Annotated Bibliography: Mathematics
Teacher’s Beliefs and Change
Pamela R. H. Bailey
George Mason University
Research
Questions
What teacher practices or beliefs will
encourage mathematical growth in secondary mathematics students? How can a mathematics leader encourage
secondary mathematics teachers to adopt reform practices?
Becker,
J. R., Pence, B. J., & Pors, D.
(1995). Building bridges to mathematics for all: A small scale evaluation study. Presented at the Annual Meeting of the North
American Chapter of the International Group for the Psychology of Mathematics
Education. Ohio: PME.
Teachers are exposed to professional
development but concern is expressed as to why or why they do not decide to
implement the practices learned and prepared.
The researchers want to look at facilitating change in beliefs of teachers
involved in a three year professional development program. Students in California are expected to take
Algebra 1 by their ninth grade year in high school which has led to a concern
for equity and accessibility to quality instruction.
Five participants were selected from
the professional development program according to specific criteria set forth
by the researchers so that a diverse group would be probed. Part of the criteria was based on the results
from the Instructional Practices Scale instrument that all program participants
took along with observations made during coaching experiences. The main source of data was through
interviews with questions centered on curriculum, pedagogy, and equity. Triangulation was conducted between the
interviews, the instrument responses, and the qualitative data from the
coaching. The findings showed that the
longer a participant was involved in the professional development led to an
increase in the beliefs of teachers toward a more student-centered
instructional approach with their classrooms exhibiting the change. All of those interviewed stated that they
understood and agreed with the goals set for in the sessions. It was a unanimous response that the
networking with other teachers meant the most to them.
Due to space, the researchers were
unable to elaborate on the instrument or the methodology; instead they opted to
focus on the results. The construct is a
self reported analysis which leads to participant bias. Lastly, it is a three year program so we
should know that those who remain as participants will acknowledge that their
instruction has been impacted.
Breyfogle,
M. L. (2005). Reflective states associated with creating
inquiry-based mathematical discourse. Teachers and Teaching: Theory and Practice,
11(2), 151-167.
Breyfogle focuses on what a teacher
experiences as he tries to change the discourse in his classroom in an effort
to become more inquiry-based and student-centered. What the teacher actually does in the
classroom and what is written when reflecting on his practices may not
correlate. Breyfogle wants to see if
videos of the teacher and students in action will help the teacher perceive
accurately his actions and to adjust them to be more student-centered.
The teacher has taught six plus years
and is considered to be innovative and a leader in reform mathematics. He was videotaped weekly with the researcher
making notes about times, the discourse, and any additional comments he thought
might help. Breyfogle then selected a
segment of the video that was assessed by the teacher the next day using an
instrument he created, Discourse Reflection Tool (DRT). Additionally the teacher was interviewed
three times to clarify and expound on reflections to that time. The results showed a graduated state of
change in beliefs and reactions by the teacher.
He started out being defensive and explaining his actions that changed
to questioning his actions and being frustrated with himself. This led to a question and explore state
where he still questioned his actions but also sought how to change his
practices. The final state was exploring
and indicated that the teacher was more thoughtful about his actions like an
outsider looking in. Breyfogle stages of
change correlate with Guskey’s (2002)
model of teacher change in a classroom practice that leads to student
improvement and engagement will ultimately result in a change in teacher
beliefs.
A weakness is definitely that this was
the view of only one teacher who was already considered to be innovative. I wonder if the teacher was reluctant to
change if the practice would also be effective.
Cooney,
T. J., Shealy, B. E., & Arvold, B.
(1998). Conceptualizing belief
structures of preservice secondary mathematics teachers. Journal
for Research in Mathematics Education, 29(3),
306-334.
Cooney, Shealy, and Arvold address the
problem of teacher beliefs and changing beliefs through the type of experiences
encountered in their teacher education programs by developing stages similar to
research by Belenky, Clinchy, Goldberger, and Tarule (1986) and Perry (1970). The purpose of the paper is to determine that
once teachers are exposed to reform practices why or why do they not continue
those practices in the classroom.
