Secondary Mathematics Teachers:
Beliefs and the Implementation of
the Function Approach
Pamela R. Hudson Bailey
George Mason University
Currently student seeking PhD in
Mathematics Education Leadership
Abstract
A mixed method study assessing
teacher beliefs with regard to reform-based teaching and learning using a
function method in secondary mathematics is assessed using two different styles
of professional learning. Method A involves
teacher participation in a Math and Science Project grant while Method B is
school district based. Both methods
focused on tasks that were high in cognitive demand, the Rule of 5, and the
National Council of Teachers of Mathematics Process Standards. Data was collected through interviews,
observations, and pre- and post-surveys.
Method A participants attended small group monthly sessions along with
monthly online sessions that are whole group.
Method B participants attended quarterly meetings based on the
course. Both groups attended summer
sessions to set the foundation for the sustained follow-up meetings.
Secondary Mathematics Teachers:
Beliefs and the Implementation of
the Function Approach
Introduction
What
comes first? Professional learning focused
on changing teacher beliefs about reform-based instruction OR professional
learning focused on educating teachers about new strategies that when
implemented with support will result in changing teacher beliefs? What role does the success of students affect
teacher beliefs? The chicken and the egg
concept repeated with teacher beliefs and content implementation
strategies. So which should come
first? Is there an answer that fits all
teachers and students? These questions
are prevalent in our state as teachers are encouraged to implement reform-based approaches
to teaching high school algebra. A professional
learning opportunity through the Math and Science Project (MSP) grant (Method
A) on the topic was offered during the summer of 2010 and throughout the
following school year with a limited number of participants from three school
districts. Method B, similar in content,
was offered to all remaining algebra teachers in one of the school districts
with less participant involvement hours.
This study is designed to look at teacher beliefs before and after the professional
learning along with how student achievement and engagement effects beliefs. The purpose of the study is to determine
if
1.
teacher beliefs regarding teaching and learning mathematics
changed after participation in one of two different professional learning sessions
and follow ups,
2.
student achievement and reactions effect teacher beliefs, and
3.
years in education and level of education of the teacher plays a
role in teacher beliefs and willingness to change,
Literature Review
Being aware that teachers need to change
their beliefs about mathematics will lead to professional learning session expectations
changing to meet needs of reform-based teaching and learning. Weidemann and Humphrey (2002) posit that
every professional learning session should be based on a set of goals while
Cwikla (2002) states that setting small and large goals will help to
acknowledge success with small incremental changes that lead to instructional
improvement. The overall goal should be
to increase teacher knowledge and pedagogical content while establishing the
vision for change (Weiss and Pasley, 2006).
The professional learning sessions exposed participants to
tasks that are reflective of the function (reform-based) approach to teaching
and learning algebra so they might experience feelings similar to students
during a lesson. Planning, units and
lessons, is centered on the NCTM Process
Standards (2000) of communication, connections, problem solving, reasoning and
justification, and representations, and the Rule of 5 which includes concrete,
symbolic, graphical, tabular, and math talk. Professional learning sessions included
discussions and time to practice questioning skills, creation of assessments,
and developing and maintain cognitively demanding tasks. Anticipated benefits for teachers are an
increase in content knowledge, pedagogical content knowledge, and
self-confidence to facilitate instruction as well as creating and developing lessons
and tasks high in cognitive demand.
In order to realize benefits of the
sessions teacher beliefs needed to change or evolve but what causes or affects
a teacher’s beliefs? A teacher’s
beliefs, as stated by Weiss and Pasley (2006), will take time to change. If their beliefs do not correlate with the
goals of the professional learning then the implementation will be
ineffective. Content knowledge, pedagogical
knowledge, and student epistemology are all governed by an individual’s
beliefs. Guskey (1986) views change as
taking time due to the cyclic nature of change as teachers apply a new concept
and note the change in student results which leads to the change in
beliefs. Administrative requirements
affected teacher beliefs with comments made throughout the sessions about what
is expected when a teacher is being observed by the principal. Teachers are
held accountable through quarterly benchmark and state assessment scores. Change brings trepidations about student
achievement on these assessments which are perceived as a direct reflection of
teacher ability.
