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FOR INFORMATION ON THE DEPARTMENT OF CHEMICAL AND BIOMOLECULAR ENGINEERING VISIT HTTP://WWW.ENGR.UTK.EDU/<strong>CBE</strong>/<br />

DEPARTMENT OF<br />

CHEMICAL AND<br />

BIOMOLECULAR<br />

ENGINEERING <strong>2009</strong><br />

ANNUAL REPORT<br />

A project <strong>of</strong> the <strong>University</strong><br />

<strong>of</strong> Tennessee <strong>College</strong> <strong>of</strong><br />

<strong>Engineering</strong> Office <strong>of</strong><br />

Communications<br />

WRITER & EDITOR<br />

Kim Cowart<br />

Communications Director<br />

DESIGN &<br />

PRODUCTION<br />

Mitchell Williamson<br />

Graphic Designer<br />

WRITER<br />

L. Ashley Susong<br />

Communications Assistant<br />

CONTRIBUTING<br />

PHOTOGRAPHERS<br />

Nick Myers,<br />

UT Photo Services<br />

Rip Noel,<br />

Rip Noel Studios<br />

L. Ashley Susong<br />

Nature Images from<br />

“Panoramic Landscapes”<br />

Photodisc ® by Getty Images<br />

<strong>The</strong> information in this report<br />

reflects the time period from<br />

July 1, 2008- June 30, <strong>2009</strong><br />

<strong>The</strong> <strong>University</strong> <strong>of</strong> Tennessee is an<br />

EE)/AA/Title VI/Title IX/Section<br />

504/ADA/ADEA institution in<br />

the provision <strong>of</strong> its education<br />

and employment programs and<br />

services. All qualified applicants<br />

will receive equal consideration for<br />

employment without regard to race,<br />

color, national origin, religion, sex,<br />

pregnancy, marital status, sexual<br />

orientation, gender identity, age,<br />

physical or mental disability or<br />

covered veteran status.<br />

CONTENTS<br />

Department Head’s Message<br />

Dr. Bamin Khomami<br />

Research Feature<br />

Dr. Eric Boder<br />

Governor’s Chair<br />

Dr. Thomas Zawodzinski<br />

New Faculty Member<br />

Dr. Paul Dalhaimer<br />

Outstanding Graduate Student<br />

Arash Abedijaberi<br />

Outstanding Undergraduate Student<br />

Mark May<br />

Outstanding Alumnus<br />

Jerry Johnson<br />

Renowned Lecturers<br />

Dr. G. M. Homsy<br />

Dr. Ronald Lawson<br />

Faculty Listing<br />

<strong>CBE</strong> Board <strong>of</strong> Advisors<br />

Honors and Awards<br />

Publications, Contracts,<br />

Grants and Presentations<br />

Donor List<br />

PAN: E01-1320-031-10<br />

DOP: 1/22/10<br />

©2010 <strong>The</strong> <strong>University</strong> <strong>of</strong> Tennessee<br />

Office <strong>of</strong> <strong>Engineering</strong> Communications.<br />

All rights reserved. Cover photo by Dr. Brian J. Edwards<br />

Financial Information<br />

1<br />

2<br />

4<br />

5<br />

6<br />

8<br />

10<br />

11<br />

12<br />

14<br />

15<br />

16<br />

21<br />

22<br />

“ <strong>The</strong> global energy crisis<br />

has made abundantly<br />

clear the need for, new,<br />

sustainable, economic and<br />

environmentally friendly<br />

means <strong>of</strong> energy production.<br />

This translates into<br />

unprecedented opportunities<br />

for chemical engineers, who<br />

are uniquely positioned<br />

among the engineering<br />

disciplines to tackle these<br />

enormous challenges. ”<br />

As I enter my fourth year as Department Head <strong>of</strong><br />

Chemical and Biomolecular <strong>Engineering</strong> at the<br />

<strong>University</strong> <strong>of</strong> Tennessee, it is readily apparent that it<br />

is a very exciting time to be a chemical engineer. <strong>The</strong><br />

global energy crisis has made abundantly clear the need<br />

for new, sustainable, economic and environmentally<br />

friendly means <strong>of</strong> energy production. This translates into<br />

unprecedented opportunities for chemical engineers,<br />

who are uniquely positioned among the engineering<br />

disciplines to tackle these enormous challenges.<br />

Here at the <strong>University</strong> <strong>of</strong> Tennessee, we are keenly<br />

focused on these future challenges, and, as indicated<br />

on the cover, are rapidly expanding our departmental<br />

horizons to face the changing energy environment.<br />

Last year, I reported the department’s efforts at<br />

establishing and leading a new center within the<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville, the Sustainable<br />

Energy Education and Research Center (SEERC).<br />

This center is now fully operational and funded, both<br />

through internal sources and competitive external<br />

grants. It is now providing seed grants to collaborative<br />

research groups to study novel methods <strong>of</strong> energy<br />

production and utilization, which hopefully will lead to<br />

further innovation and research productivity.<br />

Our department has also taken the lead in the<br />

Sustainable Technology through Advanced<br />

Interdisciplinary Research (STAIR) program, which<br />

was funded in 2008 through a grant from the National<br />

Science Foundation. This program is dedicated to<br />

the recruitment and training <strong>of</strong> Ph.D. students in<br />

sustainable energy research activities. During the<br />

current year, the program has shifted into high gear<br />

after last year’s successful start-up phase. At this time,<br />

Department Head’s Message From Dr. Bamin Khomami<br />

12 graduate students are taking advantage <strong>of</strong> this<br />

unique opportunity.<br />

Research within our department is still maintaining the<br />

momentum it achieved during the past two years. Our<br />

active grants total approximately $11M, representing<br />

a 2.5-fold increase from three years ago. Our research<br />

portfolio now includes external grants from essentially<br />

every federal funding agency, including the National<br />

Science Foundation, the Department <strong>of</strong> Energy, the<br />

Department <strong>of</strong> Defense, the American Chemical<br />

Society, the Federal Bureau <strong>of</strong> Investigation and, for the<br />

first time in 2007, the National Institute <strong>of</strong> Health. We<br />

also have industrially and national laboratory sponsored<br />

research projects with Eastman Chemical Co. and Oak<br />

Ridge National Laboratory. Commensurate with this<br />

growth in our research funding, the number <strong>of</strong> Ph.D.<br />

students in our program has doubled in the past three<br />

years to a total <strong>of</strong> 33. Our undergraduate enrollment has<br />

also nearly doubled in the same period.<br />

<strong>The</strong> department was extremely fortunate to attract two<br />

new faculty members during the past year. Dr. Thomas<br />

Zawodzinski joined us in August as one <strong>of</strong> the new<br />

Governor’s Chairs in Electric Energy Storage. Tom will<br />

add to our already considerable strengths in fuel cells.<br />

In addition, he has started a very large research initiative<br />

in energy storage and battery technologies. Dr. Paul<br />

Dalhaimer also joined us as a new assistant pr<strong>of</strong>essor<br />

from the <strong>University</strong> <strong>of</strong> Pennsylvania after a postdoctoral<br />

fellow position at Yale <strong>University</strong>. Paul mainly works in<br />

the area <strong>of</strong> drug delivery with special emphasis on lung<br />

carcinoma, and has outstanding potential to become a<br />

leading innovator in this area. We currently have two<br />

open searches at the assistant pr<strong>of</strong>essor level.<br />

Bamin Khomami<br />

Armour T. Granger and Alvin & Sally Beaman<br />

Distinguished <strong>University</strong> Pr<strong>of</strong>essor and Head <strong>of</strong><br />

Chemical and Biomolecular <strong>Engineering</strong><br />

Although there is still much more to accomplish,<br />

the department has already made significant strides<br />

toward gaining a national reputation in only three<br />

years. Over the next several years, continued effort will<br />

be expended to realize the department’s full potential.<br />

Great success is anticipated with continued innovation<br />

and relentless effort.<br />

1


Research Focus: Dr. Eric Boder<br />

“Our hope is that our research will point the way to new ‘smart’<br />

materials for use in biosensors and to enhanced approaches to<br />

vaccination,” Boder said. “We’ve got a lot <strong>of</strong> work ahead, but<br />

I’m very excited about the possibilities.”<br />

Eric Boder, an associate pr<strong>of</strong>essor<br />

in the Department <strong>of</strong> Chemical and<br />

Biomolecular <strong>Engineering</strong> (<strong>CBE</strong>), is<br />

a faculty member whose research is<br />

uncovering exciting new territory.<br />

Boder has been at UT for two years.<br />

He received his Ph.D. at the <strong>University</strong><br />

<strong>of</strong> Illinois and was awarded a National<br />

Science Foundation (NSF) CAREER<br />

Award in 2003.<br />

Boder’s research areas are molecular<br />

biotechnology and bioengineering,<br />

protein engineering and directed<br />

evolution. <strong>The</strong> primary goal<br />

<strong>of</strong> his work is to change the<br />

properties <strong>of</strong> molecules in order<br />

to create proteins that might be<br />

useful as components in drug<br />

delivery devices or biosensors.<br />

He is collaborating with a former<br />

colleague at the <strong>University</strong><br />

<strong>of</strong> Pennsylvania to study and<br />

engineer a protein that regulates<br />

the capability <strong>of</strong> immune cells to<br />

adhere to blood vessel walls at sites<br />

<strong>of</strong> inflammation, a capability that<br />

would be desirable for delivering<br />

therapeutics.<br />

Boder is also engaging in multidisciplinary<br />

research with several<br />

pr<strong>of</strong>essors at the <strong>University</strong> <strong>of</strong><br />

Tennessee.<br />

“I’m becoming involved in a<br />

sustainable energy project with<br />

a number <strong>of</strong> faculty here at UT,<br />

including Paul Frymier in <strong>CBE</strong>.<br />

We are directing our efforts to<br />

develop an approach for producing<br />

hydrogen from sunlight using<br />

biological materials,” Boder<br />

said. “I will also be working with<br />

Barry Bruce, a pr<strong>of</strong>essor in the<br />

Biochemical, Cellular and Molecular<br />

Biology Department and Hugh<br />

O’Neill, who is a biochemist at Oak<br />

Ridge National Laboratory (ORNL).”<br />

Boder’s primary sources <strong>of</strong> research<br />

funding are the NSF and the<br />

National Institute <strong>of</strong> Health (NIH).<br />

He has also received grants from<br />

the Whitaker Foundation and Merck<br />

Foundation.<br />

“Historically, our research has<br />

been biomedically focused,” Boder<br />

added. “Although we still have a lot<br />

<strong>of</strong> interest in biomedical research,<br />

we’re diversifying thanks to the<br />

environment and colleagues at UT<br />

and ORNL.”<br />

Boder is currently putting together<br />

a research publication that will<br />

outline his results with class II MHC,<br />

a protein fundamentally involved<br />

in regulating immune responses.<br />

<strong>The</strong> primary aim <strong>of</strong> this research is<br />

to develop a tool that will create<br />

a better understanding <strong>of</strong> which<br />

antigens might induce an immune<br />

response and allow fine-tuning <strong>of</strong><br />

those responses.<br />

“Our hope is that our research<br />

will point the way to new ‘smart’<br />

materials for use in biosensors<br />

and to enhanced approaches to<br />

vaccination,” Boder said. “We’ve got<br />

a lot <strong>of</strong> work ahead, but I’m very<br />

excited about the possibilities.”<br />

2 3


<strong>The</strong> Governor’s Chair in Electrical <strong>Engineering</strong> Storage: Thomas Zawodzinski<br />

4<br />

<strong>The</strong> Governor’s Chair program at the <strong>University</strong> <strong>of</strong><br />

Tennessee attracts top scientists to broaden and<br />

enhance the unique research partnership that<br />

exists between the state’s flagship university and<br />

Oak Ridge National Laboratory (ORNL), the nation’s<br />

largest multi-program laboratory. <strong>The</strong> initiative is<br />

funded by the State <strong>of</strong> Tennessee and ORNL.<br />

<strong>The</strong> program is primarily designed to provide an<br />

opportunity for accomplished researchers from<br />

around the world to enhance joint research efforts<br />

that position the partnership as a leader in the<br />

fields <strong>of</strong> biological science, computational science,<br />

advanced materials and neutron science. Over<br />

$20 million in designated funding from the state<br />

and ORNL is being invested to recruit and fund<br />

the positions, including resources to support new<br />

research programs.<br />

In August <strong>2009</strong>, Dr. Thomas Zawodzinski was named<br />

as the Governor’s Chair in Electrical Energy Storage.<br />

Zawodzinski is the third Governor’s Chair in the<br />

engineering college and the fifth for the university.<br />

Zawodzinski received his Ph.D. in chemistry from<br />

State <strong>University</strong> <strong>of</strong> New York in Buffalo, N.Y. His thesis<br />

work, under the supervision <strong>of</strong> Pr<strong>of</strong>essor Robert<br />

