Intel Corporation

Wireless Facilities, Inc.

Apple Inc.

Ulun Karacaoglu

Anand S Konanur

Songnan Yang

Xintian Eddie Lin

Jie Gao

Kwan Ho Lee

Hao-Han Hsu

Manish A Hiranandani

Farid Adrangi

Bin Xiao

Richard D Roberts

Debabani Choudhury

Lei Shao

Jiancheng Tao

Shawn McEuen

Yee Wei Eric Hong

Qinghua Li

Atsuo Kuwahara

Emily B Cooper

Yaniv Frishman

Chi Nche

Hong W Wong

Kristoffer Fleming

Harry G Skinner

Jaroslaw Sydir

Krishnan Rajamani

Anthony George LaMarca

Bryce D Horine

Seong-Youp Suh

Inching Chen

Yongfang Guo

Masood K Tayebi

Baya Hatim

Adesoji J Sajuyigbe

Mei Chai

Stephen R Wood

Radhakrishnan Sankar

Janardhan Koratikere Narayan

Quanjie Forest Zhuang

Peng Ge

Dounia Baiya

Xu Zhang

Shahrnaz Azizi

Yu Yang

Ismail Lakkis

Xue Yang

Vallabhajosyula S Somayazulu

Xingang Guo

Maruti Gupta Hyde

James Utz

Jeremy N Burr

Chung-Hao Chen

Zhen Yao

Yunbiao Lin

Bo Qiu

Akihiro Takagi

Saeid Safavi

Denica N Larsen

Timothy F Cox

Helen Kankan Pan

Vinod Kristem

Narjala Prakash Bhasker

Charles L Brabenac

Justin Michael Huttula

David A Rittenhouse

Ayeshwarya B Mahajan

Jonathan Rosenfeld

Essam Elkhouly

Rohit Mittal

Deirdre O'Shea

Sreenivas Kasturi

Pronay Dutta

Eduardo Alban

Jianwei Yang

Cathal O'Scolai

Joseph J Roy

Wenyi Tang

Niranjan Karandikar

Yating Wang

Yongfa Zhou

Steven G Gaskill

Hoang Xuan Bui

Sukanya Sundaresan

Robert Paxman

Changsong Sheng

Sharon Talmor Marcovici

Salih Yarga

Denny Iriawan

Shwetank Kumar

Yasuharu Omi

Kae-an Liu

Simin Xiong

Edward Agis

Anchit Dixit

Thomas J Stepek

Eric Hong

Manish A Hiranandanl

Fan (Cherry) Xia

Radhakrishnan (Sankar) Sankar

Xintian E (Eddie) Lin

Apparatus, system and method to provide switchable coils in a computing device, comprising: a plurality of electrically conductive coils to transfer electromagnetic energy; a sensor coupled to a processor, to select a coil from among the plurality of electrically conductive coils; a switch to energize the selected coil; and a switch controller coupled to the switch and to the processor. In some embodiments, the plurality of coils may comprise an inductive charging interface. Some embodiments may further include a communication interface between the processor to the plurality of electrically conductive coils, the plurality of coils comprising an interface for near-field communications (NFC). The antenna coils may be arranged to provide improved NFC coverage when the computing device is in a respective predetermined physical configuration. Sensors may be used to detect the configuration and switch NFC communications to use a preferred antenna coil for the detected configuration.

Coil for mobile device context-driven switching and wireless charging

An apparatus of embodiments, as described herein, includes one or more processors to track data associated with movement of a computing device accessible to a user, and evaluate the data and compare a latency with latency thresholds, where the data indicates the latency and the latency thresholds associated with a frame. The one or more processors are further to maintain a current video encoding rate, if the latency is lower than a first latency threshold and greater than a second latency threshold. The current video encoding rate is decreased if the latency is equal to or greater than the first latency threshold, where the current video encoding rate is increased if the latency is lower than the second latency threshold. The one or more processors are further to present the frame at the computing device including one or more of a wearable device and a mobile device.

Dynamic video encoding and view adaptation in wireless computing environments

Described herein are techniques related one or more systems, apparatuses, methods, etc. for integrating a near field communications (NFC) coil antenna in a portable device. For example, the NFC antenna is integrated under a metal chassis of the portable device. The metal chassis and a conductive coating&#x2014;that is integrated underneath the full metal chassis&#x2014;are designed to include one or more slots to provide high impedance to Eddy current induced in the conductive coating.