The researchers begin the study with a
survey of 15 preservice secondary math teachers. The focus was on beliefs about teaching and exploring
reactions to student responses to problem solving situations was the focus. Four of the teachers were interviewed, for a
total of 5 each, and took a second survey to determine changes in the teacher’s
beliefs and growth
The survey’s and interviews revealed
that a teacher’s inner voice effects teacher change and aids in reflecting
critically on experiences. Suggested the
following levels of growth: naďve, idealist, isolationist, and connectionist; a
change in the levels presented by Belenky, et al. (1986) and Perry (1970) and
recommended that education programs concentrate on students becoming reflective
connectionists. In addition, they proposed
creating activities that challenge teachers causing them to doubt evidence they
currently hold and to reflect and adapt current practices.
I am not sure why or how they
narrowed down their participants from 15 to 4 as they continued on with the interviews. The relationship to the Belenky, et al.
(1986) and Perry (1970) studies did not seem to play a huge part as the
researchers developed their own levels so I am not sure why they focused on
them. No constructs were developed or used.
Cross,
D. I. (2009). Alignment, cohesion, and change: Examining
mathematics teachers’ belief
structures and their influence on
instructional practices. Journal of Mathematics Teacher
Education,
12, 325-346.
The study addressed five teachers’ mathematical
beliefs by analyzing how they correlated with their instructional practices and
was a help or heed when incorporating reform practices. The purpose of the paper is to understand how
beliefs support or deter implementing reform-oriented practices by teachers by
looking at three different models of belief structures. Cross believed that teacher beliefs must
correlate to the expectations. The goal
of the study is to assess the degree of beliefs aligned with instruction, how
beliefs help or hinder teachers incorporating reform based practices and
resources.
Two formal observations were
conducted with follow-up interviews. The
interviews focused on “…teachers’ views of mathematics as a discipline (Cross,
2009, p.330)”, content pedagogy, and student learning. Participants reviewed and approved the
interview transcripts. Weekly
observations continued, two per week for 10 weeks, followed by informal
discussions. Lesson plans and student
work was collected. Results showed three
themes, the nature of mathematics (computation versus a way of thinking),
mathematics teaching (demonstration versus guidance), and student learning
(practice versus understanding). Educating
teachers and changing their practices may be accomplished by understanding how
teachers believe mathematics should be taught with regard to these areas.
I
would feel that the study had substance if there had been some type of
quantitative analysis conducted along with the qualitative. We know the types of beliefs so now what and
could there also be other factors?
Future suggestions for research were made. There were no constructs developed or used.
Cwikla,
J. (2002). An
interview analysis of teachers' reactions to mathematics reform professional
development. Presented at the Annual
Meeting of the American Educational Research Association, New Orleans, LA.
The study addresses what characteristics
influence teachers’ reactions and interactions with students and what activities
affect teacher’s classroom practices. Four
hypotheses considered are 1) when teachers’ thinking and learning is centered
around how students’ think and learn then instructional practices improve; 2)
collaborative environments lead to improved instructional practices; 3) change
in instructional improvements occur in small increments; and 4) experimentation
and inquiry lead to instructional improvement.
Overall the goal is for teachers to increase their understanding of
student thinking so that there will be a change in instructional practices that
are based on the National Council of Teachers of Mathematics (NCTM) Process
Standards.
Middle school teachers (110) involved in
a statewide professional development on how to use new curriculum
materials. It is a three year program
with all teachers completing a survey midway in the first year. The survey consisted of teacher views on how
students learn and on constructivist aspects, reactions to activities that
encourage students’ mathematical thinking, and demographic information. Follow-up surveys and interviews were conducted
with thirteen teachers to delve deeper into the hypothesis.
Quantitative and qualitative results
supported each other. Key findings were
that years of experience, advanced degrees, and mathematical content knowledge
affected teacher insight into student thinking.
Each hypothesis was discussed separately. We do not know the validity or reliability of
the survey. Factor analysis, Promax
rotation, Structure Matrix, and t-tests were used in the analysis.
Derry,
S., Wilsman, M., & Hackbarth, A.
(2007). Using contrasting case
activities to deepen teacher understanding of algebraic thinking and teaching. Mathematical Thinking and Learning, 9(3),
305-329.
The problem addressed how teacher’s
beliefs change when exposed to problem solving tasks using nontraditional
approaches and how reflecting and/or evaluating case studies affect teachers
understanding of student ability to reason algebraically. Goals were to have teachers compare and
interpret tasks containing multiple representations and solutions and to
explain their thinking and those of the students. Creating an approach to instruction for
teachers will aid them in acknowledging their own ability to understand
algebraic thinking and representational fluency.