Osteryoung, dealt with the physical and chemical<br />

studies <strong>of</strong> ambient temperature ionic liquids.<br />

Zawodzinski is an internationally recognized leader<br />

in the field <strong>of</strong> fuel cells, bridging fundamental and<br />

applied studies to drive innovation in materials and<br />

cell design. He has also carried out prior work on<br />

batteries, most notably on transport in materials for<br />

lithium batteries.<br />

Zawodzinski was previously the F. Alex Nason<br />

Pr<strong>of</strong>essor <strong>of</strong> <strong>Engineering</strong>, the Ohio Eminent Scholar<br />

for Fuel Cells and the director <strong>of</strong> the Case Advanced<br />

Power Institute in the Department <strong>of</strong> Chemical<br />

<strong>Engineering</strong> at Case Western Reserve <strong>University</strong>.<br />

During his tenure at Case, he led a highly successful<br />

multi-university ARO-funded MURI on “Integrated<br />

Computational and Experimental Studies <strong>of</strong> Fuel<br />

Cell Electrocatalysis” that included participation by<br />

researchers at Case, the Massachusetts Institute <strong>of</strong><br />

Technology, the <strong>University</strong> <strong>of</strong> Virginia, the <strong>University</strong><br />

<strong>of</strong> Illinois, Rice <strong>University</strong> and Northeastern<br />

<strong>University</strong>. In 2002, Zawodzinski led efforts to build<br />

the Wright Fuel Cell Group, utilizing a $20 million<br />

capital grant to establish a university-industry<br />

consortium in Ohio.<br />

Zawodzinski will be based in the Chemical and<br />

Biomolecular <strong>Engineering</strong> Department at UT and<br />

in the Physical Chemistry <strong>of</strong> Materials Group at<br />

ORNL. As part <strong>of</strong> this group, Zawodzinski will help<br />

to expand and develop multi-disciplinary programs<br />

in electrical energy storage, fuel cells and other<br />

relevant areas.<br />

Dr. Paul Dalhaimer, who has recently joined<br />

the Department <strong>of</strong> Chemical and Biomolecular<br />

<strong>Engineering</strong> as an assistant pr<strong>of</strong>essor, enjoys the<br />

constant challenges <strong>of</strong> his field.<br />

“I became interested in science in general when I<br />

found out that time isn’t constant,” Dalhaimer said.<br />

“So originally I wanted to study mathematical physics<br />

but I worried that jobs would be scarce in that area.<br />

<strong>The</strong> chemical and biomolecular engineering field<br />

draws from chemistry, physics, mathematics and<br />

now biology. It is a very versatile–and sometimes<br />

overwhelming–discipline. I tried to make a safe bet<br />

and went with an eclectic field.”<br />

Dalhaimer, who received his Ph.D. in chemical<br />

and biomolecular engineering at the <strong>University</strong> <strong>of</strong><br />

Pennsylvania, was recently a postdoctoral Fellow in<br />

molecular, cellular and developmental biology at<br />

Yale <strong>University</strong>.<br />

“During my time at Yale, I worked on a protein<br />

complex called Arp2/3. <strong>The</strong> proteins that give the<br />

‘push’ to the front edge <strong>of</strong> a motile cell (e.g. amoeba)<br />

form a structure that looks like a tree in winter. In<br />

this analogy the trunk/roots point toward the<br />

center <strong>of</strong> the cell and the branches point outward<br />

in the direction the cell is moving,” Dalhamier<br />

explained. “Simply put, if cells didn’t have Arp2/3<br />

complex our ‘tree’ would be a wooden pole: Arp2/3<br />

is responsible for the branching. <strong>The</strong> lab that I was<br />

in used many techniques to study Arp2/3 complex:<br />

fluorescent tagging in yeast, x-ray crystallography<br />

<strong>of</strong> purified complex, molecular dynamics <strong>of</strong> the<br />

subsequent crystal structure and more.”<br />

Dalhamier became interested in becoming a<br />

university pr<strong>of</strong>essor while a freshman at the<br />

<strong>University</strong> <strong>of</strong> Pennsylvania. He is excited about the<br />

opportunities that his new position <strong>of</strong>fers.<br />

“<strong>College</strong> is an unusual thing in that a student learns a<br />

massive amount <strong>of</strong> material in a short period <strong>of</strong> time<br />

but the student doesn’t really apply it then and there<br />

(my first job out <strong>of</strong> college was to figure out how<br />

large the bolts should be on the base <strong>of</strong> a sign so it<br />

doesn’t fall over: no chemical reactions!). Graduate<br />

school is a little more ideal in the sense that one takes<br />

classes while being in a laboratory so the opportunity<br />

for application is there. In short we don’t know what<br />

the future graduates will do–I want them to gain<br />

a general savvy for problem solving that can be<br />

applied to most anything,” Dalhaimer added.<br />

Dalhaimier’s move to the state <strong>of</strong> Tennessee has<br />

<strong>of</strong>fered him a new area <strong>of</strong> research.<br />

“I have been told that Tennessee is the third most<br />

obese state in the country,” Dalhaimer said. “Part <strong>of</strong><br />

the research in my laboratory works on the molecule<br />

mechanisms <strong>of</strong> obesity. Cells have organelles called<br />

lipid droplets that basically store fat. Excess numbers<br />

and size <strong>of</strong> lipid droplets in our cells cause health<br />

problems. We use fission yeast as a model system<br />

to study the formation <strong>of</strong> lipid droplets. We are<br />

interested in the atomistic structure <strong>of</strong> the droplets,<br />

for this we are collaborating with Oak Ridge National<br />

Laboratory (ORNL). We also work on drug delivery<br />

vehicles that are actually not much different in<br />

structure from the lipid droplets but the vehicles<br />

carry drugs instead <strong>of</strong> fat. At the present we are<br />

working on understanding the interactions <strong>of</strong> our<br />

drug carrying vehicles with a lymphoma cell line.<br />

New Faculty Member: Paul Dalhaimer<br />

A long-term goal <strong>of</strong> our laboratory would be to<br />

discover and deliver drugs that reduce the size <strong>of</strong><br />

lipid droplets in human tissue in a healthy way.”<br />

Dalhaimer looks forward to working with the faculty,<br />

staff and students in the <strong>CBE</strong> department.<br />

“My plan is simple: to provide my future students and<br />

post-docs with guidance and funding so that they<br />

can succeed and hopefully be found on the scientific<br />

map,” he said.<br />

5


Outstanding Graduate Student Arash Abedijaberi<br />

6<br />

When he was growing up in Isfahan, Iran, Arash<br />

Abedijaberi had no idea that his academic pursuits<br />

would lead him to the doctoral program in the<br />

Department <strong>of</strong> Chemical and Biomolecular <strong>Engineering</strong><br />

(<strong>CBE</strong>) at the <strong>University</strong> <strong>of</strong> Tennessee, but he has been<br />

here since 2007.<br />

Before he made his journey to the United States,<br />

Abedijaberi attended a different UT: the <strong>University</strong> <strong>of</strong><br />

Tehran. He received his bachelor’s and master’s in the<br />

prestigious Department <strong>of</strong> Biotechnology.<br />

“To be accepted in this program, I had to be among<br />

the top one percent in the national entrance exam for<br />

colleges in Iran,” Abedijaberi said. “My rank became<br />

51 out <strong>of</strong> 1.4 million participants.”<br />

Abedijaberi then moved to St. Louis, Mo.<br />

to study for his Ph.D. from Washington<br />

<strong>University</strong>. It was while at WashU that he<br />

met Dr. Bamin Khomami, who became<br />

his advisor. When Khomami accepted<br />

his position as the Granger and Beaman<br />

Distinguished <strong>University</strong> Pr<strong>of</strong>essor and<br />

Head <strong>of</strong> <strong>CBE</strong>, Abedijaberi reevaluated<br />

his academic plans.<br />

“I am very interested in doing research,<br />

teaching and seeking a faculty position,”<br />

Abedijaberi added. “I decided to work<br />

with only the best people in my field,<br />

and this was the main reason I decided<br />

to transfer to UT and continue working<br />

with Dr. Khomami.”<br />

Abedijaberi completed a second<br />

master’s in environmental, energy and<br />

chemical engineering before following<br />

Khomami to <strong>The</strong> Hill. Abedijaberi’s<br />

interest in chemical and biomolecular<br />

engineering stems from his interest in<br />

and undergraduate study <strong>of</strong> biological<br />

systems. It was under Khomami’s<br />

guidance that Abedijaberi transitioned<br />

from the realm <strong>of</strong> biotechnology and<br />

chemistry into engineering.<br />

“I always enjoyed studying about the<br />

genetics <strong>of</strong> biological organisms,”<br />

Abedijaberi said. “I felt in order to be<br />

able to use these systems for the human<br />

benefit, I needed to be an engineer, and<br />

I decided to change my field.”<br />

“ In my twenty years in academia, I have been very fortunate to work with many gifted graduate<br />

students in my research group. Rarely have I met an individual with as many multiple talents as<br />

Arash. He possesses outstanding analytical thinking ability and great leadership skills on top <strong>of</strong><br />

an impeccable character and a pleasant personality. It has been a joy to watch Arash develop and<br />

mature as a scientist. I am looking forward to watching him go to the next stage <strong>of</strong> his career as<br />

an academician. I foresee a very successful journey. ”<br />

– Dr. Bamin Khomami<br />

Abedijaberi enjoys a challenge, and<br />

making the move into engineering<br />

certainly provided him with one.<br />

“Initially, I received the lowest grade<br />

on the first exam and the highest on<br />

the last exam,” he said. “This is how I<br />

broke through my fear <strong>of</strong> chemical<br />

engineering as a biologist.”<br />

Abedijaberi’s research focuses on the<br />

simulation <strong>of</strong> complex flows <strong>of</strong> Non-<br />

Newtonian fluids. Non-Newtonian<br />

fluids exhibit behavior unlike water,<br />

and Abedijaberi wants to predict<br />

their behavior on the industrial level.<br />

He must describe these materials with<br />

nonlinear partial differential equations<br />

by using supercomputers and then<br />

develop numerical algorithms to solve<br />

these equations.<br />

“I use two supercomputers,” Abedijaberi<br />

commented. “One—called Newton—<br />

consists <strong>of</strong> 1200 nodes, and each node<br />

can be thought <strong>of</strong> as an equivalent to a<br />

single PC.<br />

“<strong>The</strong> other computer is called Kraken,<br />

and it is the third fast supercomputer in<br />

the world. It has 64,000 nodes,” he said.<br />

Like many doctorate students,<br />

Abedijaberi looks forward to teaching<br />

as well as conducting research.<br />

“My goal is to use the engineering<br />

insight I have gained in conjunction<br />

with my biological knowledge and<br />

background to do research as well as<br />

teaching,” Abedijaberi said. “I enjoy<br />

teaching very much, so my aim is to<br />

hold an academic job.”<br />

When he’s not in the lab, Abedijaberi<br />

participates in a number <strong>of</strong><br />

extracurricular activities. He is active in<br />

the UT Outdoor Program —<br />

canoeing, rafting, caving, backpacking<br />

and camping. He also is the president<br />

<strong>of</strong> the Persian Club at the university.<br />

Abedijaberi is a member <strong>of</strong> the<br />

American Institute <strong>of</strong> Chemical<br />

Engineers, Society <strong>of</strong> Rheology<br />

and American Physical Society. He<br />

receives the Helen Jubin Fellowship<br />

and the <strong>College</strong> <strong>of</strong> <strong>Engineering</strong> Ph.D.<br />

