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<strong>Refining</strong><br />

<strong>Breakthrough</strong><br />

Dr. Kenneth Hall has helped develop a new method<br />

for converting natural gas into useable fuel that<br />

has the potential to produce more than twice the<br />

amount <strong>of</strong> oil ever found in the United States.<br />

<strong>Chemical</strong> engineering major Felipe<br />

Rendon is leading an effort to assist a<br />

Costa Rica community in need.<br />

Shariq Yosufzai, a chemical engineering<br />

graduate and president <strong>of</strong> global<br />

marketing for Chevron Corporation,<br />

discusses the value <strong>of</strong> the Aggie brand.<br />

SPRING 2009


At a Glance<br />

Total Faculty 29<br />

Pr<strong>of</strong>essors 13<br />

Associate Pr<strong>of</strong>essors 2<br />

Assistant Pr<strong>of</strong>essors 9<br />

Non-tenured/ Non-tenure Track 5<br />

Endowed Chair Holders 3<br />

Endowed Pr<strong>of</strong>essorship Holders 7<br />

U.S. News & World Report Rankings<br />

Rankings Among Public Institutions<br />

15th Undergraduate<br />

20th Graduate<br />

Research Areas<br />

Biomedical and Biomolecular<br />

Complex Fluids<br />

Computational <strong>Chemical</strong> <strong>Engineering</strong><br />

Environmental<br />

Materials<br />

Microelectronics<br />

Micr<strong>of</strong>luidics<br />

Modeling and Simulation<br />

Nanotechnology<br />

Process Safety<br />

Process Systems <strong>Engineering</strong><br />

Reaction <strong>Engineering</strong><br />

Thermodynamics<br />

4<br />

16<br />

Thoughts on a story or suggestions for a future issue?<br />

Please direct all comments to Ryan A. Garcia, communications coordinator for the<br />

Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong> at Texas A&M University.<br />

PHONE: 979.845.9237<br />

EMAIL: ryan.garcia99@tamu.edu<br />

MAIL: Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong><br />

Texas A&M University<br />

3122 TAMU<br />

College Station, TX 77843-3122<br />

THE ARTIE MCFERRIN DEPARTMENT OF<br />

CHEMICAL ENGINEERING MAGAZINE, Issue 2,<br />

Spring Edition , April 2009.<br />

2<br />

3<br />

4<br />

7<br />

10<br />

13<br />

16<br />

18<br />

20<br />

CONTENTS<br />

Note From the <strong>Department</strong> Head<br />

Texas A&M chemical engineering is making<br />

an impact in a number <strong>of</strong> areas. Also, the<br />

passing <strong>of</strong> one <strong>of</strong> the department’s pioneers.<br />

The Lindsay Lecture Series<br />

Chancellor Pr<strong>of</strong>essor Enrique Iglesia <strong>of</strong> the<br />

University <strong>of</strong> California, Berkeley is this year’s<br />

distinguished lecturer.<br />

Fueling the Future<br />

A new technology for converting natural gas<br />

into useable fuel could take advantage <strong>of</strong> the<br />

stranded gas deposits around the world.<br />

Faculty News<br />

Honors, appointments and other distinctions<br />

Brand Value<br />

Former student and Chevron Corporation<br />

President for Global Marketing S. Shariq<br />

Yosufzai values his time at Texas A&M and his<br />

chemical engineering degree.<br />

Dr. Mariah Hahn: <strong>Engineering</strong><br />

a Healthier Future<br />

Assistant Pr<strong>of</strong>essor Mariah Hahn is passionate<br />

about her work in the area <strong>of</strong> tissue<br />

engineering and its potential to address a<br />

wide variety <strong>of</strong> clinical needs.<br />

Long - Distance Relationship<br />

Texas A&M engineering students are<br />

reaching out to a community in Costa Rica by<br />

<strong>of</strong>fering their engineering expertise.<br />

Student News<br />

<strong>Chemical</strong> engineering students excel.<br />

Friends <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong><br />

at Texas A&M<br />

Recent Support <strong>of</strong> the Artie McFerrin<br />

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

Page 1


Note from the<br />

<strong>Department</strong> Head<br />

Michael V. Pishko<br />

<strong>Department</strong> Head and Charles D. Holland ‘53 Pr<strong>of</strong>essor<br />

Welcome to the spring edition <strong>of</strong> our department magazine. As always, there is a lot happening within our department, and<br />

I’m excited to have the opportunity to share some <strong>of</strong> it with you. It’s my sincere hope that this publication provides a glimpse<br />

into the exciting and meaningful work <strong>of</strong> our students and faculty members.<br />

As this publication came together, a sort <strong>of</strong> theme emerged. Think <strong>of</strong> it as the many different areas chemical engineering<br />

touches and the many different ways it enables an individual to make significant contributions across a number <strong>of</strong> fields.<br />

Our cover story examines a promising new refining technology developed under the guidance <strong>of</strong> Dr. Ken Hall that has the<br />

potential to greatly increase access to stranded natural gas deposits around the world and in turn lead to cleaner fuels while<br />

stimulating local economies. We then move from refining to regeneration with a look at the work <strong>of</strong> one <strong>of</strong> our bright assistant<br />

pr<strong>of</strong>essors, Dr. Mariah Hahn. Her work in s<strong>of</strong>t tissue engineering is focusing on the regeneration <strong>of</strong> organs for which mechanical<br />

functionality is vital, such as blood vessels, bone and vocal cords. In keeping with our theme <strong>of</strong> widespread impact, we’re also<br />

proud to relay the success story <strong>of</strong> Mr. Shariq Yosufzai,<br />

a former student <strong>of</strong> this department whose chemical<br />

engineering background helped him climb the corporate<br />

ranks <strong>of</strong> Chevron Corporation, for which he now serves<br />

as president <strong>of</strong> global marketing. Last but certainly<br />

not least, our student story features a group <strong>of</strong> serviceoriented<br />

young men and women who are assisting a<br />

small community in Costa Rica with the renovation <strong>of</strong><br />

sanitation and septic systems in the local school.<br />

Quite simply, Texas A&M chemical engineering is<br />

everywhere – from the jungles <strong>of</strong> Costa Rica to the<br />

executive boardrooms <strong>of</strong> Chevron.<br />

Finally, I’d be remiss if I didn’t take this time to mention<br />

the passing <strong>of</strong> a man who this department and, indeed,<br />

university, have long held in high esteem, Dr. Charles<br />

D. Holland. Dr. Holland served as Texas A&M’s second<br />

chemical engineering department head from 1964 to 1987.<br />

To try and encapsulate within the confines <strong>of</strong> this<br />

letter Dr. Holland’s many contributions over the course<br />

<strong>of</strong> his life would be a near impossible task, but suffice it<br />

to say, he touched many lives while helping establish the<br />

groundwork that has enabled this department to grow<br />

into what it is today.<br />

One only needs to speak with anyone who had the<br />

pleasure <strong>of</strong> knowing Dr. Holland to quickly gauge the<br />

level <strong>of</strong> respect he garnered from those around him.<br />

Within our department, evidence <strong>of</strong> that respect remains<br />

apparent. One <strong>of</strong> our scholarship programs, which<br />

targets high-achieving undergraduates in chemical<br />

engineering, was established and named in his honor as<br />

was the pr<strong>of</strong>essorship that I proudly hold. Dr. Holland<br />

passed away in March, and he will be missed, but his<br />

contributions to his discipline and the lives around him<br />

live on.<br />

J.D. Lindsay<br />

Lecture Series<br />

Detailing how the surface reactivity <strong>of</strong> metal and oxide domains changes as their local structure and electronic properties<br />

vary with size, Enrique Iglesia, chancellor pr<strong>of</strong>essor <strong>of</strong> chemical engineering and director <strong>of</strong> the Catalysis Center at the<br />

University <strong>of</strong> California, Berkeley, delivered the distinguished lecture in the 2009 J.D. Lindsay Lecture Series at Texas A&M<br />

University this semester.<br />

Iglesia, an authority on chemical reaction engineering, was selected this year’s<br />

distinguished speaker for the series, which is sponsored by the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>.<br />

Iglesia’s presentation, “Nanoclusters and<br />

Nanospaces in Catalysis,” examined how small<br />

domains provide active sites unavailable on surfaces<br />

<strong>of</strong> larger structures <strong>of</strong> similar composition. Turnover<br />

rates for oxidation and acid catalysis depend on the<br />

ability <strong>of</strong> oxide nanostructures to stabilize anionic<br />

species at the relevant transition states, which reflects,<br />

in turn, their electronic structure, as determined by the<br />

size and composition <strong>of</strong> these domains, Iglesia said.<br />

Iglesia’s research interests are in heterogeneous<br />

catalysis and chemical reaction engineering with<br />

Chancellor Pr<strong>of</strong>essor Enrique Iglesia is this<br />

year’s distinguished Lindsay lecturer.<br />

emphasis on materials and processes relevant in<br />

energy use, synthesis <strong>of</strong> chemicals and fuels, and<br />

prevention and abatement <strong>of</strong> environmental impacts.<br />

Throughout his distinguished academic career, he has been awarded 40 patents<br />

and has co-authored more than 250 publications. His research and teaching have been<br />

recognized with the ACS George A. Olah Award in Hydrocarbon Chemistry, the AIChE<br />

Richard H. Wilhelm Award in <strong>Chemical</strong> Reaction <strong>Engineering</strong>, the Paul H. Emmett<br />

and Robert Burwell Awards <strong>of</strong> the Catalysis Society, the Humboldt Senior Scientist<br />

Award from the Alexander von Humboldt Foundation, and the Donald Sterling Noyce<br />

Teaching Prize, the highest recognition for teaching in the physical sciences at Berkeley.<br />

Iglesia joined Berkeley in 1993 after holding research and management positions<br />

at the Exxon Corporate Research Labs.<br />

Named in honor <strong>of</strong> the late Pr<strong>of</strong>essor J.D. Lindsay, Texas A&M’s first chemical engineering department head, the lecture series was<br />

established in 1980 to bring noted speakers to the university. Coming from both industry and academia, the lecturers are recognized for their<br />

accomplishments in the practice, teaching and/or research <strong>of</strong> chemical engineering. Each year one lecturer is chosen as the series’ distinguished<br />

speaker. The series also allows the lecturers several days for visiting the university and the department and for exchanging ideas on teaching<br />

and research objectives and methods.<br />

Page 2 Page 3


Fueling<br />

the Future<br />

A new refining technology developed by Texas A&M pr<strong>of</strong>essors in<br />

chemical engineering could result in increased access to natural gas<br />

deposits remotely located around the world – and the 500 billion<br />

barrels <strong>of</strong> oil they represent.<br />

It was that unanticipated moment <strong>of</strong> innovation on which<br />

scientists thrive and breakthroughs are fueled. Kenneth Hall<br />

was on his way to a meeting when the gears in his mind began<br />

to turn. Before long, a solution he later would label “so simple<br />

it had to work” solidified within his mind, and a project once<br />

months – possibly weeks – away from being shelved because<br />

<strong>of</strong> complications became firmly rooted in reality. The final<br />

piece <strong>of</strong> a rather ambitious puzzle undertaken by the pr<strong>of</strong>essor<br />