Twenty
teachers from three middle schools completed five assignments based on
readings, problem solutions for Sample Algebraic Modules (SAM), daily journal
reflections, and were videotaped with researchers taking field notes. The professional development was in two
parts, a summer workshop and a school year sessions. Teachers were assessed on content knowledge,
pedagogical content knowledge, and their ability to analyze student thinking by
watching two videos of student’s actions during a problem solving activity.
Teachers
showed an increase in comparing multiple representations and interpreting the
solutions. They had improved their
ability to identify and explain student’s algebraic thinking, mathematical
vocabulary, classroom discourse but they
had not increased their ability to reflect on the go about what they were doing
and students responses.
Excerpts from teachers helped to
validate statements. Content was shown
as a weakness but nothing was done to help them improve. The researchers used the design research
methodology by Hall (2001) and Turning to the Evidence (Driscoll, Goldsmith,
Seago, and Mumme (2004).
Harel,
G., & Lim, K. H. (2004). Mathematics
teachers’ knowledge base: Preliminary results. Proceedings of the 28th
Conference of the International Group for the Psychology of Mathematics
Education, Vol. 3, 25-32. Norway:
PME.
Does a teacher’s practice depend on
the teacher’s knowledge level or the teacher’s beliefs about how mathematics
should be taught and learned was the problem addressed by Harel and Lim (2004). The purpose of the paper was to look closely
at the types of knowledge and how it affects instructional practices. Harel and Lim state that “Student learning
depends on the teacher’s actions, which are, in turn, dependent on the
teacher’s knowledge base…(p.25)”.
The
study involved three teachers in a public high school with low income student
population, on a block schedule, and offering a rigorous college preparatory
education. Classroom observations were
conducted once or twice a week for a total of 14 observations for each
teacher. Meetings followed each
observation to discuss goals of the lesson and to reflect. Some observations were videotaped and the
conversations audio taped.
Harel
and Lim (2004) looked at knowledge as a way of understanding (WoU) and a way of
thinking (WoT). The teacher in the case
study was traditional, self-centered, and focused on the lesson from a
mathematical standpoint. Part of the
revealed transcript showed that professional development needs to focus on all
aspects of knowledge in order to maximize effectiveness. A
change in knowledge will affect teacher beliefs. Teachers need to wrestle with the mathematics
and then reflect on their own learning which will lead to a better appreciation
and understanding of “…epistemological and pedagogical issues (Harel & Lim,
p.32).”
The theoretical framework contained
definition of terms. No clear statement
of the research question(s). They
observed three teachers but only went into depth discussing one. There were no constructs developed or used
Handal,
B., & Bobis, J. (2004). Teaching mathematics thematically: Teachers’
perspectives. Mathematics Education Research Journal, 16(1), 3-18.
Teaching using themes in mathematics
has been praised as a way to provide students with relevant learning
experiences instead of focusing on mathematical concepts. Empirical research has not been conclusive on
the impact thematic approaches have on student learn and attitudes. Problems with the studies include the design
of the studies, misunderstanding of the materials used, and methodologies
used. The purpose of the study was to
determine beliefs and practices of ten secondary mathematics teachers when
implementing thematic instruction.
Instruction, curriculum, and organization are hypothesized as the reason
why the thematic approach is not implemented.
Participants first completed the
questionnaire and then participated in a semi-structured interview based on
questions centered on instruction, curriculum, and organization. The common themes were the result of the
questionnaire. Thematic instruction is
reform mathematics that is highly structured.
Teachers found that if the theme did not interest the student then they
did not pay attention. Beliefs and
practices was the aim of the researchers and they revealed a great deal of
conflict with the three factors. Appreciation
was shown for the approach but there are problems with preparing and obtaining
materials, being pressured to use the theme approach, and student concerns with
behavior and repetition.
Weakness was a lack of observations
to correlate statements with actions.
Also they cannot be assured that the teachers actually implemented the
units as intended. I have a concern that
the approach is too thematic and not centered on a set of concepts. No information was given about the
questionnaire.
Lepik,
M., & Kaljas, T. (2009). Facilitating change in teachers’ views of
teaching mathematics.
Pedagogy
Studies, 94, 73-76.
Estonian mathematics is experiencing
problems with instruction being drill and practice and students losing interest
in the subject. They are in the midst of
reform so are seeking avenues for teachers to improve instruction. Reflection that is meaningful and taken
seriously by those participating is seen as a way to improvement. A community of practice made up of university
teachers and high school mathematics teachers was formed for this purpose.