Fellowship, and he has won the Jim<br />

and Sandra McKinley Outstanding<br />

Graduate Student Award.<br />

7


Outstanding Undergraduate Student Mark May<br />

For some, the decision to study<br />

engineering comes naturally, and<br />

Mark May is one <strong>of</strong> those students. <strong>The</strong><br />

senior in chemical and biomolecular<br />

engineering had a scientific<br />

background in chemistry, and his<br />

aptitude and interest in analytical<br />

modeling led to a strong foundation<br />

in mathematics. Out <strong>of</strong> this was born a<br />

desire to study chemical engineering.<br />

“I am fortunate to have an educationoriented<br />

home life,” May said.<br />

“My parents helped me develop a<br />

dedicated work ethic and appreciation<br />

<strong>of</strong> the value <strong>of</strong> learning.”<br />

May calls his parents “the most<br />

intelligent man and woman” he knows.<br />

His father holds a Ph.D. in biochemistry<br />

8<br />

and would use everyday examples<br />

such as preparing food in terms <strong>of</strong><br />

organic chemistry, which not only<br />

fostered May’s interest in chemistry<br />

but in cooking as well. His four older<br />

siblings also guided his educational<br />

development.<br />

“I attribute half <strong>of</strong> my accomplishments<br />

to good parents and the other half to<br />

supportive siblings,” May said.<br />

May graduated fifth in his class<br />

from Hillsboro High School in<br />

Nashville, Tenn. in 2005. <strong>Engineering</strong><br />

initially appealed to him because<br />

<strong>of</strong> the learning opportunities, job<br />

responsibilities and career potentials.<br />

His decision to attend the <strong>University</strong> <strong>of</strong><br />

Tennessee was three-fold: it’s a large<br />

campus within a short drive from<br />

Nashville where he felt opportunities<br />

existed to excel.<br />

“As a proud soon-to-be-UT-graduate,<br />

it is safe to say these opportunities did<br />

present themselves,” May added.<br />

May completed three terms <strong>of</strong> the<br />

Office <strong>of</strong> Pr<strong>of</strong>essional Practice’s Coop<br />

program with Dow Chemical<br />

Company. He receives several<br />

scholarships, including the John Prados<br />

Scholarship and the Dennis and Connie<br />

Denihan Scholarship for Outstanding<br />

Performance, and is a member <strong>of</strong> Tau<br />

Beta Pi and AIChE.<br />

“Any circumstance where I worked<br />

and studied with peers makes up a<br />

favorable engineering memory,” May<br />

said. “Most <strong>of</strong> the fun was having a<br />

laugh with my fellow students while<br />

putting a presentation together,<br />

and I’m glad we worked through<br />

chemical engineering with supportive<br />

camaraderie.”<br />

His favorite past classes include fluid<br />

mechanics, organic chemistry and<br />

differential equations, and reactor<br />

design and kinetics tops the list this<br />

semester.<br />

“Organic chemistry stands as my<br />

favorite undergraduate course because<br />

I enjoy learning new reactions and<br />

using that knowledge to supplement<br />

other classes,” May said. “A common<br />

theme among my other favorite<br />

courses is solving physical phenomena<br />

“ My goal is to positively impact local and global communities,<br />

whether through making reverse osmosis water filters or researching<br />

biosynthetic approaches for conserving energy ”<br />

and chemical reactions through<br />

appropriate models.”<br />

May’s affinity for solving physical<br />

phenomena will benefit him after<br />

graduation: he aims to work in energy<br />

conservation and clean water supply.<br />

“My goal is to positively impact local<br />

and global communities, whether<br />

through making reverse osmosis water<br />

filters or researching biosynthetic<br />

approaches for conserving energy,” May<br />

said. “<strong>The</strong>se efforts will require staying<br />

true to several values: commitment to<br />

learning, embracing an open mind and<br />

making selfless decisions.”<br />

May has decided that he’ll pursue<br />

graduate school upon his May 2010<br />

graduation.<br />

“Bio-polymers and advanced materials<br />

are the motivation behind graduate<br />

school because bridging chemical<br />

engineering with biological systems<br />

is appealing,” May said. “I plan to take<br />

more biochemistry to facilitate these<br />

efforts.”<br />

Regardless <strong>of</strong> where May ends up, he<br />

plans to spend summer 2010 living in<br />

Hawaii with his older brother.<br />

“I intend to pick up a part-time job, learn<br />

to surf and go on shark diving cage<br />

tours,” May said. “I look forward to any<br />

opportunity to see sharks and seeing<br />

my brother won’t be so bad either.”<br />

9


Outstanding Alumnus Jerry Johnson<br />

Although Jerry L. Johnson has made the unusual<br />

transition from engineering to finance, he still<br />

values the lessons that he learned as a chemical<br />

engineering major at the <strong>University</strong> <strong>of</strong> Tennessee.<br />

Johnson was born in Atmore, Alabama, and lived<br />

in the state until he was in the 9th grade, when<br />

his family moved to Columbia, Mississippi. After<br />

graduating from high school, Johnson decided to<br />

continue his education at UT.<br />

“<strong>The</strong> largest contributing factor to my selecting the<br />

<strong>University</strong> <strong>of</strong> Tennessee for college was the Minority<br />

<strong>Engineering</strong> Scholarship Program (MESP). This<br />

program provided an excellent opportunity to gain<br />

valuable work experience and attain a world-class<br />

engineering education. Additionally, the program<br />

was key to funding my education through a paid<br />

position and an academic scholarship,” Johnson said.<br />

Johnson was exposed to engineering design and<br />

operations at an early age through his brother’s<br />

work in the upstream oil and gas business for<br />

Exxon. Johnson was fascinated by chemical<br />

engineering because it involves operations,<br />

research, business and management. He hoped<br />

to be exposed to a variety <strong>of</strong> disciplines through a<br />

single major.<br />

“<strong>The</strong> university provided<br />

an amazing environment<br />

that fostered learning<br />

and fun,” Johnson added.<br />

“I still maintain a very<br />

close relationship with<br />

several <strong>of</strong> the pr<strong>of</strong>essors<br />

and staff members who<br />

were at UT during the<br />

time I was working on<br />

my degree.”<br />

During his time at UT,<br />

Johnson served as the<br />

president <strong>of</strong> Tau Beta Pi<br />

<strong>Engineering</strong> Honor Society and also volunteered on<br />

weekends at the Ronald McDonald House.<br />

After receiving his bachelor <strong>of</strong> science in chemical<br />

engineering, summa cum laude, in 1994, Johnson<br />

accepted a position with McKinsey and Company<br />

in Atlanta, Georgia. McKinsey serves as an advisor<br />

company to the world’s largest businesses,<br />

governments and institutions. His experience<br />

at McKinsey provided him with an opportunity<br />

to work with Fortune 500 CEOs in a variety <strong>of</strong><br />

“<strong>The</strong> university<br />

provided an amazing<br />

environment that<br />

fostered learning<br />

and fun”<br />

industries on an international scale. It was Johnson’s<br />

first introduction to principal investing, corporate<br />

strategy and foreign policy.<br />

Johnson received his M.B.A. from Harvard Business<br />

School (HBS) in 1998. During his time at Harvard, he<br />

led a year-long project with his fellow students to<br />

devise a strategy for BancBoston Capital to invest<br />

over $100 million in growing domestic markets.<br />

Following HBS, Johnson entered Wall Street to work<br />

with Donald, Lufkin and Jenrette.<br />

In 2004, Johnson was<br />

appointed by President<br />

George W. Bush as a<br />

White House Fellow<br />

to serve as a special<br />

assistant to then-<br />

Secretary <strong>of</strong> Defense<br />

Donald Rumsfeld.<br />

“<strong>The</strong> White House<br />

Fellowship was a<br />

unique opportunity<br />

to participate in<br />

government, working<br />

directly with a cabinet<br />

member,” Johnson<br />

recalled. “Additionally, I had the opportunity to<br />

participate in an education program consisting<br />

<strong>of</strong> roundtable discussions with renowned leaders<br />

from the private and public sector, and trips to<br />

study U.S. policy in action both domestically and<br />

internationally.<br />

Johnson was awarded the Secretary <strong>of</strong> Defense<br />

Medal for Exceptional Public Service for his work on<br />

the Quadrennial Defense Review during his years as<br />

a White House Fellow.<br />

In 2007, Johnson joined RLJ Equity Partners as<br />

vice president. <strong>The</strong> company is a private equity<br />

enterprise founded by billionaire businessman<br />

Robert L. Johnson and the Carlyle Group. RLJ<br />

Private Equity acquires control positions in<br />

companies with enterprise values between<br />

$75 and $300 million. <strong>The</strong> firm invests in a<br />

broad range <strong>of</strong> sectors, including business and<br />

government services, transportation and media.<br />

“<strong>The</strong> key factor that led me to accept the<br />

position at RLJ was the opportunity to be a part<br />

<strong>of</strong> the founding team <strong>of</strong> an asset management<br />

firm. Since I joined the firm, we have raised over<br />

$225 million in capital, established a world-class<br />

investment team, and we are actively deploying<br />

capital,” Johnson said.<br />

Although not directly involved in engineering<br />

on a day-to-day basis, Johnson believes his<br />

degree has given him a unique base for his<br />

current position.<br />

“In my opinion, engineering is a way <strong>of</strong> thinking.<br />

My engineering degree provided a strong<br />

foundation that allows me to think analytically<br />

about any problem,” Johnson commented.<br />

He also enjoys spending time with his family.<br />

His wife, Cara Grayer Johnson, is an attorney<br />

in the International Bureau <strong>of</strong> the Federal<br />

Communication Commission and an accessory<br />

designer specializing in sustainable fashion. <strong>The</strong><br />

couple has an 18-month-old daughter, Cayden-<br />

Rose, and reside in Washington, D.C.<br />

Renowned Lecturers Dr. G. M. Homsy & Dr. Ronald Larson<br />

<strong>The</strong> Department <strong>of</strong> Chemical and Biomolecular <strong>Engineering</strong> hosted two<br />

<strong>College</strong> <strong>of</strong> <strong>Engineering</strong> Distinguished Lectures during the 2008 – <strong>2009</strong> academic year.<br />

Dr. G. M. Homsy<br />

On November 14, 2008. Dr. George M. “Bud”<br />

Homsy, pr<strong>of</strong>essor from the Department <strong>of</strong><br />

Mechanical <strong>Engineering</strong>, <strong>University</strong> <strong>of</strong> California-<br />

Santa Barbara, spoke on “Interfacial Fluid<br />

Mechanics: New Twists on an Old Subject.”<br />

Homsy discussed the effect <strong>of</strong> chemical<br />

reactions on fingering, spontaneous chemically<br />

driven tip-streaming <strong>of</strong> drops, chaotic advection<br />

driven by interfacial electrical stresses and<br />

enhanced heat and mass transport in chaotically<br />

stirred drops. He also covered the fascinating,<br />

counter-intuitive and unexpected phenomena<br />

that continue to be discovered in the study <strong>of</strong><br />

fluid flows driven by the forces associated with<br />

the presence <strong>of</strong> an interface.<br />

Dr. Ronald G. Larson<br />

Dr. Ronald G. Larson presented “Micr<strong>of</strong>luidic<br />

Methods for Manipulating Biopolymers” on<br />

April 7, <strong>2009</strong>. He discussed how he and his<br />

colleagues develop micr<strong>of</strong>luidic methods for<br />

manipulating biopolymers. <strong>The</strong>se include<br />

imaging and breaking down single DNA<br />

strands and proteins using what is known as a<br />

flow field surface.<br />

This is an important concept in the development<br />

<strong>of</strong> micr<strong>of</strong>luidic devices for processing DNA and<br />

also helping to understand how certain proteins<br />

interact with DNA in cellular processes, such<br />

as DNA repair and copying. Using these new<br />

methods, Dr. Larson is exploring ways to unravel<br />

the DNA code through a “manipulation flow,” then<br />

apply the analysis <strong>of</strong> DNA-protein interactions to<br />

help prevent viruses from spreading.<br />

10 11


Department <strong>of</strong> Chemical and Biomedical <strong>Engineering</strong> Faculty<br />

12<br />

Paul Bienkowski<br />

Pr<strong>of</strong>essor<br />

Ph.D., Purdue <strong>University</strong><br />

Research areas:<br />

<strong>The</strong>rmodynamics; environmental<br />

biotechnology<br />

Paul Dalhaimer<br />

Assistant Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Pennsylvania<br />

Research areas:<br />

Physical characterization <strong>of</strong> wormlike<br />

micelles and their application as<br />

drug delivery vehicles; Monte-Carlo<br />

simulations <strong>of</strong> erythrocyte and other<br />

hair cell cytoskeletons<br />

Eric Boder<br />

Career Development<br />

Associate Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Illinois-Urbana<br />

Research areas:<br />

Molecular biotechnology and<br />

bioengineering; protein engineering<br />

Brian Edwards<br />

Pr<strong>of</strong>essor and<br />

Associate Head<br />

Ph.D., <strong>University</strong> <strong>of</strong> Delaware<br />

Research areas:<br />

<strong>The</strong>rmodynamics; fluid mechanics;<br />

molecular modeling<br />

Robert Counce<br />

Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Tennessee<br />

Research areas:<br />

Green engineering; process design;<br />

separations<br />

Paul Frymier<br />

Associate Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Virginia<br />

Research areas:<br />

<strong>Engineering</strong> and optimization<br />

<strong>of</strong> photosynthetic routes to<br />

biohydrogen<br />

Shengting Cui<br />

Research Associate Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Virginia<br />