<strong>of</strong> chemical engineering and his colleagues at Texas A&M<br />

University was in place.<br />

As big ideas go, Hall, an internationally recognized expert<br />

in the area <strong>of</strong> thermodynamics, has certainly had his fair share.<br />

He’s a holder <strong>of</strong> 12 patents, and since he joined Texas A&M<br />

in 1974 he’s been awarded more than 60 grants and contracts<br />

totaling in excess <strong>of</strong> $10 million. But this was an idea likely to<br />

shoot to the top <strong>of</strong> his list because <strong>of</strong> its sheer implications.<br />

Specifically, in that impromptu moment between meetings,<br />

Hall had come up with an idea for incorporating a certain<br />

type <strong>of</strong> reactor into a chemical process, which he had been<br />

developing for the last decade. It would prove to be the key<br />

step in a process that figures to impact the energy industry –<br />

and world, for that matter – in unprecedented ways.<br />

The process: a new method for converting natural gas into<br />

useable fuel.<br />

The result will almost assuredly mean increased access to<br />

the roughly five quadrillion standard cubic feet <strong>of</strong> natural gas<br />

remotely located throughout the world, Hall says. That’s the<br />

equivalent <strong>of</strong> about 500 billion barrels <strong>of</strong> oil that are currently<br />

inaccessible.<br />

Stranded in remote areas such as the northwest coast <strong>of</strong><br />

Australia, the Peruvian jungles or Indonesian islands, those<br />

natural gas deposits have remained untapped for a number <strong>of</strong><br />

reasons, including geographical barriers and transportability<br />

issues, said Ben R. Weber, chairman and CEO <strong>of</strong> Synfuels<br />

International, Inc., the Dallas-based energy firm that holds the<br />

license to the gas-to-liquid (GTL) process. Throughout the last<br />

10 years, Synfuels has partnered in the effort to develop the<br />

process with Texas A&M and the Texas <strong>Engineering</strong> Experiment<br />

Station, <strong>of</strong> which Hall is associate director.<br />

Since then, Synfuels has expanded upon and patented the<br />

technology, which the company estimates has the potential to<br />

produce more than twice the amount <strong>of</strong> oil ever found in the<br />

United States.<br />

“This is undoubtedly the world’s first breakthrough<br />

for a gas-to-liquids refinery,” said Thomas R. Rolfe,<br />

president <strong>of</strong> Synfuels, at a press conference announcing the<br />

commercialization <strong>of</strong> the technology. “By cultivating these<br />

previously untapped resources, we will not only be able<br />

provide the world with a cleaner energy solution, producing<br />

virtually no unwanted byproducts, but we will also be able<br />

to stimulate local economies where we have identified these<br />

natural resources to be available.<br />

“A new era in gas-processing technology has been born.”<br />

Those in the energy industry have long known <strong>of</strong> the<br />

abundant natural gas deposits located throughout the world.<br />

The issue has been developing a cost-effective and efficient<br />

refining method for tapping into those deposits. The major<br />

components <strong>of</strong> natural gas – methane and ethane – are not<br />

easily liquefied.<br />

Hall found a way.<br />

“In effect, what we are able to do is to activate methane,”<br />

Hall said. “Methane is a very stable molecule; it doesn’t want<br />

to change into anything else unless you burn it.”<br />

In the new Synfuels technology, the methane activation<br />

process converts it and all other hydrocarbons in a natural gas<br />

stream into acetylene. This is accomplished through heating the<br />

natural gas to a very high temperature by burning part <strong>of</strong> it to<br />

form a flue gas that mixes with the rest <strong>of</strong> the gas, Hall explained.<br />

The resultant gas contains acetylene as well as un-reacted<br />

methane, carbon oxides, hydrogen, water and some nitrogen.<br />

The system then adds hydrogen to the acetylene in a reactor<br />

to form ethylene, which produces a better product than the<br />

acetylene,” Hall noted. With the right catalyst, conversion<br />

<strong>of</strong> the acetylene to ethylene is greater than 99 percent, Hall<br />

said. From that point, the ethylene can be converted into a<br />

number <strong>of</strong> different chemicals, including gasoline blendstock,<br />

polyethylene and other petrochemicals.<br />

Assuming a liquid product is the goal, the ethylene passes<br />

through a reactor in which it combines with itself to form<br />

heavier molecules, primarily those contained in gasoline. The<br />

stream is then cooled to allow the liquid product to separate<br />

from residual gas.<br />

“What we were able to do is develop a very simple<br />

process that would accomplish the same sort <strong>of</strong> thing as<br />

the very complicated and expensive Fischer-Tropsch process.”<br />

Dr. Kenneth Hall explains the Synfuels process to Interim Vice President<br />

for Research Dr. Theresa Maldonado.<br />

Page 4 Page 5


“What we were able to do is develop a very simple process<br />

that would accomplish the same sort <strong>of</strong> thing as the very<br />

complicated and expensive Fischer-Tropsch process,” Hall said.<br />

Developed in the 1920s by German researchers Franz<br />

Fischer and Hans Tropsch, the Fischer-Tropsch process<br />

has been the industry standard for producing a synthetic<br />

petroleum substitute,<br />

typically from<br />

coal, natural gas or<br />

biomass. Although<br />

it is an established<br />

technology, the process<br />

has not been without<br />

its deficiencies,<br />

namely start-up<br />

and operational<br />

costs as well as<br />

lack <strong>of</strong> scalability<br />

and environmental<br />

concerns.<br />

“Unless you have<br />

access to about a<br />

billion standard cubic<br />

feet [<strong>of</strong> natural gas] a day, no one wants to build a Fischer-<br />

Tropsch plant because <strong>of</strong> the economics,” Hall explained.<br />

Adding to the trouble <strong>of</strong> building such a plant are the rising<br />

costs <strong>of</strong> concrete and steel, making the construction costs <strong>of</strong><br />

a Fischer-Tropsch plant even more expensive. Some estimates<br />

have priced such a plant at more than $20 billion, he said.<br />

Unlike their Fischer-Tropsch predecessors, plants utilizing<br />

Hall’s GTL process are capable <strong>of</strong> being built on a variety <strong>of</strong><br />

scales while still operating in a commercially viable manner.<br />

In fact, Hall said these future plants can be downscaled<br />

to such a degree that they can be built in pieces on skids,<br />

enabling a helicopter to fly a disassembled plant to a remote<br />

location where it then can be easily reassembled.<br />

“When that field starts depleting, you can disassemble the<br />

skids and fly them to another place,” Hall said. “You could<br />

put them on barges and make them mobile, going to wherever<br />

there is gas.”<br />

In addition, these plants operate in a much more efficient<br />

manner than traditional refining methods, which, according<br />

to some estimates, annually waste as much as 5.3 trillion cubic<br />

feet <strong>of</strong> natural gas by either flaring or being vented. “Flaring”<br />

occurs when natural gas is inefficiently burned into the<br />

atmosphere during the refining process. Currently, an amount<br />

equivalent to 25 percent <strong>of</strong> the United States’ annual gas<br />

Page 6<br />

consumption is lost in this manner, Rolfe noted.<br />

For as much <strong>of</strong> a global impact as this advancement stands<br />

to make, amazingly, it almost didn’t happen. In a sense, it<br />

could be considered an accident – at least at the beginning,<br />

Hall said, admitting that if he and his fellow researchers had<br />

begun their work with the intent <strong>of</strong> developing a GTL process,<br />

they likely would have<br />

Kenneth R. Hall<br />

is a pr<strong>of</strong>essor in the Artie<br />

McFerrin <strong>Department</strong> <strong>of</strong><br />

<strong>Chemical</strong> <strong>Engineering</strong> at<br />

Texas A&M, a Regent’s<br />

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

Jack E. and Frances Brown<br />

Chair in <strong>Engineering</strong>. He<br />

is associate director <strong>of</strong> the<br />

Texas <strong>Engineering</strong> Experiment<br />

Station (TEES) where he<br />

emphasizes interdisciplinary<br />

research projects and oversees<br />

TEES centers and institutes.<br />

employed some form<br />

<strong>of</strong> Fischer-Tropsch<br />

technology.<br />

Instead, Hall and<br />

colleagues Rayford<br />

Anthony, Philip Eubank,<br />

J.A. Bullin and the late<br />

Aydin Akgerman set out<br />

to develop a disposal<br />

process for lube oil.<br />

During the course<br />

<strong>of</strong> its work, the group<br />

discovered it was<br />

possible to convert<br />

natural gas to acetylene,<br />

which could then be<br />

converted to ethylene.<br />

“That was the genesis <strong>of</strong> the project; it was a totally<br />

different way to get ethylene from natural gas,” Hall said.<br />

Later when the group proposed to Weber the idea <strong>of</strong><br />

realistically converting existing natural gas into useable<br />

petroleum products, the Synfuels CEO confessed he thought<br />

the concept was “almost too good to be true.” It was the<br />

credentials <strong>of</strong> Texas A&M and its researchers, he said, that<br />

convinced him to support the effort, and today Synfuels has<br />

the opportunity to develop natural resources that could never<br />

be developed before – and sooner than one might think. The<br />

first plant to utilize Synfuels technology is expected to be<br />

operational in roughly two years.<br />

“One <strong>of</strong> the things I always say is that industries have<br />

problems and are looking for solutions, and universities have<br />

solutions and are looking for problems – we’re able to play to<br />

each other’s strengths,” Hall said.<br />

“It’s very exciting. Nothing proceeds smoothly in one<br />

direction,” Hall said. “It’s always a bunch <strong>of</strong> starts and stops,<br />

and then you go back and fix something then start again.<br />

Luckily, the people at Synfuels were very dogged, and they<br />

were committed to making this work. They listened whenever I<br />

came up with ideas. Things took <strong>of</strong>f from there.”<br />

Faculty News<br />

Hall Receives AIChE Best Fundamental Paper Award<br />

Kenneth R. Hall, associate director <strong>of</strong> the Texas <strong>Engineering</strong><br />

Experiment Station (TEES) and the Jack E. & Frances Brown Chair<br />

and pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong><br />

<strong>Engineering</strong>, has been awarded the 2007 South Texas Section Best<br />

Fundamental Paper Award from the American Institute <strong>of</strong> <strong>Chemical</strong><br />

Engineers (AIChE).<br />

Hall co-authored the paper “Improved equations for the<br />

Standing-Katz tables” with Gustavo A. Iglesias-Silva, a visiting<br />

pr<strong>of</strong>essor in the department <strong>of</strong> chemical engineering.<br />

