Is there a serious need for more highly-skilled U.S.
scientists? Many people would answer yes, particularly supporters
of the Technology Talent Act of 2001. Two advocates who worked on
this legislation--Congressman Sherwood Boehlert and Senator Joe
Lieberman--argued that the nation's academic institutions have not
produced enough skilled scientists and felt that the country needed
to meet the inevitable demand for a larger scientific workforce in
the future.
The Technology Talent Act was eventually incorporated into HR
4664, the National Science Foundation (NSF) Reauthorization Act of
2002, with the intent of improving the education system and
sustaining the economy and national security. The bill allowed NSF
to develop a new program to increase the number of U.S. citizens
and permanent residents with undergraduate degrees in science,
technology, engineering, and mathematics (STEM). Hence, in 2002,
NSF created the
Science, Technology, Engineering, and Mathematics Talent Expansion
Program (STEP).
The bill allowed NSF to develop a new program to increase the
number of U.S. citizens and permanent residents with undergraduate
degrees in science, technology, engineering, and mathematics
(STEM).
So far, 77 projects have received grants through STEP, and the
program is currently soliciting project proposals for FY 2006 and
FY 2007. “We’re hoping to fund ones that are going to make a big
impact,” says Susan Hixson, program director of the Division of
Undergraduate Education at NSF. An estimated $25,000,000 will be
awarded each year, depending on funding availability.
Providing Funding
As in previous years, STEP will provide grants for two types of
projects. The first kind, called Type 1, is aimed at increasing the
number of U.S. citizens and permanent residents who attain
bachelor’s and associate degrees in science, technology,
engineering, and mathematics and encouraging more students with
associate degrees to continue their studies at a 4-year
institution. If they do their work well, Hixson believes, STEP can
meet these goals. “Most students are capable of doing [science],”
she says. “They just often haven’t been given the right background,
or they don’t know what the study strategies need to be.”
For a Type 1 grant, a 2-year or 4-year institution must be
involved in the proposed project. Non-academic institutions,
including nonprofit organizations and businesses, can submit a
proposal, but they have to partner with a college or university.
Each academic institution can only be part of one Type 1 submission
in a given competition.
Type 2 projects, involve educational research that closely
examines factors that prompt undergraduates to drop out of the
sciences, as well as factors that help them stay on to attain
associate and bachelor’s degrees in these disciplines, or otherwise
to acquire more access to science and related careers. These
projects are expected to generate findings that the education
community can use to attract more young minds into science.
Unlike Type 1 proposals, Type 2 has fewer eligibility
restrictions; any individual or organization can apply for these
grants, and proposal writers can be involved in more than one Type
2 grant.
Each Type 1 award will be a 5-year grant worth up to $2,000,000,
although the maximum amount depends on the undergraduate
enrollments of the participating schools. Type 2 awards may be up
to $500,000 per year for 1-to-3-year projects.
STEP awards are highly competitive; the program receives 170 to
200 proposals each year, but only about 15 to 20 Type 1 awards--and
no Type 2 awards--will be handed out for FY 2006. The following
year, STEP will give out 1 to 3 Type 2 awards and--again--15 to 20
Type 1 awards.
Tips for Writing STEP Proposals
Given the competitiveness of the STEP program, a strong proposal
is essential. Hixson provides the following tips.
For Type 1 projects, proposal writers:
-
Are encouraged to work with faculty across all science and
related disciplines at the participating academic institutions.
Because STEP grants are considered institutional grants, projects
are more likely to be funded if the plan intends to boost the
number of all science, technology, engineering, and mathematics
graduates--thus, making a large impact--as opposed to targeting one
discipline or underrepresented group.
-
Need to carefully examine why their school does not have more
STEM majors or graduates. It is important to determine, for
instance, how many students have been dropping out or changing
majors. The most competitive proposals had this information.
-
Should state well-researched strategies that they believe will
resolve the issues they’ve identified. Any mechanism or strategy is
welcome, but including successful strategies from other schools is
best.
For Type 2 projects, proposal writers:
-
Must be familiar with education or sociology research
methodology. Those that have not had appropriate training in these
types of research, are encouraged to work with experts in
educational research, especially those familiar with best
practices.
-
Must read the current
program solicitation , especially information under the
subheading “Project Description” within Section V and “Additional
Review Criteria” within Section VI. These segments highlight
details that reviewers will be looking for in the proposals.
Writers should be sure to include all the requested information,
from current undergraduate enrollment figures to the expected
increase in the number of undergraduate STEM degree holders during
the grant period.
Before submitting a proposal, project writers are
encouraged--although they are not required--to send a letter of
intent, which gives a brief project overview. For FY 2006, letters
of intent are due by 5 January 2006 and project proposals are due
by 9 February 2006. FY 2007 deadlines are 15 August 2006 for
letters of intent and 26 September 2006 for proposals.
The programs funded by STEP continue to have an impact on the
nation and world by producing skilled scientific workers that help
drive the economy. “Most of the economic growth that has happened
in the country in recent years has been a direct result of
scientific discoveries and engineering design implementations,”
Hixson says.
Edna Francisco is a contributing writing for MiSciNet
and may be reached at eofrancisco@nasw.org.