Teacher Education in Physics

(Michael S) #1
Summary: Etkina

Summary of “Pedagogical content knowledge and preparation of high
school physics teachers,” Eugenia Etkina, pp. 103–128.

This paper describes some key pedagogical practices of
the Rutgers University Physics/Physical Science Teacher
Preparation program. The program focuses on three aspects of
teacher preparation: knowledge of physics, knowledge of ped-
agogy, and knowledge of how to teach physics (pedagogical
content knowledge – PCK). Three elements of the program
work together to produce well-qualifi ed physics teachers who
remain in the profession: course work, clinical practice, and a
post-graduation learning community. The program has been
in place since 2001 and has been steadily graduating an aver-
age of 6 teachers per year. The retention rate of high school
teachers who have been through the program is about 90%.
The philosophy, structure, and elements of the program can
be implemented either in a physics department or in a school
of education. The paper provides details about the program
course work and teaching experiences and suggests ways to
adapt them to other local conditions.
The main premise of the program is that for high qual-
ity physics instruction a teacher should be skilled in physics
concept knowledge and also be familiar with the processes
through which physicists build and apply knowledge. In
addition, she/he should know how people learn. Finally, an
especially critical aspect of teacher knowledge is the knowl-
edge of how to help students master concept knowledge and
the processes through which it is constructed, in a pedagogi-
cally appropriate environment; this is known as “pedagogi-
cal content knowledge” (PCK). PCK is what distinguishes a
content expert from an effective teacher of the same subject
matter. Figure 1 below shows the complex nature of teacher
knowledge.
The physics teacher preparation program at Rutgers, The
State University of New Jersey, is tailored to the specifi c
certifi cation requirements of the state. In NJ, all high-school
teachers are required to have a major in the subject they are
teaching or a 30-credit coherent sequence in that subject (with
12 credits at the 300-400 level). They must also pass the
appropriate licensure exam(s). Because of these requirements,

the program at Rutgers is a graduate-level program. The
Rutgers Graduate School of Education (GSE) has had a mas-
ter’s program in teacher preparation for the last 15 years; how-
ever, before 2001, there was no special preparation program
for physics/physical science teachers and only 0 to 2 physical
science teachers were certifi ed per year. In 2001, the science
program was reformed and split into two parts: life science
and physics/physical science. Both are offered as a 5-year pro-
gram or a post-baccalaureate program.
The program goal is to prepare teachers of physics or
physical science who are knowledgeable in the content and
processes of physics, can engage students in active learning
of physics that resembles scientifi c inquiry, and can assess
student learning to improve learning. The new program uses
multiple approaches to prepare pre-service teachers to teach
physics/physical science. These can be split into three catego-
ries: 1) strengthening physics content knowledge; 2) prepar-
ing to teach physics/physical science; 3) practicing new ways
of teaching in diverse environments (clinical practice). In
addition, the program builds a learning community of teacher
candidates as they take courses in cohorts and continuously
interact with each other during the two years of the program.
A particularly important program element is that the program
does not end when pre-service teachers graduate and become
high school physics teachers. There is an infrastructure in
place to help graduates continue to interact with program fac-
ulty and with each other (maintaining and strengthening the
community of all program graduates) and participate in a con-
tinuous professional development program.
Students in the program take general education courses
with other pre-service teachers in the GSE, and then follow a
separate track to take physics PCK-related courses and clini-
cal practice. In addition, students take a 300/400-level phys-
ics elective. In all courses, in addition to weekly homework,
students do a group project that involves designing a unit of
instruction and teaching part of it to their peers (“microteach-
ing”). Three of the courses are briefl y described below.

Pedagogical knowledge
Knowledge of brain development
Knowledge of cognitive science
Knowledge of collaborative learning
Knowledge of classroom manage-
ment and school laws

Pedagogical content knowledge
General views about physics pedagogy
Knowledge of physics curriculum
Knowledge of student ideas
Knowledge of effective instructional
strategies
Knowledge of assessment methods

Content knowledge
Knowledge of physics concepts,
relationships among them, and
methods of developing new
knowledge

Fig.1. The Structure of Physics Teacher Knowledge.

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