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CURRICULUM VITAE - UCLA Engineering

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<strong>CURRICULUM</strong> <strong>VITAE</strong><br />

MICHAEL JUSTIN KAHN<br />

HOME<br />

3740 Bagley Avenue #6<br />

Los Angeles, CA 90034<br />

(310) 409-9820<br />

Email: michael.kahn@gmail.com<br />

WORK<br />

University of California, Los Angeles<br />

6817A Boelter Hall, 420 Westwood Plz.<br />

Los Angeles, CA 90095<br />

(310) 409-9820<br />

EDUCATION<br />

University of California, Los Angeles, PhD, Chemical <strong>Engineering</strong>, expected June 2010<br />

GPA: 3.8<br />

University of California, Los Angeles, BS, Chemical <strong>Engineering</strong> with<br />

Semiconductor Manufacturing Option, June 2005<br />

GPA: 3.4<br />

AWARDS AND DISTINCTIONS<br />

<strong>UCLA</strong> Graduate Division, Dissertation Year Fellow, academic year 2009 – 2010.<br />

American Institute of Chemical Engineers (AIChE)<br />

Chemical and Reaction <strong>Engineering</strong> Division Travel Award, Awardee, 2009.<br />

Atlantic Richfield Company (ARCO), Fellow, 2009.<br />

NSF Integrative Graduate Education and Research Traineeship (NSF-IGERT)<br />

<strong>UCLA</strong> Materials Creation Training Program (MCTP), Fellow.<br />

Two awards – Academic years 2006 – 2007, and 2007 – 2008.<br />

RESEARCH INTERNSHIP<br />

Independent Researcher Representing the MCTP and <strong>UCLA</strong><br />

Jet Propulsion Laboratory, Pasadena, CA<br />

June 2007 – September 2007<br />

Topic: Utilization of nano-silicon as an anode for lithium-ion secondary batteries<br />

Mentor: William West, PhD<br />

Completed a summer research project from concept to working device. Performed comprehensive<br />

literature search; synthesized doped silicon nanoparticles by ball milling; prepared suspensions of silicon<br />

nanoparticles, conductive additives, and polymer binding agents; spray coated suspensions onto copper<br />

foil to create anodes for lithium / silicon half-cell reactions; assembled coin-cell-type half cells for testing;<br />

tested cells for lithium intercalation capacity and cycle life using an Arbin system under constant current<br />

mode.<br />

Page 1 of 5


INDUSTRY-RELATED CONSULTING<br />

Research Consultant for CCI Thermal Technologies, Inc., Edmonton, Alberta, Canada<br />

University of California, Los Angeles<br />

March 2008 – September 2009<br />

Topic: Improvement of Pt/Al 2 O 3 catalyst from 85% efficiency towards 100% efficiency<br />

PI: Jarek Szynkarczuk, PhD; Selim M. Senkan, PhD<br />

Utilized high-throughput and combinatorial catalyst testing and transmission electron microscopy (TEM)<br />

to discover logical routes for improvement. Employed catalyst preparation improvements by two routes:<br />

traditional, impregnation based multi-metallic catalysts; and novel, gel combustion synthesis (GCS)<br />

catalysts. The catalyst efficiency was significantly improved while reducing the required amount of<br />

platinum by about a factor of 5. Research was performed in our laboratory at <strong>UCLA</strong>.<br />

ACADEMIC RESEARCH EXPERIENCE<br />

Graduate Student Researcher<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

September 2007 – Present<br />

Topic: Employ modified hopcalite catalysts prepared via gel combustion synthesis (GCS) for improving<br />

the direct synthesis of propylene oxide<br />

PI: Selim M. Senkan, PhD<br />

Invented a novel, small scale, and parallelized gel combustion synthesis (GCS) technique to produce<br />

various oxide catalysts for catalytic applications. Having found novel leads for the partial oxidation of<br />

propylene reaction, new catalyst synthesis routes are being explored to further improve propylene oxide<br />

production. Hopcalite, which is traditionally a total oxidation catalyst, is being modified using GCS as a<br />

versatile technique to maximize its partial oxidation efficacy.<br />

Graduate Student Researcher<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