Research areas:<br />

General molecular modeling <strong>of</strong><br />

materials properties and fluid<br />

phenomena<br />

Ramakrishnan Kalyanaraman<br />

Associate Pr<strong>of</strong>essor<br />

Ph.D., North Carolina State <strong>University</strong><br />

Research areas:<br />

Thin films; phase transformation;<br />

energetic beam processing;<br />

functional nanocomposites<br />

David Keffer<br />

Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Minnesota<br />

Research areas:<br />

Molecular modeling;<br />

confined fluids; separations;<br />

sustainable energy<br />

John Prados<br />

<strong>University</strong> Pr<strong>of</strong>essor Emeritus<br />

Ph.D., <strong>University</strong> <strong>of</strong> Tennessee<br />

Research areas:<br />

<strong>Engineering</strong> education with special<br />

emphasis on active, collaborative<br />

learning and teamwork<br />

Bamin Khomami<br />

Granger and Beamon Distinguished<br />

<strong>University</strong> Pr<strong>of</strong>essor and Head<br />

Ph.D., <strong>University</strong> <strong>of</strong> Illinois-Urbana<br />

Research areas:<br />

Transport properties <strong>of</strong> complex<br />

fluids; sustainable energy; multi-scale<br />

modeling and simulation<br />

Tse-Wei Wang<br />

Associate Pr<strong>of</strong>essor<br />

Ph.D., Massachusetts<br />

Institute <strong>of</strong> Technology<br />

Research areas:<br />

Bioinformatics; organization and search<br />

in large databases; data mining<br />

Charles Moore<br />

Pr<strong>of</strong>essor Emeritus<br />

Ph.D., Louisiana State <strong>University</strong><br />

Research areas:<br />

Areas <strong>of</strong> distillation design;<br />

operation and control<br />

Thomas Zawodzinski<br />

Governor’s Chair and Pr<strong>of</strong>essor<br />

Ph.D., SUNY/Buffalo<br />

Research areas:<br />

Electrolytes and composite electrodes for<br />

fuel cells; fundamentals <strong>of</strong> energy storage<br />

materials and systems; water management<br />

in fuel cells; application <strong>of</strong> NMR to chemical<br />

engineering problems<br />

Stephen Paddison<br />

Associate Pr<strong>of</strong>essor<br />

Ph.D., <strong>University</strong> <strong>of</strong> Calgary<br />

Research areas:<br />

Computational materials science<br />

as applied to fuel cell electrolytes<br />

and electrocatalysts<br />

13


<strong>CBE</strong> Board <strong>of</strong> Advisors<br />

<strong>The</strong> Department <strong>of</strong> Chemical and Biomolecular<br />

<strong>Engineering</strong>’s Board <strong>of</strong> Advisors consists <strong>of</strong> a<br />

distinguished group <strong>of</strong> academics, business<br />

pr<strong>of</strong>essionals and industrial leaders from noted<br />

universities and international corporations.<br />

<strong>The</strong> purpose <strong>of</strong> the board <strong>of</strong> advisors is to ensure<br />

that the department is focused on its mission <strong>of</strong><br />

Current members <strong>of</strong> the <strong>CBE</strong> Board <strong>of</strong> Advisors are:<br />

Dr. Victor H. Agreda is the Director <strong>of</strong> the Chemical<br />

Development Division at Eastman Chemical Company<br />

in Kingsport, Tenn. Agreda is a member <strong>of</strong> Tau Beta<br />

Pi and the American Institute <strong>of</strong> Chemical Engineers<br />

(AIChE) and is the Chair <strong>of</strong> the Eastman Acetyl<br />

Technology Council.<br />

Dr. George Georgiou is the Joan and Keys Curry/<br />

Cullen Trust Endowed Chair and a pr<strong>of</strong>essor in the<br />

Department <strong>of</strong> Chemical <strong>Engineering</strong> at the <strong>University</strong><br />

<strong>of</strong> Texas-Austin. Georgiou is the recipient <strong>of</strong> the<br />

Marvin J. Johnson Award in Microbial and Biochemical<br />

Technology from the American Chemical Society and<br />

also received the Pr<strong>of</strong>essional Progress Award for<br />

Outstanding Progress in Chemical <strong>Engineering</strong> from<br />

the American Institute <strong>of</strong> Chemical Engineers. He also<br />

received the <strong>University</strong> Cooperative Society’s Research<br />

Excellence Award for Best Paper at UT-Austin and the E.<br />

Bergman Award from the US-Israel Science Foundation.<br />

education, research and service to the university and<br />

technical communities. <strong>The</strong> board meets once a year<br />

to examine and evaluate <strong>CBE</strong>’s undergraduate and<br />

graduate curricula and to advise the department head<br />

and faculty with regard to these issues.<br />

<strong>The</strong> board provides insight as to the activities <strong>of</strong><br />

peer departments at other universities and <strong>of</strong>fers<br />

information about the requirements <strong>of</strong> relevant<br />

industries. <strong>The</strong> board also acts as a liaison between<br />

the department and the dean’s <strong>of</strong>fice and university<br />

administration, providing a candid assessment <strong>of</strong> the<br />

department’s strengths and weaknesses, as well as<br />

communicating the department’s directions, goals<br />

and resource requirements.<br />

Mr. James B. Porter Jr. is the former Chief Engineer and<br />

Vice-President <strong>of</strong> <strong>Engineering</strong> Operations at the DuPont<br />

Corporation, headquartered in Wilmington, Del. Porter,<br />

a <strong>University</strong> <strong>of</strong> Tennessee graduate, is a member <strong>of</strong><br />

the Construction Industry Institute, the Engineer and<br />

Construction Contracting Associates and serves on the<br />

Board <strong>of</strong> Directors <strong>of</strong> AIChE. He is currently retired.<br />

Dr. Eric Shaqfeh is Pr<strong>of</strong>essor <strong>of</strong> Chemical and Mechanical<br />

<strong>Engineering</strong> at Stanford <strong>University</strong> in Stanford, Calif. Shaqfeh<br />

is a Fellow <strong>of</strong> the American Physical Society and also<br />

received the American Society <strong>of</strong> <strong>Engineering</strong> Education<br />

(ASEE) Research Award, National Science Foundation<br />

Presidential Young Investigator Award, the American<br />

Physical Society Francois Frenkiel Award and the David and<br />

Lucile Packard Fellow in Science and <strong>Engineering</strong>.<br />

Mr. Bruce Combs is the Global Site Logistics Director,<br />

Base Plastics, for the Dow Chemical Corporation in<br />

Freeport, Texas. Combs, a <strong>University</strong> <strong>of</strong> Tennessee chemical<br />

engineering graduate, is the past president <strong>of</strong> the Society<br />

<strong>of</strong> Pr<strong>of</strong>essional Engineers (SPE), South Texas section.<br />

<strong>CBE</strong> Awards and Recognitions<br />

Faculty & Staff Awards<br />

Outstanding Staff<br />

Member Award:<br />

Amy Brewer<br />

Outstanding Advisor Award:<br />

Brian Edwards<br />

Outstanding Teacher Award:<br />

Brian Edwards<br />

Tom and Ruth Clark<br />

Chemical and Biomolecular<br />

<strong>Engineering</strong> Excellence<br />

Award in Teaching:<br />

Tsewei Wang<br />

Student Awards<br />

Dow Outstanding<br />

Junior Award<br />

Joseph Reynolds<br />

Barrett Thomas<br />

Kenneth M. Elliott<br />

Outstanding Senior Award<br />

Patrick Bowland<br />

Jim and Sandra McKinley<br />

Outstanding Graduate<br />

Student Award<br />

Arash Abedijaberi<br />

14 15<br />

Brian Edwards<br />

Paul Frymier<br />

Tsewei Wang<br />

<strong>College</strong>-wide Awards<br />

& Recognitions<br />

Eastman Outstanding Scholar<br />

Award<br />

Okan Serpersu<br />

External:<br />

ASEE Benjamin Garver<br />

Lamme Award<br />

John Prados<br />

<strong>University</strong>:<br />

Excellence In Advising<br />

Award at Chancellor’s<br />

Honors Banquet<br />

Brian Edwards<br />

Excellence In Teaching<br />

Award at Chancellor’s<br />

Honors Banquet<br />

Paul Frymier<br />

<strong>College</strong> <strong>of</strong> <strong>Engineering</strong>:<br />

COE Research Fellow Award<br />

Brian Edwards<br />

Teaching Fellow Award<br />

Paul Frymier<br />

Outstanding Advisor Award<br />

Brian Edwards<br />

AIChE Awards<br />

AIChE Service Award<br />

Amanda Mathews<br />

AIChE Outstanding<br />

Student Award<br />

Zhao Wang<br />

AIChE Outstanding<br />

Baccalaureate Award<br />

Christina Karni<br />

Most Exceptional<br />

Student Award<br />

Mark May<br />

American Chemical Society<br />

Outstanding Senior Award<br />

Jeffrey Clark<br />

Alpha Chi Sigma Albert<br />

Cooper Award<br />

Michael Spain<br />

Student award winners, from left to right: Michael Spain, Patrick Bowland, Jeffrey Clark, Barrett Thomas, Joseph Reynolds, Mark May, Okan Serpersu, Christina Karni and Amanda Matthews.<br />

Not pictured is Arash Abedijaberi.


Journal Articles and Book Chapters Published<br />

Journal Articles and Book<br />

Chapters Published<br />

For the Period <strong>of</strong> July 1, 2008 to June 30, <strong>2009</strong><br />

1. Temperature increases caused by shear<br />

banding in as-cast and relaxed Zr-based<br />

bulk-metallic glasses in compression,<br />

W.H. Jiang, F.X. Liu, H.H. Liao, H. Choo,<br />

P.K. Liaw, B.J. Edwards, and B. Khomami,<br />

J. Mat. Res., 23, 2967-2974, 2008.<br />

2. Comparison <strong>of</strong> the hydration and<br />

diffusion <strong>of</strong> protons <strong>of</strong> perfluorosulfonic<br />

