PATRICK H DOYLE
Physician Assistant at Fruit St, Boston, MA
License number
Massachusetts PA5237
Category
Nursing
Type
Physician Assistant
Address
Address
55 Fruit St, Boston, MA 02114
Phone
(617) 724-4100
(617) 726-7415 (Fax)
(617) 726-7415 (Fax)
Personal information
See more information about PATRICK H DOYLE at radaris.comName
Address
Phone
46 Sharps Dr, Plymouth, MA 02360
49 Dunham St, Attleboro, MA 02703
4 Arundel Ave, Wakefield, MA 01880
44 Chandler Dr, Somerset, MA 02726
557 E 4Th St #2, Boston, MA 02127
Professional information
See more information about PATRICK H DOYLE at trustoria.com
Singapore Research Professor Of Chemical Engineering, Mit
Singapore Research Professor Of Chemical Engineering, Mit
Position:
Professor of Chemical Engineering at MIT, Scientific Advisory Board at Achira Labs, Ltd., Co-founder and Board Member at Firefly BioWorks, Inc. at Firefly Bioworks, Inc.
Location:
Boston, Massachusetts
Industry:
Biotechnology
Work:
MIT
since 2000
-
Professor of Chemical Engineering
Achira Labs, Ltd.
- Bangalore, India since 2011
-
Scientific Advisory Board
Firefly Bioworks, Inc.
- Cambridge, MA since Aug 2009
-
Co-founder and Board Member at Firefly BioWorks, Inc.
Institute Curie, Paris
1997 - 2000
-
Postdoctoral Associate
Education:
Stanford University 1992 - 1997
Ph.D., Chemical Engineering University of Pennsylvania 1988 - 1992
BSE, Chemical Engineering
Ph.D., Chemical Engineering University of Pennsylvania 1988 - 1992
BSE, Chemical Engineering
Interests:
Microfluidics, biodetection, diagnostics, complex fluids, rheology, single DNA molecule studies
Honor & Awards:
Singapore Research Professorship, 2013
Soft Matter Lectureship Award, 2012
Joliot Chair, ESPCI, 2009
John Simon Guggenheim Fellowship, 2009
Rothschild-Yvette Mayent-Institute Curie Award, 2009
Van Ness Lectures at RPI, 2008
Lab on a Chip, Royal Society of Chemistry and Corning Inc., Pioneers of Miniaturization Prize, 2008
Henry L. and Grace Doherty Professorship, 2005-2007
University of Notre Dame Thiele Lectureship, 2006
U of DE Colburn Memorial Lecture, 2006
NSF-CAREER Award, 2003
3-M Innovation Fund Award, 2003
Polypops Innovation Award, 2001
Fondation de la Recherche Medical Postdoctoral Grant, 1999-2000
Institut Curie Postdoctoral Fellowship, 1998-1999
Chateaubriand Fellowship, 1997-1998
Stanford University's Lieberman Fellowship, 1996-1997
Awards:
Soft Matter Lectureship Award
Royal Society of Chemistry
Royal Society of Chemistry
Pharmacist At New Milford Hospital
Pharmacist At New Milford Hospital
Position:
pharmacist at New Milford Hospital
Location:
Greater Boston Area
Industry:
Hospital & Health Care
Work:
New Milford Hospital
-
pharmacist
Education:
Massachusetts College of Pharmacy and Health Sciences 1976 - 1981
Patrick Doyle
Patrick Doyle
Location:
Greater Boston Area
Industry:
Real Estate
Awards:
Platinum Sales Award 2008
Coldwell Banker
Silver Sales Award 2007
Coldwell Banker
Silver Sales Award 2007
Multiplexed Quantitative Pcr End Point Analysis Of Nucleic Acid Targets
Multiplexed Quantitative Pcr End Point Analysis Of Nucleic Acid Targets
US Patent:
2012010, May 3, 2012
Filed:
Jan 13, 2012
Appl. No.:
13/350667
Inventors:
Daniel Colin Pregibon - Cambridge MA, US
Patrick Seamus Doyle - Boston MA, US
Patrick Seamus Doyle - Boston MA, US
Assignee:
MASSACHUSETTS INSTITUTE OF TECHNOLOGY - Cambridge MA
International Classification:
C12Q 1/68, C07H 21/04
US Classification:
435 611, 536 243
Abstract:
Certain embodiments of the present invention are directed to one pot multiplexed quantitative PCR methods for end point analysis of a plurality of nucleic acid targets in a complex sample without user intervention, and to various encoded particles on which are immobilized one or more probes that hybridize with the plurality of targets. Certain other embodiments are directed to a new “multiple-color genetic variation detection method” that can detect SNPs and kit using one chamber multiplexed endpoint PCR and differentially labeled allele-specific primers (one recognizing only the wild type allele and one only the mutant allele).
