Microsoft Technology Licensing, LLC

Impinj, Inc.

Synopsys, Inc.

Virage Logic Corporation

Bin Wang

Robert Zhu

Ying Chin

Dejun Zhang

Pengxiang Zhao

Satyendra Bahadur

Chih-Hsin Wang

William T Colleran

Wei Xiong

Sriram Srinivasan

Arash Ghanaie-Sichanie

Weiyou Cui

Christopher J Diorio

Andrew Edward Horch

Todd E Humes

Lei Zhang

Wei Huang

Daryl A Welsh

Carlos Picoto

Shih-Hsin Wang

Qipeng Wu

Xuejun Chen

Ying N Chin

Robert Yu Zhu

A loose coupling between Internet of Things ('IoT') devices and environmental sensors is generated. Once the loose coupling has been generated, conditions in a physical environment can be managed utilizing the loosely coupled devices. For example, a hybrid machine learning/expert system can be utilized to activate the IoT devices in an environment to achieve a desired condition in an optimized manner.

Management and operation of loosely coupled internet of things devices

Techniques for prioritization of data streams include transmitting a plurality of data streams to a first device over a network where each data stream is configured to cause the first device to perform a specific function, dynamically detecting a bandwidth limitation limiting an amount of available bandwidth for transmitting the plurality of data streams, dynamically determining bandwidth reduction criteria by identifying a first subset of the plurality of data streams to stop transmitting based on the specific function that each respective data stream causes the first device to perform, temporarily stopping transmitting of the first subset of data streams configured to cause the first device to perform a first set of functions, and continuing to transmit a second subset of data streams not included in the first subset of the data streams to the first device to cause the first device to continue to perform a second set of functions.

Throttling and prioritization of multiple data streams

The techniques disclosed herein provide improvements over existing systems by dynamically controlling communication connections between two or more computing devices based on the detection of specific events. Instead of requiring a device, such as an IoT device, to be continually connected to a network or a remote device, the techniques disclosed herein enable the device to remain offline until a specific event is detected. The disclosed technologies can avoid always-on network configurations while providing a desired functionality for an IoT device. For instance, some devices only connect with other computing devices or at network in response to detection of an event, then disconnect after an exchange of specific information. Such technologies can significantly reduce the power consumption of a device by only invoking connections at appropriate times.

Dynamic control of communication connections for computing devices based on detected events

Techniques for conducting a communication session include receiving, from a first device and in connection with a communication session, an indication of a bandwidth limitation on transferring data associated with the communication session, the first device being configured to generate a plurality of data streams associated with the communication session and to transmit the plurality of data streams to a second device; dynamically determining one or more operating parameters of the first device to reduce the amount of bandwidth required to transmit the plurality of data streams by eliminating one or more data streams, reducing an amount of bandwidth required by one or more data streams, or both based on bandwidth reduction criteria determined by the first device, the second device, or both; and directing the first device to transmit the plurality of data streams to the second device according to the one or more operating parameters.

Throttling and prioritization for multichannel audio and/or multiple data streams for conferencing

A communications link between a computing device and an external device is monitored. A driver for the communications link is executed on the computing device. The driver is configured to monitor data traffic over the communications link. Data indicative of the monitored data traffic is received from the driver. The data is sent to an analysis function configured to identify a condition of the communications link based on accumulated data indicative of the data traffic. Data indicative of an identified condition of the communications link is received from the analytics function. An indication of the identified condition is rendered on a display device of the computing device.

Monitoring peripheral transactions

The disclosed technology adjusts hardware settings to map preferences consistently of a user experience across multiple hardware devices, despite there being different hardware capabilities and performance parameters among the different devices. A hardware settings translation engine receives a reference hardware setting of a reference computing device, a set of reference hardware performance parameter values, and a set of target hardware performance parameter values. The hardware settings translation engine then maps the set of target hardware performance parameter values to the set of reference hardware performance parameter values to yield a hardware adjustment map. The hardware settings translation engine determines the target hardware setting based on the reference hardware adjustment map and the reference hardware setting. The hardware settings translation engine sets the target hardware to the target hardware setting.

Computing device resource management

An apparatus may be manipulated using non-touch or hover techniques. Hover techniques may be associated with zooming, virtual feedback, authentication, and other operations. For example, a mobile device may receive data indicative of a hover gesture. The hover gesture may be sensed proximate to a rear of the mobile device. The level of zoom of a rendered image may be altered based on the hover gesture.

