Science education - Ph.D.
The doctoral program in science education is designed to
prepare scholars to conduct thoughtful research in order to
assume roles as university faculty members, educational leaders,
policy makers, and researchers and to contribute meaningfully to
the field. The field of science education is a broad one and
includes science and environmental education at the K-12 levels,
the College level, in informal and adult settings and in early
childhood. Focus areas of research within the science education
area are the preparation of pre-service science teachers (K-12),
induction and mentoring of beginning science teachers, design
and implementation of curricula across the K-college spectrum,
environmental education, cooperative learning, and social
justice.
Fulltime students in the doctoral program will be provided
teaching and research opportunities relevant to their area of
interest. For example, supervising student teachers, teaching
pre-service courses, and grant work. Students will be encouraged
to collaborate with existing faculty research projects as well
as developing their own independent scholarship. Students are
encouraged to present at national conference such as the
Association of Science Teacher Educators and the National
Association for Research in Science Teaching.
- Fred Finley
Currently, I am conducting research on students’ conceptions of
the earth systems and human interaction with the earth. I am
also working on civic engagement studies under a U.S. State
Department grant and operating science and mathematics teacher
internships in Thailand.
-
Leslie Flynn
My main areas of interest, teaching and research are science
teacher training and chemistry education.
- Roger Johnson
I work
primarily with teaching science in the elementary school. I am
also co-director of the Cooperative Learning Center, primarily
involved in research and training educators how to structure
cooperation in classrooms and schools.
- Gillian Roehrig
I am currently a principal investigator (PI) on a five-year
National Science Foundation (NSF) grant looking at the
impact of different mentoring and induction programs on the
development of beginning secondary science teachers.
- Bhaskar Upadhyay
My research interest is not only examining how science teaching
and learning can be improved in the classrooms, but also looking at
issues of access, ethnicity, and race that surround science
education in our urban schools.
Course requirements
Required coursework for the Ph.D. in education,
curriculum and instruction.
Track: science educationMajor requirements: A minimum of 24
credits as specified below.
- Curriculum and instruction core
courses
- CI 8131—Critical Examination of Curriculum in
Context (3 cr)
- CI 8132—Teaching Theory and Research (3 cr)
- CI 8133—Research Methods in Curriculum and
Instruction (3 cr)
- Track-specific requirements
- Consult adviser to determine requirements.
Research methodology: minimum of 12
credits as specified below.
- Required courses in quantitative
methodology (minimum of 6 credits)
- EPSY 5261 & 5262 or EPSY 8261 & 8262 (consult
adviser)
- Required courses in qualitative
methodology (minimum of 6 credits)
Educational foundations: minimum of
6 credits.
- In consultation with adviser(s), students choose courses
in at least two of five areas: cultural, historical,
philosophical, psychological, or sociological foundations.
- List of educational foundations courses
Minor or supporting program:
minimum of 12 credits.
- All coursework in the supporting program is to be
selected with consultation by the adviser(s).
Pre-thesis and thesis credits: A
minimum of 24 semester thesis credits.
Total: A minimum of 78 semester credits.
See also: Ph.D. student
resources.
Michelle Fleming
My background in education includes experience as an
elementary teacher in Wisconsin and Colorado, teaching
undergraduate and graduate courses, working with urban youth in
an outdoor education program, curriculum development and
consulting on Biological Sciences Curriculum Study and National
Institute of Health science curriculum supplements. After
receiving the JoAnne Buggey Endowed Fellowship, the desire to
deepen my understandings and challenge my own ideas about
elementary science education led me back to pursue my Ph.D. at the
University of Minnesota. My background as a mentor to new
teachers and preservice teachers inspired me to research more
effective ways of working with elementary teachers.
With my research interests in science, art, and aesthetics
education, I have attempted to accomplish my goals in relation
to my major coursework by focusing on historical and current
research in science and art education, and relating the learning
to an elementary level context. Many courses here at the
University of Minnesota afforded me an opportunity to examine
theories regarding student and teacher learning in elementary
science and art education. Additionally, my science education
provided me with a broad view of environmental/earth science
education, a closer view of reform-based science curricula, and
research on the development of elementary science curricula, and
the ability to examine issues of equity and policy on K-12
science education reform. This coursework also allowed me to
converse with science education colleagues regarding K-12
educational issues. My adviser, Dr. Roger Johnson allowed me to
explore my own interests related to reform curricula, resulting
in an analysis of the new Minnesota science standards and a
review of the most recent literature related to implementation
of reform curricula. Furthermore, I was able to develop an
instructional plan for teaching an elementary science methods
course at the university level.
Other courses outside of science education encouraged me to
look across disciplines but continue my focus on science and art
education at the elementary level. For instance, one professor
allowed me to explore social studies on a broad, encompassing
level through a major project and presentation integrating
social studies, science and art. This project allowed me to
present at the National Science Teachers Association annual
conference, the Minnesota Council for Social Studies spring
conference and conduct a curriculum field study in an urban
public school district. Also, I have been able to share my
research and practice by instructing one section of the
elementary social studies methods course, teaching the
technology course for elementary preservice teachers, and
supervising elementary preservice student teachers for the past
three years.
