2011-2012 Bulletin â PDF - SEAS Bulletin - Columbia University
2011-2012 Bulletin â PDF - SEAS Bulletin - Columbia University
2011-2012 Bulletin â PDF - SEAS Bulletin - Columbia University
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80<br />
Chemical Engineering<br />
801 S. W. Mudd, MC 4721<br />
Phone: 212-854-4453<br />
www.cheme.columbia.edu<br />
Chair<br />
Sanat K. Kumar<br />
Departmental<br />
Administrator<br />
Teresa Colaizzo<br />
Professors<br />
Christopher J. Durning<br />
George W. Flynn, Chemistry<br />
Jingyue Ju<br />
Jeffrey T. Koberstein<br />
Sanat K. Kumar<br />
Edward F. Leonard<br />
Ben O’Shaughnessy<br />
Nicholas J. Turro, Chemistry<br />
Alan C. West<br />
Associate Professor<br />
Scott A. Banta<br />
Assistant Professor<br />
V. Faye McNeill<br />
Adjunct Professors<br />
Stanley Leshaw<br />
Robert I. Pearlman<br />
Adjunct<br />
Associate Professors<br />
Aghavni Bedrossian-Omer<br />
Michael I. Hill<br />
Chemical engineering is a<br />
highly interdisciplinary field<br />
concerned with materials and<br />
processes at the heart of a broad range<br />
of technologies. Practicing chemical<br />
engineers are the experts in charge<br />
of the development and production of<br />
diverse products in traditional chemical<br />
industries as well as many emerging<br />
new technologies. The chemical<br />
engineer guides the passage of the<br />
product from the laboratory to the<br />
marketplace, from ideasand prototypes<br />
to functioning articles and processes,<br />
from theory to reality. This requires<br />
a remarkable depth and breadth<br />
of understanding of physical and<br />
chemical aspects of materials and their<br />
production.<br />
The expertise of chemical engineers<br />
is essential to production, marketing,<br />
and application in such areas as<br />
pharmaceuticals, high-performance<br />
materials in the aerospace and<br />
automotive industries, biotechnologies,<br />
semiconductors in the electronics<br />
industry, paints and plastics, petroleum<br />
refining, synthetic fibers, artificial organs,<br />
biocompatible implants and prosthetics<br />
and numerous others. Increasingly,<br />
chemical engineers are involved in new<br />
technologies employing highly novel<br />
materials whose unusual response at<br />
the molecular level endows them with<br />
unique properties. Examples include<br />
environmental technologies, emerging<br />
biotechnologies of major medical<br />
importance employing DNA- or proteinbased<br />
chemical sensors, controlledrelease<br />
drugs, new agricultural<br />
products, and many others.<br />
Driven by this diversity of<br />
applications, chemical engineering<br />
is perhaps the broadest of all<br />
engineering disciplines: chemistry,<br />
physics, mathematics, biology, and<br />
computing are all deeply involved. The<br />
research of the faculty of <strong>Columbia</strong>’s<br />
Chemical Engineering Department is<br />
correspondingly broad. Some of the<br />
areas under active investigation are the<br />
fundamental physics, chemistry, and<br />
engineering of polymers and other soft<br />
materials; the electrochemistry of fuel<br />
cells and other interfacial engineering<br />
phenomena; the bioengineering of<br />
artificial organs and immune cell<br />
activation; the engineering and<br />
biochemistry of sequencing the human<br />
genome; the chemistry and physics<br />
of surface-polymer interactions; the<br />
biophysics of cellular processes in<br />
living organisms; the physics of thin<br />
polymer films; the chemistry of smart<br />
polymer materials with environmentsensitive<br />
surfaces; biosensors with<br />
tissue engineering applications; the<br />
physics and chemistry of DNA-DNA<br />
hybridization and melting; the chemistry<br />
and physics of DNA microarrays<br />
with applications in gene expression<br />
and drug discovery; the physics and<br />
chemistry of nanoparticle- polymer<br />
composites with novel electronic and<br />
photonic properties. Many experimental<br />
techniques are employed, from neutron<br />
scattering to fluorescence microscopy,<br />
and the theoretical work involves both<br />
analytical mathematical physics and<br />
numerical computational analysis.<br />
Students enrolling in the Ph.D.<br />
program will have the opportunity<br />
to conduct research in these and<br />
other areas. Students with degrees<br />
in chemical engineering and other<br />
engineering disciplines, in chemistry,<br />
in physics, in biochemistry, and in<br />
other related disciplines are all natural<br />
participants in the Ph.D. program<br />
and are encouraged to apply. The<br />
Department of Chemical Engineering at<br />
<strong>Columbia</strong> is committed to a leadership<br />
role in research and education in frontier<br />
areas of research and technology<br />
where progress derives from the<br />
conjunction of many different traditional<br />
research disciplines. Increasingly,<br />
new technologies and fundamental<br />
research questions demand this type of<br />
interdisciplinary approach.<br />
The undergraduate program<br />
provides a chemical engineering degree<br />
that is a passport to many careers in<br />
directly related industries as diverse as<br />
biochemical engineering, environmental<br />
management, and pharmaceuticals. The<br />
degree is also used by many students<br />
as a springboard from which to launch<br />
careers in medicine, law, management,<br />
banking and finance, politics, and<br />
so on. For those interested in the<br />
fundamentals, a career of research and<br />
teaching is a natural continuation of<br />
their undergraduate studies. Whichever<br />
path the student may choose after<br />
graduation, the program offers a deep<br />
understanding of the physical and<br />
engineering <strong>2011</strong>–<strong>2012</strong>