APS March Meeting 2015
Volume 60, Number 1
Monday–Friday, March 2–6, 2015;
San Antonio, Texas
Session G3: Invited Session: NSF-Funded Physics Education: Celebrating Accomplishments and Looking Forward
11:15 AM–2:15 PM,
Tuesday, March 3, 2015
Room: 002AB
Sponsoring
Unit:
FEd
Chair: Theodore Hodapp, The American Physical Society
Abstract ID: BAPS.2015.MAR.G3.1
Abstract: G3.00001 : NSF Support for Physics at the Undergraduate Level: A View from Inside*
11:15 AM–11:51 AM
Preview Abstract
Abstract
Author:
Duncan McBride
(National Science Foundation (Retired))
NSF has supported a wide range of projects in physics that involve
undergraduate students. These projects include NSF research grants in which
undergraduates participate; Research Experiences for Undergraduates (REU)
centers and supplements; and education grants that range from upper-division
labs that may include research, to curriculum development for upper- and
lower-level courses and labs, to courses for non-majors, to Physics
Education Research (PER). The NSF Divisions of Physics, Materials Research,
and Astronomy provide most of the disciplinary research support, with some
from other parts of NSF. I recently retired as the permanent physicist in
NSF's Division of Undergraduate Education (DUE), which supports the
education grants. I was responsible for a majority of DUE's physics grants
and was involved with others overseen by a series of physics rotators. There
I worked in programs entitled Instrumentation and Laboratory Improvement
(ILI); Course and Curriculum Development (CCD); Course, Curriculum, and
Laboratory Improvement (CCLI); Transforming Undergraduate STEM Education
(TUES); and Improving Undergraduate STEM Education (IUSE). NSF support has
enabled physics Principal Investigators to change and improve substantially
the way physics is taught and the way students learn physics. The most
important changes are increased undergraduate participation in physics
research; more teaching using interactive engagement methods in classes; and
growth of PER as a legitimate field of physics research as well as outcomes
from PER that guide physics teaching. In turn these have led, along with
other factors, to students who are better-prepared for graduate school and
work, and to increases in the number of undergraduate physics majors. In
addition, students in disciplines that physics directly supports, notably
engineering and chemistry, and increasingly biology, are better and more
broadly prepared to use their physics education in these fields. I will
describe NSF support for undergraduate physics with both statistics and
examples. In addition I will talk about trends in support for undergraduate
physics at NSF and speculate about directions such support might go.
*Contents of this paper reflect the opinions of the author and do not necessarily reflect those of the National Science Foundation
To cite this abstract, use the following reference: http://meetings.aps.org/link/BAPS.2015.MAR.G3.1