22.01.2015 Views

2008-2009 Bulletin – PDF - SEAS Bulletin - Columbia University

2008-2009 Bulletin – PDF - SEAS Bulletin - Columbia University

2008-2009 Bulletin – PDF - SEAS Bulletin - Columbia University

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

121<br />

The EEE program welcomes<br />

Combined Plan students. An EEE minor<br />

is offered to all <strong>Columbia</strong> engineering<br />

students who want to enrich their academic<br />

record by concentrating some of<br />

their technical electives on Earth/environment<br />

subjects. There is close collaboration<br />

between EEE and the Departments<br />

of Civil Engineering and Earth<br />

and Environmental Sciences, including<br />

several joint appointments.<br />

EEE and the Earth Engineering<br />

Center are the contributions of The Fu<br />

Foundation School of Engineering and<br />

Applied Science to the Earth Institute of<br />

<strong>Columbia</strong> <strong>University</strong>, a major education<br />

and research initiative of the <strong>University</strong>.<br />

Earth and Environmental Engineering<br />

combines the longstanding and proud<br />

tradition of <strong>Columbia</strong>’s School of Mines<br />

with forward-thinking courses and programs,<br />

innovative research, and a deep<br />

concern for the environment.<br />

RESEARCH CENTERS<br />

ASSOCIATED WITH EARTH<br />

AND ENVIRONMENTAL<br />

ENGINEERING<br />

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

Water Center, in collaboration with other<br />

Earth Institute units and external partners,<br />

is leading intellectual inquiry into an<br />

assessment, prediction, and solution of<br />

the potentially global crisis of freshwater<br />

scarcity. Goals are to:<br />

• develop multiscale predictive capabilities<br />

(e.g., new data sets and modeling<br />

tools) for local, regional, and global<br />

water resource assessment, recognizing<br />

changing climate, demographic,<br />

and usage dynamics<br />

• target analyses toward public and<br />

private investment in future water<br />

resource development, local and<br />

regional ecosystem services provided<br />

by water and the essential life-support<br />

water needs of societies<br />

• identify and test appropriate technologies<br />

for the storage, treatment, and<br />

conveyance of water to improve<br />

reliable, cost-efficient access<br />

• identify and compare locally appropriate<br />

policy instruments that facilitate the<br />

implementation of selected incentives<br />

for higher-value, higher-efficiency water<br />

use, while promoting equity of use and<br />

life support functions<br />

• test and demonstrate the applicability<br />

of the policy and technology developments<br />

in real-world settings, working<br />

with local institutions and private-sector<br />

developers or users in an open and<br />

public process<br />

• develop and disseminate the knowledge<br />

base that results from our activities<br />

to support global water resource<br />

development and decision making,<br />

including the development of a forum,<br />

the Global Roundtable on Water<br />

(GROW), to facilitate international policy<br />

and technical action to improve our<br />

collective water future.<br />

For more information: www.water.columbia.<br />

edu<br />

Earth Engineering Center. The mission<br />

of the Earth Engineering Center is to<br />

develop and promote engineering methodologies<br />

that provide essential material to<br />

humanity in ways that maintain the overall<br />

balance between the constantly<br />

increasing demand for materials, the finite<br />

resources of the Earth, and the need for<br />

clean water, soil, and air. The Center is<br />

dedicated to the advancement of industrial<br />

ecology, i.e., the reconfiguring of<br />

industrial activities and products with full<br />

knowledge of the environmental consequences.<br />

Research is being conducted<br />

on a variety of geoenvironmental issues<br />

with the intent to quantify, assess, and<br />

ultimately manage adverse human effects<br />

on the environment. Research areas include<br />

management of water and energy resources,<br />

hydrology and hydrogeology, numerical<br />

modeling of estuarine flow and transport<br />

processes, and integrated waste management.<br />

For more information: refer to its<br />

Web site: www.columbia.edu/cu/earth/.<br />

Environmental Tracer Group. The<br />

Environmental Tracer Group uses natural<br />

and anthropogenic (frequently transient)<br />

tracers, as well as deliberately released<br />

tracers, to investigate the physics and<br />

chemistry of transport in environmental<br />

systems. The tracers include natural or<br />

anthropogenically produced isotopes<br />

(e.g., tritium or radioactive hydrogen,<br />

helium and oxygen isotopes, or radiocarbon),<br />

as well as noble gases and chemical<br />

compounds (e.g., CFCs and SF6).<br />

The ETG analytical facilities include four<br />

mass spectrometric systems that can be<br />

used in the analysis of tritium and noble<br />

gases in water, sediments, and rocks.<br />

In addition to the mass spectrometric<br />

systems, there are several gas chromatographic<br />

systems equipped with electron<br />

capture detectors that are used for<br />

measurements of SF6 in continental<br />

waters and CFCs and SF6 in the atmos-<br />

<strong>SEAS</strong> <strong>2008</strong>–<strong>2009</strong>

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

Saved successfully!

Ooh no, something went wrong!