A teacher’s beliefs predict how they
will practice instruction in their classrooms (Cross, 2009; Harel & Lim,
2004; Nathan & Koedinger, 2000a; Nathan & Koedinger, 2000b; Sztajn,
2003). Some teachers take new ideas of
reform mathematics and adjust it to fit their own beliefs which was explained
by Cross and Sztajn. Others state that
“…this is the way I’ve learned it…so I am teaching the way I’ve learned it
(Harel & Lim, p. 28).” But how can
teachers practice something they have never seen or experienced was a question
posed by Orrill (2006). Professional
learning sessions need to place teachers in a state of disequilibrium thereby
allowing them to experience learning using reform ideas. Sztajn disclosed that the current
mathematical reform movement was expected to alter a teachers’ ideological
vision or beliefs. The reverse was the reality;
teachers’ ideological beliefs influence their understanding of reform.
Cooney, Shealy & Arvold (1998)
discuss that if the belief is not based on evidence then providing evidence
will not influence change. In contrast
if the belief is based on evidence then teachers can challenge the evidence and
modify their belief based on outcomes. Teachers
need to believe that students can perform, apply thinking skills, and are
willing and wanting to learn the material (Uworwabayeho, 2009). Having an open mind and a willingness to
change one’s beliefs will enable a teacher to learn from their students.
Professional learning sessions should involve
activities that challenge teachers, causing them to doubt evidence they hold
that supports their beliefs and then encourage them to reflect (Cooney, Shealy,
& Arvold, 1998). Activities need to make
connections with the curriculum and world, encouraging collaboration. Centering on the reform movement, teachers
will take on the role of change agents, increasing student achievement and
engagement (Cooney, Shealy, & Arvold; Cwikla, 2002). Collaboration among peers was stressed by
Lappan (2000) and Olson and Kirtley (2005) as playing an important part in
change, calling on teacher’s expertise to discuss, create, and analyze lessons
and assessments. Being involved in
collaborative sessions leads to instructional improvement and teachers having
more confidence to learn and share with each other (Cwikla). Given the opportunity to collaborate,
teachers will garner support from each other as they grow, change, and learn
from their students on how to meet their needs (Guskey, 1986; Lin, 2004).
Weiss and Pasley (2006) posit that
teacher weaknesses in content knowledge and pedagogical practices are partly to
blame for poor student performance in mathematics. Teacher’s procedural skill knowledge is not
the concern; truly understanding concepts and connections is a problem. The search for connections will lead to
improved pedagogical content knowledge. So
who should be included in professional learning? Do you only include teachers if their beliefs
correlate with the new approach and goals or do you jump in, educate, and support
teachers so they might see a change in their students by providing evidence
that will lead to a change in beliefs? Method A participants volunteered for the
professional learning however some of Method B participants were participating
due to school district requirements.
Loucks-Horsley, Stiles, Mundry, Love, and Hewson (2010) state that “It
is important not to wait to provide professional learning until the entire
school community is united around a common vision (p. 33).” Teacher beliefs play a role with planning and
instruction so must be considered, along with students, when developing
sessions.
Research Questions
The
two research questions addressed teacher beliefs before and after professional
learning sessions from the teacher viewpoint and the influence of their
students. Question #1 is “Will sustained
professional learning sessions focused on reform positively affect teacher
beliefs toward approaching teaching and learning via functions?” and #2, “How
do the actions and reactions of students affect teacher beliefs and teacher
pedagogical content knowledge?”
Methodology
Participants
Teachers had the option of attending the
summer and school year sessions or just the summer. A large number of participants dropped out of
Method A professional learning after the summer session was completed (29 down
to 15). Some who did not continue during
the school year stated that the requirements of the sessions was more than they
wished to do while teaching. Of those
that completed both sessions only 11 turned in the post-survey. Method B professional learning summer session
began with 36 teachers however the school year follow up sessions averaged 12
for Algebra II and 10 for Algebra I. Since
the sessions were not required some teachers elected to participate in other
professional learning offerings within the school district. Only ten of Method B completed the
post-survey.
