Xiao Lin Wang

6574203, Jun 3, 2003

Jun 25, 2001

09/888913

Neil E. Bernstein - Short Hills NJ
Xiao C. Bernstein - New York NY
Wen-Yi Kuo - Parsippany NJ
Martin H. Meyers - Montclair NJ
Xiao Wang - Morristown NJ
Carl F. Weaver - Hanover NJ

Lucent Technologies Inc. - Murray Hill NJ

H04Q 700

370332, 370335, 370342, 455437, 455443

Inter-frequency handoffs in a CDMA or other wireless communication system are controlled using a noise-limited coverage trigger metric which is able to distinguish between same-frequency cell boundaries and other-frequency cell boundaries in the system. The trigger metric may be generated as a function of an average signal-to-noise measure for pilot signals received at a mobile station of the system and a linear sum of the signal-to-noise measures. The signal-to-noise measures may be generated in the mobile station and included in messages transmitted from the mobile station to one or more base stations of the system. The trigger metric is used to control a handoff from a current frequency to a new frequency in an ongoing call. The trigger metric may alternatively be based on a measure of mobile receive power alone. Other aspects of the invention reduce unnecessary searching for a new frequency and decrease the likelihood of âping-pongingâ from a current frequency to a new frequency by providing additional checks in the handoff process.

20080216767, Sep 11, 2008

Jun 27, 2007

11/823179

Xiao Long Wang - Fort Lee NJ, US

A01K 27/00
A01K 29/00

119795, 16430

A pet leash including a handle, the handle having a grip portion, a capsule portion and an anchor portion. A cavity within the capsule portion is adapted to contain a payload such as a collapsible dog dish or a pet feces collection bag.

62528610, Jun 26, 2001

Mar 26, 1998

9/048626

Neil E. Bernstein - Short Hills NJ
Xiao C. Bernstein - New York NY
Wen-Yi Kuo - Parsippany NJ
Martin H. Meyers - Montclair NJ
Xiao Wang - Morristown NJ
Carl F. Weaver - Hanover NJ

Lucent Technologies, Inc. - Murray Hill NJ

H04Q 700

370331

Inter-frequency handoffs in a CDMA or other wireless communication system are controlled using a noise-limited coverage trigger metric which is able to distinguish between same-frequency cell boundaries and other-frequency cell boundaries in the system. The trigger metric may be generated as a function of an average signal-to-noise measure for pilot signals received at a mobile station of the system and a linear sum of the signal-to-noise measures. The signal-to-noise measures may be generated in the mobile station and included in messages transmitted from the mobile station to one or more base stations of the system. The trigger metric is used to control a handoff from a current frequency to a new frequency in an ongoing call. The trigger metric may alternatively be based on a measure of mobile receive power alone. Other aspects of the invention reduce unnecessary searching for a new frequency and decrease the likelihood of "ping-ponging" from a current frequency to a new frequency by providing additional checks in the handoff process.

20220412914, Dec 29, 2022

Aug 30, 2022

17/823286

- Cincinnati OH, US
Jason C. Heikenfeld - Cincinnati OH, US
Ian Papautsky - Willowbrook IL, US
Linlin Hou - Portland OR, US
Rajesh Naik - Centerville OH, US
Morley O. Stone - Columbus OH, US
John Busbee - Washington Township OH, US
Xiao Wang - Waltham MA, US

G01N 27/327
A61B 5/00
A61B 10/00
A61B 5/145
A61B 5/1477
B01L 3/00
G01N 27/414

Biological chemicals, potentially found in blood are measured by collecting sweat and determining the concentration or meaning of the selected chemical in sweat. The sweat can be collected using a time based, interval collector and analyzed using an external device. It can also be collected on a one time basis, using a flexible, chemical capacitor, or on a continuous basis using a chemical, field effect transducer.