acid membranes with molecular<br />

dynamics simulations, S. Cui, J. Liu, M.<br />

Esai Selvan, S.J. Paddison, D.J. Keffer,<br />

and B.J. Edwards, J. Phys. Chem. B, 112,<br />

13273-13284, 2008.<br />

3. Effects <strong>of</strong> electrolyte concentration<br />

on surfactant adsorption to a QCM<br />

immersed in surfactant-electrolyte<br />

solutions, S.J. Ray, R.M. Counce, and S.A.<br />

Morton III, J. <strong>of</strong> Separation Sci. & Tech,<br />

165, 2489-2502, 2008.<br />

4. Extracting acetic acid from acidic<br />

solutions, J.A. Mitchell, J.A. Johnson,<br />

R.M. Counce, J.S. Watson, B.B. Spencer,<br />

and G.D Del Cul, J. <strong>of</strong> Separation Sci. &<br />

Tech, 43, 2537-2547, 2008.<br />

5. <strong>The</strong>rmodynamics <strong>of</strong> acetic acid(aq)<br />

calculated from the modified<br />

adsorption isotherm from aqueous<br />

electrolytes, J.A. Johnson, J.A. Mitchell,<br />

R.M. Counce, J.S. Watson, B.B. Spencer,<br />

and G.D Del Cul, J. <strong>of</strong> Separation Sci. &<br />

Tech, 43, 2548-2556, 2008.<br />

6. Effects <strong>of</strong> low concentration salt on<br />

organic contact angle in ionic surfactant<br />

solutions: insight from theory and<br />

experiment, S.A. Morton III, D.J. Keffer,<br />

A.N. Davis, and R.M. Counce, J. <strong>of</strong><br />

Separation Sci. & Tech, 43, 310-330, 2008.<br />

7. <strong>University</strong> partnerships with industry<br />

and government, R.M. Counce, L.C.<br />

Markel, P.R. Bienkowski, S.P. Singh, J.D.<br />

Randolph, R.T. Jubin, B.E. Lewis, B.E.<br />

Murphree, R.A. Reimer, R.A. Heckrotte,<br />

and B.W. Alderson, Internat. J. <strong>of</strong> Engr.<br />

Education, 24, 480–487, 2008.<br />

8. Effect <strong>of</strong> bacterial chemotaxis on<br />

biodegradation in a porous medium,<br />

C.J. O’Lenick, P.R. Bienkowski,<br />

P.D. Frymier, and R.N. Weinstein,<br />

Bioremediation Journal,12, 131-144,<br />

2008.<br />

9. Functional nanostructures through<br />

nanosecond laser dewetting <strong>of</strong> thin<br />

metal films, H. Krishna, C. Favazza, A. K.<br />

Gangopadhyay, and R. Kalyanaraman,<br />

JOM, 60, 37-42, 2008.<br />

10. Nucleation energetics during<br />

homogeneous solidification in<br />

elemental metallic liquids, R.<br />

Kalyanaraman, J. Appl. Phys. 104,<br />

033506, 2008.<br />

11. Novel self-organization mechanism<br />

in ultrathin liquid films: theory and<br />

experiment J. Trice, C. Favazza, D.<br />

Thomas, R. Kalyanaraman, and R.<br />

Sureshkumar, Phys. Rev. Lett. 101,<br />

017802, 2008.<br />

12. Unusual size-dependent magnetization<br />

in near hemispherical Co nanomagnets<br />

on SiO from fast pulsed laser processing<br />

H. Krishna, C. Miller, L. Spoor, Z.<br />

Nussinov, A. K. Gangopadhyay, and<br />

R. Kalyanaraman, J. Appl. Phys. 103,<br />

073902, 2008.<br />

13. Nanostructure <strong>of</strong> room temperature<br />

deposited TiB on Si(001) by pulsed laser<br />

ablation L. L-Spoor, P.C. Gibbons, K.F.<br />

Kelton, and R. Kalyanaraman, Thin Solid<br />

Films, 516, 5981, 2008.<br />

14. A comparative study <strong>of</strong> the hydrated<br />

morphologies <strong>of</strong> perfluorosulfonic<br />

acid fuel cell membranes, D. Wu, S.J.<br />

Paddison, and J.A. Elliott, Energy and<br />

Environ. Sci., 1, 284-293, 2008.<br />

15. Mesoscopic modeling <strong>of</strong> the<br />

morphology and state <strong>of</strong> water in<br />

hydrated PFSA fuel cell membranes,<br />

S.J. Paddison, Preprint Papers-American<br />

Chemical Society, Division <strong>of</strong> Fuel<br />

Chemistry, 53, 650-651, 2008.<br />

16. Proton conduction in polymer<br />

electrolyte membranes: complexity,<br />

connectivity, and cooperativity, S.J.<br />

Paddison, in Device and Materials<br />

Modeling <strong>of</strong> PEM Fuel Cells, Topics in<br />

Applied Physics, Vol. 113, edited by S.J.<br />

Paddison and K.S. Promislow, Springer,<br />

New York, Chapter 12, 385-412, 2008.<br />

17. Device and Materials Modeling in PEM<br />

Fuel Cells, Topics in Applied Physics, Vol.<br />

113, S.J. Paddison and K.S. Promislow,<br />

editors, Springer, New York, 2008.<br />

18. Molecular-level investigation <strong>of</strong> critical<br />

gap size between catalyst particles<br />

and electrolyte in hydrogen proton<br />

exchange membrane fuel cells, J. Liu,<br />

S. Cui, and D.J. Keffer, D.J., Fuel Cells, 6,<br />

422-428, 2008.<br />

19. A reagentless enzymatic amperometric<br />

biosensor using vertically aligned<br />

carbon nan<strong>of</strong>ibers (VACNF), M.L. Weeks,<br />

T. Rahman, P.D. Frymier, S.K. Islam, and<br />

T.E. McKnight, Sensors & Actuators: B.<br />

Chemical, 133, 53-59, 2008.<br />

20. Structural coupling between FKBP12<br />

and buried water. S. Park, S. Zilvia, E.T.<br />

Boder, G. Van Duyne, and J.G. Saven,<br />

Proteins, 74, 603-611, 2008.<br />

21. Coarse-grained modeling <strong>of</strong> dynamics<br />

<strong>of</strong> dilute macromolecular solutions<br />

using a configurational based approach,<br />

V. Venkataramani, R. Sureshkumar, and<br />

B. Khomami, J. Rheology, 52, 1143-1177,<br />

2008.<br />

22. Nonlinear dynamics <strong>of</strong> viscoelastic<br />

Taylor-Couette flow: effect <strong>of</strong> elasticity<br />

on pattern selection, molecular<br />

conformation and drag, D.G. Thomas, B.<br />

Khomami, and R. Sureshkumar, J. Fluid<br />

Mech., 620, 352-382, <strong>2009</strong>.<br />

23. Dynamics simulations <strong>of</strong> single DNA<br />

molecules in oscillatory shear flow, D.G.<br />

Thomas, R.J. DePuit, and B. Khomami, J.<br />

Rheology, 53, 275, <strong>2009</strong>.<br />

24. Synthesis <strong>of</strong> visible-light-active<br />

nanostructured TiOx (x < 2)<br />

photocatalysts in a flame aerosol<br />

reactor, S.Y. Dhumal, T.L. Daulton,<br />

J. Jiang, B. Khomami, and P. Biswas,<br />

Applied Catalysis B: Environmental, 86,<br />

145-151, <strong>2009</strong>.<br />

25. Flow <strong>of</strong> branched polymer melts<br />

in a lubricated cross-slot channel:<br />

a combined computational and<br />

experimental study, A. Abedijaberi, J.<br />

Soulages, M. Kröger, and B. Khomami,<br />

Rheol. Acta, 48, 97-108, <strong>2009</strong>.<br />

26. A modified solid-state reduction<br />

method to prepare supported<br />

platinum nanoparticle catalysts for low<br />

temperature fuel cell application, H.<br />

Zhu, S. Liao, L. Ye, X. Hu, B. Khomami and<br />

M.Z. Hu, Current Nanosciences, 2, 252,<br />

<strong>2009</strong>.<br />

27. Single-chain dynamics <strong>of</strong> linear<br />

polyethylene liquids under shear flow,<br />

J.M. Kim, B.J. Edwards, D.J. Keffer, and<br />

B. Khomami, Phys. Lett. A, 373, 769-772,<br />

<strong>2009</strong>.<br />

28. Removing acetic acid from a UREX+<br />

waste stream: a review <strong>of</strong> technologies,<br />

J.A. Mitchell, R.M. Counce, J.S. Watson,<br />

B.B. Spencer, and G.D Del Cul, Nuclear<br />

Technology, 165, 360-369, <strong>2009</strong>.<br />

29. Nanomanufacturing <strong>of</strong> nanoscale<br />

metallic structures by self-organization<br />

from fast pulsed laser-induced<br />

dewetting, Nanomanufacturing,<br />

edited by S.C.C. Favazza, J. Trice, D.<br />

Thomas, H. Garcia, R. Sureshkumar, and<br />

R. Kalyanaraman, American Scientific<br />

Publishers, <strong>2009</strong>.<br />

30. Energy driven self-organization in<br />

nanoscale metallic liquid films, H.<br />

Krishna, N. Shirato, C. Favazza, and R.<br />

Kalyanaraman, Phys. Chem. Chem. Phys.,<br />

DOI: 10.1039/B906281P, <strong>2009</strong>.<br />

31. Nonlinear optical properties <strong>of</strong> multimetal<br />

nanocomposites in a glass matrix<br />

H. Garcia, R. Kalyanaraman, and R.<br />

Sureshkumar, J. Phys. B: At. Mol. Opt.<br />

Phys. 42, 175401, <strong>2009</strong>.<br />

32. Effect <strong>of</strong> molecular weight on hydrated<br />

morphologies <strong>of</strong> the short-side-chain<br />

perfluorosulfonic acid membrane,<br />

D. Wu, S.J. Paddison, and J.A. Elliott,<br />

Macromolecules, 42, 3358-3367, <strong>2009</strong>.<br />

33. Molecular simulations <strong>of</strong> adsorption<br />

and diffusion <strong>of</strong> RDX in IRMOF-1, R.<br />

Xiong, J.T. Fern, D.J. Keffer, M.A. Fuentes-<br />

Cabrera, and D.M. Nicholson, Mol. Simul.<br />

35, 910-919, <strong>2009</strong>.<br />

34. Effects <strong>of</strong> ultramicroelectrode<br />

dimensions on the electropolymerization<br />

<strong>of</strong> polypyrrole, B.L. Fletcher, J.T. Fern, K.<br />

Rhodes, T.E. McKnight, J.D. Fowlkes, S.T.<br />

Retterer,D.J. Keffer, M.L. Simpson, and<br />

M.J. Doktycz, J. Appl. Phys. 105, 124312,<br />

<strong>2009</strong>.<br />

35. <strong>The</strong> role <strong>of</strong> chemical and displacement<br />

pair correlation in the determination<br />

<strong>of</strong> higher order correlation, D.M.C.<br />

Nicholson, R.I. Barabash, Y.S. Puzyrev,<br />

C.Y. Gao, D.J. Keffer, and G.E. Ice,<br />

Diffuse Scattering and the Fundamental<br />

Properties <strong>of</strong> Materials, eds. R.I. Barabash,<br />

G.E. Ice, and P.E.A. Turchi, Momentum<br />

Press, New Jersey, <strong>2009</strong>.<br />

Current Grants, Contracts<br />

and Patents<br />

For the Period <strong>of</strong> July 1, 2008 to June 30, <strong>2009</strong><br />

