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December 2015 Science Journal

The December 2015 issue of the Science Journal from the Eberly College of Science at Penn State University

The December 2015 issue of the Science Journal from the Eberly College of Science at Penn State University

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Faculty<br />

Spotlight<br />

Andrew Read Elected<br />

as a Fellow of the Royal<br />

Society<br />

Andrew<br />

F. Read,<br />

Evan Pugh<br />

Professor of<br />

Biology and<br />

Entomology<br />

and Eberly<br />

Professor in<br />

Biotechnology at Penn State,<br />

has been elected a Fellow of<br />

the Royal Society, the leading<br />

academy of sciences of the<br />

United Kingdom. The Royal<br />

Society is a self-governing fellowship<br />

of many of the world’s<br />

most distinguished scientists.<br />

The stated purpose of the society<br />

is to recognize, promote,<br />

and support excellence in science<br />

and to encourage the development<br />

and use of science<br />

for the benefit of humanity.<br />

Each year, the Fellows of the<br />

Royal Society elect up to 52<br />

new fellows and up to ten new<br />

foreign members who have<br />

made substantial contributions<br />

to the improvement of knowledge<br />

in science, engineering, or<br />

medicine.<br />

Read is the director of Penn<br />

State's Center for Infectious<br />

Disease Dynamics and is leading<br />

Penn State’s initiative in<br />

evolutionary risk analysis and<br />

mitigation. He perhaps is best<br />

known for his research on how<br />

natural selection shapes the<br />

virulence of malaria and how<br />

the “unnatural” selection imposed<br />

by medicine shapes the<br />

evolution of disease-causing<br />

organisms.<br />

Read’s research is aimed at<br />

determining what can be done<br />

to minimize the impact on human<br />

health and well-being of<br />

the evolution of pathogens and<br />

of the organisms that carry<br />

and transmit these pathogens.<br />

Prompted by medical and<br />

public-health measures, this<br />

evolution can produce adaptations<br />

in pathogens that lead to<br />

drug and pesticide resistance,<br />

increased virulence and infectiousness,<br />

and the ability to<br />

evade formerly effective vaccines.<br />

Read is particularly interested<br />

in the question of how<br />

best to treat patients so as to<br />

minimize the evolution of resistance.<br />

His group works mostly<br />

on malaria, myxoma viruses<br />

in rabbits, and cancer-causing<br />

viruses in chickens, with new<br />

work on hospital-acquired<br />

infections. Read's research,<br />

which provides an improved<br />

understanding of pathogen evolution,<br />

can be used to inform<br />

public-health decisions. His research<br />

currently is supported<br />

by the National Institutes of<br />

Health, National <strong>Science</strong> Foundation,<br />

Gates Foundation, and<br />

the Biotechnology and Biological<br />

<strong>Science</strong>s Research Council<br />

(UK). —Sam Sholtis<br />

Tom Mallouk Elected<br />

as a Member of the<br />

National Academy of<br />

<strong>Science</strong>s<br />

Thomas<br />

Mallouk,<br />

Evan Pugh<br />

Professor of<br />

Chemistry,<br />

P h y s i c s ,<br />

and Biochemistry<br />

and Molecular Biology at Penn<br />

State University, has been<br />

elected as a member of the<br />

National Academy of <strong>Science</strong>s.<br />

Election to membership in the<br />

academy is one of the highest<br />

honors accorded to U.S. scientists<br />

or engineers by their<br />

peers.<br />

Mallouk is an inorganic<br />

chemist who is highly regarded<br />

for his research on nanomaterials<br />

and their application<br />

to a broad range of scientific<br />

and technological problems.<br />

He and his students showed<br />

in 1988 that inorganic crys-<br />

tal lattices can be grown one<br />

layer at a time on surfaces by<br />

wet chemical techniques. He<br />

used this approach to make<br />

surface structures for artificial<br />

photosynthesis, chemical<br />

sensing, and the separation of<br />

left-handed and right-handed<br />

forms of the same molecule,<br />

which is a critical step in many<br />

applications. In 1998, he developed<br />

an optical screening<br />

method for simultaneously<br />

evaluating hundreds of catalytic<br />

materials and used it to<br />

discover catalysts that improve<br />

the performance of fuel cells,<br />

water electrolysis, and glucose<br />

sensors. This method now is<br />

widely used for materials discovery.<br />

Currently, his group is<br />

developing nanoscale materials<br />

to address problems in photochemical<br />

energy conversion,<br />

energy storage, electronics,<br />

Faculty<br />

Promotions<br />

Congratulations to the following<br />

faculty members on their<br />

recent promotions in academic<br />

rank:<br />

catalysis, environmental remediation,<br />

and powered movement<br />

on the nanometer scale.<br />

In 2004, they introduced the<br />

concept of polymeric “delivery<br />

vehicles” that carry reactive<br />

nanoparticles through tens of<br />

meters of soil and ground water<br />

in order to destroy pollutants.<br />

In 2007, together with<br />

colleague Joan Redwing,<br />

professor of materials science<br />

and engineering and of electrical<br />

engineering at Penn State,<br />

Mallouk's team fabricated the<br />

first silicon nanowire solar<br />

cells. In 2009, Mallouk and<br />

his students developed the first<br />

molecule-based solar cells that<br />

split water into hydrogen and<br />

oxygen with visible light. Recently,<br />

Mallouk's lab, in collaboration<br />

with colleagues Tony<br />

Jun Huang, professor of engineering<br />

science and mechanics<br />

To professor:<br />

Michael T. Green, chemistry<br />

at Penn State and Ayusman<br />

Sen, Distinguished Professor<br />

of Chemistry at Penn State,<br />

have developed nanomotors<br />

that, for the first time, can be<br />

powered and controlled inside<br />

living cells, a breakthrough<br />

that holds promise for new<br />

methods for the diagnosis and<br />

treatment of cancer and other<br />

diseases.<br />

The National Academy of<br />

<strong>Science</strong>s is a private organization<br />

of scientists and engineers<br />

dedicated to the furtherance of<br />

science and its use for the general<br />

welfare. It was established<br />

in 1863 by a congressional act<br />

of incorporation, signed by<br />

Abraham Lincoln, which calls<br />

on the academy to act as an official<br />

adviser to the federal government,<br />

upon request, in any<br />

matter of science or technology.<br />

—Sam Sholtis<br />

Kenneth C. Keiler, biochemistry and molecular biology<br />

Katsuhiko Murakami, biochemistry and molecular biology<br />

Aleksandra B. Slavkovic, statistics<br />

Mathieu P. Stienon, mathematics<br />

Ae Ja Yee, mathematics<br />

To associate professor:<br />

David D. Boehr, chemistry<br />

Tomás A. Carlo-Joglar, biology<br />

Jason T. Wright, astronomy and astrophysics<br />

40<br />

Penn State Eberly College of <strong>Science</strong><br />

SCIENCE JOURNAL <strong>December</strong> <strong>2015</strong> 41

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