The research coursework provided me with an overview of
quantitative and qualitative research and ignited a strong
desire in me to explore research in greater depth by accepting a
research assistantship in the winter of 2005 with Dr. Frances
Lawrenz in educational psychology. As a result, I have been able
to use both quantitative and qualitative research methods in a
practical sense, forming a collaborative evaluation community
with K-8 educators in an urban public school district to
evaluate science and math instruction and make data-based
decisions impacting student achievement. I hope to share this
project and other research endeavors in the near future with
researchers and evaluators at the American Evaluation
Association (AEA), National Association for Research in Science
Teaching (NARST), and American
Educational Research Association (AERA).
Selected presentations
Fleming, M. & Strifling, K. (2006, April)
An
Inquiry into Force and Anatomy: Tendrils between Science and
Art. Paper presented at National Science Teachers Association (NSTA)
National Conference, Anaheim, CA.
Fleming, M. & Buggey, J. (2006, April)
Agricultural Inquiry in the Primary Classroom: Science, Social
Studies and Literacy Connections. Paper presented at National
Science Teachers Association (NSTA) National Conference,
Anaheim, CA.
Fleming, M., Chahine, I., Clarkson, L., &
Lawrenz, F. (2006, February) Collaboration Evaluation
Communities in Urban Public Schools: Joint Project between the
Departments of Curriculum & Instruction and Educational
Psychology. Poster presented at Research Day, University of
Minnesota, Minneapolis, MN.
Fleming, M. (2005, August) Collaborative
Evaluation Communities Program: Utilization-focused Evaluation
Methods. Poster presented at University of Minnesota Graduate
Student Orientation, Minneapolis, MN.
Buggey, J., Fleming, M., & Herlofsky, A.
(2005, March) Inquiry and Agriculture in the Primary Classroom.
Workshop presented at Annual Conference of the Minnesota Council
for the Social Studies (MCSS), Bloomington, MN.
Caglin
Kaymaz
I am from Izmir, Turkey. I was graduated from Dokuz Eylul
University in 2000 and was awarded with a bachelor degree in
chemistry education. I taught chemistry at high school and
secondary school levels. After a couple of years in the
profession, the government of Turkey awarded me a scholarship to
pursue my graduate degree in the U.S. After receiving my Ph.D. degree,
I will be assigned to a faculty position to work at the
Department of Education in Dumlupinar, University in
Turkey.
After completing my M.A. in elementary education at the
University of Colorado at Boulder, I chose to come to the
University of Minnesota since I believed that both the
Cooperative Learning Center and Center for Cognitive Sciences
would be the places to further my research agenda.
The courses at the U of M have really strengthened my
teaching and research agenda. Drs. Roger and David Johnson’s
Cooperative Learning course noticeably influenced my teaching
techniques and improved my understanding about classroom
dynamics. I definitely plan on utilizing cooperative learning in
my research framework. I am grateful that as one of my advisers,
Prof. Roger Johnson consistently encourages my studies and
supports me during my research. Likewise, Dr. Bhaskar Upadhyay’s
course on equity and policy in science education also shaped my
future research. Initially, I was not focused on “culturally
responsive teaching” and “multicultural education,” but now I
have realized that these substantial issues should not be
neglected. As my adviser, Dr. Upadhyay continues to support me
as I improve my research skills and encourages me to attend
conferences and publish my articles.
Before I came to U of M, my research was focused on improving
students’ creativity and conceptual understanding of the
students, the metaphors and gestures that students use/construct
during learning activities. My coursework and conversations with
faculty here have helped to extend my ideas into framing
questions for practical research. I also feel more comfortable
with using the inquiry stance to start asking my own research
questions and design my doctoral research. Today, my research
framework embraces the constructivist theory and I am trying to
develop a teacher development program that helps teachers to use
cooperative learning, Socratic questioning, and creative
cognition in their classroom in order to stimulate
constructivist learning experiences for students.
The social life here has also been rewarding. As graduate
students, we get together every other Friday for our journal
club, where we have academic discussions. Frequently, we have
brownbag sessions and pizza talks where graduate student and
faculty members share research interests. I believe the most
enriching aspect of student life at U of M is the thriving
intellectual graduate student community.
Selected presentations
Akillioglu-Kaymaz, F.C. and B. Upadhyay.
(2006). Hmong Teachers’ Perception of Science Teaching: A Case
Study of Two Female Pre-Service Elementary Hmong Teachers.
Presentation at annual meeting of the Association for Science
Teacher Education, Portland, OR.
Sample dissertations
Appledoorn, K.L. (2004) Developing and
validating the Collaboratives for Excellence in Teacher
Preparation (CETP) Core Evaluation Classroom Observation
Protocol (C.O.P.). Unpublished doctoral thesis. University of
Minnesota, Minneapolis, MN.
Fenwick, S.E. (2005). The effects of
cooperative creative controversy versus cooperative concurrence
seeking on student academic achievement and attitudes toward
factors of classroom social support. Unpublished doctoral
thesis. University of Minnesota, Minneapolis, MN.
Kuo, H.V. (2004). An explanatory model of
physics faculty conceptions about the problem-solving process.
Unpublished doctoral thesis. University of Minnesota,
Minneapolis, MN.
Pocovi, M. C. (2004). Research on the
effects of a history-based curriculum on the students'
understanding of the concepts of electric field and lines of
force. Unpublished doctoral thesis. University of Minnesota,
Minneapolis, MN.
Woodward, D.M. (2004). Changes in students’
measures of environmental literacy as a result of instruction on
environmental issues. Unpublished doctoral thesis. University of
Minnesota, Minneapolis, MN.
May 2006
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