June 2005 – June 2007<br />

Topic: Preparation, characterization, and reaction screening of catalytic nanoparticles created by pulsed<br />

laser ablation<br />

PI: Selim M. Senkan, PhD<br />

This topic involved the use of Pulsed Laser Ablation (PLA) as a method of preparing new nanomaterials,<br />

characterizing them, and using them for catalytic applications. This technique was employed to rapidly<br />

yet thoroughly screen the periodic table to search for new catalyst leads for the partial oxidation reactions<br />

of propylene. Characterization of catalysts was carried out by way of transmission electron microscopy<br />

(TEM), scanning electron microscopy (SEM), and gas chromatography (GC). Several promising leads<br />

were found and have been applied to more recent research.<br />

Page 2 of 5


Undergraduate Research Assistant<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

June 2004 – June 2005<br />

Topic: Characterization of single- and multi-metallic nanoparticles created by PLA, and reaction<br />

screening of rhodium nanoparticles for the partial oxidation products of propylene<br />

PI:<br />

Selim M. Senkan, PhD<br />

Mentors: Tom Miyazaki, PhD; Shici Duan, PhD<br />

This topic was a speculative initiative that, through extensive transmission electron microscope (TEM)<br />

work, yielded the basis for my current research topic. The versatility of PLA to produce uniform,<br />

crystalline, single- and multi-metallic nanoparticles was demonstrated by using high resolution TEM<br />

(HR-TEM) equipped with energy dispersive x-ray spectroscopy (EDX). Preliminary reaction screening<br />

results proved that nanoparticles created by pulsed laser ablation are a viable material for use in the field<br />

of combinatorial catalysis.<br />

MENTORING / SUPERVISION EXPERIENCE<br />

Mentor to Undergraduate Research Assistant<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

June 2006 – August 2006 (Summer)<br />

Closely supervised an undergraduate student named Matthew Kiesz from Caltech’s SURF (Summer<br />

Undergraduate Research Fellowships) program. Taught the basics of lasers, electron microscopy, laser<br />

ablation, presentation skills, and lab skills. Matt was subsequently admitted to the PhD program in<br />

<strong>UCLA</strong>'s chemistry department.<br />

ADDITIONAL LABORATORY EXPERIENCE - (CLASS 100 CLEANROOM)<br />

Student – Undergraduate Semiconductor Fabrication Laboratory<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

March 2005 – June 2005 (Spring)<br />

Built a variety of semiconducting devices on a 4 inch p-type {100} silicon wafer. The devices were<br />

fabricated using typical 1 μm semiconductor fabrication processes: photolithography using positive<br />

photoresist, wet and dry oxide growth, low-pressure chemical vapor deposition (LPCVD), wet chemical<br />

etching, dry reactive ion etching (RIE), self-aligned ion implantation, and physical vapor deposition<br />

(PVD). Devices built and tested: nMOSFETs, bipolar junction transistors (BJT), p-n diodes, MOS<br />

capacitors, resistors, inverters, and solar cells.<br />

Page 3 of 5


LEADERSHIP POSITIONS<br />

Internal Vice President – <strong>Engineering</strong> Graduate Student Association<br />

Henry Samueli School of <strong>Engineering</strong> and Applied Science at <strong>UCLA</strong><br />

September 2007 – June 2009<br />

Organized multiple student-run events with over 600 attendees. Attended and provided feedback at<br />

Faculty Executive Committee meetings. Represented over 1200 graduate students in various capacities.<br />

Worked with over a dozen student executive board members. Attended private meetings with the Dean of<br />

the engineering school. Helped to obtain corporate sponsorships for EGSA and job opportunities for<br />

students. Managed a budget. Facilitated socializing and networking between engineering graduate<br />

students and business school (<strong>UCLA</strong> Anderson) students.<br />

EXPERIENCE WITH SPECIFIC HARDWARE<br />

Well experienced:<br />

JEOL and Philips transmission/scanning electron microscopes (TEM/SEM) + gold sputtering<br />