The article was published in the April 2007 edition <strong>of</strong> the<br />

journal “Hydrocarbon Processing,” which provides information<br />

to technical and management personnel in petroleum refining,<br />

gas processing, petrochemical/chemical and engineer/constructor<br />

companies throughout the world.<br />

Kao’s Research Featured on iTunes U<br />

Katy Kao, assistant pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been featured on iTunes U for her<br />

research on evolutionary adaptation, which was recently published<br />

in “Nature Genetics.”<br />

iTunes U is used by Texas A&M students, faculty and staff.<br />

However, the service is open to the public, including prospective<br />

and former students <strong>of</strong> Texas A&M. Users can download and listen<br />

to content on a personal computer or iPod through the iTunes<br />

application.<br />

Kao’s research can be downloaded free <strong>of</strong> charge as part <strong>of</strong> the<br />

“Research Quick Briefs” program that is featured in the Texas A&M<br />

section <strong>of</strong> iTunes U. The program is an audio podcast produced<br />

by Texas A&M’s Division <strong>of</strong> Research and Graduate Studies. Once<br />

at the main page for Texas A&M’s iTunes U, users can find the<br />

program under the “news and information” tab.<br />

Working with yeast cells, Kao has provided the first direct<br />

evidence <strong>of</strong> aspects occurring during the evolutionary process,<br />

which up until now have remained mostly theory. The result, she<br />

says, is the most detailed picture <strong>of</strong> the evolutionary process to<br />

date.<br />

To access Texas A&M iTunes U. visit: http://itunes.tamu.edu.<br />

Kuo Named Member <strong>of</strong> Hong Kong’s Research Grants<br />

Council<br />

Yue Kuo, Dow Pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong> <strong>of</strong><br />

<strong>Chemical</strong> <strong>Engineering</strong>, has been appointed a formal member <strong>of</strong><br />

the <strong>Engineering</strong> Panel <strong>of</strong> the Research Grants Council (RGC)<br />

<strong>of</strong> Hong Kong.<br />

Kuo, who was <strong>of</strong>ficially named a member by RGC Chairman<br />

Roland Chin, will hold membership through 2010 and serve on the<br />

engineering panel <strong>of</strong> the council, which is Hong Kong’s equivalent<br />

to the National Science Foundation.<br />

The RGC is established under the aegis <strong>of</strong> the University Grants<br />

Committee (UGC). It is responsible, through the UGC, for advising<br />

the Government <strong>of</strong> the Special Administrative Region <strong>of</strong> the<br />

People’s Republic <strong>of</strong> China on the needs <strong>of</strong> Hong Kong’s higher<br />

education institutions in the field <strong>of</strong> academic research and for the<br />

distribution <strong>of</strong> funding for academic research projects undertaken<br />

by academic staff <strong>of</strong> UGC-funded institutions.<br />

Pishko Receives Plenary Lecture Award at AIChE Annual<br />

Meeting<br />

Michael V. Pishko, pr<strong>of</strong>essor and head <strong>of</strong> the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has received the American<br />

Institute <strong>of</strong> <strong>Chemical</strong> Engineers (AIChE) Food, Pharmaceuticals<br />

and Bioengineering Plenary Lecture Award.<br />

Pishko, whose research interests include micr<strong>of</strong>abricated<br />

biosensors, neovascularization <strong>of</strong> implanted biomaterials and<br />

“smart” drug delivery systems, was honored at the 2008 AIChE<br />

Annual Meeting for his presentation “Nanoparticles for Drug<br />

Delivery and Biochemical Sensing.”<br />

The presentation detailed Pishko’s research in nanoparticles<br />

drug delivery systems for chemotherapy and the development <strong>of</strong><br />

nanosensors for mapping oxidative stress in cells.<br />

Laird Recognized for Teaching Excellence<br />

Carl Laird, assistant pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been named this year’s recipient <strong>of</strong><br />

the Celanese Excellence in Teaching Award.<br />

The award recognizes Laird for his dedication and outstanding<br />

contributions to the education and pr<strong>of</strong>essional development <strong>of</strong><br />

chemical engineering students at Texas A&M.<br />

Laird teaches an undergraduate class on numerical methods<br />

and co-teaches a graduate level class on carbon dioxide capture<br />

and sequestration.<br />

In addition to his teaching responsibilities, Laird conducts<br />

research focusing on large-scale nonlinear optimization, parameter<br />

estimation and parallel computing. As part <strong>of</strong> his research, he<br />

has worked on developing algorithms as part <strong>of</strong> an early warning<br />

contaminant detection system in municipal drinking water<br />

networks. He also is involved in the modeling and optimization <strong>of</strong><br />

infectious diseases, working to determine the fundamental driving<br />

forces affecting the spread <strong>of</strong> infectious disease.<br />

Celanese Corporation, which is based in Dallas and employs<br />

approximately 8,900 employees worldwide, is a world leader in<br />

the production <strong>of</strong> high-performance engineered polymers used in<br />

consumer and industrial products.<br />

Page 7


Hahn Presents Research at Georgia Tech<br />

Juergen Hahn, assistant pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, discussed his research on systems biology at<br />

The Georgia Institute <strong>of</strong> Technology this past January.<br />

Hahn’s presentation, “Developing Improved Models <strong>of</strong> Signal<br />

Transduction Pathways via Systems Biology,” was part <strong>of</strong> a seminar<br />

series sponsored by Georgia Tech’s School <strong>of</strong> <strong>Chemical</strong> and<br />

Biomolecular <strong>Engineering</strong>.<br />

His presentation at Georgia Tech detailed the dynamics <strong>of</strong><br />

expression and interaction <strong>of</strong> the IL-6 signaling pathway molecules,<br />

which Hahn says act as a key factor <strong>of</strong> the phenotypical characteristic<br />

<strong>of</strong> the acute phase response (APR) in the liver.<br />

IL-6, he says, has been identified as one <strong>of</strong> the systemic<br />

inflammatory mediators involved in the regulation <strong>of</strong> the hepatic APR.<br />

Gaining an improved understanding <strong>of</strong> the molecular mechanisms<br />

involved in the APR in the liver upon trauma or injury can lead to<br />

improved treatment <strong>of</strong> complications arising from inflammatory<br />

disorders, Hahn explains.<br />

Hahn’s work develops and analyzes a comprehensive mathematic<br />

model for signal transduction through the JAK/STAT and the MAPK<br />

signaling pathways in hepatocytes stimulated by IL-6. Interactions<br />

among the two signaling pathways are systematically investigated<br />

using sensitivity analysis in order to ultimately derive and validate an<br />

improved model.<br />

Mannan Named Regents Pr<strong>of</strong>essor<br />

M. Sam Mannan, holder <strong>of</strong> the T. Michael O’Connor Chair I in<br />

the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong> and director<br />

<strong>of</strong> the Mary Kay O’Connor Process Safety Center, has received the<br />

designation <strong>of</strong> Regents Pr<strong>of</strong>essor for 2007-08.<br />

The A&M System Board <strong>of</strong> Regents established the Regents Pr<strong>of</strong>essor<br />

Award program in 1996 to recognize employees who have made<br />

exemplary contributions to their university or agency and to the people <strong>of</strong><br />

Texas. To date, 105 faculty members have been named Regents Pr<strong>of</strong>essors.<br />

Mannan, a pr<strong>of</strong>essional engineer and certified safety pr<strong>of</strong>essional, is an<br />

internationally recognized expert on process safety and risk assessment.<br />

Also recognized with the designation <strong>of</strong> Regents Pr<strong>of</strong>essor was<br />

K.R. Rajagopal <strong>of</strong> Texas A&M’s Mechanical <strong>Engineering</strong> department.<br />

Rajagopal holds a joint appointment in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>.<br />

Hahn Named Outstanding Reviewer by Automatica Journal<br />

Juergen Hahn, assistant pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been named an “Outstanding Reviewer”<br />

by “Automatica,” the flagship journal <strong>of</strong> the International Federation<br />

<strong>of</strong> Automatic Control (IFAC).<br />

Each year the editors <strong>of</strong> “Automatica” identify a select group <strong>of</strong><br />

reviewers from a pool <strong>of</strong> about 1,300 individuals who prepare reviews<br />

for the journal. This is Hahn’s third consecutive selection.<br />

As a reviewer, Hahn is responsible for judging the novelty <strong>of</strong> the<br />

work and quality <strong>of</strong> the manuscripts that are being considered for<br />

Page 8<br />

publication by “Automatica.”<br />

“Automatica” publishes papers on original theoretical and<br />

experimental research and development in the control <strong>of</strong> systems,<br />

involving all facets <strong>of</strong> automatic control theory and its applications.<br />

Cagin Discusses Research at American Physical Society<br />

Annual Meeting<br />

Discussing modeling and simulation studies conducted on various<br />

complex materials systems, Tahir Cagin, pr<strong>of</strong>essor in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, recently presented his research at<br />

the annual American Physical Society Meeting in Pittsburgh.<br />

His invited presentation, “Molecular Dynamics Simulations <strong>of</strong><br />

Interfaces in Complex Materials,” was one <strong>of</strong> two talks featured in<br />

“characterization and modeling <strong>of</strong> surfaces and interfaces” focus session.<br />

It detailed interface chemistry and role <strong>of</strong> strain in<br />

photoluminescence <strong>of</strong> embedded silicon nanocrystals in silica matrix<br />

in the context <strong>of</strong> solar energy applications; the role <strong>of</strong> nanostructure<br />

in thermoelectrics such as superlattices, nanoscopically thin films<br />

and nanowires for improving the efficiency <strong>of</strong> converting waste heat<br />

into usable electricity; and the role <strong>of</strong> nanostructured interfaces in<br />

piezoelectric materials for improved mechano-electric coupling in<br />

these functional ceramics.<br />

In addition, Cagin also discussed fundamental issues <strong>of</strong> modeling<br />

such interfaces in condensed phase systems, such as carbon nanotube<br />

polymer nanocomposites, polymer nanocomposites with layered<br />

inorganic and nanoparticle inclusions.<br />

Materials Science Research on Cover <strong>of</strong> ‘Advanced<br />

Functional Materials’<br />

Research by Hae-Kwon Jeong and Zhengdong Cheng, two assistant<br />

pr<strong>of</strong>essors in the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>,<br />

has been featured as the cover story in the December edition <strong>of</strong> the<br />

international journal “Advanced Functional Materials.”<br />

The article details work in the complex area <strong>of</strong> materials science –<br />

work that could lead to advancements in areas such as energy, health<br />

and medicine, and sensing. The research is a collaboration between<br />

Jeong and Cheng’s research group, which examines colloids, complex<br />

fluids, crystallization and other s<strong>of</strong>t condensed matter topics.<br />

“Advanced Functional Materials” publishes full papers, feature<br />

articles and highlights on innovative and exciting research in all<br />

areas <strong>of</strong> materials science. It contains high-quality, in-depth reports<br />

on the advances being made at the forefront <strong>of</strong> the interdisciplinary<br />

development and application <strong>of</strong> functional materials.<br />

Cheng Presents Research at India Symposium<br />

Zhengdong Cheng, assistant pr<strong>of</strong>essor in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, recently presented his research<br />

at the 17th International Symposium on Processing and Fabrication <strong>of</strong><br />

