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EDUCATIONAL OBJECTIVES
The Collaboratorium described in this report presents a vision
of a unique and powerful virtual laboratory that will create a
national resource for magnetic resonance-related science, education
and technology. At the heart of this Collaboratorium is the marriage
of science, education and research. It will provide extraordinary
learning opportunities for the scientific community, the general
public, and students/scholars from across the spectrum of education-scientists
and technicians, postdoctoral fellows, and graduate and undergraduate
students along with programs to address public awareness and K-12
education. The NMRC will provide the impetus, links and resources
to create a center where research and learning are united; advancing
the frontiers of science; recruiting and educating future scientists,
engineers, and technicians; and promoting scientific literacy
for all students, especially those presently under-represented
in the sciences.
Never before will so many NMR experts be so closely linked as
in this Collaboratorium. Through Sector siting with many of the
top institutions throughout the nation, excellent undergraduates,
graduates and postdoctoral fellows will naturally be affiliated
with the Collaboratorium. Consequently, the opportunities for
training the next generation of NMR specialists from areas of
spin physics to hardware development, from structural refinement
to dynamics characterization, from molecular diffusion to microimaging,
etc. will be unsurpassed. With the collective and comprehensive
range of expertise there will be a unique ability to create and
manage a large set of teaching tools in an interactive Internet
environment. In addition to traditional instructional material,
the NMR Internet resource will include interactive "hands on"
material such as powerful simulation programs like GAMMA (a General
Approach to Magnetic resonance Mathematical Analysis), NMR processing
and analysis software, and structural modeling packages. Moreover,
workshops on emerging technologies and application frontiers will
be sponsored by the Collaboratorium. The Collaboratorium will
also sponsor a minority fellowship program at the undergraduate
and graduate student level.
As NMR technology develops and the application science expands
the demands for training and education also increase. A major
goal of this Collaboratorium is to provide access for the latent
user community to the world's highest field NMR instrumentation.
In so doing, bring together the most important scientific problems
with the best technology and leading experts in NMR. As described
in the Collaboratorium section communication across disciplinary
boundaries is a major challenge, but it also epitomizes the essence
of this "virtual laboratory" where notebooks are shared across
the Internet and instrument access can be performed remotely.
For these application scientists basic training on instrument
operations as well as processing and analysis will be necessary.
Web-based training programs utilizing remote access instrumentation
and spectrometer simulators will be available. Web-based introductory
NMR courses will also be developed and implemented in an integrated
fashion so that "virtual spectroscopy" can be done in a meaningful
way. Workshops on NMR application science will be held to further
develop the science and advertise the NMR capabilities beyond
the NMR community.
The Collaboratorium represents a great opportunity to reach out
to potential scientists, to stimulate interest and encourage a
new generation of scientists. For example, the National High Magnetic
Field Laboratory engages over 15,000 K-12 students annually through
its outreach efforts, leads curriculum development efforts through
collaborations with teachers, researchers, and students, and provides
an extensive educational website. The University of Pennsylvania
provides a variety of teacher institutes and graduate programs
led by its Laboratory for Research on the Structure of Matter.
Pacific Northwest National Laboratory has a variety of educational
programs and resources including Stars On-Line, an interactive website where students interface with astronomers,
and Science Alive. The NMRC will move beyond these existing programs through the
collaboration of the Sectors, leading to new programs and new
solutions to promote scientific literacy. The National Science
Education Standards (National Research Council, 1996) provides
a vision of science education which will enable the nation to
achieve the goal of scientific literacy for all students. This
vision requires that all members of the "extended system" work
toward science and mathematics classroom reform. Although education
is often perceived by the public as being done in schools exclusively,
"it also extends to those outside the system who have an influence
on science education including students, parents, scientists,
engineers, buisnesspeople, taxpayers, legislators and other public
officials" (National Research Council, 1996, p.9). The NMRC will
provide a model for approaching this goal. |