The teachers met regularly with the
researchers to reflect on their practices and to participate in seminars and
lectures. Reflection sharing involved
videotapes, lesson plans, along with discussions on problems and
experiences. Only 23 of the 34 original
participants completed the year and a half study. Teachers took a questionnaire at the
beginning and end of the project that contained open-ended questions about
their views on mathematics and reflected on their teaching practices. The change in questionnaire responses showed
that teacher‘s initial beliefs regarding rules and routines, understanding
concepts, and problem solving was varied.
By the end of the study beliefs were more homogeneous, focusing on
discovery and meaningful learning.
Teacher metacognition developed with participation in the community of
practice.
A major weakness is that the researchers
did not validate the teacher’s statements with observations. They did include some qualitative statements
that were collected during the meetings which did correlate with and show
growth. Only information given about the
questionnaire the participants took was that they were open-ended and about
teacher beliefs. I wonder about its
validity.
Orrill,
C. H. (2006). What learner-centered professional
development looks like: The pilot studies of the InterMath Professional
Development Project. The Mathematics Educator, 16(1), 4-13.
Orrill
questions how teachers can implement reform methodology without ever
experiencing it. The initial goals are
to improve content knowledge and skills using open-ended explorations, to use
technology to support explorations and thinking skills, and to collaborate with
and have support from peers.
Two
groups of certified math middle school teachers met once a week for a semester at
the University of Georgia to explore algebra, geometry, number sense, and
statistics/probability as they would be presented in mathematical reform
classes. Three weeks of the field notes
were analyzed. Twelve randomly chosen
participants and both instructors participated in tape recorded interviews. Pre- and post-surveys were taken by all
participants to rate their technology usage, comfort level using technology,
and their usage of open-ended explorations with students.
Categories
from data centered on support, interaction, barriers, presentation, and adoption. Concerns flagged by the researcher were an over-reliance
on the instructors, wanting correct procedures, not wanting to expand content
knowledge, viewing course as a focus on technology, and lack of
reflection. The goals of the
participants did not match those of the professional development. Teachers wanted make and take sessions,
activities ready to use in the middle school classroom. The teachers did not know how to work in
groups, how to apply their knowledge and skills, or use technology therefore
proving their hypothesis.
Need
to determine and address content weaknesses. I also felt that the literature
review was very weak. Research questions
were difficult to determine. Orrill did
not say much about the survey and its construction.
Sztajn,
P. (2003). Adapting reform ideas in different
mathematics classrooms: Beliefs beyond mathematics. Journal
of Mathematics Teacher Education, 6,
53-75.
The problem addressed in the study
is if suggestions for changing mathematics instruction is affecting all
children being able to learn mathematics.
“The goals of this study are to understand elementary school teachers’
beliefs and practices and to unveil factors that influence the way teachers
adapt mathematics reform rhetoric when trying to adopt it (Sztajn, p.53,
2003).” Understanding teacher beliefs
and instructional practices as well as what factors influence how teachers
interpret and apply reform language will be researched.
A case study of two experienced elementary
school teachers from different schools provided data collected for four weeks
of observations. Five interviews were
conducted with principals, some teachers, and some parents. Final themes were students’ needs, beliefs
about children and how they learn, society, and education. Handouts and lesson plans were gathered.
Comparing and contrasting the teachers
was a major portion of the analysis.
Sztajn (2003) also developed a motto for each showing that the teachers
not similar. The findings included that
teachers are not receiving support and assistance to meet the expectations of
reform in mathematics. Their beliefs
drive what they deem the best for their students and influence what and how
they interpret reform in mathematics. Current
reform movement did not alter the teachers’ ideological vision, it was the
opposite. The teacher’s ideological
vision influences the understanding and execution of mathematics reform.
The process she uses in the research
was clear. She has a section for each of
the teachers detailing her analysis of the observations along with excerpts
from the teacher followed by themes and contrasting views on practices. Weakness would be that there are only two
participants. No constructs were developed or used.
Wilson,
M. R. & Lloyd, G. (1995). High
school teachers’ experiences in a student-centered
mathematics
curriculum. Presented at the Annual Meeting of the
North American Chapter of the International Group for the Psychology of
Mathematics Education. Ohio: PME.
Researchers were concerned with teacher
beliefs about student-centered instruction.
A focus was on how teachers transitioned from teacher-centered to
student-centered practices and specifically about pedagogical authority. The authority is about determining if student
actions are correct and that understanding the concepts lies with the teacher,
the student, or the textbook.
