Background:
As stated in the recent final report of Maryland's Governor
Martin O’Malley's
task force on STEM
(PDF),
"The problem in Maryland is that although we now have enviable
prosperity and a strong knowledge-based economy, competing
states significantly out-produce us in terms of science,
technology, engineering, and mathematics (STEM) graduates, STEM
workforce development, and STEM-based economic development. If
present trends continue, our competitors will overtake us. For
Maryland, standing still is falling behind".. The Report related
that Maryland has over 6,000 STEM job openings a year and yet
Maryland schools are only producing approximately 4,000 STEM
graduates. And the Base Realignment and Closure (BRAC) process,
which will transition an estimated 30,000-60,000 new jobs to
Maryland many of which are STEM professions according to the
Governor’s BRAC Subcabinet, has brought to the forefront
Maryland’s urgent STEM needs. In order to fulfill the demands
for qualified workers in STEM fields, a coordinated and
collaborative approach must occur in both the public and private
sectors among educational institutions, agencies, businesses,
and government. In 2005, Maryland’s 24 school districts sought
to hire 1,375 new qualified teachers of mathematics and science,
but were able to find only 960. In other words, there is about a
30% shortfall in the supply of new math and science teachers.
This general situation has existed for some years and is
worsening.
To significantly address this situation, the State of
Maryland, the University System of Maryland (USM), and SU have
been aggressively mobilizing to meet Maryland’s and our nation’s
need for an expanded workforce in STEM areas. Taking an early
lead for higher education in Maryland, the Chancellor of the
USM, Dr. William Kirwan, identified STEM as one of his three
priorities for the System at the beginning of the 2007 academic
year setting a five-year goal to increase the number of STEM
graduates by 40% and triple the number of graduates qualified to
teach STEM in K-12 schools. Chancellor Kirwan also established
USM Task Forces on STEM Workforce and on Research and Economic
Competitiveness. In April 2009, the USM hosted a STEM Symposium
(with funding from NSF) bringing together representatives from
all 13 USM institutions and national experts from NSF and the
U.S. Department of Education to focus on STEM. It included
speakers such as the U.S. Secretary of Education, The Honorable
Arne Duncan, and Norman Augustine, chair of the National
Academies Committee that authored "Rising Above the Gathering
Storm."
Salisbury University formally marked the commencement of its
STEM initiatives with a STEM Conference in October of 2007,
which included broad representation of the regional academic and
business community. Over 50 participants from all four SU
academic schools, four local school districts and five local
businesses gathered to hear about STEM projects completed or in
progress and to determine ways to collaborate on projects in the
future. From this beginning, SU has rapidly expanded its STEM
programs and has created the administrative position of a campus
STEM Coordinator (which currently is a half-time administrative
position). Dr. Thomas W. Jones, former provost and vice
president of academic affairs at SU, serves as STEM Coordinator
and will work to develop, strengthen, and promote SU STEM
education and outreach in the region. Working closely with the
science and education school deans, Dr. Jones will (a)
coordinate strategies for increasing recruitment and retention
of STEM majors and seek external funding for same; (b) support
and seek funding for activities aimed at enhancing production of
secondary math and science education teachers; (c) support
networking activities with local educational and corporate
entities; and (d) coordinate effective assessment of STEM
efforts on campus. /p>
In addition to creating the STEM Coordinator position, SU has
established a STEM Advisory Board to engage non-SU educational
and vocational entities in our region in guiding, coordinating,
and assisting in our STEM programs. The committee membership
consists of eight SU faculty, the deans of the science and
education schools, the SU STEM Coordinator, the county school
superintendents of all nine Eastern Shore of Maryland counties,
the three contiguous public school system STEM coordinators, the
economic development directors of the four lower Eastern Shore
counties, and a representative of Salisbury’s regional hospital.
To help in the oversight and development of STEM activities on
campus, SU has also created its STEM Steering Committee composed
of the five academic deans, the associate provost, and the STEM
Coordinator.
Building STEM programming to increase the number of students
that graduate in STEM majors is also a key goal in SU’s most
recent Strategic Plan (2009-2013), and even prior to this
current plan, SU developed a number of activities intended to
recruit, retain, and graduate STEM majors. Perhaps the most
critical resource to our STEM majors are the faculty (see
Appendix A) who share the campus-wide philosophy of
student-centered learning and the view that engaged learning is
vital to this goal. STEM students are routinely involved in
research projects with faculty. For example, in the Department
of Chemistry, ten tenure-track/tenured faculty have supported
approximately 24 academic-year and summer research students each
year (Appendix B lists publications and papers that students in
our targeted majors have co-authored). Salisbury University STEM
students can apply for financial support of their research
projects through University-wide and Henson School of Science &
Technology funding programs. An endowment-funded REU-like
program for STEM student-researchers has existed since 2005.
Living-Learning Communities (LLC) are well known to improve
undergraduate student retention and other positive outcomes
(Stassen, 2004). SU established its first STEM LLC
http://www.salisbury.edu/housing/NewWeb/LLC.html
in
fall 2009. In the STEM LLC, first-year science and math majors
live together and participate in two required courses (Calculus I
and Nature, Science, and Technology in the Making of the
Modern World, see Appendix C for syllabus) and engage in
various co-curricular activities together including learning
about paths to a variety of STEM careers. To help support this
LLC, SU was awarded a grant from the USM to plan and begin to
implement key components of this community.
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