Advanced Materials, held in New Delhi, India.<br />

Cheng, whose research is in the area <strong>of</strong> complex fluids, was<br />

invited to speak on “Cell Encapsule and Novel Particle Fabrication via<br />

Micr<strong>of</strong>luidics and Electrospray.”<br />

When in India, Cheng also visited students from the Indian<br />

Institutes <strong>of</strong> Technology as well as universities and institutions who<br />

had expressed interest in Texas A&M’s graduate programs in chemical<br />

engineering and materials science.<br />

The purpose <strong>of</strong> this international symposium was to convene<br />

state-<strong>of</strong>-the-art developments on all aspects related to the processing<br />

and fabrication <strong>of</strong> advanced materials. The symposium provided an<br />

opportunity for presenting the latest advances in materials processing<br />

and fabrication by researchers, scientists and engineers from industry,<br />

research laboratories and academia.<br />

Mannan Honored by Poland University<br />

M. Sam Mannan, director <strong>of</strong> Texas A&M University’s Mary Kay<br />

O’Connor Process Safety Center and pr<strong>of</strong>essor in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been honored with the<br />

Medal <strong>of</strong> Honor <strong>of</strong> the Technical University <strong>of</strong> Lodz in Poland.<br />

Mannan, who visited the university to present research on risk<br />

analysis and process safety as part <strong>of</strong> the institute’s International<br />

Scientific Symposium, was recognized for significant contributions to<br />

the scientific cooperation between Texas A&M and Technical University<br />

as well as his support <strong>of</strong> process safety education and research.<br />

Mannan, a pr<strong>of</strong>essional engineer and certified safety pr<strong>of</strong>essional,<br />

is an internationally recognized expert on process safety and risk<br />

assessment. In addition to his many pr<strong>of</strong>essional honors and<br />

achievements, he has served as a consultant to numerous entities<br />

in both the academic and private sectors, including the Columbia<br />

Accident Investigation Board.<br />

Balbuena Discusses Fuel Cell Catalyst Research at University<br />

<strong>of</strong> Florida<br />

Perla Balbuena, pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong> <strong>of</strong><br />

<strong>Chemical</strong> <strong>Engineering</strong>, discussed her research in the area <strong>of</strong> fuel cell<br />

catalysts at the University <strong>of</strong> Florida.<br />

Balbuena spoke about “Challenges in the Design <strong>of</strong> Active and<br />

Durable Fuel Cell Catalysts” as part <strong>of</strong> the chemical engineering<br />

department’s seminar series.<br />

Balbuena’s presentation detailed some <strong>of</strong> the most important<br />

challenges associated with the design <strong>of</strong> efficient alloy nanocatalysts,<br />

due to the harsh chemical environment where these catalysts work.<br />

Metal nanoparticles used as catalysts in low-temperature fuel cells<br />

are expected to provide the necessary activity and stability such that<br />

the fuel cell performance is minimally affected by catalytic decay,<br />

Balbuena says.<br />

Four Faculty Members Honored by Texas A&M <strong>Engineering</strong><br />

Four faculty members from the Artie McFerrin <strong>Department</strong> <strong>of</strong><br />

<strong>Chemical</strong> <strong>Engineering</strong> have been recognized by Texas A&M University<br />

<strong>Engineering</strong> for excellence in teaching, research and service.<br />

Pr<strong>of</strong>essors Mahmoud El-Halwagi and Kenneth Hall and assistant<br />

pr<strong>of</strong>essors Juergen Hahn and Mariah Hahn are recipients <strong>of</strong> awards<br />

bestowed by the Dwight Look College <strong>of</strong> <strong>Engineering</strong> and the Texas<br />

<strong>Engineering</strong> Experiment Station.<br />

El-Halwagi has been honored with the Lockheed Martin Aeronautics<br />

Company Excellence in <strong>Engineering</strong> Teaching Award, and Hall has<br />

received the Charles W. Crawford Service Award, which was established<br />

in 1962 for distinguished service to the college <strong>of</strong> engineering.<br />

Juergen Hahn has received the 2008-2009 Brockett Pr<strong>of</strong>essorship<br />

Award and the 2008-2009 William Keeler Faculty Fellowship, both<br />

presented to individuals who have displayed continued excellence in<br />

both teaching and research, and Mariah Hahn has been named a Texas<br />

<strong>Engineering</strong> Experiment Station Select Young Faculty member.<br />

El-Halwagi Honored with Teaching Excellence Award<br />

Mahmoud El-Halwagi, pr<strong>of</strong>essor in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been named a recipient<br />

<strong>of</strong> the first-ever Teaching Excellence Award, part <strong>of</strong> a voluntary,<br />

student-selected honors program launched last fall by The Texas<br />

A&M University System.<br />

The winners represent the top 18 percent <strong>of</strong> the nearly 500 faculty<br />

members who participated. Awards are based on rankings from<br />

evaluations created and administered by students, with weighting for<br />

factors such as class size.<br />

As part <strong>of</strong> the program, a total <strong>of</strong> 80 faculty members from the Texas<br />

A&M University, Prairie View A&M University and Texas A&M University-<br />

Kingsville have been honored. El-Halwagi is one <strong>of</strong> only 10 faculty<br />

members at Texas A&M designated in the top three percent category.<br />

Faculty members ranking in the top three percent will be awarded $5,000<br />

to $10,000. The next 15 percent receive $2,500 to $5,000.<br />

The $1.1 million program, funded through the Texas A&M System,<br />

was initiated by Chancellor Michael D. McKinney in 2008 to honor<br />

and financially reward the system’s top teachers as selected by students.<br />

For the spring 2009 semester, the program is expanding to all nine<br />

campuses <strong>of</strong> the Texas A&M System and will increase to include the top<br />

20 percent <strong>of</strong> participating faculty. All faculty members are eligible.<br />

M. Hahn Receives Outstanding Young Faculty Award<br />

Mariah Hahn, assistant pr<strong>of</strong>essor in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has received the 2009 American Society for<br />

<strong>Engineering</strong> Education (ASEE) Gulf Southwest Section Outstanding<br />

Young Faculty Award.<br />

The award was established to encourage and recognize young faculty<br />

participation in ASEE or engineering education activities and events.<br />

Recognition as an outstanding young faculty member is based<br />

on contributions in a number <strong>of</strong> areas, including publication and<br />

presentations at pr<strong>of</strong>essional meetings that enhance engineering education;<br />

scholarly activities related to engineering or engineering technology; and<br />

advising and service to graduate and undergraduate students.<br />

Hahn’s research focuses on understanding cell-cell and cellmaterial<br />

interactions at a more fundamental level to rationally guide<br />

tissue regeneration. Earlier this academic year, she was named a Texas<br />

<strong>Engineering</strong> Experiment Station Select Young Faculty member.<br />

Page 9


Brand Value<br />

S. Shariq Yosufzai knows the value <strong>of</strong> a brand.<br />

As president <strong>of</strong> global marketing for Chevron Corporation,<br />

he’s responsible for retail fuels marketing, convenience<br />

retailers, and commercial and industrial marketing <strong>of</strong> the<br />

corporation’s convenience products and fuels, which are<br />

sold at a rate <strong>of</strong> nearly four million barrels a day across 70<br />

countries and under the familiar brands <strong>of</strong> Chevron, Texaco<br />

and Caltex. Convenience retailing product brands include<br />

ExtraMile and Star Mart.<br />

Page 10<br />

S. Shariq Yosufzai<br />

The brand, Yosufzai explains, is more than a mere<br />

marketing tool; it’s the expression <strong>of</strong> a company’s values and<br />

its approach to the way it conducts business. In Chevron’s<br />

case, it’s the representation <strong>of</strong> the corporation’s mantra <strong>of</strong><br />

“clean, safe and reliable,” delivered in a way that creates a<br />

powerful proposition for its clients and potential clients. In<br />

short, it’s a one-word, unwavering answer to Shakespeare’s<br />

poetically framed lament, “What’s in a name?”<br />

Everything.<br />

So perhaps it was no surprise that when a particular brand<br />

Yosufzai has long held close to his heart was, in his estimate,<br />

Yosufzai takes time to visit with a member <strong>of</strong> Texas A&M’s Corps <strong>of</strong> Cadets and the school’s mascot, a full-blooded collie named Reveille.<br />

called into question, the savvy executive responded with a<br />

swift and passionate reply. No, this wasn’t about Chevron,<br />

Texaco or Caltex. This concerned the Aggie Ring Yosufzai<br />

proudly wears on his right hand.<br />

Yosufzai, who graduated from Texas A&M in 1974 with a<br />

bachelor’s degree in chemical engineering, had just finished<br />

reading a letter to the editor <strong>of</strong> the university’s student<br />

newspaper that argued the significance <strong>of</strong> the Aggie ring.<br />

One eloquently penned retort later, Yosufzai had responded<br />

with a brief but intense lesson on brand value. In his response,<br />

Yosufzai explained that the true worth <strong>of</strong> the Aggie Ring is<br />

found in its symbolism <strong>of</strong> the loyalty, dedication, excellence<br />

and commitment shared by a community <strong>of</strong> individuals.<br />

“More so than even the instant camaraderie it engenders,<br />

what the ring<br />

represents is the<br />

nexus <strong>of</strong> values<br />

established between<br />

two strangers who have<br />

a foundational basis<br />

to form a link, to form<br />

a network,” Yosufzai<br />

said, explaining<br />

his motivations<br />

for responding to the letter. “I took great umbrage at the<br />

deconstruction <strong>of</strong> this.<br />

“As Aggies, we must all understand that we have to nurture<br />

and refresh the Texas A&M brand every day. We must treat any<br />

attack on the brand – whether it’s an improper behavior by<br />

one <strong>of</strong> its practitioners or an attempt to lower it to the lowest<br />

common denominator – with a high degree <strong>of</strong> accountability,”<br />

added Yosufzai, who is both a distinguished alumnus and<br />

outstanding international alumnus <strong>of</strong> Texas A&M.<br />

Yosufzai’s fervent devotion to his alma mater stems from<br />

his deep belief in the power <strong>of</strong> Texas A&M – a power, he says,<br />

that results from a unique coupling <strong>of</strong> world-class academic<br />

programs and an environment that cultivates leadership and<br />

personal growth.<br />

It’s a power he experienced firsthand. After all, long before<br />

Yosufzai emerged as the influential marketing executive<br />

he is today, he was an aspiring young man from what is<br />

now Bangladesh, arriving at the doorstep <strong>of</strong> the university<br />

about which he had heard so much while growing up in his<br />

hometown <strong>of</strong> Dhaka.<br />

The local engineering school as well as the local agricultural<br />

school – at the time known as the East Pakistan University <strong>of</strong><br />

<strong>Engineering</strong> and Technology and the East Pakistan University <strong>of</strong><br />

