Intel Corporation

Prakash N Iyer

Tsung-Yuan Charles Tai

Ren Wang

Jr-Shian Tsai

Mesut A Ergin

Changwen Liu

Bruce L Fleming

Vikas Aditya

Rajesh Poornachandran

Michael D Rosenzweig

Ulhas S Warrier

Manoj R Sastry

Stephan Jourdan

Santosh Ghosh

Mingqiu Sun

Ke Han

Dong Wang

Ting Lu

Kaustubh Das

Andrzej Mialkowski

Alexander W Min

Farid Adrangi

Scott P Dubal

Karthik Veeramani

Gunner D Danneels

Ylian Saint-Hilaire

Rajeev D Muralidhar

Rajneesh Chowdhury

Harinarayanan Seshadri

Henry M Mitchel

Saul Lewites

Gerald Lebizay

Hani Elgebaly

Chris Pavlas

Ujwal Paidipathi

Asher M Altman

Reid Joseph Kuhn

Michael B Andrews

Eric Davison

Alan Stone

Maciej Machnikowski

Russell Downing

James (JR-Shian) Tsai

Lance Carroll

Rajith K Mavila

Andrew W Min

Methods and apparatus to implement always-on context sensor hubs for processing multiple different types of data inputs are disclosed. An examples apparatus includes a first processor core to implement a host controller, and a second processor core to implement an offload engine. The host controller includes first logic to process sensor data associated with an electronic device when the electronic device is in a low power mode. The host controller is to offload a computational task associated with the sensor data to the offload engine. The offload engine includes second logic to execute the computational task.

Methods and apparatus to implement always-on context sensor hubs for processing multiple different types of data inputs

Embodiments are directed to a digital signature verification engine for reconfigurable circuit devices. An embodiment of an apparatus includes one or more processors; and a reconfigurable circuit device, the reconfigurable circuit device including digital signal processing (DSP) blocks and logic elements (LEs), wherein the one or more processors are to configure the reconfigurable circuit device to operate as a signature verification engine for a bit stream, the signature verification engine including a hybrid multiplication unit, the hybrid multiplication unit combining a set of LEs and a set of the DSPs to multiply operands for signature verification.

Digital signature verification engine for reconfigurable circuit devices

Systems, apparatuses, and/or methods to provide data processing offload. An apparatus may determine whether a task is to be processed locally at a client device or remotely off the client device and issue the task to a wireless network and/or a wired network when the task is to be processed remotely off the client device at a server device. An apparatus may identify the task from the wireless network and/or the wired network when the task is to be processed locally at the server device, distribute the task to a server resource at the server device when the task is to be to processed locally at the service device, and provide a result of the task to the wireless network and/or the wired network when the result is to be consumed remotely at the client device.

Data processing offload

Systems and methods may provide for identifying runtime information associated with an active workload of a platform, and making an active idle state determination for the platform based on at least in part the runtime information. In addition, a low power state of a shared resource on the platform may be controlled concurrently with an execution of the active workload based on at least in part the active idle state determination.

Dynamically entering low power states during active workloads

Systems, devices and methods are described including receiving a policy from a secure storage device, where the policy may be used to implement collaborative rendering of image content. The image content may include multiple portions of image content. The policy may be used to determining rendering assignments for multiple mobile devices where the assignments may specify that a mobile device is to render one content portion while another mobile device is to render another content portion. The rendering assignments may be provided to the mobile devices and rendered output corresponding to the different content portions may be received from the mobile devices. The rendered output may then be assembled into one or more image frames and wirelessly communicated to a remote display.

Collaborative graphics rendering using mobile devices to support remote display

Systems and methods of managing break events may provide for detecting a first break event from a first event source and detecting a second break event from a second event source. In one example, the event sources can include devices coupled to a platform as well as active applications on the platform. Issuance of the first and second break events to the platform can be coordinated based on at least in part runtime information associated with the platform.

Coordinating device and application break events for platform power saving

Systems and methods may provide for conducting a reward determination for a plurality of sleep states to obtain a plurality of reward determinations with respect to a device. In addition, a sleep state may be selected for the device from the plurality of sleep states based at least in part on the plurality of reward determinations. In one example, false entry and missed opportunity probabilities may be determined for stochastic interrupts, wherein the reward determination is conducted based at least in part on the false entry and missed opportunity probabilities.

Power management using reward-based sleep state selection

Techniques are described for determining a temporary latency tolerance report (tLTR) value. A processing unit has to respond to a device interrupt within a duration specified by tLTR to ensure no incoming data is lost due to device buffer overflow. The tLTR value can be used to prevent the processing unit from entering too deep a sleep state when a device driver anticipates multiple sequential interrupts for a transaction.

Techniques for managing power consumption state of a processor involving use of latency tolerance report value

The present invention allows a mobile node to seamlessly move across IP (Internet Protocol) subnets. In one embodiment, the invention includes registering a mobile device with a home agent (HA) through a proxy server, receiving a home internet protocol (IP) address assignment from the HA, assigning the home IP address to the mobile device as an inner IP address, mapping the inner IP address to a physical point-of-attachment of the mobile device, and assigning an outer IP address. The embodiment further includes tunneling packets for the mobile device to the proxy server using the inner and outer IP address, and delivering packets from the proxy server to the mobile device at the point-of-attachment.

Layering mobile and virtual private networks using dynamic IP address management

Growing community of inventors

Beaverton, OR, United States of America

Prakash N Iyer