Device manipulation using hover

A facility for responding to the crash of a computing system subsystem is described. The facility detects a crash of the subsystem. In response to this detecting, the facility provides diagnostic information representing state of the peripheral subsystem to a crash analysis service, and restarts the subsystem without restarting the computing system.

Handling crashes of a device's peripheral subsystems

Examples for an intelligent watchdog timer for a computing device are described herein. The watchdog timer operates a watchdog counter that repetitively counts a watchdog count interval from an initial value to a final value. The watchdog counter is continually reset if the device is functioning properly. If the watchdog timer is allowed to reach a final count value, a processor reset is initiated. Several components operate to detect the current mode of operation of the processor or an operating system, and predict, in part based on user context, when different power states may occur. The components also forecast when the watchdog timer is scheduled to reach the final count value. Based on the forecasts of when the watchdog timer will reach the final count value and the predictions of future power states of the processor or operating system, the watchdog counter is selectively disabled or reset.

High availability and energy-efficient watchdog timer

Embodiments are disclosed that relate to multi boot mobile phone devices. In one example, a mobile phone device comprises one or more non-volatile storage devices including an empty partition, a blob partition storing two or more operating systems in a compressed format, a boot selection module configured to recognize user selection of at least one of the two or more operating systems, and a boot allocation module configured to, responsive to user selection of at least one of the two or more operating systems, split the empty partition into a different operating system partition for each selected operating system, decompress each selected operating system, and store each decompressed operating system on its respective operating system partition.

Dynamic partition dual boot mobile phone device

A high-voltage LDMOSFET includes a semiconductor substrate, in which a gate well is formed. A source well and a drain well are formed on either side of the gate well, and include insulating regions within them that do not reach the full depth. An insulating layer is disposed on the substrate, covering the gate well and a portion of the source well and the drain well. A conductive gate is disposed on the insulating layer. Biasing wells are formed adjacent the source well and the drain well. A deep well is formed in the substrate such that it communicates with the biasing wells and the gate well, while extending under the source well and the drain well, such as to avoid them. Biasing contacts at the top of the biasing wells bias the deep well, and therefore also the gate well.

High-voltage LDMOSFET and applications therefor in standard CMOS

A graded junction space decreasing an implant concentration gradient between n-well and p-well regions of a semiconductor device is provided for enhancing breakdown voltage in high voltage applications. Split or unified FOX regions may be provided overlapping with the graded junction space. By using a p-well blocking layer to separate the p-well(s) and the n-well, breakdown voltage characteristic is improved without the cost of an additional mask or process change.

Graded junction high voltage semiconductor device

NVM arrays include rows and columns of NVM cells comprising a floating gate and a four transistor storage element. Supply voltage for selected storage elements is turned off during a programming and an erase mode. Isolation transistors for each NVM cell or for each row of NVM cells may be used to control the supply voltage.

Inverter non-volatile memory cell and array system

The present disclosure provides a Non-Volatile Memory (NVM) cell and programming method thereof. The cell can denote at least two logic levels. The cell has a read-transistor with a floating gate, and Band-To-Band-Tunneling device (BTBT device) sharing the floating gate with the read-transistor. The BTBT device is configured as an injection device for injecting a first charge onto the floating gate when the BTBT device is biased with a first gate bias voltage such that the BTBT device is in accumulation, to set at least one of the logic levels. A first electrode is coupled to bias the BTBT device with a first bias voltage that is higher than the first threshold voltage. The first bias voltage is controlled such that the BTBT device is in accumulation during a write operation. The injected amount of charge on the floating gate is determined by the first bias voltage.

Multi-level non-volatile memory cell with high-VT enhanced BTBT device

A FET device for operation at high voltages includes a substrate, a first well and a second well within the substrate that are doped with implants of a first type and second type, respectively. The first and second wells define a p-n junction. A field oxide layer within the second well defines a first surface region to receive a drain contact. A third well is located at least partially in the first well, includes doped implants of the second type, and is adapted to receive a source contact. As such, the third well defines a channel between itself and the second well within the first well. A gate is disposed over the channel. At least a first portion of the gate is disposed over the p-n junction, and includes doped implants of the first type. A number of permutations are allowed for doping the remainder of the gate.

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Seattle, WA, United States of America

Bin Wang