“The core values <strong>of</strong> Texas A&M,<br />

the brand that it represents – selfless service,<br />

integrity – those ideals are hugely important.”<br />

Agriculture – had been established, in part, with several technical<br />

agreements between the schools and Texas A&M.<br />

“Texas A&M enjoyed in the late ‘60s a great brand in<br />

that part <strong>of</strong> the world from a lot <strong>of</strong> graduates who had set<br />

up two institutions <strong>of</strong> higher learning with very limited<br />

funds but with a very dedicated faculty that used innovation<br />

and creativity to achieve great things in a very challenged<br />

environment,” Yosufzai said.<br />

So in the fall <strong>of</strong> 1970 Yosufzai ventured to College Station,<br />

entering a Texas A&M environment in the midst <strong>of</strong> change. It<br />

was a time <strong>of</strong> physical growth for the university.<br />

The Memorial Student Center expansion, Rudder Tower and<br />

Rudder Auditorium headlined a long list <strong>of</strong> new additions on<br />

campus. It was, however, the personal growth that Yosufzai<br />

experienced that he<br />

credits as providing the<br />

foundation for his future<br />

success.<br />

“One <strong>of</strong> the things that<br />

was very evident when I<br />

was a student – as it is<br />

evident today – is that<br />

Texas A&M is a wonderful<br />

leadership laboratory<br />

– and not leadership in the sense <strong>of</strong> self-aggrandizement,<br />

but leadership that allows you to grow by growing through<br />

others,” he said. “We had a culture, we had a brand, and this<br />

notion <strong>of</strong> selfless service was very prominent. And even though<br />

the school has today transformed itself into an institution <strong>of</strong><br />

47,000 students, that ideal continues.”<br />

While pursuing his chemical engineering degree, Yosufzai<br />

immersed himself in the university culture, participating in<br />

Texas A&M Corps <strong>of</strong> Cadets and the Student Conference on<br />

National Affairs. An opera enthusiast, Yosufzai also helped<br />

initiate the university’s Opera and Performing Arts Society,<br />

today better known as MSC OPAS. Those endeavors along<br />

with a host <strong>of</strong> other academic and cultural opportunities, he<br />

explained, helped catalyze a process <strong>of</strong> self-discovery in an<br />

environment chiefly characterized by egalitarianism.<br />

“Never was I judged by the quality <strong>of</strong> the car I drove<br />

or the background from which I came,” he said. “The vast<br />

preponderance <strong>of</strong> my time at Texas A&M was typified by an<br />

overall meritocracy rather than where a person came from or<br />

how much money a person had. That was a defining quality<br />

then, and I think it continues to be today.”<br />

And while those extracurricular activities nourished and<br />

cultivated important elements in his overall development,<br />

Page 11


Yosufzai credits the intensive chemical engineering education<br />

he received as a major factor in helping distinguish him years<br />

down the road.<br />

Upon graduating with a bachelor’s degree in chemical<br />

engineering, Yosufzai joined Texaco in 1975, working as a<br />

process engineer at the company’s Port Arthur refinery. It<br />

would be the beginning <strong>of</strong> an extremely successful career with<br />

Chevron Corporation, a career in which Yosufzai has ascended<br />

from a frontline employee to president <strong>of</strong> global marketing.<br />

As might be expected, his climb up the corporate ladder was<br />

full <strong>of</strong> twists and turns that saw him serve in a number <strong>of</strong><br />

engineering capacities across all three brands <strong>of</strong> Chevron, but<br />

in 1988 he was given the chance to try his hand in a new arena:<br />

marketing. Seizing that opportunity, Yosufzai wasted little time<br />

applying the discipline that defined his chemical engineering<br />

work to a field generally considered more free form.<br />

“I was always a nascent marketer,” Yosufzai said. “One <strong>of</strong><br />

the things that I brought in from my chemical engineering<br />

background was a more systematic discipline in ways <strong>of</strong><br />

looking at the business. Marketers basically in those days –<br />

and probably still to some extent now – were concerned with<br />

volume and market share as opposed to pr<strong>of</strong>itable volume<br />

and the cost to serve. The discipline that a chemical engineer<br />

would bring to a field that is more creative and free flowing<br />

was a good match.”<br />

From that point on Yosufzai would assume positions <strong>of</strong><br />

increasing responsibility until in 2004 when he was appointed<br />

to his current role. It’s a role through which he diligently<br />

works to ensure Chevron’s three brands remain globally<br />

robust. That <strong>of</strong>ten translates into days that begin early in<br />

the morning with correspondence to Africa and the United<br />

Kingdom and end late in the evening when Singapore is<br />

waking up – all in an effort to achieve the greatest brand value<br />

for his corporation’s products.<br />

“Most <strong>of</strong> our service stations are owned by third parties,<br />

independent business people, large as well as small, who have<br />

choices in terms <strong>of</strong> brand,” Yosufzai said. “They can go with<br />

any brand that they wish.<br />

“Positioning our brands is very important. The Chevron<br />

and Texaco brands are the number-one and number-two most<br />

powerful fuel brands in the U.S. Caltex brand is the most<br />

powerful brand in Hong Kong and parts <strong>of</strong> Asia, as well as<br />

South Africa. Our Texaco brand is the most powerful brand in<br />

Latin America.”<br />

As for the Texas A&M brand? It’s not doing so badly either.<br />

“Once, while I was at the United Nations, I was standing<br />

near a payphone,” Yosufzai recalled. “I had my hand on the<br />

wall, and after my conversation was over someone tapped on<br />

my shoulder. I found out he was the U.N. ambassador <strong>of</strong> a<br />

West African country, who just happened to be an Aggie, and<br />

he had seen my ring. That type <strong>of</strong> thing happens many times.<br />

I have an Aggie sticker on the back <strong>of</strong> my car, and even in<br />

California people honk and give me the Gig ‘em sign.<br />

“The iconic symbol <strong>of</strong> the Aggie network is hugely<br />

important to people who belong to it, but it’s also open to<br />

the people on the outside. The core values <strong>of</strong> A&M, the brand<br />

that it represents – selfless service, integrity – those ideals are<br />

hugely important.”<br />

Yosufzai serves as second vice-chair <strong>of</strong> the board <strong>of</strong> directors <strong>of</strong> the<br />

California Chamber <strong>of</strong> Commerce; on the executive committee <strong>of</strong> board<br />

<strong>of</strong> directors <strong>of</strong> the San Francisco Opera; and The Association <strong>of</strong> Former<br />

Students <strong>of</strong> Texas A&M as chair elect. He has previously served on the<br />

boards <strong>of</strong> Houston Grand Opera; Jesse H. Jones, School <strong>of</strong> Business at<br />

Texas Southern University; the Chick-Fil-A Peach Bowl in Atlanta; Junior<br />

Achievement <strong>of</strong> Southeast Texas Inc.; the Greater Houston Area Recycling<br />

Council; and Texas A&M’s College <strong>of</strong> Science. He also has been active<br />

with American Institute <strong>of</strong> <strong>Chemical</strong> Engineers (AIChE), serving as the first<br />

chair <strong>of</strong> the Societal Impact Operating Council (SIOC), chair <strong>of</strong> the first<br />

AIChE Management Conference, and chair <strong>of</strong> the National Public Relations<br />

Committee. In 1995, he was awarded AIChE’s Robert L. Jacks Memorial<br />

Award for his contributions to both the Management <strong>of</strong> Engineers and the<br />

<strong>Chemical</strong> Process Industries. He was elected a fellow <strong>of</strong> AIChE in 2002.<br />

FACULTY PROFILE<br />

Dr. Mariah Hahn<br />

<strong>Engineering</strong> a Healthier Future<br />

As much as Mariah Hahn would like to hearken back to that one magical childhood moment during which she<br />

decided to embark on a career in science, the assistant pr<strong>of</strong>essor in Texas A&M University’s Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong> confesses she didn’t have one. In fact, she candidly admits that she wasn’t even very<br />

inquisitive as a child.<br />

“I was never one <strong>of</strong> those kids who asked why the sky was blue; I was just happy knowing it was blue,” Hahn joked.<br />

Oh, how things have changed.<br />

Page 12 Page 13


These days Hahn spends her time in a world <strong>of</strong> questions,<br />

asking and attempting to answer some very complex ones.<br />

A bright, young chemical engineer whose focus is on<br />

biological processes, specifically cell-material interactions,<br />

Hahn is one <strong>of</strong> the up-and-coming minds in the rapidly<br />

advancing field <strong>of</strong> tissue engineering. She’s recently been<br />

named a “Texas <strong>Engineering</strong> Experiment Station Select Young<br />

Faculty” member. And last year Hahn was recognized as a<br />

“rising star” by the American <strong>Chemical</strong> Society, receiving the<br />

organization’s “PROGRESS/Dreyfus Lectureship Award” in<br />

recognition <strong>of</strong> her research contributions in the areas <strong>of</strong> s<strong>of</strong>t<br />

tissue engineering.<br />

It’s a field that at one time seemed the stuff <strong>of</strong> science<br />

fiction with its focus on regeneration and growth <strong>of</strong> manmade,<br />

living replacement parts for the human body. Advances<br />

in science and medicine throughout the last few decades,<br />

however, have resulted in serious progress in the field, making<br />

what once seemed unimaginable now chock-full <strong>of</strong> potential.<br />

In addition to reducing the number <strong>of</strong> lives lost due to<br />

shortages <strong>of</strong> transplantable organs, tissue engineering may<br />

lead to more effective treatments for burn victims as well<br />

as those suffering from injuries and even degenerative or<br />

congenital defects.<br />

Hahn focuses on studying regeneration <strong>of</strong> organs for<br />

which mechanical functionality is vital. She’s particularly<br />

interested in blood vessels, bone and vocal cords.<br />

Her work with vocal folds began when she was a graduate<br />

student at MIT under the guidance <strong>of</strong> Robert S. Langer, a<br />

distinguished and highly regarded researcher in the field.<br />

Prior to that, Hahn had earned her master’s degree in<br />

electrical engineering from Stanford University and attended<br />

the University <strong>of</strong> Texas at Austin as an undergraduate where<br />

