21.01.2015 Views

2011-2012 Bulletin – PDF - SEAS Bulletin - Columbia University

2011-2012 Bulletin – PDF - SEAS Bulletin - Columbia University

2011-2012 Bulletin – PDF - SEAS Bulletin - Columbia University

SHOW MORE
SHOW LESS

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

122<br />

and noble gases in water, sediments,<br />

and rocks. In addition to the mass<br />

spectrometric systems, there are several<br />

gas chromatographic systems equipped<br />

with electron capture detectors that<br />

are used for measurements of SF6 in<br />

continental waters and CFCs and SF6<br />

in the atmosphere. GC/MS capability<br />

is being added to the spectrum of<br />

analytical capabilities.<br />

Industry/<strong>University</strong> Cooperative<br />

Research Center for Advanced<br />

Studies in Novel Surfactants (IUCS).<br />

IUCS was established in 1998 by<br />

the Henry Krumb School of Mines,<br />

Department of Chemical Engineering,<br />

and Department of Chemistry at<br />

<strong>Columbia</strong> <strong>University</strong>. The Center<br />

encompasses detailed structureproperty<br />

assessment of several<br />

classes of surface-active molecules,<br />

including oligomeric, polymeric, and<br />

bio-molecules. The aim of IUCS is<br />

to develop and characterize novel<br />

surfactants for industrial applications<br />

such as coatings, dispersions,<br />

deposition, gas hydrate control, personal<br />

care products, soil decontamination,<br />

waste treatment, corrosion prevention,<br />

flotation, and controlled chemical<br />

reactions. The proposed research thus<br />

focuses on the design and development<br />

of specialty surfactants, characterization<br />

of their solution and interfacial behavior,<br />

and identification of suitable industrial<br />

applications for these materials.<br />

The goals of IUCS are to perform<br />

industrially relevant research to<br />

address the technological needs in<br />

commercial surfactant and polymer<br />

systems; develop new and more<br />

efficient surface-active reagents for<br />

specific applications in the industry<br />

and methodologies for optimizing<br />

their performance; promote the use of<br />

environmentally benign surfactants in a<br />

wide array of technological processes;<br />

and build a resource center to perform<br />

and provide state-of-the-art facilities<br />

for characterization of surface-active<br />

reagents: www.columbia.edu/cu/iucrc.<br />

International Research Institute for<br />

Climate Prediction (IRI). The IRI is<br />

the world’s leading institute for the<br />

development and application of seasonal<br />

to interannual climate forecasts. The<br />

mission of the IRI is to enhance society’s<br />

capability to understand, anticipate, and<br />

manage the impacts of seasonal climate<br />

fluctuations, in order to improve human<br />

welfare and the environment, especially in<br />

developing countries. This mission is to be<br />

conducted through strategic and applied<br />

research, education and capacity building,<br />

and provision of forecast and information<br />

products, with an emphasis on practical<br />

and verifiable utility and partnerships.<br />

Langmuir Center for Colloids<br />

and Interfaces (LCCI). This Center<br />

brings together experts from mineral<br />

engineering, applied chemistry, chemical<br />

engineering, biological sciences, and<br />

chemistry to probe complex interactions<br />

of colloids and interfaces with<br />

surfactants and macromolecules. LCCI<br />

activities involve significant interaction<br />

with industrial sponsors and adopt<br />

an interdisciplinary approach toward<br />

state-of-the-art research on interfacial<br />

phenomena. Major areas of research<br />

at LCCI are thin films, surfactant and<br />

polymer adsorption, environmental<br />

problems, enhanced oil recovery,<br />

computer tomography, corrosion and<br />

catalysis mechanisms, membrane<br />

technology, novel separations of<br />

minerals, biocolloids, microbial surfaces,<br />

and interfacial spectroscopy.<br />

Lenfest Center for Sustainable Energy.<br />

The mission of the Lenfest Center<br />

for Sustainable Energy is to develop<br />

technologies and institutions to ensure<br />

a sufficient supply of environmentally<br />

sustainable energy for all humanity. To<br />

meet this goal, the Center supports<br />

research programs in energy science,<br />

engineering, and policy across <strong>Columbia</strong><br />

<strong>University</strong> to develop technical and policy<br />

solutions that will satisfy the world’s<br />

future energy needs without threatening<br />

to destabilize Earth’s natural systems.<br />

The mission of the Lenfest Center<br />

is shaped by two global challenges.<br />

First, the Center seeks to reduce the<br />

emission of carbon dioxide into the<br />

atmosphere and to forestall a disruption<br />

of global climate systems that would<br />

impose negative consequences for<br />

human welfare. Second, the Center<br />

seeks to create energy options that will<br />

meet the legitimate energy demands<br />

of a larger and increasingly wealthy<br />

world population. In order to meet these<br />

two challenges, the Center seeks to<br />

develop new sources, technologies, and<br />

infrastructures.<br />

The Lenfest Center focuses primarily<br />

on the technological and institutional<br />

development of the three energy<br />

resources sufficient to support the<br />

world’s projected population in 2100<br />

without increased carbon emissions:<br />

solar, nuclear, and fossil fuels combined<br />

with carbon capture and storage.<br />

Although each of these options can,<br />

in theory, be developed on a scale to<br />

satisfy global demand, they each face<br />

a combination of technological and<br />

institutional obstacles that demand<br />

research and development before they<br />

can be deployed.<br />

The Center’s main activities are<br />

based within the range of natural<br />

science and engineering disciplines.<br />

At the same time, it integrates<br />

technological research with analysis<br />

of the institutional, economic, and<br />

political context within which energy<br />

technologies are commercialized and<br />

deployed. For more information: www.<br />

energy.columbia.edu<br />

Waste to Energy Research and<br />

Technology Council (WTERT). The<br />

Waste to Energy Research and<br />

Technology Council brings together<br />

engineers, scientists, and managers<br />

from industry, universities, and<br />

government with the objective of<br />

advancing the goals of sustainable<br />

waste management globally. The<br />

mission of WTERT is to identify the<br />

best available technologies for the<br />

treatment of various waste materials,<br />

conduct additional academic research<br />

as required, and disseminate this<br />

information by means of its publications,<br />

the WTERT Web, and annual<br />

meetings. In particular, WTERT strives<br />

to increase the global recovery of<br />

energy and materials from used solids<br />

and to advance the economic and<br />

environmental performance of waste-toenergy<br />

(WTE) technologies in the U.S.<br />

and worldwide. The guiding principle is<br />

that responsible management of wastes<br />

must be based on science and the<br />

best available technology and not what<br />

seems to be inexpensive now but can<br />

be very costly in the near future. For<br />

more information: www.seas.columbia.<br />

edu/earth/wtert<br />

engineering <strong>2011</strong>–<strong>2012</strong>

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!