1. Eastman Chemical Process Control<br />

Internship, C.F. Moore, Eastman<br />

Chemical Company, 11/16/1981 –<br />

12/31/2013, $346,104.<br />

2. NERI FB Spouted Yellowsheet 071204,<br />

R.M. Counce, U.S. Department <strong>of</strong><br />

Energy, 03/17/2005 – 03/16/2010,<br />

$441,063.<br />

3. A joint computational and experimental<br />

investigation <strong>of</strong> the selective transport<br />

<strong>of</strong> proteins through nanopore<br />

membranes, S. Cui, 09/26/2006 –<br />

08/31/2010, $200,306.<br />

4. Next generation searchable database, T.<br />

Wang, Unisys Corporation, 10/11/2006 –<br />

01/31/2016, $245,472.<br />

5. Spinning <strong>of</strong> Carbon Fiber Precursors<br />

from Lignin, S. Petrovan, Oak Ridge<br />

National Laboratory, 03/02/2007 –<br />

07/31/<strong>2009</strong>, $57,871.<br />

61. Interfacial dynamics in displacement<br />

flows <strong>of</strong> entangled polymeric fluids, B.<br />

Khomami, National Science Foundation,<br />

04/01/2007 – 03/31/2010, $200,000.<br />

7. Scholarships for engineering students<br />

from underrepresented groups on the<br />

East Tennessee Region, B.J. Edwards,<br />

D.J. Keffer, D.F. Jackson, J. Wu and W.N.<br />

Odom, National Science Foundation,<br />

08/01/2007 - 07/31/2011, $600,000.<br />

8. Controlling the dynamics <strong>of</strong> cell<br />

adhesion using engineered integrin<br />

I-domain, E.T. Boder, National Institutes<br />

<strong>of</strong> Health, NIGMS, 09/01/2007 –<br />

08/30/2012, $962,143.<br />

9. Membranes and MEA’s for dry, hot<br />

operating conditions, S.J. Paddison, 3M<br />

Company, 09/01/2007 – 03/31/2011,<br />

$441,329.<br />

10. EXP-LA: Collaborative Research:<br />

Exploiting geometry and chemistry<br />

at the nanoscale to selectively<br />

preconcentrate explosive molecules,<br />

D.J. Keffer and B.J. Edwards, National<br />

Science Foundation, 10/01/2007 –<br />

09/30/2010, $265,819.<br />

11. From nanoscale simulation to process<br />

engineering: Building a network for<br />

understanding polymer dynamics,<br />

B.J. Edwards, B. Khomami and D.J.<br />

Keffer, National Science Foundation,<br />

11/15/2007 -- 10/31/<strong>2009</strong>, $189,959.<br />

12. Optimization <strong>of</strong> reactive systems in<br />

C-tray polyester finishing reactors: A<br />

multiscale modeling approach, D.J.<br />

Current Grants, Contracts and Patents<br />

Keffer, B.J. Edwards, B. Khomami and S.<br />

Petrovan, Eastman Chemical Company,<br />

11/21/2007 – 11/20/<strong>2009</strong>, $121,169.<br />

13. Multi-scale modeling <strong>of</strong> proton<br />

transport, water distribution and<br />

methanol permeability in proton<br />

exchange membranes, S.J. Paddison,<br />

Army Research Office, AMSRL-RO-R1,<br />

05/01/2008 – 01/31/2010, $218,427.<br />

14. Collaborative research: Novel 3-D<br />

nanocomposites: a first principles<br />

approach to cost-effective design,<br />

assembly and optical characterization,<br />

R. Kalyanaraman and R. Sureshkumar,<br />

National Science Foundation,<br />

05/01/2008 -- 04/30/2011, $317,203.<br />

15. Development <strong>of</strong> a hydrogen<br />

discriminating low temperature 1-D<br />

nanocomposite microsensor, S. Seal, R.<br />

Kalyanaraman and H-J. Cho, National<br />

Science Foundation, 05/01/2008<br />

--04/30/2011, $90,000.<br />

16. Magnetic anisotropy in nanoscale<br />

systems produced by fast laser<br />

processing: fundamental mechanisms,<br />

control and novel magnetic materials,<br />

R. Kalyanaraman, A. K. Gangopadhyay,<br />

J. Schilling and Z. Nussinov, National<br />

Science Foundation, 06/01/2008 --<br />

05/31/2011, $268,115.<br />

17. Collaborative Research: Understanding<br />

pressure drop-flow rate relationships in<br />

inertialess viscoelastic flows: effects <strong>of</strong><br />

flow instability and stress-conformation<br />

hysteresis, B. Khomami, National<br />

Science Foundation, 06/15/2008 –<br />

5/31/2011, $191,073.<br />

18. A unified computational, theoretical<br />

and experimental investigation into<br />

the transport <strong>of</strong> protons near the<br />

electrolyte/water, electrolyte/catalyst,<br />

and electrolyte/nanoparticle interfaces,<br />

D.J. Keffer and S.J. Paddison, US<br />

Department <strong>of</strong> Energy, 06/15/2008 –<br />

06/14/2011, $760,000.<br />

19. East Tennessee Hydrogen Initiative, W.<br />

Davis, D.J. Keffer, D. Agnihotri and T.<br />

Cherry, Federal Transit Administration,<br />

07/01/2008 – 12/31/<strong>2009</strong>, $380,267.<br />

20. Optimizing electron transfer<br />

for biohydrogen production by<br />

photosynthesis, P.D. Frymier and B.<br />

Bruce, Sustainable Energy Education<br />

and Research Center, <strong>University</strong> <strong>of</strong><br />

Tennessee-Knoxville, 07/01/2008 –<br />

06/30/2010, $75,588.<br />

21. CAREER: Fundamental studies<br />

<strong>of</strong> directed assembly leading to<br />

immovable processing <strong>of</strong> controlled,<br />

R. Kalyanaraman, National Science<br />

Foundation, 07/01/2008 – 05/31/2010,<br />

$168,871.<br />

22. IGERT: STAIR: Sustainable technology<br />

through advanced interdisciplinary<br />

research, D.J. Keffer, B. Khomami, P.D.<br />

Frymier, Claudia J. Rawn and Barry D.<br />

Bruce, National Science Foundation,<br />

08/01/2008 – 07/31/13, $2,941,396.<br />

23. Advancing the production and use <strong>of</strong><br />

biodiesel through the micro-refining<br />

<strong>of</strong> waste glycerol, P.D. Frymier, C.F.<br />

Moore and R.M. Counce, Environmental<br />

Protection Agency, 08/15/2008 –<br />

08/14/<strong>2009</strong>, $10,000.<br />

24. SPHERE: Sustainable photosynthetic<br />

hydrogen evolution research, P.D.<br />

Frymier and B. Bruce, National Science<br />

Foundation, 08/18/2008 – 10/31/<strong>2009</strong>,<br />

$90,000.<br />

25. Organic photovoltaic materials,<br />

M. Dadmun, J. Mays, B. Bruce and<br />

B. Khomami, Sustainable Energy<br />

Education and Research Center,<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville,<br />

09/01/2008 – 6/30/2010, $136,500.<br />

26. Self-consistent field and single chain<br />

in mean-field simulations <strong>of</strong> diblock<br />

and triblock copolymer systems, B.J.<br />

Edwards and B. Khomami, Sustainable<br />

Energy Education and Research Center,<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville,<br />

01/01/<strong>2009</strong> – 06/30/2010, $37,751.<br />

16 17


Current Grants, Contracts and Patents • Conference and Invited (*) Presentations<br />

27. Estimate or extrapolate fundamental<br />

property information, R.M. Counce, Oak<br />

Ridge National Laboratory, 03/01/<strong>2009</strong><br />

– 09/30/<strong>2009</strong>, $19,404.<br />

28. Enhanced visible light absorption in<br />

thin film multicrystalline Si incorporated<br />

with nanocrystals, R. Kalyanaraman,<br />

G. Duscher and P. D. Rack, Sustainable<br />

Energy Education and Research Center,<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville,<br />

05/31/<strong>2009</strong>--06/30/2010, $43,667.<br />

29. Senior design projects in management<br />

<strong>of</strong> residuals from coal combustion, R.M.<br />

Counce, J.S. Watson and P.R. Bienkowski,<br />

EPRI, 07/01/<strong>2009</strong> – 06/30/2010, $5,000.<br />

30. Interfacial solvent extraction <strong>of</strong> uranylcomplex:<br />

An integrated atomistic<br />

molecular dynamics and quantum<br />

computations approach, B. Khomami<br />

and S. Cui, Oak Ridge National<br />

Laboratory, 07/08/<strong>2009</strong> – 09/30/<strong>2009</strong>,<br />

$60,000.<br />

31. Joint SEERC/STAIR Seminar Series,<br />

D. Keffer and P. Frymier, Sustainable<br />

Energy Education and Research Center,<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville,<br />

08/01/<strong>2009</strong> – 6/30/2010, $15,000.<br />

32. Evaluation <strong>of</strong> hydrogen storage<br />

capacity <strong>of</strong> novel nanomaterials<br />

through molecular-level modeling, D.J.<br />

Keffer, Sustainable Energy Education<br />

and Research Center, <strong>University</strong> <strong>of</strong><br />

Tennessee-Knoxville, 08/01/<strong>2009</strong> --<br />

06/30/2010, $20,949.<br />

33. Similarity-based indexing and search<br />

<strong>of</strong> databases for correlation <strong>of</strong> object<br />

properties with reference data, J.D.<br />

Birdwell, T. Wang, S. Horn and D. Icove,<br />

US Army Space & Missile Defense<br />

Committee, 08/01/<strong>2009</strong> – 07/31/2011,<br />

$1,682,484.<br />

34. Development <strong>of</strong> an experimentally<br />

validated master simulation module<br />

for PEM fuel cells, Sustainable Energy<br />

Education and Research Center,<br />

<strong>University</strong> <strong>of</strong> Tennessee-Knoxville,<br />

08/19/<strong>2009</strong> – 06/30/2010, $51,665.<br />

Patents<br />

1. Parallel data processing architecture,<br />

J.D. Birdwell, T.-S. Wang, R.D. Horn,<br />

P. Yadav, and D.J. Icove,. U.S. Patent<br />

Application 11/968,364, January 2,<br />

2008.<br />

2. Parallel data processing architecture,<br />

J.D. Birdwell, T.-S. Wang, R.D. Horn,<br />

P. Yadav, and D.J. Icove,. U.S. Patent<br />

Application 11/968,367, January 2,<br />

2008.<br />

Conference and Invited (*)<br />

Presentations<br />

For the Period <strong>of</strong> July 1, 2008 to June 30, <strong>2009</strong><br />

1. *<strong>The</strong> polymer electrolyte membrane<br />

fuel cell: a power source in a ‘hydrogen<br />

economy’, S.J. Paddison, Alumni<br />

Summer <strong>College</strong> 2008, <strong>University</strong> <strong>of</strong><br />

Tennessee, Knoxville, TN, July 17, 2008.<br />

2. *Molecular modeling <strong>of</strong> the shortside-chain<br />

perfluorosulfonic acid<br />

fuel fell membrane: hydration,<br />

structure, and transport”, S.J. Paddison,<br />

6th International Congress <strong>of</strong> the<br />

International Society for <strong>The</strong>oretical<br />

Chemical Physics, <strong>University</strong> <strong>of</strong> British<br />

Columbia, Canada, July 19–24, 2008.<br />

3. Fe nanomagnets with unusual sizedependent<br />

magnetization directions<br />

produced by fast laser-induced selforganization,<br />

H. Krishna, N. Shirato, A. K.<br />

Gangopadhyay, and R. Kalyanaraman,<br />

2008 SPIE Optics+Photonics, San Diego,<br />

CA, August, 2008.<br />

4. Effect <strong>of</strong> surface roughness on<br />

laser-driven instability dewetting <strong>of</strong><br />

ultrathin Co films, C. Favazza, J. Trice,<br />

H. Krishna, and R. Kalyanaraman, 2008<br />

SPIE Optics+Photonics, San Diego, CA,<br />

August, 2008.<br />

5. Design and optimization <strong>of</strong> plasmonicbased<br />

metal-dielectric nanocomposite<br />

materials for energy applications, J.<br />

Trice, C. Favazza, R. Sureshkumar, H.<br />

Garcia, and R. Kalyanaraman, 2008<br />

SPIE Optics+Photonics, San Diego, CA,<br />

August, 2008.<br />

6. *Modeling and simulation <strong>of</strong> dynamics<br />

<strong>of</strong> polymeric solutions: progress and<br />

challenges, B. Khomami, Department <strong>of</strong><br />

Chemical <strong>Engineering</strong>, Georgia Institute<br />

<strong>of</strong> Technology, August, 2008.<br />

7. Dynamics <strong>of</strong> Branched Polymer<br />

Melts in Complex Kinematics Flows:<br />

A Computational and Experimental<br />

Study, A. Abedijaberi, J. Soulages,<br />

H. C. Öttinger, Martin Kröger, and B.<br />

Khomami, XVth International Congress<br />

on Rheology, Monterey, CA, USA,<br />

August, 2008.<br />

8. Reversible and Irreversible Flow-<br />

Induced Phase Transitions in Micellar<br />

Solutions,” M. Vasudevan’, E. Buse, H.<br />

Krishna, R. Kalyanaraman’, A. Shen, B.<br />

Khomami’’, and R. Sureshkumar, XVth<br />

International Congress on Rheology,<br />

Monterey, CA, USA, August, 2008.<br />

8. Single-chain dynamics <strong>of</strong> linear<br />

polyethylene liquids under shear, J.M.<br />

Kim, B.J. Edwards, B. Khomami, and D.J.<br />

Keffer, <strong>The</strong> XVth International Congress<br />

on Rheology, Monterey, CA, August 3-8,<br />

2008<br />

9. Rheology <strong>of</strong> short-chain branched<br />

polyethylene melts under shear:<br />

results from NEMD simulations and<br />

comparison with linear and H-shaped<br />

analogues, C. Baig, J.M. Kim, V.G.<br />

Mavrantzas, and B.J. Edwards, <strong>The</strong> XVth<br />

International Congress on Rheology,<br />

Monterey, CA, August 3-8, 2008.<br />

10. *Hi fidelity multiscale flow simulation <strong>of</strong><br />

dilute polymeric solutions in complex<br />

kinematics flows, B. Khomami, <strong>The</strong> XVth<br />

International Congress on Rheology,<br />

Monterey, CA, August 3-8, 2008.<br />

11. Nonlinear pattern formation in<br />

viscoelastic Taylor-Couette flow,<br />

D. Thomas, B. Khomami, and R.<br />

Sureshkumar, <strong>The</strong> XVth International<br />

Congress on Rheology, Monterey, CA,<br />

August 3-8, 2008.<br />

12. *Mesoscale modeling <strong>of</strong> the<br />

morphology and state <strong>of</strong> water in<br />

hydrated PFSA fuel cell membranes,<br />

S.J. Paddison, 236th National Meeting<br />

<strong>of</strong> the American Chemical Society,<br />

Philadelphia, PA, August 17-21, 2008.<br />

13. *Single-chain dynamics and<br />

nonisothermal rheology <strong>of</strong> linear<br />

polyethylene liquids under shear, J.M.<br />

Kim, B.J. Edwards, and D.J. Keffer, North<br />

American <strong>The</strong>rmal Analysis Society 36th <strong>Annual</strong> Conference, Atlanta, GA, August<br />