Lock-Release Polymerization
Lock-Release Polymerization
US Patent:
2012013, May 31, 2012
Filed:
Oct 21, 2009
Appl. No.:
13/125306
Inventors:
Ki Wan Bong - Cambridge MA, US
Patrick Seamus Doyle - Boston MA, US
Daniel Colin Pregibon - Cambridge MA, US
Patrick Seamus Doyle - Boston MA, US
Daniel Colin Pregibon - Cambridge MA, US
Assignee:
Massachusetts Institute of Technology - Cambridge MA
International Classification:
C08L 83/04, B01J 19/00, B29B 9/12, G03F 7/20
US Classification:
428402, 430320, 422131, 264 13
Abstract:
Techniques are provided to independently control 3D shape and chemistry of rapidly produced colloids. A pre-polymer mixture including a monomer is made to flow into a channel with insular relief in a wall at a known location of the channel. A stimulus that polymerizes the pre-polymer mixture is directed onto the known location to form a structure locked in place at the known location by the insular relief. A pressure is applied to the channel that is sufficient to deflect the wall having the insular relief sufficiently to release a hydrogel particle comprising the structure.
Multifunctional Encoded Particles For High-Throughput Analysis
Multifunctional Encoded Particles For High-Throughput Analysis
US Patent:
7947487, May 24, 2011
Filed:
Oct 4, 2007
Appl. No.:
11/867217
Inventors:
Patrick S. Doyle - Boston MA, US
Daniel C. Pregibon - Cambridge MA, US
Daniel C. Pregibon - Cambridge MA, US
Assignee:
Massachusetts Institute of Technology - Cambridge MA
International Classification:
C12M 1/00, C07H 21/04
US Classification:
4352831, 422 681, 977704, 977712, 977733, 977795
Abstract:
Method for making multifunctional particles. The method includes flowing a first monomer stream loaded with a fluorescent entity along a microfluidic channel and flowing a second monomer stream loaded with a probe adjacent to the first monomer stream along the microfluidic channel. The monomer streams are polymerized to synthesize particles having a fluorescent, graphically encoded region and a probe-loaded region.
Microstructure Synthesis By Flow Lithography And Polymerization
Microstructure Synthesis By Flow Lithography And Polymerization
US Patent:
7709544, May 4, 2010
Filed:
Oct 25, 2006
Appl. No.:
11/586197
Inventors:
Patrick S. Doyle - Boston MA, US
Daniel C. Pregibon - Cambridge MA, US
Dhananjay Dendukuri - Cambridge MA, US
Daniel C. Pregibon - Cambridge MA, US
Dhananjay Dendukuri - Cambridge MA, US
Assignee:
Massachusetts Institute of Technology - Cambridge MA
International Classification:
C08F 2/46, C08F 2/48, C08F 2/50
US Classification:
522 3, 522 1, 522 2, 522 6, 522 33, 522 71, 264401, 264405, 264463, 264462, 264482, 264494, 523300, 523313, 524 17, 524 21
Abstract:
In a method for synthesizing polymeric microstructures, a monomer stream is flowed, at a selected flow rate, through a fluidic channel. At least one shaped pulse of illumination is projected to the monomer stream, defining in the monomer stream a shape of at least one microstructure corresponding to the illumination pulse shape while polymerizing that microstructure shape in the monomer stream by the illumination pulse.
