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David Fozdar Phones & Addresses

  • Yukon, OK
  • Edmond, OK
  • 1109 Pleasant Valley Rd, Austin, TX 78741 (512) 389-0228
  • Norman, OK

Work

Company: Midwest medical isotopes llc Sep 2011 Position: Cyclotron physicist

Education

School / High School: The University of Texas at Austin- Austin, TX 2005 Specialities: Ph.D. in Mechanical Engineering

Skills

Project Management Have iplanned multi-... • resource allocation • and progress montoring. I am greatly sk... • mass transport • thermodynamics • heat transfer • and solid mechanics. Nanoscale ... • polymer spin-casting • wet chemical processing (etching) • dry plasma etching and deposition • chemical vapor deposition • sputter etching and deposition • thermal and electron beam evaporation. ... • atomic force microscopy (AFM) • ellipsometry • contact angle analysis • etc. Have some experience in transmissi... • e.g. • used promoters to improve organic polyme... • SolidWorks 3D • Comsol Multiphysics Finite Element Model... • Matlab • Mathcad; Web & Desktop Productivity:... • Microsoft Office 2010 • Wordpress • HTML programming.

Resumes

Resumes

David Fozdar Photo 1

Design Engineer Ii - Strategic Sourcing Implementation

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Location:
Edmond, OK
Work:
Terex Corporation
Design Engineer Ii - Strategic Sourcing Implementation
Education:
The University of Texas at Austin 2003 - 2009
Doctorates, Doctor of Philosophy
The University of Texas at Austin 2007 - 2008
Doctorates, Doctor of Philosophy
David Fozdar Photo 2

David Fozdar Edmond, OK

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Work:
Midwest Medical Isotopes LLC

Sep 2011 to 2000
Cyclotron Physicist

Institute for Fusion Studies, Physics Department, The University of Texas at Austin
Austin, TX
2010 to 2011
Postdoctoral Research Fellow

Mechanical Engineering Department, The University of Texas at Austin
Austin, TX
2009 to 2010
Postdoctoral Research Associate

Mechanical Engineering Department, The University of Texas at Austin
Austin, TX
Aug 2003 to Aug 2009
Research & Teaching Assistant

Education:
The University of Texas at Austin
Austin, TX
2005 to 2009
Ph.D. in Mechanical Engineering

The University of Texas at Austin
Austin, TX
2003 to 2005
M.S. in Mechanical Engineering

University of Oklahoma
Norman, OK
1999 to 2003
B.S. in Mechanical Engineering

Skills:
Project Management Have iplanned multi-year research and development projects involving opportunity assessment, resource allocation, and progress montoring. I am greatly skilled at putting people together and relegating tasks to efficiently accomplish a major project. Experimental Planning and Design Have 9 years laboratory experience planning and designing experiments. Engineering Principles Am an expert in the theory of fluid mechanics, mass transport, thermodynamics, heat transfer, and solid mechanics. Nanoscale Process Engineering Have 8 years experience in micro and nanofabrication (semiconductor) process engineering. Experienced in nanolithography, polymer spin-casting, wet chemical processing (etching), dry plasma etching and deposition, chemical vapor deposition, sputter etching and deposition, thermal and electron beam evaporation. I have much experience evaporating TiO2 on substrates like quartz and silicon. Nanoscale Metrology Have 8 years experience in scanning electron microscopy (SEM), atomic force microscopy (AFM), ellipsometry, contact angle analysis, etc. Have some experience in transmission electron microscopy (TEM) and X-ray photoelectron spectroscopy (XPS). Surface Processing Have experience chemically treating substrates to change their adhesion properties, e.g., used promoters to improve organic polymer adhesion silanes to significantly reduce surface wetting. Writing and Communication Have published over ten refereed journal papers and have presented at several international conferences. Computer Proficiencies Design & Simulation: AutoCAD, SolidWorks 3D, Comsol Multiphysics Finite Element Modeling, Matlab, Mathcad; Web & Desktop Productivity: Adobe Creative Suite 5.5, Microsoft Office 2010, Wordpress, HTML programming.

Publications

Us Patents

Micro-Structured Biomaterials And Fabrication Methods Therefor

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US Patent:
20130344601, Dec 26, 2013
Filed:
Nov 22, 2011
Appl. No.:
13/989024
Inventors:
Pranav Soman - San Diego CA, US
Shaochen Chen - San Diego CA, US
David Fozdar - Edmond OK, US
Assignee:
The Regents of the University of California - Oakland CA
International Classification:
C12N 5/00
B29C 67/00
US Classification:
435396, 264401
Abstract:
Techniques, systems, apparatus and material are disclosed for fabricating a micro-structured biomaterial. In one aspect, a micro-structured biomaterial includes a three-dimensional solid-phase micro-cellular biomaterial that exhibits a negative Poisson ratio that is tunable in magnitude.

Optofluidic Microdevice For In-Vitro Laser Surgery And Transfection Involving Cells And Microorganisms

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US Patent:
20140329325, Nov 6, 2014
Filed:
Apr 18, 2014
Appl. No.:
14/256853
Inventors:
David Fozdar - Edmond OK, US
International Classification:
C12N 13/00
C12N 15/89
US Classification:
435440, 4352851, 4353171, 4351735, 422502
Abstract:
A device for use in laser optical transfection of biological targets including an optofluidic microdevice and a piece of optical glass. The optofluidic microdevice has a central vertical outlet and a microchannel network that includes a plurality of entrapping channels with narrowings. The microchannel network is fused with the optical glass. In one aspect the device is used with a petri dish having an optical window. In another aspect the device is used with a well plate having a plurality of wells and associated optical windows. In a third aspect the device is used with a barrier. Each of the aspects forms a peripheral space around the optofluidic microdevice capable of retaining a live culture of biological targets and material that is desired to be injected into those biological targets. Polymer tubing is inserted into the central vertical outlet which connects the device to an external pump. The external pump provides an inward suction force which draws the biological targets from the peripheral space into the microchannel network. The biological targets are then captured at the openings or within the narrowings in the entrapping channels of the microchannel network where they can be transfected by laser light emitting from a laser through the optical glass.
David Y Fozdar from Yukon, OK, age ~43 Get Report