18-20, 2008.<br />

14. Ejections and bursts in a low drag<br />

reduction turbulent channel flow<br />

<strong>of</strong> dilute polymer solutions, C.F.<br />

Li, X.D. Feng, G.F. Wu, Z.G. Zhao, R.<br />

Sureshkumar, and B. Khomami, 12th<br />

Asian Congress on Fluid Mechanics,<br />

Daejeon, Korea, August 18-21, 2008.<br />

15. A simple framework for the influence <strong>of</strong><br />

polymer additives on all drag reduction<br />

regimes in a turbulent channel flow,<br />

C.-F. Li, G.-F. Wu, X.-D. Feng, Z.-G. Zhao,<br />

R. Sureshkumar, and B. Khomami, 12th<br />

Asian Congress on Fluid Mechanics,<br />

Daejeon, Korea, August 18-21, 2008.<br />

16. Optical properties <strong>of</strong> multi-metal<br />

nanocomposites, H. Garcia, R.<br />

Sureshkumar, and R. Kalyanaraman,<br />

Universidad Distrital Francisco Jose De<br />

Caldas, Bogota, Colombia, September,<br />

2008.<br />

17. Multiscale materials modeling via<br />

petascale computing, D.J. Keffer,<br />

Delivering Science on Petascale<br />

Computers Workshop, sponsored by<br />

the Oak Ridge National Laboratory<br />

Center for Computational Sciences,<br />

Montgomery Bell State Park, TN,<br />

September, 2008.<br />

18. *Multi-scale modeling <strong>of</strong> Hydrated<br />

and Phosphoric Acid Based Proton<br />

Conducting Fuel Cell Electrolytes,<br />

S.J. Paddison, Solid State Proton<br />

Conductors, Kyoto, Japan, September<br />

7–11, 2008.<br />

19. Molecular dynamics investigation <strong>of</strong><br />

molecular processes in liquid-liquid<br />

extraction <strong>of</strong> metal ions, S. Cui, V.<br />

de Almeida, and B. Khomami,18th<br />

International Solvent Extraction<br />

Conference, Tucson, AZ, September 15-<br />

19, 2008.<br />

20. *Effects <strong>of</strong> side chain length & EW<br />

on hydrated morphology in PFSA<br />

membranes, S.J. Paddison, Progress<br />

in MEA components for Medium and<br />

High Temperature Polymer Electrolyte<br />

Fuel Cells, 1st CARISMA International<br />

Conference, La Grande Motte, France,<br />

September 21-24, 2008.<br />

21. *<strong>Engineering</strong> proteins as molecular<br />

sensing, switching, and actuating<br />

devices, E.T. Boder, Department<br />

<strong>of</strong> Chemical and Biomolecular<br />

<strong>Engineering</strong>, Vanderbilt <strong>University</strong>,<br />

Nashville, TN, September 27, 2008.<br />

22. *Sustainable Energy Education and<br />

Research Center (SEERC): <strong>University</strong><br />

<strong>of</strong> Tennessee’s response to the global<br />

energy challenge, B. Khomami,<br />

Shanghai <strong>University</strong> Forum on<br />

Renewable Energy and Green Economy,<br />

Shanghai, China, October, 2008.<br />

23. *Protein engineering <strong>of</strong> membrane<br />

fusion and cell adhesion proteins. E.T.<br />

Boder, Comparative and Experimental<br />

Medicine Program, <strong>College</strong> <strong>of</strong> Veterinary<br />

Medicine, <strong>University</strong> <strong>of</strong> Tennessee,<br />

Knoxville, TN, October 5, 2008.<br />

24. *Sustainable hydrogen production<br />

via self-assembled, thermotolerant<br />

photosynthetic nanoparticles, P.D.<br />

Frymier, Conference on Renewable<br />

Energy and Green Economy, Shanghai<br />

<strong>University</strong>, October 20, 2008.<br />

25. Hi-fidelity multiscale flow simulation<br />

<strong>of</strong> sedimentation <strong>of</strong> a sphere in dilute<br />

polymeric solutions, A. Abedijaberi and<br />

B. Khomami, 61st <strong>Annual</strong> Meeting <strong>of</strong><br />

the APS Division <strong>of</strong> Fluid Dynamics, San<br />

Antonio, TX, November, 2008.<br />

26. <strong>The</strong>rmotolerant photodependent<br />

hydrogen production by platinized<br />

photosystem I. Reaction centers and<br />

recombinant cytochrome c553 from<br />

<strong>The</strong>rmosynechococcus elongatus,<br />

I.J. Iwuchukwu, M. Myers, M. Vaughn,<br />

H. O’Neill, H., P.D. Frymier, and B.<br />

Bruce, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22,<br />

2008.<br />

27. Photosynthetic biohydrogen: a case<br />

study integrating sustainability into the<br />

student design experience, P.D. Frymier,<br />

R.M. Counce, and B.D. Bruce, AIChE<br />

2008 <strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

28. Characterization and engineering <strong>of</strong><br />

peptide binding to Class II MHC by<br />

yeast co-expression, W. Jiang and E.T.<br />

Boder, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22,<br />

2008.<br />

29. Protein patterning through<br />

microcontact printing with sortase, R.<br />

Parthasarathy, S. Retterer, M.J. Doktycz,<br />

and E.T. Boder, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

30. Incomplete quality control <strong>of</strong> yeastsecreted<br />

multidomain proteins, A.W.<br />

Nields and E.T. Boder, AIChE 2008<br />

<strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

31. <strong>Engineering</strong> adhesive ligands based<br />

on integrin I-domain, L.R. Pepper, D.A.<br />

Hammer, and E.T. Boder, AIChE 2008<br />

<strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

32. Brownian dynamics simulation <strong>of</strong><br />

dilute wormlike micelle solutions,<br />

V. Venkataramani, S. Bhatnagar, B.<br />

Khomami, and R. Sureshkumar, AIChE<br />

2008 <strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

33. Hi-fidelity multiscale flow simulation<br />

<strong>of</strong> sedimentation <strong>of</strong> a sphere in dilute<br />

polymeric solutions, A. Abedijaberi<br />

and B. Khomami, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

34. Simulating very crowded pores with<br />

precise detail: Ted takes on zeolites, A.V.<br />

McCormick and D.J. Keffer, Symposium<br />

Honoring H. Ted Davis, AIChE 2008<br />

<strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

35. Predicting the capability <strong>of</strong> metal<br />

organic frameworks to selectively preconcentrate<br />

energetic molecules, R.<br />

Xiong, J.T. Fern, D.J. Keffer, M.A. Fuentes-<br />

Cabrera, and D.M. Nicholson, AIChE<br />

2008 <strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

36. Self-consistent thermostatting <strong>of</strong><br />

molecular dynamics simulation in the<br />

presence <strong>of</strong> inhomogeneous, nonequilibrium<br />

fields through multiscale<br />

modeling, R. Xiong, R.L. Empting, I.C.<br />

Morris, J.T. Fern, and D.J. Keffer, AIChE<br />

2008 <strong>Annual</strong> Meeting, Philadelphia, PA,<br />

November 16-22, 2008.<br />

37. Molecular dynamics simulation <strong>of</strong> BHET:<br />

1,4-benzenedicarboxylic acid 1,4-bis(2hydroxyethyl)ester,<br />

Q. Wang, and D.J.<br />

Keffer, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22, 2008.<br />

38. A coarse-grained reactive molecular<br />

dynamics algorithm for proton<br />

transport in hydrogen fuel cells, M.<br />

Esai-Selvan, D.J. Keffer, S. Cui, and B.J.<br />

Edwards, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22, 2008.<br />

39. Flow-induced temperature change and<br />

anisotropic heat capacity <strong>of</strong> a linear<br />

short-chain polyethylene liquid, C. Baig<br />

and B.J. Edwards, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

40. Dynamics <strong>of</strong> individual chains in linear<br />

polyethylene liquids under shear, J.M.<br />

Kim, D.J. Keffer, B. Khomami, and B.J.<br />

Edwards, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22, 2008.<br />

41. Dynamics <strong>of</strong> entangled polyethylenes<br />

under shear via single-chain in meanfield<br />

simulations, K.Ch. Daoulas, B.J.<br />

Edwards, B. Khomami, M. Kröger, and<br />

M. Müller, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22,<br />

2008.<br />

42. Removal <strong>of</strong> acetic acid from a UREX+<br />

Raffinate stream, J.A. Mitchell, R.M.<br />

Counce, J.S. Watson, B.B. Spencer,<br />

and G.D. Del Cul, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

43. A case study integrating sustainability<br />

into the student design experience,<br />

P.D. Frymier, R.M. Counce, and B.<br />

Bruce, AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22, 2008.<br />

44. Plasmonics-based design <strong>of</strong><br />

nanostructured materials for<br />

solar energy harvesting, J. Trice, R.<br />

Kalyanaraman, H. Garcia, and R.<br />

Sureshkumar, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

45. Reversible and permanent flowinduced<br />

phase transitions in rod-like<br />

micelle solutions, M. Vasudevan, E.<br />

Buse, H. Krishna, R. Kalyanaraman,<br />

Bamin Khomami, Amy Shen, and R.<br />

Sureshkumar, AIChE 2008 <strong>Annual</strong><br />

Meeting, Philadelphia, PA, November<br />

16-22, 2008.<br />

46. Robust manufacturing <strong>of</strong> novel<br />

plasmonic nanomaterials via liquid<br />

phase self organization <strong>of</strong> ultrathin<br />

metal films: theory and experiments,<br />

J. Trice, C. Favazza, D. G. Thomas, R.<br />

Kalyanaraman, and R. Sureshkumar,<br />

AIChE 2008 <strong>Annual</strong> Meeting,<br />

Philadelphia, PA, November 16-22, 2008.<br />

18 19


Conference and Invited (*) Presentations<br />

47. Size-dependent magnetization in<br />

nanomagnets <strong>of</strong> the ferromagnetic<br />

elements from ns-pulsed laser-induced<br />

self organization, H. Krishna, N. Shirato,<br />

Z. Nussinov, A.K Gangopadhyay, and<br />

R. Kalyanaraman, MRS Fall Meeting,<br />

Boston, MA, December, 2008.<br />

48. *<strong>The</strong> structure and transport properties<br />

<strong>of</strong> proton exchange membranes:<br />

experiment, simulation and theory,<br />

S.J. Paddison, Department <strong>of</strong> Physics,<br />

Michigan State <strong>University</strong>, Lansing, MI,<br />

December 4, 2008.<br />

49. *Investigations <strong>of</strong> material structureproperty<br />

relationships in fuel cells<br />

through molecular-level simulation, D.J.<br />

Keffer, Chemistry Department, Jackson<br />

State <strong>University</strong>, Jackson, MS, January,<br />

<strong>2009</strong>.<br />

50. *Investigations <strong>of</strong> material structureproperty<br />

relationships in fuel cells<br />

through molecular-level simulation,<br />

D.J. Keffer, Mechanical and Chemical<br />

<strong>Engineering</strong> Department, North<br />

Carolina A&T <strong>University</strong>, Greensboro,<br />

NC, January, <strong>2009</strong>.<br />

51. Sortassembly: in vitro assembly <strong>of</strong><br />

complex bifunctional proteins, M.E.<br />

Ackerman, D. Levary, R. Parthasarathy,<br />

E.T. Boder, and K.D. Wittrup, 2nd<br />

International Conference on<br />

Biomolecular <strong>Engineering</strong>, Santa<br />

Barbara, CA, January 19, <strong>2009</strong>.<br />

52. <strong>Engineering</strong> integrin I-domain:<br />

development <strong>of</strong> an allosteric adhesive<br />

switch and structure-function analysis,<br />

L.R. Pepper, D.A. Hammer, and E.T.<br />

Boder, 2nd International Conference<br />

on Biomolecular <strong>Engineering</strong>, Santa<br />

Barbara, CA, January 19, <strong>2009</strong>.<br />

53. Characterization and engineering<br />

<strong>of</strong> MHC-peptide binding by yeast<br />

display, W. Jiang and E.T. Boder,<br />

20 THE UNIVERSITY OF TENNESSEE COLLEGE OF ENGINEERING<br />

2nd International Conference on<br />

Biomolecular <strong>Engineering</strong>, Santa<br />

Barbara, CA, January 19, <strong>2009</strong>.<br />

54. *Functional nanostructures through<br />

nanosecond laser-induced dewetting,<br />

R. Kalyanaraman, <strong>2009</strong> TMS <strong>Annual</strong><br />

Meeting, San Francisco, CA, February,<br />

<strong>2009</strong>.<br />

55. *<strong>The</strong>rmodynamics <strong>of</strong> nonisothermal<br />

polymer flows: experiment, theory and<br />

simulation, B.J. Edwards, <strong>University</strong> <strong>of</strong><br />

Kentucky, Lexington, KY, February 18,<br />

<strong>2009</strong>.<br />

56. *Sustainability and technology; are they<br />

compatible?, P.D. Frymier, Centripetals<br />

Presentation Series, <strong>University</strong> <strong>of</strong><br />

Tennessee, February 18, <strong>2009</strong>.<br />

57. *Investigations <strong>of</strong> material structureproperty<br />

relationships in fuel cells<br />

through molecular-level simulation, D.J.<br />

Keffer, Materials Science Department,<br />

Georgia Institute <strong>of</strong> Technology, Atlanta,<br />

GA, March, <strong>2009</strong>.<br />

58. *Modeling and simulation <strong>of</strong> dynamics<br />

<strong>of</strong> polymeric solutions: progress and<br />

challenges, B. Khomami, Levich institute<br />

for Physicochemical hydrodynamics<br />

and the Department <strong>of</strong> Chemical<br />

<strong>Engineering</strong>, City <strong>College</strong> <strong>of</strong> New York,<br />