Thin chassis near field communication (NFC) antenna integration

Technologies for dynamic wireless noise mitigation include a computing device having a wireless modem and one or more antennas. The computing device activates one or more components of the computing device, monitors platform activity, and measures wireless noise received by the antennas. The computing device trains a noise prediction model based on the platform activity and the measured noise. The computing device may monitor platform activity and predict a noise prediction with the noise prediction model based on the monitored activity. The computing device may mitigate wireless noise received by the wireless antennas based on the noise prediction. The computing device may provide the noise prediction to the wireless modem. Other embodiments are described and claimed.

Technologies for dynamic wireless noise mitigation using artificial intelligence

Embodiments of wireless antenna array systems to achieve three-dimensional beam coverage are described herein. Other embodiments may be described and claimed.

Wireless antenna array system architecture and methods to achieve 3D beam coverage

Wireless wearable devices having self-steering antennas are disclosed. A disclosed example wearable device includes an antenna to be communicatively coupled to a wireless data transceiver of a base station. The disclosed example wearable device also includes a steering mount coupled to the antenna, where the steering mount is to adjust an orientation of the antenna towards a wireless coverage zone associated with the wireless data transceiver based on a movement of the wearable device.

Wireless wearable devices having self-steering antennas

The disclosure relates to a method, apparatus and system to provide automated audio video conferencing in a conference room. In an exemplary embodiment, the disclosure relates to a mobile device having one or more processors and circuitry. The circuitry may execute a first logic, a second logic and a third logic. The first logic may be configured to receive instructions to connect the mobile device to a wireless equipment in a conference room. The second logic may be configured to obtain conference room information. The third logic may be configured to transmit a request to pair with a wireless equipment in the conference room. The third logic may be further configured to: receive information in a first communication mode that a code challenge will be issued, receive a code challenge in the second communication mode and pair the mobile device with the wireless equipment.

Room sensor applications and techniques

Particular embodiments described herein provide for device that includes a first housing, a second housing, and a hinge, configured as an antenna, to rotatably couple the first housing and the second housing.

Radiative hinge

A touch panel for a display may include a touch sensor with a plurality of electrode traces. A first portion of the plurality of electrode traces may form sensing lines configured to receive touch input. The touch sensor includes an edge dummy area between an edge of the touch sensor and an electrode trace of a remaining portion of the plurality of electrode traces. The edge dummy area may be located outside of the sensing lines. The touch panel may further include an antenna with a radiation structure and a ground structure. The radiation structure may be located within a routing traces area outside of the touch sensor. The ground structure may be located within the edge dummy area. The ground structure may include an electrode trace of the plurality of electrode traces located within the edge dummy area of the touch sensor.

Hybrid display integratable antennas using touch sensor trace and edge discontinuity structures

The disclosure relates generally to method, system and apparatus to optimize wireless charging to identify a proximal Near-Field Communication (NFC) tag and prevent damage by a magnetic wireless charging field. The disclosed embodiment provide different methods for NFC tag detection without impacting A4WP wireless charging. In an exemplary method, dedicated NFC reader is used to interleave the NFC and A4WP signals on the same coil. In one implementation the signals are frequency-multiplexed. In another implementation, the signals are time-multiplexed.

Method, system and apparatus to optimize A4WP wireless charging and NFC co-existence

Techniques for integrating a plurality of radio antennas in an electronic device are described. An example of an electronic device includes a display housing with a display screen and top bezel disposed above the display screen, and a plurality of components disposed in the top bezel. The plurality of components include a first cellular communication antenna disposed on a first side of the top bezel, and a second cellular communication antenna disposed on a second side of the top bezel opposite the first side. The plurality of components also include a first WiFi antenna disposed adjacent to the second cellular communication antenna, and a second WiFi antenna disposed adjacent to the second cellular communication antenna on an opposite side from the first WiFi antenna.

Radio antenna integration in a mobile computing device

Growing community of inventors

San Diego, CA, United States of America

Ulun Karacaoglu