Three of the teachers, Bethany from
Method A, Carl and Donna from Method B sessions agreed to be interviewed and
observed. Bethany, a six year veteran is
teaching Algebra II and Advanced Algebra II.
Donna, with eleven years of experience, is currently teaching Advanced Algebra
II classes. Carl is teaching Algebra II
and has been in education for about four years.
The makeup of students in the classrooms of the interviewees is very
similar so all teachers being interviewed are working with comparable levels of
students (Table 1). Math 8 and Algebra I
Standards of Learning assessment scores were compared for these teachers to
determine the percentage of students passing and those passing advanced.
TABLE
1
Student Abilities in Interviewee
Classrooms
Percent
Passing Percent Passing Percent Passing Percent Passing
Math 8 SOL Advanced Alg 1 SOL
Advanced
Math 8 Alg 1
Bethany
Algebra II 56.40 38.50 92.70 7.30
Adv. Alg II 23.70 76.30 51.30 48.70
Donna
Algebra II ------ ------ ------ ------
Adv. Alg II 28.90 71.10 51.10 48.90
Carl
Algebra II 56.60 32.10 89.30 11.00
Adv. Alg II ------ ------ ------ ------
Data Sources
Each type of professional learning began
with participants completing the Conceptions of Mathematics Inventory (CMI), a
teacher/faculty survey from the National Science Foundation provided by Online
Evaluation Resource Library (OERL, 1994). A Likert scale was used on the survey
with value choices of 1 to 6 with 6 representing beliefs that reflected the
function standards-based approach to a 1 representing traditional beliefs. For the purpose of reporting a score of 1 or
2 will be considered traditional, 3 or 4 as wavering, and 5 or 6 as
reform. Star and Hoffman (2005) used the
same survey with students to determine their mathematical beliefs in the
categories of composition, structure, status, doing, validating, learning, and
usefulness. The Star and Hoffman categories
are defined in Table 2 and aligned with categories given by OERL as shown in
the last column, faculty/staff categories.
Titles of the categories for teachers are content, classroom management,
academic profession, teaching profession, student understanding, methods, and
practical value are aligned with the categories by Star and Hoffman based on
these definitions.
TABLE
2
Alignment and Definition of
Categories
Star & Hoffman Faculty/Staff
Student
Categories Traditional
Reform-Based Categories
Composition Facts,
formulas, and Concepts,
principles, and Content
algorithms generalizations
Structure Collection
of isolated A coherent system Classroom
pieces Management
Status Static
entity Dynamic
field Academic
Profession
Doing Process
of obtaining Process of
sense-making Teaching
results Profession
Validating Via
mandating from an Through
logical thought Student
outside
authority Understanding
Learning A
process of A
process of constructing Methods
memorizing
intact and understanding
knowledge.
The interviews explored teacher’s experiences
in the professional learning sessions, their beliefs about teaching and
learning mathematics, and perceived effects of change on students. Interviewees were observed twice in the
classroom setting to assess if actions matched words and survey results. Archived data of the interviewee’s current students
included math 8 SOL scores (2008) and Algebra I SOL scores (2009). In January 2011 those that had taken the
pre-survey were requested to take a post-survey to determine if there were
changes in their beliefs.
Data Analysis
For completing participants, mean values
for each of the categories, pre- and post, was determined. A Paired-Samples t-test was performed to
determine significance of the difference between the mean values for pre- and
post-survey results. Observations and
interviews, along with the survey results, helped to give the total picture of
how the interviewees perceived learning and teaching using the function
approach. Talking or assessing students
was not permitted in the school district so discussions were limited to the
teachers.
