmware variables are written. Using a transaction-based fault-tolerant write (FTW) process, the variables in the primary region can be repaved with variables contained in a firmware update payload that is delivered from a remote service. In the event of a fault in the variable region repaving process, either the primary or spare region will remain valid so that firmware in a known good state can be utilized to enable the device to boot successfully and the variable region repaving in the FOTA update process may be restarted.

FAULT-TOLERANT VARIABLE REGION REPAVING DURING FIRMWARE OVER THE AIR UPDATE

Variables utilized in device firmware that provides various boot and runtime services are repaved in a fault-tolerant manner within a secure store in a durable, non-volatile device memory during an FOTA update process. A spare region in the secure store is utilized to temporarily hold a back-up of a primary region in which the firmware variables are written. Using a transaction-based fault-tolerant write (FTW) process, the variables in the primary region can be repaved with variables contained in a firmware update payload that is delivered from a remote service. In the event of a fault in the variable region repaving process, either the primary or spare region will remain valid so that firmware in a known good state can be utilized to enable the device to boot successfully and the variable region repaving in the FOTA update process may be restarted.

METHOD AND SYSTEM FOR SHARING METADATA BETWEEN INTERFACES
20180013859 · 2018-01-11 ·

A system communicates a client application and a web application and receives configuration data operable within the web application and the client application. The system distributes the configuration data to the client application and the web application. The distributed configuration data is then used to configure the client application and the web application

User-Centric Widgets and Dashboards
20180011625 · 2018-01-11 · ·

User-centric widgets and dashboards are automatically modified to reflect a user's goals and needs.

Automated Configuration and Installation of Virtualized Solutions
20180011698 · 2018-01-11 ·

An installation system for a multiple device, multiple application solution may include options for installing and configuring one or more of the devices as virtual machines. The installation system may start from bare hardware, install a virtual machine host, and configure one or more devices as virtual machines. The installation system may provide a set of predefined configurations from which an administrator may choose, and some embodiments may provide various algorithms or optimization routines to select an appropriate configuration based on intended uses or other factors. The configurations may be customized to create one or more documents that may be consumed during the installation process to automate many configuration settings.

RE-ENUMERATION OF USB 3.0 COMPATIBLE DEVICES

A host device can download a firmware update to a peripheral device having previously enumerated with the host device. The host device can perform link training with the peripheral device in response to a re-enumeration indication received from the peripheral device. The link training can include switching a Link Training and Status State Machine (LTSSM) in the host device from an active state (U0) to an RX.Detect state and synchronizing with the peripheral device in the RX.Detect state. The host device can re-enumerate with the peripheral device utilizing the firmware update after the host device completes link training with the peripheral device.

COMPONENT LOADING BASED ON USER INTERACTIONS

Provided herein are systems, methods, and software for implementing information management applications. In an implementation, an application embodied in program instructions stored on one or more computer readable storage media comprises components and a control component. The components communicate requests to invoke others of the components. The control component handles the requests by at least determining whether or not any component identified by the requests has already been downloaded or is yet to be downloaded. The control component invokes the component when already downloaded and retrieves the component when not yet downloaded.

OUT OF BAND MANAGEMENT OF BASIC INPUT/OUTPUT SYSTEM SECURE BOOT VARIABLES
20180012023 · 2018-01-11 ·

A method is provided in one example embodiment and includes storing secure boot variables in a baseboard management controller; and sending the secure boot variables to a basic input/output system (BIOS) during a power on self-test, where the BIOS utilizes the secure boot variables during runtime to authenticate drivers and an operating system loader execution. In particular embodiments, the secure boot variables may be included in a white list, a black list, or a key list and, further, stored in erasable programmable read only memory.

OUT OF BAND MANAGEMENT OF BASIC INPUT/OUTPUT SYSTEM SECURE BOOT VARIABLES
20180012023 · 2018-01-11 ·

A method is provided in one example embodiment and includes storing secure boot variables in a baseboard management controller; and sending the secure boot variables to a basic input/output system (BIOS) during a power on self-test, where the BIOS utilizes the secure boot variables during runtime to authenticate drivers and an operating system loader execution. In particular embodiments, the secure boot variables may be included in a white list, a black list, or a key list and, further, stored in erasable programmable read only memory.