she received her bachelor’s in chemical engineering. The plan<br />

back then, said Hahn, was to utilize her electrical engineering<br />

background and work with medical imaging technology, such<br />

as that used in MRI scans.<br />

But events at MIT took a somewhat fortuitous turn.<br />

In 2001, Langer’s research group was seeking two graduate<br />

students to assist in a new vocal cord regeneration project<br />

– one who would focus on designing the biomaterials<br />

needed for regeneration and another who would focus on<br />

developing measures<br />

for evaluating<br />

biomaterial success,<br />

including the use <strong>of</strong><br />

imaging technology.<br />

Ultimately, only<br />

one student was<br />

hired – Hahn. She<br />

was selected however<br />

with the expectation<br />

that she focus on biomaterials research rather than imaging.<br />

She accepted the challenge and began tackling a serious and<br />

compelling problem.<br />

Vocal cord disorders have affected millions <strong>of</strong> people.<br />

Damage to the cords can be attributed to scarring from<br />

surgical procedures, including intubation, or to lesions<br />

caused by excessive talking, yelling, coughing, smoking,<br />

and even throat clearing. In worst-case scenarios, vocal cord<br />

damage can result in permanent voice dysfunction or loss.<br />

Hahn’s role in the research initiative focused on<br />

developing materials that would allow cells in the vocal fold<br />

to begin repairing the damage. It is work she continues to<br />

expand on as an assistant pr<strong>of</strong>essor at Texas A&M.<br />

“We want cells to reproduce what is native for that organ,”<br />

Hahn explained. “For example, if we are trying to restore<br />

damaged bone, we want the material to instruct the cells to<br />

produce normal bone. This means that cells should deposit<br />

what we call an ‘extracellular matrix,’ and the proteins<br />

composing this extracellular matrix should be present in the<br />

same amount and organization as in normal bone. It’s not<br />

enough just to have the proper ingredients; you also must mix<br />

it together properly. Think <strong>of</strong> making a cake. It’s the amount<br />

and how it’s organized spatially.”<br />

Towards that goal <strong>of</strong> identifying a material that would<br />

allow cells to produce vocal cord extracellular matrix, Hahn<br />

developed a composite “hydrogel” made <strong>of</strong> collagen, the<br />

major structural protein <strong>of</strong> the human body, and alginate,<br />

a sugar-like substance found in the cell walls <strong>of</strong> algae.<br />

“There are so many questions, and<br />

A hydrogel, explains Hahn, is a water-absorbent gel,<br />

much like Jell-O, that allows cells to conduct normal<br />

physiological processes.<br />

Hahn’s hydrogel maintains its original shape and mass<br />

significantly longer than most materials currently used for<br />

vocal cord repair while simultaneously allowing cells to<br />

synthesize new extracellular matrix. This is significant<br />

since it could potentially avert the need for multiple<br />

surgical procedures.<br />

As with lip<br />

augmentation,<br />

multiple<br />

injections are<br />

required in vocal<br />

cord repair if<br />

the injected<br />

material does<br />

not maintain its<br />

original volume<br />

for a long enough time. But for the vocal cords, multiple<br />

procedures carry a high risk <strong>of</strong> causing further injury and<br />

should be avoided. An additional benefit <strong>of</strong> Hahn’s material<br />

is that its mechanical properties can be readily tailored to the<br />

individual patient.<br />

These features potentially mean Hahn’s hydrogel may<br />

be an important tool in restoring the normal shape and<br />

physiology <strong>of</strong> the vocal cords over time.<br />

In addition to her continued work with vocal cord<br />

restoration, Hahn also is focusing on vascular tissue<br />

engineering – trying to effectively recreate small-diameter<br />

blood vessels such as coronary arteries. It’s a complex process<br />

with progress measured in inches rather than miles, but it’s<br />

one for which there is a pressing need.<br />

“A lot <strong>of</strong> people have coronary artery bypass procedures,<br />

and right now there are no good replacements for coronary<br />

arteries other than taking tissue from another part <strong>of</strong> your<br />

body,” Hahn said. “About 20 percent <strong>of</strong> bypass patients have<br />

no such suitable tissue. Tissue engineering has the potential<br />

to fill this clinical need.<br />

“We understand cells so imperfectly. There is so much<br />

to discover about them. How can we get cells to do what<br />

we want them to do? Even after 30 years <strong>of</strong> research into<br />

tissue engineering we still can’t replace or regenerate<br />

certain aspects <strong>of</strong> skin, for example. We can’t yet engineer<br />

capillary beds.<br />

“There are so many questions, and they’re questions I’m<br />

interested in; they’re questions I get excited about.”<br />

they’re questions I’m interested in;<br />

they’re questions I get excited about.”<br />

Page 14 Page 15


LONG<br />

Students belonging to Texas A&M’s chapter <strong>of</strong> Engineers Without<br />

Borders have established a relationship with the small community <strong>of</strong><br />

San Juan, Costa Rica in an effort to improve the area while helping<br />

its people help themselves.<br />

Deep within the dense rainforests <strong>of</strong> Costa Rica, the small<br />

but proud community <strong>of</strong> San Juan has grown many a crop.<br />

Primarily composed <strong>of</strong> subsistence farmers, the Central<br />

American settlement <strong>of</strong> about 60 families works hard to<br />

produce what it needs to survive, but it’s the seeds San Juan<br />

has sown as <strong>of</strong> late that may flourish into the community’s<br />

greatest yield.<br />

Working with a group <strong>of</strong> talented student engineers from<br />

Texas A&M University, the people <strong>of</strong> San Juan are undertaking<br />

the extensive renovation <strong>of</strong> their educational facilities in an<br />

endeavor that reaffirms the community’s commitment to the<br />

future <strong>of</strong> its youth.<br />

It’s an international partnership made possible by Texas<br />

A&M’s chapter <strong>of</strong> Engineers Without Borders (EWB). EWB is<br />

a national non-pr<strong>of</strong>it humanitarian organization established<br />

to partner with developing<br />

communities worldwide in<br />

order to improve their quality<br />

<strong>of</strong> life. This partnership<br />

involves the implementation<br />

<strong>of</strong> sustainable engineering<br />

projects, while involving<br />

and training internationally<br />

responsible engineering<br />

students. EWB has more<br />

than 200 developing and<br />

established chapters engaged in more than 170 projects in<br />

41 countries throughout the world.<br />

The Texas A&M EWB chapter, which consists <strong>of</strong> about<br />

35 students from throughout the Dwight Look College<br />

<strong>of</strong> <strong>Engineering</strong>, was founded in 2005 and is part <strong>of</strong> the<br />

organization’s South Central Region. The group is advised<br />

by Jo Howze, senior associate dean for academic programs in<br />

the Dwight Look College <strong>of</strong> <strong>Engineering</strong>. In addition, EWB<br />

Page 16<br />

- Distance<br />

Relationship<br />

“When it all comes together, we feel<br />

like we have had a part in empowering<br />

people to improve their way <strong>of</strong> life.<br />

Honestly, my work with EWB is the most<br />

satisfying I’ve had in college.”<br />

EWB President and chemical engineering major Felipe Rendon<br />

consults with Texas A&M engineering pr<strong>of</strong>essors for guidance<br />

on the multiple local and international endeavors it takes on<br />

each year.<br />

This past January, the group <strong>of</strong> students completed the<br />

construction <strong>of</strong> a much-needed library for an elementary<br />

school in Acuna, Coahuila in Mexico. The project had been<br />

under way for about a year, with students participating in all<br />

stages <strong>of</strong> the effort from design to actual construction, which<br />

they began and finished while on break between semesters.<br />

Not content to rest on its laurels, EWB has turned its sights<br />

on San Juan after having learned <strong>of</strong> a request for assistance<br />

made by the community to Texas A&M’s newly established Soltis<br />

Center for Research and Education (located in Costa Rica).<br />

Looking to build on the momentum <strong>of</strong> a successful<br />

conclusion to the Acuna project, EWB President and chemical<br />

engineering major Felipe Rendon dedicated the rest <strong>of</strong> his<br />

“break” to determining how EWB could assist the small<br />

Central American settlement. With funding provided by the<br />

Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, Rendon<br />

and fellow student Grady Meloy traveled to San Juan on an<br />

exploratory mission that has<br />

laid the foundation for what<br />

Rendon envisions as a rewarding<br />

international relationship,<br />

benefitting both the students <strong>of</strong><br />

Texas A&M and the community<br />

<strong>of</strong> San Juan.<br />

“The people <strong>of</strong> San Juan are<br />

extremely nice and welcoming,<br />

and they’re proud <strong>of</strong> the<br />

progress <strong>of</strong> their community,”<br />

Rendon said. “They don’t want charity; they want to be shown<br />

how to build a better community. They said several times that<br />

they do what they can, and they’re happy with what they have,<br />

but they want to take advantage <strong>of</strong> whatever opportunities<br />

exist for helping improve their community.<br />

“This cultural aspect underscored to me that EWB needs to<br />

work with this community as opposed to just coming in and<br />

telling its members what they need.”<br />

That recognition <strong>of</strong> cultural sensitivities is absolutely vital<br />

to the approaches taken by the students <strong>of</strong> EWB who <strong>of</strong>ten<br />

find themselves working with people and cultures with whom<br />

they are unfamiliar, Howze explained.<br />

“That’s a key aspect <strong>of</strong> this,” Howze said. “The companies<br />

that these students are likely to work for are global entities;<br />

they are global organizations. It is essential that our students,<br />

as we train them to be leaders, gain an appreciation and<br />

a sensitivity to other cultures. That is something that we<br />

need to teach them, and EWB is a tremendous tool for that.<br />

This is more than just work experience. This is gaining an<br />

appreciation for the way other people think and having to<br />

work with that to move ahead with a goal.”<br />

After talking to San Juan<br />

community leaders and<br />

the director <strong>of</strong> the local<br />

school, Rendon and Meloy<br />

discovered an immediate<br />

need – functional, sanitary<br />

restrooms at the local school,<br />

which serves about 65<br />

elementary and high school<br />

students.<br />

While adequate restroom<br />

facilities are something<br />

taken for granted by most<br />

in the United States, the<br />

restrooms located in the<br />

San Juan school hardly<br />

could be labeled as welcoming. Pieced together by locals,<br />

the restrooms did manage to feature running water but very<br />

little beyond that. Outdated and dilapidated, these facilities<br />

are characterized by cramped spaces, caved-in ro<strong>of</strong>s, decrepit<br />

walls, rusted fixtures and doors without locks, Rendon noted.<br />

“One bathroom at the elementary school was in very poor<br />

condition,” Rendon recalled. “It was in terrible shape. It was<br />

seldom used because it was broken down and appeared to<br />

be vandalized. It needs to be renovated if not completely<br />

reconstructed.”<br />

And that’s where EWB comes in.<br />

Rendon said the group intends to work with San Juan in<br />

constructing two to four restrooms, including a new one in<br />

the high school, which currently does not have a restroom<br />

facility. The effort will represent the first significant step in an<br />

overhaul <strong>of</strong> the school’s sanitation system, which is the first<br />

Rendon visits with children from the San Juan community who attend the local school.<br />

<strong>of</strong> many possible EWB-involved projects aimed at an overall<br />

improvement <strong>of</strong> the community’s school, Rendon said.<br />

About 15 Texas A&M students will be immersed in the<br />

San Juan project by the time <strong>of</strong> this magazine’s publication.<br />

