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Sau Ping Chin

from Old Westbury, NY
Age ~52

Sau Chin Phones & Addresses

  • Old Westbury, NY
  • Ozone Park, NY
  • Jericho, NY
  • Fresh Meadows, NY
  • 23 Monterey Dr, New Hyde Park, NY 11040 (516) 627-1210
  • Manhasset Hills, NY
  • Binghamton, NY
  • Queens, NY

Business Records

Name / Title
Company / Classification
Phones & Addresses
Sau Chin
Owner
New Taste Good Chinese Kitchen Inc
Eating Place · Catering
4 Sanford St, East Orange, NJ 07018
(973) 678-7788

Publications

Us Patents

Systems, Methods, And Devices For In Vivo Delivery Using Remote Actuation Of Implantable Hydrogel Mems Devices

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US Patent:
20130030354, Jan 31, 2013
Filed:
Jul 27, 2012
Appl. No.:
13/560905
Inventors:
Sau Yin CHIN - Bronx NY, US
Samuel K. Sia - New York NY, US
Olga Ordeig - Brooklyn NY, US
Anne-Celine Kohler - Paris, FR
Yuk Kee Cheung - Cambridge MA, US
Assignee:
The Trustees of Columbia University in the City of New York - New York NY
International Classification:
A61M 37/00
A61M 5/168
US Classification:
604 20, 604 22, 604131, 604500
Abstract:
MicroElectroMechanical System (MEMS) devices can be fabricated completely of hydrogel materials. Such hydrogels can include polyethylene glycol with diacrylate functional groups (e.g., PEGDA), which are photopolymerizable in the presence of crosslinkers and photoinitiators. By using PEGDA monomers of different molecular weights and at different percentages, the mechanical properties of the polymerized gels and their respective permeabilities can be tuned. This spatial variation in properties and permeabilities can lead to different functionalities between different portions of the hydrogel MEMS device. Portions of the hydrogel device may be remotely actuated by applying wave energy, for example, a magnetic field, high intensity focused ultrasound, and/or infrared radiation. The remote actuation can allow the device to be actuated in vivo, for example, to allow the device to deliver a drug or other substance at a desired time and/or desired location within a patient.

Systems, Methods, And Devices For In Vivo Delivery Using Remote Actuation Of Implantable Hydrogel Mems Devices

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US Patent:
20140031750, Jan 30, 2014
Filed:
Jul 29, 2013
Appl. No.:
13/953700
Inventors:
SAMUEL K. SIA - New York NY, US
SAU YIN CHIN - Bronx NY, US
ANNE-CELINE KOHLER - Paris, FR
YUK KEE CHEUNG POH - Cambridge MA, US
Assignee:
The Trustees of Columbia University in the City of New York - New York NY
International Classification:
A61M 5/168
US Classification:
604131
Abstract:
MicroElectroMechanical System (MEMS) devices can be fabricated completely of hydrogel materials. Such hydrogels can include polyethylene glycol with diacrylate functional groups (e.g., PEGDA), which are photopolymerizable in the presence of crosslinkers and photoinitiators. By using PEGDA monomers of different molecular weights and at different percentages, the mechanical properties of the polymerized gels and their respective permeabilities can be tuned. This spatial variation in properties and permeabilities can lead to different functionalities between different portions of the hydrogel MEMS device. Portions of the hydrogel device may be remotely actuated by applying wave energy, for example, a magnetic field, high intensity focused ultrasound, and/or infrared radiation. The remote actuation can allow the device to be actuated in vivo, for example, to allow the device to deliver a drug or other substance at a desired time and/or desired location within a patient.

Methods, Devices, And Systems For Chemiluminescence-Based Microfluidic Cell Counting

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US Patent:
20110028341, Feb 3, 2011
Filed:
Aug 20, 2010
Appl. No.:
12/860623
Inventors:
Zuankai WANG - Brooklyn NY, US
Sau Yin Chin - Bronx NY, US
Samuel K. Sia - New York NY, US
Assignee:
The Trustees of Columbia University in the City of New York - New York NY
International Classification:
C40B 30/04
G01N 33/00
C40B 60/12
C12M 1/34
G01N 33/543
G01N 33/53
US Classification:
506 9, 422 73, 506 39, 4352872, 436518, 435 724
Abstract:
A chemiluminescence-based detection system and method for counting blood cells by capturing and isolating target blood cells flowing through a microfluidic chip and detecting light emitted by the captured target blood cells.

Systems, Methods, And Devices For In Vivo Delivery Using Remote Actuation Of Implantable Hydrogel Mems Devices

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US Patent:
20180256816, Sep 13, 2018
Filed:
Jan 16, 2018
Appl. No.:
15/872649
Inventors:
- New York NY, US
Sau Yin CHIN - Bronx NY, US
Anne-Celine KOHLER - Paris, FR
Yuk Kee Cheung POH - Cambridge MA, US
Assignee:
The Trustees of Columbia University in the City of New York - New York NY
International Classification:
A61M 5/168
A61M 5/142
A61K 9/00
B82Y 5/00
Abstract:
MicroElectroMechanical System (MEMS) devices can be fabricated completely of hydrogel materials. Such hydrogels can include polyethylene glycol with diacrylate functional groups (e.g., PEGDA), which are photopolymerizable in the presence of crosslinkers and photoinitiators. By using PEGDA monomers of different molecular weights and at different percentages, the mechanical properties of the polymerized gels and their respective permeabilities can be tuned. This spatial variation in properties and permeabilities can lead to different functionalities between different portions of the hydrogel MEMS device. Portions of the hydrogel device may be remotely actuated by applying wave energy, for example, a magnetic field, high intensity focused ultrasound, and/or infrared radiation. The remote actuation can allow the device to be actuated in vivo, for example, to allow the device to deliver a drug or other substance at a desired time and/or desired location within a patient.
Sau Ping Chin from Old Westbury, NY, age ~52 Get Report