System And Methods For Stretching Polynucleotides
System And Methods For Stretching Polynucleotides
US Patent:
8148159, Apr 3, 2012
Filed:
Oct 5, 2007
Appl. No.:
11/868174
Inventors:
Greg Randall - Methuen MA, US
Patrick Doyle - Boston MA, US
Patrick Doyle - Boston MA, US
Assignee:
Massachusetts Institute of Technology - Cambridge MA
International Classification:
G01N 33/58, B01J 19/00
US Classification:
436 94, 430322, 422 8205, 422243, 204600
Abstract:
Apparatus and methods are described for achieving uniform stretching of polynucleotides in hybrid electrophoretic-gel, micro-constricting microfluidic channels. Polynucleotides in normally relaxed configurations are driven by an electric field along a microfluidic channel. The polynucleotides thread through a porous gel barrier formed in the channel and extend into a constriction where an electric field gradient exists. The combined action of the gel and field gradient acts to extend the polynucleotide configuration fully for direct linear analysis of the molecule.
Microstructure Synthesis By Flow Lithography And Polymerization
Microstructure Synthesis By Flow Lithography And Polymerization
US Patent:
2010017, Jul 8, 2010
Filed:
Mar 15, 2010
Appl. No.:
12/724099
Inventors:
Patrick S. DOYLE - Boston MA, US
Daniel C. PREGIBON - Cambridge MA, US
Dhananjay DENDUKURI - Begumpet, IN
Daniel C. PREGIBON - Cambridge MA, US
Dhananjay DENDUKURI - Begumpet, IN
Assignee:
MASSACHUSETTS INSTITUTE OF TECHNOLOGY - Cambridge MA
International Classification:
C08F 118/02, C08J 9/00, B32B 3/10, A61K 31/7088, A61K 38/02, A61K 38/43, A61K 39/395, A61K 35/12, H01B 1/00, H01F 1/00, C09K 19/52
US Classification:
4241301, 526319, 521149, 428131, 428134, 514 44 R, 514 2, 424 941, 424520, 252500, 252 6251R, 25229901, 977774, 977742
Abstract:
In a method for synthesizing polymeric microstructures, a monomer stream is flowed, at a selected flow rate, through a fluidic channel. At least one shaped pulse of illumination is projected to the monomer stream, defining in the monomer stream a shape of at least one microstructure corresponding to the illumination pulse shape while polymerizing that microstructure shape in the monomer stream by the illumination pulse. An article of manufacture includes a non-spheroidal polymeric microstructure that has a plurality of distinct material regions.
System For Electrophoretic Stretching Of Biomolecules Using Micro Scale T-Junctions
System For Electrophoretic Stretching Of Biomolecules Using Micro Scale T-Junctions
US Patent:
2010007, Mar 25, 2010
Filed:
Apr 2, 2008
Appl. No.:
12/594766
Inventors:
Patrick Doyle - Boston MA, US
Jing Tang - Cambridge MA, US
Jing Tang - Cambridge MA, US
Assignee:
MASSACHUSETTS INSTITUTE OF TECHNOLOGY - Cambridge MA
International Classification:
B03C 5/02
US Classification:
204643
Abstract:
System for trapping and stretching biomolecules. A microfluidic device includes a symmetric channel forming a T-shaped junction at a narrow center region and three wider portions outside the center region. At least one power supply is provided to generate an electric potential across the T-shaped junction to create a local planar extensional field having a stagnation point in the junction whereby a biomolecule introduced into the microfluidic device is trapped at the stagnation point and stretched by the extensional field.