In addition to their standard academic responsibilities, their<br />

semester will consist <strong>of</strong> conducting a formal assessment trip<br />

to San Juan as well as drafting and submitting an <strong>of</strong>ficial<br />

proposal to EWB’s national <strong>of</strong>fice. In addition, the group,<br />

whose work is entirely dependent on donations, will use this<br />

period to raise funds for building materials and travel and<br />

lodging expenses, Rendon said.<br />

Implementation is scheduled to take place this summer,<br />

and when it does the final product will have to meet social,<br />

economic and environmental<br />

criteria, Rendon explained.<br />

The goal, he said, is to produce<br />

a sustainable system, one<br />

that can be maintained and<br />

improved upon by the people<br />

<strong>of</strong> the community.<br />

This means developing<br />

a system that takes into<br />

account the social preferences<br />

and sensitivities <strong>of</strong> the San<br />

Juan community, he said.<br />

Economically speaking, this<br />

translates into using affordable<br />

materials that can be purchased<br />

by community members<br />

if they need to service a certain component. And from an<br />

environmental standpoint, EWB must ensure that whatever it<br />

contributes to the community does not harm any other aspect<br />

<strong>of</strong> the surrounding area, Rendon explained.<br />

“When it all comes together, we feel like we have had a<br />

part in empowering people to improve their way <strong>of</strong> life,”<br />

Rendon said. “Honestly, my work with EWB is the most<br />

satisfying I’ve had in college.<br />

“As for San Juan, our national organization encourages us<br />

to make a five-year commitment to a community, so my hope<br />

is that this is the first <strong>of</strong> many projects that will establish us as<br />

a positive presence in Costa Rica.”<br />

Given these students’ engineering knowledge and passion<br />

for service as well as San Juan’s penchant for cultivation,<br />

there’s every reason to believe this relationship will be a<br />

fruitful one.<br />

For more information on Engineers Without Borders at Texas A&M or to make donations to the group, please contact Dr. Jo W. Howze, senior associate dean for<br />

academic programs in the Dwight Look College <strong>of</strong> <strong>Engineering</strong> and adviser to EWB. Dr. Howze may be reached at 979.862.4367 or via email: j-howze@tamu.edu.<br />

Page 17


Student News<br />

Chem-E-Car Class Promotes Science at Open House<br />

Looking to “drive” home the point that chemical engineering<br />

can be fun, students from the Artie McFerrin <strong>Department</strong> <strong>of</strong><br />

<strong>Chemical</strong> <strong>Engineering</strong> “Chem-E-Car” team participated in the 21st<br />

Annual Chemistry Open House and Science Exploration Gallery at<br />

Texas A&M University, held last October.<br />

Supervised by Senior Lecturer and Assistant Head for Upper<br />

Division Programs Lale Yurttas, the Chem-E-Car class was on hand<br />

to demonstrate its projects – small team-designed vehicles that<br />

are powered by various chemical reactions. As part <strong>of</strong> the exhibit,<br />

the students showed a solar car powered by a chemoluminescent<br />

reaction, a bio-diesel engine car and a newly designed fivecylinder<br />

pneumatic piston engine.<br />

The cars, which are engineered to travel a designated distance<br />

and stop, all while carrying a specified cargo, are developed each<br />

year by teams <strong>of</strong> students enrolled in a one-credit-hour chemical<br />

car design course sponsored by Texas A&M’s student chapter <strong>of</strong><br />

the American Institute <strong>of</strong> <strong>Chemical</strong> Engineers (AIChE). Teams<br />

from around the state and nation annually compete in regional<br />

and national competitions, sponsored by AIChE.<br />

2008 Deisler Fellowship Recipients Named<br />

Tarun Bansal and Yeonshick Yoo, graduate students in the Artie<br />

McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, have each received<br />

the Paul and Ellen Deisler Fellowship in <strong>Chemical</strong> <strong>Engineering</strong>.<br />

These fellowships are awarded on the basis <strong>of</strong> scholarly<br />

productivity and excellence in graduate studies and include a<br />

$5,000 stipend.<br />

The Paul and Ellen Deisler Fellowship in <strong>Chemical</strong> <strong>Engineering</strong><br />

was endowed in 2000 by the Deislers as a means <strong>of</strong> promoting<br />

advanced studies in chemical engineering.<br />

A World War II veteran, Paul Deisler completed his degree<br />

in chemical engineering from Texas A&M in 1948. He is a<br />

distinguished alumnus <strong>of</strong> both the Dwight Look College <strong>of</strong><br />

<strong>Engineering</strong> and the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong><br />

<strong>Engineering</strong>. His wife, Ellen, is a graduate <strong>of</strong> the University <strong>of</strong><br />

Colorado and fellow chemical engineer.<br />

Christensen Named <strong>Department</strong>’s Outstanding Senior<br />

Jennifer Leigh Christensen, a senior in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been named the<br />

department’s “Outstanding Graduating Senior” for Fall 2008.<br />

Christensen, who is from Hamilton, Texas, was honored with<br />

the distinction during the department’s fall award ceremony.<br />

Earlier in the fall semester, Christensen received the 2008-2009<br />

Craig C. Brown Outstanding Senior Engineer Award. The award is<br />

considered the most prestigious honor bestowed on a graduating<br />

Page 18<br />

senior in the university’s Dwight Look College <strong>of</strong> <strong>Engineering</strong><br />

and is presented to a student who demonstrates scholastic<br />

achievement, leadership skills and a strong moral character.<br />

Former Grad Student Recognized by Qatar University<br />

Mert Atilhan, assistant pr<strong>of</strong>essor in the department <strong>of</strong><br />

chemical engineering at Qatar University in Doha and former<br />

graduate student <strong>of</strong> the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong><br />

<strong>Engineering</strong>, has been honored with the Qatar University 2008<br />

Research Award.<br />

The award, which is bestowed upon only one faculty member<br />

from Qatar University, was presented to Atilhan during the<br />

university’s September convocation ceremonies.<br />

While at Texas A&M, Atilhan was a graduate research assistant<br />

who studied under Pr<strong>of</strong>essor Kenneth R. Hall before earning his<br />

doctorate in 2007. His research at Qatar University focuses on<br />

applied thermodynamics and thermophysical fluid properties,<br />

including natural gas and hydrates.<br />

Atilhan has continued to work closely with Hall and Pr<strong>of</strong>essor<br />

Mahmoud El-Halwagi, who also instructed him at Texas A&M<br />

and served on his Ph.D. committee. Together, the three faculty<br />

members are working on a joint project funded by the Qatar<br />

National Research Foundation.<br />

<strong>Chemical</strong> <strong>Engineering</strong> Students Recognized at Miniaturized<br />

Systems Conference<br />

Three graduate students and a postdoctoral researcher<br />

from the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong><br />

have won awards at the 12th International Conference on<br />

Miniaturized Systems for Chemistry and Life Sciences (micro-TAS<br />

2008), held in San Diego.<br />

Jen-Huang Huang, Yu-Wen Huang, Serdar Ozturk and<br />

Jeongyoon Kim all received recognition for their research, which<br />

they presented at the conference.<br />

“This is the top conference in the area <strong>of</strong> miniaturized devices for<br />

chemical and biochemical analysis,” said Associate Pr<strong>of</strong>essor Victor<br />

Ugaz, who supervises the students. “These awards are very selective,<br />

and it is unusual for any single institution to bring home this many.”<br />

Jen-Huang Huang and Kim received the “Young Researcher<br />

Poster Award” for their work in a joint collaboration with<br />

Assistant Pr<strong>of</strong>essor Arul Jayaraman titled “Rapid Fabrication <strong>of</strong><br />

3D-Branched Microvascular Flow Networks.” Their poster was<br />

one <strong>of</strong> only four selected as award winners out <strong>of</strong> a total <strong>of</strong> 589<br />

posters presented at the conference. The award was sponsored by<br />

the Society for Chemistry and Micro-Nano Systems.<br />

Yu-Wen Huang received the “Art in Science Award” for an<br />

image selected from her work titled “A Versatile Platform for<br />

Rapid Label-Free Detection <strong>of</strong> Proteins and Small Molecules Using<br />

Micr<strong>of</strong>abricated Electrode Arrays.” The award was co-sponsored by<br />

the National Institute <strong>of</strong> Standards and Technology and the Royal<br />

Society <strong>of</strong> Chemistry. The image also will be featured on the cover<br />

<strong>of</strong> an upcoming issue <strong>of</strong> the journal “Lab on a Chip.”<br />

Ozturk was named recipient <strong>of</strong> a student travel grant that will<br />

enable him to present his work titled “Micr<strong>of</strong>luidic Investigation<br />

<strong>of</strong> Mass Transport Enhancement in Nanoparticle Suspensions.”<br />

These travel grants were awarded through a competitive process to<br />

provide support for outstanding student presentations.<br />

Chem-E Student Elected to AIChE National Office<br />

Daniel Arnold, a senior in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been elected executive student<br />

committee president <strong>of</strong> the American Institute <strong>of</strong> <strong>Chemical</strong><br />

Engineers (AIChE).<br />

Arnold, who hails from Richmond, Texas, was elected at the<br />

organization’s centennial annual meeting in Philadelphia. The<br />

newly formed national position represents the highest-ranking<br />

<strong>of</strong>fice within AIChE that a student may serve.<br />

As executive student committee president, Arnold is helping<br />

coordinate the activities <strong>of</strong> AIChE’s more than 160 student<br />

chapters, which are located across nine geographic regions<br />

throughout the nation.<br />

He is primarily tasked with developing approaches for<br />

enhancing cooperation among schools belonging to the same<br />

region, increasing overall student enrollment in AIChE, and<br />

helping facilitate communication between the national level<br />

<strong>of</strong> AIChE and its student chapters to promote awareness <strong>of</strong> the<br />

institute’s many available resources and programs.<br />

Chem-E-Car Races to Third Place in National Competition<br />

Texas A&M University’s alternative-powered vehicle raced to a<br />

third-place finish in the American Institute <strong>of</strong> <strong>Chemical</strong> Engineers’<br />

(AIChE) national Chem-E-Car competition in Philadelphia at the<br />

institute’s Centennial Annual Meeting.<br />

In this year’s event, students were challenged to transport<br />

250 milliliters <strong>of</strong> water 60 feet. Teams received two chances to<br />

run their cars, with their final score being their best attempt at<br />

meeting the established distance. Cornell University took the<br />

top prize <strong>of</strong> $2,000. Finishing in second place and taking home<br />

$1,000 was Louisiana State University, using citric acid and<br />

sodium carbonate. Taking third place and $500 was Texas A&M,<br />

which used chemicals making hydrogen gas to propel their car.<br />

The Aggie team was sponsored by BP and included seniors<br />

Daniel Arnold, Matt Johnson, Derek Nelson, Stephen Pope,<br />

Neil Rodrigues and Thomas Wanja, and junior Travis Walthall.<br />

Graduate student Michael Landoll provided additional leadership,<br />

along with chemical engineering faculty and staff members Randy<br />

Marek, Jerry Bradshaw, Victor Ugaz and adviser Lale Yurttas.<br />

The car runs on hydrochloric acid and sodium bicarbonate to<br />

produce carbon dioxide gas at pressures on the order <strong>of</strong> 120 psig.<br />