Professional Learning Sessions
Method A, a four day summer session offered
through a local university grant, was followed by monthly follow-up sessions
online as a whole group and monthly small group meetings among the participants. Method B, a two day summer session, had
quarterly follow ups held throughout the school year for the teachers of
Algebra I and of Algebra II, separately, to better meet their needs. This group is from the same school district which
encourages collaboration among teachers during common planning.
The objectives for Method A participants
is to experience and develop lessons based on the functions approach, learn
about and create cognitively demanding rich tasks, make connections between
topics, and collaborate with peers. Focusing
on the Rule of 5 and the NCTM Process Standards, teachers planned, facilitated,
and reflected on lessons with students the center of their self-analysis. Presentations were made to the whole group
about high cognitive demanding tasks, processes used to solve problems, and
justification of their solutions and procedures. Connections were continually made to
real-world situations and to additional mathematical concepts. Manipulatives are a challenge for many secondary
teachers so were incorporated into sessions, concentrating on when and how they
might be implemented. Planned
discussions during the sessions included grouping methods to encourage
collaboration, how to maintain a high cognitive demanding lesson, and the
importance of higher level questions being determined during the planning
stages.
Monthly follow up sessions for Method A
continued to center on new mathematical concepts needed to facilitate revised
state standards. Teachers worked in
groups online and presented their approach and solution to the other
participants using technology. Monthly
face-to-face small group meetings, a requirement of the grant, was a time for teachers
to create stations for students to review concepts prior to the state
assessment, discuss topics from the online sessions, and reflect and plan
lessons. Small groups went through the
lesson study process of researching and developing a lesson to be presented in
the spring 2011. Total time participants
were engaged in Method A professional learning was 72 hours of summer and
school year face-to-face and online meetings.
The goals are the same for Method B but
opportunities to experience lessons using the function approach were less due
to shortened involvement time. Summer
sessions focused on experiencing lessons presented using the function approach,
understanding and creating cognitively demanding rich tasks, and questioning
techniques to maintain the demand. Quarterly
follow-up sessions centered on participants experiencing additional lessons
that focused on new standards using the function approach and discussions about
the following quarter concepts. Separate
sessions were planned for Algebra I and Algebra II teachers so they had a chance
to collaborate to discuss pacing of material, connections they could make, as
well as concerns and successes. In
addition to the follow-up sessions, teachers were to meet with their peers at
their individual school’s to continue planning.
Total time outside of the school day for those participating in Method B
was 20 hours of summer and follow-up meetings.
A case study of each of the interviewees is shared below, relating their
interview, observations, and response survey mean scores.
Findings
Case Study 1: Bethany, Reluctance
to Enthusiasm
A few years ago Bethany was
reluctant to receive any help or guidance with lessons. Through professional learning on the Rule of
5 and questioning she began to show a willingness to change by volunteering to
participate. During the interview Bethany
posited that the mathematics had not changed but students are learning the
concepts differently. Her view of
teaching and learning mathematics evolved from reluctance to enthusiasm as she
expressed that the function approach is hands-on and investigative with
students figuring everything out. The
time has passed where the teacher is the giver of all information. Bethany also stated that “mathematics is an
exercise of the mind” where students need to learn how to think and problem
solve, knowing the constraints, the conditions, and the rules. Growing more toward reform, Bethany’s
pre-survey score of 4.25 (wavering level) increased to 4.88 on academic
profession which is on the edge of becoming reform. She recognized prior to the professional
learning sessions that mathematics instruction was changing but her beliefs held
her back. She states that “I also didn’t
know what I really wanted them to get out of the lesson…” referring to
implementing the reform-based instruction of which she had not experienced
The professional learning session was
eye opening for Bethany. As she worked
on problems the expectation was to approach using different methods and
manipulatives. Bethany found both difficult. Elementary school teachers are well versed on
how to use manipulatives correctly however high school teachers, who tend to be
more procedural, do not take advantage of manipulatives (Olson & Kirtley,
