Kwan Y LeeChampaign, IL

7084664, Aug 1, 2006

Jun 14, 2004

10/867456

Kwan Yee Lee - Hayward CA, US
Martin Langhammer - Salisbury, GB
Ali H. Burney - Fremont CA, US

Alter Corporation - San Jose CA

G06F 7/38
H03K 19/173
H04Q 7/00
H04Q 7/28

326 38, 326 39, 370 581, 370 77, 370314, 370341

Integrated circuits are provided that use on-chip data compression and decompression to minimize consumption of interconnect resources. Parallel-to-serial converter circuitry can use time-division multiplexing techniques to compress data. The compressed data may be conveyed between circuit blocks on the integrated circuit using a reduced number of parallel interconnect conductors. After the compressed data has been conveyed to its destination, a serial-to-parallel converter may use time-division demultiplexing techniques to decompress the data. Interconnect resources may be shared by dedicated circuits. With this arrangement, signals can be selectively steered through the appropriate dedicated circuitry to either maximize performance or to use compression and decompression to minimize interconnect resource consumption.

6222889, Apr 24, 2001

Feb 4, 1998

9/020590

Kwan Yee Lee - San Francisco CA

Analog Devices, Inc. - Norwood MA

H04L 2302

375265

A trellis decoding system is provided having a memory for storing a sequence of received signals. The signals have been encoded prior to transmission by a trellis encoder such that each of a predetermined plurality of symbols represents an allowed transition from an originating state to a predetermined limited number of terminating states. The system includes a trellis decoder for decoding the sequence of received signals into a corresponding sequence of the symbols. A soft decision generator is provided. The soft decision generator is responsive to the signals stored in the memory and to the output of the trellis decoder and determines a soft decision parameter representative of confidence level of the trellis decoder in properly decoding the received signal into each one of the symbols. The determined soft decision parameter is tagged to each one of such symbols subsequent to the trellis decoder decoding the sequence of received signals into the corresponding sequence of symbols.

2019034, Nov 14, 2019

Feb 13, 2019

16/274851

- Santa Clara CA, US
Adesoji J. Sajuyigbe - Mountain View CA, US
Kwan Ho Lee - Mountain View CA, US
Bryce D. Horine - Portland OR, US
Harry G. Skinner - Beaverton OR, US
Anand S. Konanur - San Jose CA, US
Ulun Karacaoglu - San Diego CA, US

G06F 3/044
H01Q 5/371
H01Q 1/44
H01Q 1/24
H01Q 19/30
H01Q 9/42
H01Q 1/48
H01Q 1/38

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.

2019000, Jan 3, 2019

Jun 30, 2017

15/640413

- Santa Clara CA, US
Kwan Ho Lee - Mountain View CA, US
Ulun Karacaoglu - San Diego CA, US
Manish A. Hiranandani - Santa Clara CA, US
Songnan Yang - San Jose CA, US

Intel Corporation - Santa Clara CA

H01Q 1/22
G06F 1/16

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.

2018027, Sep 27, 2018

Mar 21, 2017

15/465261

- Santa Clara CA, US
Adesoji J. Sajuyigbe - Mountain View CA, US
Kwan Ho Lee - Mountain View CA, US
Bryce D. Horine - Portland OR, US
Harry G. Skinner - Beaverton OR, US
Anand S. Konanur - San Jose CA, US
Ulun Karacaoglu - San Diego CA, US

G06F 3/044
H01Q 1/48
H01Q 1/24
H01Q 9/04
H01Q 9/28

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.

2017009, Mar 30, 2017

Sep 24, 2015

14/863742

- Santa Clara CA, US
Soji Sajuyigbe - Pittsburg CA, US
Bryce D. Horine - Portland OR, US
Tae Young Yang - Hillsboro OR, US
Kwan Ho Lee - Mountain View CA, US
Harry G. Skinner - Beaverton OR, US
Anand S. Konanur - Sunnyvale CA, US

F21V 8/00

A display having an integrated antenna with a substantially uniform transparency and/or light across the display. The display may have a uniformity layer that is an optical balance of the antenna, wherein the uniformity layer and the antenna have respective optical transparencies that provide a substantially uniform transparency across the display. The display may also have a backlight that has a surface brightness intensity corresponding to an optical inverse of the antenna, and is configured to provide a substantially uniform light across the display.

2016009, Mar 31, 2016

Sep 27, 2014

14/499101

Kwan Ho Lee - Mountain View CA, US
Yasuharu Ohmi - Hillsboro OR, US
Ulun Karacaoglu - San Diego CA, US
Pronay Dutta - Beaverton OR, US
Simin Xiong - Hillsboro OR, US

H04W 52/28
H04W 4/02

Technologies for the calibration of a body presence sensor include a mobile computing device configured to calibrate the body presence sensor based on a present physical configuration mode of the mobile computing device. The mobile computing device may be adjustable into multiple physical configuration modes based on the intended use of the mobile computing device. The mobile computing device controls a transmit power level of an associated communication circuit based on whether the body presence sensor detects a body presence within proximity to the mobile computing device.

2015018, Jun 25, 2015

Dec 19, 2013

14/134766

Kwan Ho Lee - Mountain View CA, US
Erik S. Gamez Rodriguez - Salt Lake UT, US
Younguk Chang - Milpitas CA, US
Sean T. Dunford - David FL, US
Akihiro Takagi - San Mateo CA, US
Mindy Chang - Millbrae CA, US
Ulun Karacaoglu - San Diego CA, US
Anand S. Konanur - Sunnyvale CA, US

H04W 12/08
G06F 21/32

The present disclosure relates to computer-implemented systems and methods for establishing communication using a body area network. A system may receive, by a capacitive sensor, a touch interaction from a user. Furthermore, the system may determine, by the capacitive sensor based at least in part on the touch interaction, a change in capacitance. In addition, the system may transmit, via the user's body in response to the change in capacitance, a request to a user device for credential information. The system may also receive, from the user device via the user's body, the credential information.