The gas runs through a pressure regulator set at 60 psig and then<br />

runs the handmade engine.<br />

The goal <strong>of</strong> the competition is to create a shoebox-sized car<br />

that runs <strong>of</strong>f <strong>of</strong> a chemical reaction a distance from 50 to 100 feet.<br />

The distance is specified at the competition, and teams calculate<br />

the amount <strong>of</strong> reactants needed to move the correct distance.<br />

Plant Design Competition Winners Named<br />

Three groups <strong>of</strong> students from the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong> have been recognized for their original<br />

designs <strong>of</strong> a vinyl acetate chemical processing plant by the Celanese<br />

Corporation as part <strong>of</strong> the Fall 2008 Plant Design Competition.<br />

Sara Guest <strong>of</strong> Paris, Texas; Jason Jeansonne <strong>of</strong> Lewisville,<br />

Texas; Ufuoma Boma <strong>of</strong> Lagos, Nigeria; and Regina Ramsey <strong>of</strong><br />

Nederland, Texas are members <strong>of</strong> the team awarded first place by<br />

Celanese for its original design <strong>of</strong> a vinyl acetate plant.<br />

Daniel Balch <strong>of</strong> Liberty, Texas; Ankush Bhalla <strong>of</strong> Missouri City,<br />

Texas; Oscar Cabada Kriebel <strong>of</strong> San Jose, Costa Rica; and Majemite<br />

Dafinone <strong>of</strong> Lagos, Nigeria were awarded second place.<br />

The team composed <strong>of</strong> Brian Klussmann <strong>of</strong> Brenham, Texas;<br />

Richard Lietzau <strong>of</strong> Austin, Texas; and Brook Marshall <strong>of</strong> Humble,<br />

Texas received third-place honors.<br />

Each <strong>of</strong> the winning teams received a monetary prize from<br />

Celanese, and the first-place team was recognized with a plaque<br />

commemorating its achievement.<br />

The competition, which was sponsored by Celanese, tasked<br />

students with designing a fully functional vinyl acetate production<br />

facility in South America. Vinyl acetate is a monomer used in<br />

paints, coatings and other adhesives. In designing the plant,<br />

students had to account for both the specifications for the plant<br />

and product set by Celanese as well as safety factors associated<br />

with developing such a facility and process.<br />

Celanese Corporation, which is based in Dallas and employs<br />

approximately 8,900 employees worldwide, is a world leader in<br />

the production <strong>of</strong> high-performance engineered polymers used in<br />

consumer and industrial products.<br />

Chem-E Student Schrock Honored with Gathright Award<br />

Shanna Lynn Schrock, a sophomore in the Artie McFerrin<br />

<strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, has been named a recipient<br />

<strong>of</strong> the 2009 Thomas S. Gathright Scholar Academic Excellence Award.<br />

Named in honor <strong>of</strong> Texas A&M’s first president, Thomas S.<br />

Gathright, the award is presented annually to the sophomore,<br />

junior and senior with the highest grade point average in each<br />

academic college.<br />

Schrock, who has been named the outstanding sophomore in<br />

the Dwight Look College <strong>of</strong> <strong>Engineering</strong>, is a native <strong>of</strong> Slidell, La.<br />

The Gathright Award was established in 1973 by student<br />

government in order to recognize superior academic achievement<br />

and is sponsored by The Association <strong>of</strong> Former Students.<br />

Page 19


Strong Support for <strong>Department</strong> Continues<br />

With Endowed Scholarships<br />

The full funding <strong>of</strong> three endowed scholarships and a<br />

laboratory fund for the Mary Kay O’Connor Process Safety<br />

Center highlighted a strong level <strong>of</strong> support this past year for<br />

the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>.<br />

These contributions along with many more were formally<br />

recognized at the department’s Endowed Donor Banquet this<br />

past fall. The annual banquet provides an opportunity for a<br />

select group <strong>of</strong> chemical engineering students and the donors<br />

<strong>of</strong> their scholarships to meet and be recognized.<br />

This year, Nancy M. and Brock D. Nelson, a 1990 graduate<br />

<strong>of</strong> Texas A&M; Emily and Oliver Osborn, a 1938 graduate <strong>of</strong><br />

Texas A&M; and Donna and Norman J. Tetlow, a 1966 graduate<br />

<strong>of</strong> Texas A&M were recognized for completing funding<br />

for their respective gifts for endowed scholarships. The<br />

scholarships were established through the department’s C.D.<br />

Holland Scholars Program. This was the Nelsons and Tetlows<br />

second such gift.<br />

In addition, T. Michael and Olive E. O’Connor established<br />

a fund in support <strong>of</strong> the activities by the Mary Kay O’Connor<br />

Process Safety Center, which was established by O’Connor<br />

in 1995 and is housed in the Artie McFerrin <strong>Department</strong><br />

<strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>. The laboratory fund will provide<br />

support for maintenance, supplies and equipment that<br />

performs dispersion testing, calorimetry, chemical detection<br />

and explosion and flammability testing.<br />

“This fulfillment <strong>of</strong> your initial pledges is a testament<br />

to your belief in this department and your commitment<br />

to investing in the future <strong>of</strong> this state and nation,” said<br />

<strong>Department</strong> Head and Charles D. Holland ’53 Pr<strong>of</strong>essor<br />

Michael V. Pishko, addressing the group <strong>of</strong> donors.<br />

Pishko lauded the efforts <strong>of</strong> all <strong>of</strong> the department’s<br />

supporters as well, citing the awarding <strong>of</strong> more than $220,000<br />

in scholarships to 120 students during this past academic<br />

year as evidence <strong>of</strong> their generosity. The investment <strong>of</strong> the<br />

department’s supporters in both dollars and energy, he said,<br />

is critical to enabling promising students and recruiting and<br />

retaining faculty members.<br />

Pishko also noted that the department received pledges<br />

for two new scholarships. One scholarship will be funded<br />

by the children <strong>of</strong> William James Miller as a gift to their<br />

father, a 1950 graduate <strong>of</strong> Texas A&M. Miller is dedicating<br />

this scholarship to the memory <strong>of</strong> his former pr<strong>of</strong>essor, J.D.<br />

Lindsay. A second scholarship pledge was made by Brent<br />

Myrick and Commonwealth <strong>Engineering</strong> and Construction<br />

and will establish the “John Bradford Myrick ’87 Scholarship.”<br />

As part <strong>of</strong> the ceremonies, students in the C.D. Holland and<br />

J.D. Lindsay Scholars Program were recognized as well as those<br />

students who have received industry and individual scholarships<br />

and fellowships through the department. More than 40 <strong>of</strong> those<br />

students were new scholarship recipients for 2008-’09.<br />

The Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong> thanks all <strong>of</strong> its continued supporters,<br />

including those friends <strong>of</strong> the department that made gifts from August 2008 – December 2009.<br />

Howdy Friends ($20-$249)<br />

Accenture Foundation Inc.<br />

Dr. and Mrs. Paul F. Deisler, Jr. ‘46<br />

Global Impact-KBR<br />

Global Impact-KBR<br />

Mr. Russell A. Hall<br />

Fish Camp Friends ($250-$499)<br />

Dr. and Mrs. Jack R. Hopper ‘59<br />

First Yell Friends ($500-$749)<br />

Mr. and Mrs. Nicholas E. Gallopoulos ‘57<br />

Mr. and Mrs. Michael Pishko<br />

Page 20<br />

Elephant Walk Friends ($1,000-$4,999)<br />

Mr. Aniekan N. Attang ‘08<br />

ChevronTexaco<br />

Dow <strong>Chemical</strong> Foundation<br />

Dow <strong>Chemical</strong> Foundation<br />

Gas Processors Association <strong>of</strong> Houston<br />

Lubrizol Foundation<br />

Marathon Oil Company<br />

Mr. Tai Yu ‘02<br />

Aggie Ring Friends ($5,000 & Above)<br />

Mr. James W. Alexander ‘47<br />

Mr. Leonel D. Austin<br />

ChevronTexaco<br />

ChevronTexaco<br />

CITGO Petroleum Corporation<br />

Communities Foundation <strong>of</strong> Texas, Inc.<br />

Communities Foundation <strong>of</strong> Texas, Inc.<br />

Dow <strong>Chemical</strong> Foundation<br />

Exxon Mobile Corporation<br />

Flour Foundation<br />

Hess Corporation<br />

Shell Global Foundation<br />

Shell Oil Company<br />

<strong>Department</strong> Head Michael V. Pishko<br />

<strong>Chemical</strong> <strong>Engineering</strong> at Texas A&M University – Limitless Possibilities.<br />

Possibility. The very word, when spoken in the language <strong>of</strong> ingenuity and responsibility, is enough to inspire hope for a better<br />

tomorrow. Here at the Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong> <strong>Engineering</strong>, we recognize that our faculty and students have<br />

the talent and potential to transform possibilities into realities and in doing so help make the world safer, cleaner, healthier<br />

and more efficient.<br />

With this in mind, we’re committed to <strong>of</strong>fering an educational environment ripe with possibilities and opportunities for our<br />

students.<br />

In the lab we’re pioneering new advances in important areas such as energy, health and the environment. In the classroom<br />

we’re consistently providing a world-class engineering education to our students that we believe will serve as a foundation for<br />

success throughout their lives.<br />

It’s an environment where an outstanding faculty engages in vital research while also inculcating the future leaders <strong>of</strong> our<br />

society with both the knowledge and values that define a Texas A&M University education. But cultivating such an environment<br />

demands resources. In short, we need your help.<br />

Indeed, many <strong>of</strong> our research and educational endeavors would not be possible without help from our former students and<br />

friends <strong>of</strong> the department. This support, when expressed in the form <strong>of</strong> undergraduate scholarships and graduate fellowships,<br />

enables young Aggie engineers to pursue their educational goals and ultimately become leaders in industry, academia and<br />

government. When channeled in the direction <strong>of</strong> faculty development and research, these contributions help us recruit and<br />

retain the best possible teachers and scholars, ensuring that many generations <strong>of</strong> students receive an outstanding education.<br />

However you choose to direct your gift, you can remain confident that your generosity will help us<br />

maintain excellence in chemical engineering at Texas A&M. This year, make a donation for chemical<br />

engineering through the Texas A&M Foundation. The Artie McFerrin <strong>Department</strong> <strong>of</strong> <strong>Chemical</strong><br />

<strong>Engineering</strong> is committed to serving our state, nation and world, and with your support, the possibilities<br />

are truly limitless.<br />

Contact Andrew Acker, <strong>Chemical</strong> <strong>Engineering</strong> Development, Texas A&M Foundation<br />

979.458.4493, 979.324.2953 or a-acker@tamu.edu or visit www.giving.tamu.edu.


NONPROFIT ORG.<br />

U.S. POSTAGE<br />

PAID<br />

COLLEGE STATION,<br />

TEXAS 77843<br />

PERMIT NO.215<br />

Texas A&M University<br />

3122 TAMU<br />

College Station, TX 77843-3122

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