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Curricular reform is typically attempted by
departments acting in isolation from their regional and
national counterparts. Despite the Statewide
Initiatives funded by the NSF, many departments are faced with
the task of reforming their curriculum without much
input from similar efforts that may be occurring in nearby
institutions. In Maryland, chemistry curricular reform is
successfully addressed and propagated through a
statewide conference and follow-up activities. This model
developed by us is an outgrowth from several chemistry
articulation meetings. The conference provided high
school teachers and community college and university faculty
the opportunity to discuss issues of concern, strengthen
communications, and improve articulation in a collegial
atmosphere conducive to successful collaboration.
For several years the chemistry faculty in
Maryland's public two-year and four-year institutions have
recognized that a good articulation of courses and programs across
institutions helps student transition. In the course of
regular articulation meetings, the faculty became aware of the
efforts to reform the curriculum occurring different
departments. A growing desire to discuss these efforts and to
learn from each other encouraged us to sponsor a statewide conference on reforming the first two years of the college
chemistry curriculum. We made a special effort to reach
private institutions that had not previously been part of the
articulation conversations and to reach out to as many public
institutions and high school teachers as possible.
This conference, Issues in Gateway Chemistry
Courses, held on November 8, 1996, was designed to promote
standards-based reform and support improvements in
undergraduate chemistry education. It is an example of an
effective model for creating connections between
institutions and faculty to foster curriculum reform in the first
two years of the college chemistry curriculum. In doing so, it
addressed several of the recommendations from Shaping
the Future: New Expectations for Undergraduate Education
in Science, Mathematics, Engineering and
Technology, a report produced in October 1996 by the National Science
Foundation (NSF):
- Expand partnerships with colleges and universities
to advance institution-wide reform initiatives.
- Encourage formal and informal collaborations
between institutions, especially between two-year
and four-year colleges, including development of firm
articulation agreements to make student transitions
efficient and effective.
- Implement activities that will further engage private
industry, business, and foundations in supporting
improvement of undergraduate SME&T education.
The morning portion addressed the "national
scene" through discussion of ACS and NSF initiatives and
national standards and their impact on undergraduate
education. Two NSF-supported chemistry systemic
reform projects were presented by John W. Moore from the University
of WisconsinMadison and David K. Gosser of the
City College of CUNY. The Maryland Core Learning
Goals for K12 were presented by William Harwood. Morning break
and lunch were used to view and discuss the nineteen
poster papers presented by college and university faculty and
high school teachers from Maryland. Four concurrent
sessions were offered in the afternoon:
- Innovations in General Chemistry and
- Innovations in Organic Chemistry, the two
"Innovations" sessions having ten presentations mainly
focusing on discovery-based learning;
- Technology, an Integral Part of the Chemistry
Curriculum, with six presentations on
computer-based learning (CBL) and other computer-based resources;
- Chemical Industry in Maryland, with four
presenters discussing industry's needs and expectations
from students and chemical process employers.
All together there were 46 presenters, 39 from
Maryland, attesting to the vitality and commitment to
chemical education in the state. A 24-page book containing 45
presentation and poster abstracts provided participants
with an excellent resource for the future. Participant costs were minimal owing to donations from ACS local
sections, the chemical industry, and academic organizations.
While some of the topics discussed are familiar to
attendees of chemical education conferences, the
structure and environment were novel. Moreover, the local nature
of the conference provided a collegial environment
conducive to new ideas and interinstitutional collaboration.
All told, there were more than 140 participants at the
conference from 61 institutions: 17 four-year public and
private colleges and universities, 14 community colleges, and
30 high schools. The three groupshigh schools,
community colleges, and senior institutionswere well-balanced
with 51 (35%) high school teachers, 39 (27%) community
college faculty, 47 (32%) senior institutions, and 8 (6%)
industry and business representatives.
Participants and presenters were uniformly
enthusiastic and positive about this event. Evaluations collected
at the end of the meeting were positive and gave
suggestions for alternative formats for future meetings. The
conference clearly provided a strong foundation for the future
and, based on the response and comments, we anticipate
continuing to hold this conference on an annual basis. It
was suggested that more opportunity for hands-on and
interactive sessions should be available. Also, some felt that
a model that created small working groups during the
meeting to discuss a focus issue and report back to the
conference as a whole would be very exciting and productive.
In preparing for the next conference, we anticipate
expanding the committee to include two high school teachers and
an additional two-year faculty member. In this way, all
constituencies will have equal representation and input in
developing the format for our second, now annual, conference.
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