Yan L Li

8514820, Aug 20, 2013

Feb 14, 2011

13/026820

Lujing Cai - Morganville NJ, US
Benoit Pelletier - Quebec, CA
Hong O. Zhang - Manalapan NJ, US
Fengjun Xi - Huntington Station NY, US
Yan Li - Coopersburg PA, US
Yingxue K. Li - Exton PA, US
Christopher R. Cave - Quebec, CA

InterDigital Patent Holdings, Inc. - Wilmington DE

H04J 3/00
H04W 4/00

370336, 370328

Feedback information for multiple serving cells are transmitted on high speed dedicated physical control channel (HS-DPCCH). A slot format for transmitting feedback information is determined based on the number of configured secondary serving cells and whether multiple input multiple-output (MIMO) is configured in the serving cells. Spreading factor is reduced to 128 when two secondary serving cells are configured and MIMO is configured in at least one of the two configured secondary serving cells, or when three secondary serving cells are configured. The serving cells are grouped into feedback groups, each feedback group having one or more serving cells. Channel coding may be applied to feedback information for the feedback groups. The resulting encoded feedback information for the feedback groups is concatenated to form composite feedback information.

20120275403, Nov 1, 2012

Apr 28, 2012

13/459133

Hong O. Zhang - Manalapan NJ, US
Benoit Pelletier - Roxboro, CA
Yan Li - Morganville NJ, US
Joseph S. Levy - Merrick NY, US
Chao-Cheng Tu - Montreal, CA
Lujing Cai - Morganville NJ, US
Damian C. Hamme - Horsham PA, US

INTERDIGITAL PATENT HOLDINGS, INC. - Wilmington DE

H04W 52/52
H04W 72/02

370329

Systems, methods, and instrumentalities are disclosed herein to determine a gain factor. A user equipment (UE) may determine that an S-E-DPCCH and an E-DPCCH are to be transmitted on a primary stream. The UE may calculate an E-DPCCH gain factor using a gain factor calculation and apply the -DPCCH gain factor. The UE may calculate an E-DPCCH gain factor reduction. For example, the E-DPCCH gain factor reduction may compensate for changes from single stream transmission to multiple stream transmission. The UE may apply the E-DPCCH gain factor reduction to the E-DPCCH gain factor. The UE may apply the E-DPCCH gain factor reduction to an S-E-DPCCH gain factor.

20130003788, Jan 3, 2013

Jan 6, 2012

13/345047

Paul Marinier - Brossard, CA
Afshin Haghighat - Ile-Bizard, CA
Guodong Zhang - Syosset NY, US
Diana Pani - Montreal, CA
J. Patrick Tooher - Montreal, CA
Marian Rudolf - Montreal, CA
Ghyslain Pelletier - Laval, CA
Christopher Cave - Dollard-des-Ormeaux, CA
Yan Li - Coopersburg PA, US
Allan Y. Tsai - Boonton NJ, US
Pascal M. Adjakple - Great Neck NY, US

INTERDIGITAL PATENT HOLDINGS, INC. - Wilmington DE

H04B 1/38

375219

Embodiments contemplate methods and systems for determining and communicating channel state information (CSI) for one or more transmission points (or CSI reference signal resources). Embodiments further contemplate determining transmission states may include applying at least one transmission state parameter to channel state information (CSI). Embodiments also contemplate reporting CSI based on the transmission state and/or at least one transmission state parameter applied thereto.

20190104000, Apr 4, 2019

Sep 5, 2018

16/122067

- San Jose CA, US
Yan Li - Morganville NJ, US
Hongwei Kong - Basking Ridge NJ, US
Jie Lai - Belle Mead NJ, US
Kamesh Medapalli - San Jose CA, US

Cypress Semiconductor Corporation - San Jose CA

H04L 25/03
H04L 27/12
H04L 27/10

Calibrating a Gaussian frequency-shift keying modulation index includes generating a training sequence of bits, shaping a pulse from the training sequence according to an initial modulation index, and converting the shaped signal to a transmission signal. The transmission signal is then either looped through a radio frequency core or processed by frequency deviation estimation hardware to determine a frequency deviation. The frequency deviation is converted to a new modulation index, and potentially a ratio between a target modulation index and a measured modulation index as a scaling factor. The process is then iteratively repeated until a threshold frequency deviation is achieved.

20140220027, Aug 7, 2014

Apr 14, 2014

14/252621

- Rahway NJ, US
Rose M. Cubbon - Fanwood NJ, US
Holly A. Hammond - Telford PA, US
Laura Orsatti - Ponezia, IT
Shilpa Pandit - Edison NJ, US
Laurence B. Peterson - Westfield NJ, US
Joseph C. Santoro - Belle Mead NJ, US
Ayesha Sitlani - Metuchen MA, US
Dana D. Wood - Collegeville PA, US
Henryk Mach - Amber PA, US
Heidi Yoder Pixley - Glenside PA, US
Sonia M. Gregory - Charlottesville VA, US
Jeffrey T. Blue - Telford PA, US
Kevin Wang - San Francisco CA, US
Peizhi (Peter) Luo - Lansdale PA, US
Denise K. Nawrocki - Annandale NJ, US
Pingyu Zhong - Blue Bell PA, US
Feng Dong - Lansdale PA, US
Yan Li - San Jose CA, US

Merck Sharp & Dohme Corp. - Rahway NJ

C07K 16/40

4241391, 5303879, 536 2353, 435184, 4353201, 435 696, 43525233, 43525231, 43525235, 435331, 4352542

Antagonists of human proprotein convertase subtilisin-kexin type 9 (“PCSK9”) are disclosed. The disclosed antagonists are effective in the inhibition of PCSK9 function and, accordingly, present desirable antagonists for use in the treatment of conditions associated with PCSK9 activity. The present invention also discloses nucleic acid encoding said antagonists, vectors, host cells, and compositions comprising the antagonists. Methods of making PCSK9-specific antagonists as well as methods of using the antagonists for inhibiting or antagonizing PCSK9 function are also disclosed and form important additional aspects of the present disclosure.