PANalytical Powder X-Ray Diffractometer (PXRD)<br />

Gas chromatograph (GC) and quadrupole mass spectrometer (QMS)<br />

Thermocouple/temperature controller systems, tube/box furnaces<br />

MKS mass flow controllers<br />

Rotary and turbopump (high vacuum) systems<br />

Swagelok hardware<br />

Capillary & miniature-scale tube fitting systems<br />

Lambda Physik Class IV excimer laser<br />

Proficient:<br />

UV-Vis-IR spectrometers<br />

Cyclic voltammeters<br />

Cryogenic liquids<br />

Spin coaters<br />

Thermogravimetric analysis (TGA) and differential scanning calorimetry (DSC)<br />

Dynamic light scattering (DLS)<br />

Glove boxes, wet chem, hydrofluoric acid environments<br />

Optical microscopy<br />

Information Technology Experience:<br />

Windows-based workstation and server systems<br />

Network hardware including routers, switches, and wireless solutions<br />

Network attached storage (NAS), RAID systems, file and print servers, backup solutions<br />

Virtualization technology<br />

Safety:<br />

<br />

<br />

Trained in laser, pressure vessel, hazardous waste, PPE, and cryogenic liquids safety<br />

ZERO safety incidents or injuries in entire research career<br />

Page 4 of 5


PRESENTATIONS AND POSTERS<br />

Kahn, M., Seubsai, A., Senkan, S. (November 2009). Rational synthesis, characterization, and reaction<br />

screening of alkali-modified hopcalite: employing a total oxidation catalyst for a partial oxidation<br />

process. Oral presentation was given at the 2009 AIChE Annual Meeting in Nashville, TN.<br />

Kahn, M., Senkan, S. (November 2008). Modified hopcalite catalysts prepared via gel combustion<br />

synthesis for improving the direct synthesis of propylene oxide. Poster was presented at the 2008 <strong>UCLA</strong><br />

Materials Creation Training Program Symposium at the California NanoSystems Institute (CNSI) in Los<br />

Angeles, CA.<br />

Kahn, M., West, W. (November 2007). Nano-silicon as an anode for lithium-ion secondary batteries.<br />

Poster was presented at the 2007 <strong>UCLA</strong> Materials Creation Training Program Symposium at CNSI in<br />

Los Angeles, CA.<br />

Kahn, M., Senkan, S. (November 2007). High-throughput and combinatorial nanoparticle catalysis for<br />

the direct synthesis of propylene oxide. Oral presentation was given at the 2007 <strong>UCLA</strong> Materials<br />

Creation Training Program Symposium at CNSI in Los Angeles, CA.<br />

Kahn, M., Senkan, S., Duan, S. (May 2006, November 2006). High-throughput preparation and<br />

reaction screening of catalytic nanoparticles. Poster was presented at the 2006 <strong>UCLA</strong> <strong>Engineering</strong><br />

Research Review, and at the 2006 <strong>UCLA</strong> Materials Creation Training Program Symposium in Los<br />

Angeles, CA.<br />

Senkan, S., Kahn, M., Krantz, K., (November 2006). Nanostructured catalytic materials for NOx<br />

reduction using combinatorial methods. Oral presentation was given at the 2006 US EPA STAR<br />

Nanotechnology Environmental Applications and GRO Progress Review Workshop in Arlington, VA.<br />

Kahn, M., Senkan, S., (November 2006). High-throughput metal nanoparticle catalysis by pulsed laser<br />

ablation. Oral presentation was given at the 2006 AIChE Annual Meeting in San Francisco, CA.<br />

PUBLICATIONS<br />

Kahn, M., Senkan, S. (2009).<br />

Modified hopcalite prepared by gel combustion synthesis as novel partial oxidation catalysts. In<br />

Preparation.<br />

Kahn, M., Seubsai, A., Senkan, S. (2008).<br />

Combinatorial/High-Throughput Heterogeneous Catalysis: Direct Epoxidation of Propylene. Accepted to<br />

Combi. Chem. & High Through. Screen., Feb 2009.<br />

Duan, S., Kahn, M., Senkan, S. (2007).<br />

High-throughput nanoparticle catalysis: Partial oxidation of propylene. Combi. Chem. & High Through.<br />

Screen., 10 (2), 111 – 119.<br />

Senkan, S., Kahn, M., Duan, S., Ly, A., Liedholm, C. (2006).<br />

High-Throughput Metal Nanoparticle Catalysis by Pulsed Laser Ablation. Catalysis Today, 117, 291 –<br />

296.<br />

Page 5 of 5

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