20200266872, Aug 20, 2020

Jan 20, 2020

16/747309

- San Diego CA, US
Jung Ho RYU - Fort Lee NJ, US
Kiran VENUGOPAL - Raritan NJ, US
Yan ZHOU - San Diego CA, US
Xiao Feng WANG - San Diego CA, US
Junyi LI - Chester NJ, US
Tao LUO - San Diego CA, US

H04B 7/06
H04L 5/00
H04W 72/04
H04W 24/10

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may detect a beam failure associated with a component carrier (CC) of a plurality of CCs that are aggregated. The UE may identify, based at least in part on detecting the beam failure, a CC group in which the CC and one or more other CCs, of the plurality of CCs, are included. The UE may transmit, to the BS, a beam failure recovery request (BFRQ) communication associated with the CC group. Numerous other aspects are provided.

20200158680, May 21, 2020

Jan 15, 2020

16/743101

- Cincinnati OH, US
Jason C. Heikenfeld - Cincinnati OH, US
Ian Papautsky - Willowbrook IL, US
Linlin Hou - Portland OR, US
Rajesh Naik - Centerville OH, US
Morley Stone - Spring Valley OH, US
John Busbee - Beavercreek OH, US
Xiao Wang - Cincinnati OH, US

G01N 27/327
G01N 27/414
A61B 5/145
B01L 3/00
A61B 5/1477
A61B 10/00
A61B 5/00

Biological chemicals, potentially found in blood are measured by collecting sweat and determining the concentration or meaning of the selected chemical in sweat. The sweat can be collected using a time based, interval collector and analyzed using an external device. It can also be collected on a one time basis, using a flexible, chemical capacitor or on a continuous basis using a chemical, field effect transducer

20190191998, Jun 27, 2019

Feb 24, 2019

16/283796

- Cincinnati OH, US
Daniel P. Rose - Cincinnati OH, US
Ian Papautsky - Willowbrook IL, US
Wenjing Kang - Malden MA, US
Xiao Wang - Malden MA, US
Michael Ratterman - South Lebanon OH, US

University of Cincinnati, a University of the State of Ohio - Cincinnati OH

A61B 5/00
A61B 5/145
G16H 40/67
A61B 5/053
A61B 5/11
A61B 5/1455
A61B 5/0205
B05D 1/30
B05D 3/00
B32B 37/12
H04Q 9/00
A61B 5/117
A61B 5/1477
G06K 9/00
H04L 29/08
G06N 5/04

The invention addresses confounding difficulties involving continuous sweat analyte measurement. Specifically, the present invention provides: at least one component capable of monitoring whether a sweat sensing device is in sufficient contact with a wearer's skin to allow proper device operation; at least one component capable of monitoring whether the device is operating on a wearer's skin; at least one means of determining whether the device wearer is a target individual within a probability range; at least one component capable of generating and communicating alert messages to the device user(s) related to: wearer safety, wearer physiological condition, compliance with a requirement to wear a device, device operation; compliance with a behavior requirement, or other purposes that may be derived from sweat sensor data; and the ability to utilize aggregated sweat sensor data that may be correlated with information external to the device to enhance the predictive capabilities of the device.

20190191999, Jun 27, 2019

Feb 24, 2019

16/283798

- Cincinnati OH, US
Daniel P. Rose - Cincinnati OH, US
Ian Papautsky - Willowbrook IL, US
Wenjing Kang - Malden MA, US
Xiao Wang - Malden MA, US
Michael Ratterman - South Lebanon OH, US

University of Cincinnati, a University of the Stat e of Ohio - Cincinnati OH

A61B 5/00
A61B 5/145
G16H 40/67
A61B 5/053
A61B 5/11
A61B 5/1455
A61B 5/0205
B05D 1/30
B05D 3/00
B32B 37/12
H04Q 9/00
A61B 5/117
A61B 5/1477
G06K 9/00
H04L 29/08
G06N 5/04

The invention addresses confounding difficulties involving continuous sweat analyte measurement. Specifically, the present invention provides: at least one component capable of monitoring whether a sweat sensing device is in sufficient contact with a wearer's skin to allow proper device operation; at least one component capable of monitoring whether the device is operating on a wearer's skin; at least one means of determining whether the device wearer is a target individual within a probability range; at least one component capable of generating and communicating alert messages to the device user(s) related to: wearer safety, wearer physiological condition, compliance with a requirement to wear a device, device operation; compliance with a behavior requirement, or other purposes that may be derived from sweat sensor data; and the ability to utilize aggregated sweat sensor data that may be correlated with information external to the device to enhance the predictive capabilities of the device.