March, <strong>2009</strong>.<br />

59. *Sustainable Energy Education and<br />

Research Center (SEERC): <strong>University</strong><br />

<strong>of</strong> Tennessee’s response to the global<br />

energy challenge, B. Khomami, Baker<br />

Center for Public Policy, <strong>University</strong> <strong>of</strong><br />

Tennessee, Knoxville, March, <strong>2009</strong>.<br />

60. Optical properties <strong>of</strong> nanocomposites<br />

for solar energy harvesting, A. Paradies,<br />

Y. Wu, J. Strader, R. Sachan, P. D. Rack,<br />

G. Duscher, and R. Kalyanaraman,<br />

Exhibition <strong>of</strong> Undergraduate Research<br />

and Creative Achievement, Knoxville,<br />

TN, April, <strong>2009</strong>.<br />

61. *Modeling the hydrated morphology<br />

and proton transport in proton<br />

exchange membranes, S.J. Paddison,<br />

Department <strong>of</strong> Physics, <strong>University</strong> <strong>of</strong><br />

Houston, Houston, TX, April 7, <strong>2009</strong>.<br />

62. *Connecting the chemical structure<br />

and transport properties <strong>of</strong> proton<br />

exchange membranes through<br />

experiment and simulation, S.J.<br />

Paddison, HTML, Oak Ridge National<br />

Laboratory, Oak Ridge, TN, April 8, <strong>2009</strong>.<br />

63. Directed, liquid phase assembly <strong>of</strong><br />

patterned and thin metallic films<br />

by pulsed laser dewetting, Y. Wu, H.<br />

Krishna, R. Kalyanaraman, J. Fowlkes,<br />

and P. D. Rack, 53rd International<br />

conference on Electron, Ion and Photon<br />

Beam Technology and Nan<strong>of</strong>abrication,<br />

Florida, May, <strong>2009</strong>.<br />

64. *Characterizing the hydration <strong>of</strong> PFSA<br />

fuel cell membranes through multiscale<br />

simulations, S.J. Paddison, Max-Planck-<br />

Institut für Festkörperforschung,<br />

Stuttgart, Germany, May 11, <strong>2009</strong>.<br />

65. *<strong>The</strong> structure and transport properties<br />

<strong>of</strong> proton exchange membranes:<br />

experiment, simulation and theory, S.J.<br />

Paddison, CNRS, Grenoble, France, May<br />

15, <strong>2009</strong>.<br />

66. A little basic forensic biology and<br />

probability relevant to CODIS, T. Wang,<br />

Training workshop conducted at the<br />

Unisys Corporation, June, <strong>2009</strong>.<br />

67. Molecular-level evaluation <strong>of</strong><br />

tailored MOFs for smart nanoporous<br />

preconcentrators <strong>of</strong> explosive<br />

compounds, R. Xiong, D.J. Keffer,<br />

D.M. Nicholson, and M.A. Fuentes-<br />

Cabrera, National Science Foundation<br />

Civil, Mechanical and Manufacturing<br />

Innovation (CMMI) <strong>Engineering</strong><br />

Research and Innovation Conference,<br />

Honolulu, HI, June 22-25, <strong>2009</strong>.<br />

68. <strong>The</strong> effect <strong>of</strong> charge distribution on<br />

RDX adsorption in IRMOF-10, R. Xiong,<br />

D.J. Keffer, M.A. Fuentes-Cabrera, D.M.<br />

Nicholson, A. Michalkova, T. Petrova,<br />

J. Leszczynski, K. Odbadrakh, and J.P.<br />

Lewis, National Science Foundation<br />

Civil, Mechanical and Manufacturing<br />

Innovation (CMMI) <strong>Engineering</strong><br />

Research and Innovation Conference,<br />

Honolulu, HI, June 22-25, <strong>2009</strong>.<br />

Editorial Boards<br />

“Advances in Environmental Research”,<br />

R.M. Counce<br />

“Journal <strong>of</strong> <strong>The</strong>rmodynamics”,<br />

B.J. Edwards<br />

“Journal <strong>of</strong> Rheology”,<br />

B. Khomami<br />

“Journal <strong>of</strong> Non-Newtonian Fluid Mechanics”,<br />

B. Khomami<br />

“Applied Rheology”,<br />

B. Khomami<br />

“Separation Science and Technology”,<br />

D. DePaoli, Associate Editor<br />

“Journal <strong>of</strong> the American Oil Chemists’ Society”,<br />

D.G. Hayes<br />

“Journal <strong>of</strong> Suractants & Detergents”,<br />

D.G. Hayes<br />

“Journal <strong>of</strong> Biological <strong>Engineering</strong>”,<br />

D.G. Hayes<br />

“SCANNING”,<br />

D.C. Joy, Editor in Chief<br />

“<strong>The</strong> Journal <strong>of</strong> Microscopy”,<br />

D.C. Joy<br />

“BioResources Journal”,<br />

T.G. Rials<br />

“Nuclear <strong>Engineering</strong> ant Technology (NET)”,<br />

an International Journal <strong>of</strong> the Korean<br />

Nuclear Society,<br />

B.B. Spencer, Reviews’ Committee<br />

<strong>CBE</strong> Donors for Fiscal Year <strong>2009</strong><br />

Dr. Louis P. Bosanquet and Mrs. Janine Bosanquet<br />

Mr. Jeffrey A. Smith and Mrs. Pamela A. Smith<br />

Mrs. Cynthia Ann Davis Hardy and Mr. Michael Hardy<br />

Mr. Stephen M. Miller and Mrs. Margaret Miller<br />

Dr. William O. Hadley and Mrs. Kay Hadley<br />

Mr. Jobie L. Jones and Mrs. Terri L. Jones<br />

Mr. Robert G. Bell and Mrs. Eunice Bell<br />

Mr. Robert S. Mayhew and Mrs. Karin Mayhew<br />

Mr. George Andrew Huttick and Mrs. Julie Ann<br />

Mr. William T. Hall and Mrs. Linda Hall<br />

Ms. Sydney E. Bonham<br />

Mr. Thomas H. Clark and Mrs. Ruth L. Clark<br />

Dr. Daniel T. Fetzer and Mrs. Mary F. Fetzer<br />

Mr. Dennis A. Denihan and<br />

Mrs. Constance S. Denihan<br />

Mr. Robert L. Rose and Mrs. Phyllis K. Rose<br />

Mr. Mark L. Mitchell and Mrs. Sabrina P. Mitchell<br />

Mr. John L. Nehls and Mrs. Cheryl J. Nehls<br />

Mr. David A. Boshers and Mrs Tammy Lynn Boshers<br />

Mr. William Michael Bennett and Mrs. Patti Bennett<br />

Mr. Warren Everett Medley<br />

Mr. Richard N. Layman<br />

Mr. David W. Haskins<br />

Mrs. Ann B. Anderson<br />

Mr. Louis E. Ingram and Mrs. Nancy D. Ingram<br />

Mr. William B. Hickam and Mrs. Christine Hickam<br />

Dr. Starling E. Shumate II and Mrs. Peggy L. Shumate<br />

Dr. Bamin Khomami and Mrs. Lora Khomami<br />

Dr. H. Leslie LaNieve III and Mrs. Nadine LaNieve<br />

Mrs. Jo A. Medlin and Mr. James Medlin<br />

Mrs. Mary K. Nehls<br />

Mr. Shek Chee Hong and Mrs. Tze Wei Hong<br />

Mrs. Sue Martin<br />

Mrs. Teresa Goins Curvin and<br />

Mr. Rodney Walter Curvin<br />

Mr. Richard A. Murdaugh and Mrs. Shirley Murdaugh<br />

Dr. James H. Haynes and Mrs. Mary A. Haynes<br />

Mr. Jason N. Scott and Mrs. Freedom Gichner Scott<br />

Mr Joseph W. Fowler and Mrs. Patricia Sue Fowler<br />

Ms. Jennifer Anne Allison<br />

Mr. Terry T. Godsey and Kathleen Godsey<br />

Mr. Troy C. Trotter<br />

Mr. Daniel James Bouch and Mrs. Brenda Bouch<br />

Mrs. Sue T. Utley<br />

Mr. Jesse Alexander Key and<br />

Mrs. Mary Penn Drinkard Key<br />

Dr. Paul Payson Hunt and Mrs. Helen Marie Hunt<br />

Mr. Winston Bernard Rawlston and<br />

Mrs. Susan Elizabeth Rawlston<br />

Mr. James R. McKinley and Mrs. Sandra McKinley<br />

Mr. Clyde Hermon Bell and Mrs. Kazue Momeda Bell<br />

Mr. James A. Rogers and Mrs. Danielle J. Rogers<br />

Mr. Ted P. Fix and Mrs. Carol J. Fix<br />

Mr. Mark J. Bendele<br />

Mr. Douglas M. McDonald<br />

Mr. Claude E. Buttram, Jr. and Mrs. Lucille R. Buttram<br />

Mr. Mark Thomas Bridges and<br />

Mrs. Patricia Ernestine Bridges<br />

Mr. Jimmy O. Lampley and Mrs. Mary E. Lampley<br />

Dr. Robert T. Jubin and Mrs. Sandra K. Jubin<br />

Mr. W. Quentin Gulley and Mrs. Madge Gulley<br />

Dr. Robert M. Counce and Mrs. Sandra E. Counce<br />

Dr. W. Wilson Pitt, Jr. and Mrs. Ann M. Pitt<br />

Mr. Bernie Lemuel Arnold and<br />

Mrs. Christina E. Arnold<br />

Mr. William Benjamin Luttrell and Mrs. Joy Luttrell<br />

Mr. Everette Kerby Harris, Jr.<br />

Mr. Christopher C. Walters and Mrs. Sherry Walters<br />

Dr. Douglas F. Stickle<br />

Mr. Tommy L. Brumfield and Mrs. Sally B. Brumfield<br />

Mr. Bobby T. Logue and Mrs. Carole Logue<br />

Dr. Joseph A. Byington and Mrs. Connie Byington<br />

Mr. Kenneth M. Elliott and Mrs. Virginia Elliott<br />

Dr. Craig A Hoyme and Ms. Debra P. Hoyme<br />

Dr. Richard L. Cox and Mrs. Kathleen J. Cox<br />

Dr. Michael S. Bronstein<br />

Dr. Helen G. Morrow<br />

Mr. Curtis M. Tong<br />

Mr. John H. E. Stelling, III, P.E.<br />

Mr. Kenneth E Bowen and Mrs. Pamela E Bowen<br />

Dr. Igor Quinones-Garcia<br />

Mr. Anthony Perry Gouge and Mrs. Leslie Gouge<br />

Dr. James J. Downs and Mrs. Patricia Downs<br />

Mrs. Joanne S. Ward<br />

Dr. Frank S. Riordan, Jr.<br />

Mr. J. Michael Stone<br />

Ms. Linda R. Bell<br />

Mr. Mark A. Templeton and Mrs. Patricia C. Templeton<br />

Ms. Sue Shults and Dr. Wilbur D. Shults<br />

Mr. Gene P. Stickle and Mrs. Cecil P. Stickle<br />

Mr. J. Leonard Garland and Mrs. Marsha Garland<br />

Corporations<br />

Dow Chemical Company Foundation<br />

Eastman Chemical Company<br />

DuPont<br />

Blue Water Partners, LLC<br />

ExxonMobil Foundation<br />

Triangle Community Foundation<br />

Hontek Corporation<br />

21


Total Income/Revenue for FY <strong>2009</strong><br />

$5.52 Million<br />

State E&G Budget<br />

$3,225,206<br />

58.5%<br />

Gifts, Grants and Contracts<br />

$2,292,620<br />

41.5%<br />

Gifts and Pledges for FY <strong>2009</strong><br />

$63,034 Thousand<br />

Pledges<br />

$3,575<br />

94.3%<br />

5.7%<br />

Gifts<br />

$59,459<br />

Gifts, Grants and Contract Expenditures for FY <strong>2009</strong><br />

$2.29 Million<br />

Salaries & Benefits<br />

$809,690<br />

Facilities & Administration<br />

$349,143<br />

Operating Expenses<br />

$139,319<br />

Equipment<br />

$123,764<br />

Tuition, Scholarships & Fellowships<br />

$250,912<br />

Other <strong>University</strong> Accounts<br />

$619,792<br />

Financial Information<br />

Educational and General Income Revenue for FY <strong>2009</strong><br />

$3.23 Million<br />

State E&G Budget<br />

$1,716,690<br />

New Faculty Startup Funds<br />

$929,571<br />

Summer School Funds<br />

$24,000<br />

<strong>Engineering</strong> Course Fees<br />

$60,710<br />

Other Non-Recurring E&G Funds<br />

$393,906<br />

Research Incentive Funds<br />

$100,329<br />

22


20<br />

Department <strong>of</strong> Chemical and Biomolecular <strong>Engineering</strong><br />

419 Dougherty <strong>Engineering</strong> Building • Knoxville, TN 37996-2200<br />

Phone: (865) 974-2421 • Fax: (865) 974-7076 • E-mail: cbe@utk.edu • Web: http://www.engr.utk.edu/cbe<br />

Non-Pr<strong>of</strong>it Org.<br />

U.S. Postage<br />

PAID<br />

Permit No. 481<br />

Knoxville, TN

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