Ascertaining if the teacher or the student handles and accepts the
transition will be uncovered as many teachers blame students for why they do
not change.
Over a six week period three traditional
teachers and target student groups, as determined by the teacher, were observed
and videotaped daily. Teachers
participated in four or five interviews: students in the target groups were
interviewed periodically. All the
teachers taught a unit out of the Core-Plus
Mathematics Project (CPMP) text. The
researchers found that the students adapted to student-centered learning faster
and easier than the teachers. Teachers
were afraid that their students could not do the mathematics and make the
connections, transitioning from whole to small groups were problematic, and
felt that they had to interject in order for the students to understand the
concepts fully. The study stated that
the teachers were committed to change and had just begun to use the CPMP
books. Perceptions of preconceived
student concerns were stronger than what actually existed. If there was resistance it would decrease as
time goes on. We need to understand how
our students think and learn. The
teachers did not receive any assistance with implementing new curriculum. No constructs were developed or used.
References
Becker,
J. R., Pence, B. J., & Pors, D.
(1995). Building bridges to mathematics for all: A small scale evaluation
study. Paper presented at the Annual
Meeting of the North American Chapter of the International Group for the
Psychology of Mathematics Education.
Ohio: PME.
Belenky,
M. F., Clinchy, B. M., Goldberger, N. R., & Tarule, J. M. (1986).
Women’s ways of knowing: The
development of self, voice, and mind. New
York: Basic Books.
Breyfogle,
M. L. (2005). Reflective states associated with creating
inquiry-based mathematical discourse. Teachers and Teaching: Theory and Practice,
11(2), 151-167.
Cooney,
T. J., Shealy, B. E., & Arvold, B.
(1998). Conceptualizing belief
structures of preservice secondary mathematics teachers. Journal
for Research in Mathematics Education, 29(3),
306-334.
Cross,
D. I. (2009). Alignment, cohesion, and change: Examining
mathematics teachers’ belief
structures and their influence on
instructional practices. Journal of Mathematics Teacher
Education,
12, 325-346.
Cwikla,
J. (2002). An
interview analysis of teachers' reactions to mathematics reform professional
development. Paper presented at the
Annual Meeting of the American Educational Research Association, New Orleans,
LA.
Derry,
S., Wilsman, M., & Hackbarth, A.
(2007). Using contrasting case
activities to deepen teacher understanding of algebraic thinking and teaching. Mathematical Thinking and Learning, 9(3),
305-329.
Driscoll,
M., Goldsmith, L., Seago, N., & Mumme, J.
(2004). Turning to the evidence: Professional development using classroom
artifacts. Paper presented at the
National Council of Supervisors of Mathematics 36th Annual Meeting,
Philadelphia, PA.
Guskey,
T. R. (2002). Professional development
and teacher change. Teachers and Teaching: Theory and Practice, 8(3-4), 381-391.
Hall,
R. (2001). Schedules of practical work
for the analysis of case studies of learning and development. The
Journal of the Learning Sciences (Special Issues on Design Research), 10,
203-222.
Handal,
B., & Bobis, J. (2004). Teaching mathematics thematically: Teachers’
perspectives. Mathematics Education Research Journal, 16(1), 3-18.
Harel,
G., & Lim, K. H. (2004). Mathematics
teachers’ knowledge base: Preliminary results. Proceedings of the 28th
Conference of the International Group for the Psychology of Mathematics
Education, Vol. 3, 25-32. Norway:
PME.
Lepik,
M., & Kaljas, T. (2009). Facilitating change in teachers’ views of
teaching mathematics.
Pedagogy
Studies, 94, 73-76.
Orrill,
C. H. (2006). What learner-centered professional
development looks like: The pilot studies of the InterMath Professional
Development Project. The Mathematics Educator, 16(1), 4-13.
Perry,
W. G. (1970). Forms
of intellectual and ethical development in the college years. New York: Holt, Rinehart, & Winston.
Sztajn,
P. (2003). Adapting reform ideas in different
mathematics classrooms: Beliefs beyond mathematics. Journal
of Mathematics Teacher Education, 6,
53-75.
Wilson,
M. R. & Lloyd, G. (1995).
High school teachers’ experiences in a student-centered
mathematics
curriculum. Paper presented at the Annual Meeting
of the North American Chapter of the International Group for the Psychology of
Mathematics Education. Ohio: PME.