2005). Looking at questions and problems
with a new lens, Bethany began applying her knowledge about cognitive demand
and open ended problems which was also challenging as she struggled to understand
the connections. Her students were
working on open-ended problems in one of the lesson observed. Given a situation groups of students had to
problem solve, decide how to represent their thinking and solution, present to
their classmates, and be able to answer questions. Most of the groups applied the Rule of 5 to
illustrate and explain their thinking. Due
to not having a collaborative group when developing the lesson, Bethany learns
while doing. While students were working
I had the opportunity to talk with Bethany about her expectations of the lesson. Connections arose during this discussion
about the characteristics of the representations that she could prompt students
to expound upon such as domain, range, discrete and continuous data. Instead of giving questions from the text for
homework, Bethany had the student’s select three presentations to compare and
contrast. Her results on the pre- and
post-survey for teaching profession increased from 4.50 to 4.88 as shown in her
increased confidence in her own teaching ability as well as the confidence she
has in her students to perform. Bethany’s
average for content in the survey dropped from a pre-survey score of 4.63 to a
post-survey score of 4.00, contradicting her actions which are more
reform-based. When questioned about the
decline she stated that she didn’t know what she didn’t know, the connections,
the big ideas, and the levels of cognitive demand. The gained knowledge gave her a different
view of problems. She expects more of
herself and her students.
Bethany explained that when planning a lesson
she first decides on the content and then an activity. Trying to anticipate student questions helps
Bethany feel more confident but there are some questions that come up during
the lesson that she did not anticipate. She
shared that determining the big picture, the big questions, and making
connections is a lot to do for one class.
This is probably due to not being a part of a collaborative team. Collaborative discussions provide teachers an
opportunity to discuss lesson topics and questions. “I miss a lot of opportunities to make
connections and don’t even realize it,” states Bethany.
She believes her students do like math
class and that the class is becoming a learning community, stating “…the good
kids will keep the annoying kids on task.” When presenting problems the students love
explaining concepts, feeling empowered by their knowledge as they jump up to be
“the teacher”. She divulged during the
interview that she “…never thought [she] would get to the point where [she]
could just walk around … and not talk.” Personally,
Bethany loves teaching algebra this way and enjoys seeing the students discover
concepts. At the end of the year Bethany
wants her students to “not be afraid of math…”
The category of methods increased
drastically from 4.75 (wavering) to 5.38 (reform) with Bethany response to
mathematics being more than remembering content going from a 4 to 6 as well as
recognizing that memorizing formulas may not be helpful when problem
solving. Student understanding also rose from 5.00 to
5.63, where her answer choice of having students reason and problem solve with
less teacher input increasing from 3 to 6.
Practical value, while still in the reform level did drop slightly from
a pre-survey score of 5.25 to a post-survey score of 5.13 as Bethany struggles
with the practicality of the mathematics.
She rated mathematics applicability after high school as 2, dropping her
choice from a 4. She questions whether
students will actually need to know the quadratic formula for their work as an
adult. Classroom management, also in
the reform level, rose slightly from 5.50 to 5.75. Bethany increased her response from 4 to 5
revealing that mathematics consisted of many unrelated topics. This is a reflection of her concerns for not
recognizing connections. Bethany
progressed from being reluctant to showing enthusiasm for her own learning and
the learning of her students.
Case Study 2: Donna, Traditionalist
to Awareness
Donna admits that she is very
traditional. Understanding mathematics
came when Donna began teaching the concepts and include understanding the
procedures, recognizing context clues, and being fluent with numbers. Donna stated that she was not ready for the
professional learning and went into the sessions with her arms crossed and a
negative attitude. She expressed that
she is “…a little stubborn so I like to do things, I guess, at my own pace,” feeling
forced to change when students are already weak and lacking number sense. After the majority of sessions had been
completed, Donna stated that mathematics is “A bunch of numbers, variables,
generally when I think of math I think of algebra because I believe everything
starts with algebra.” She went on to define
the function approach as the ability to make connections to multiple concepts
in one lesson by “…keeping everything involved with graphing”. These beliefs correlate with pre-survey and
post-survey results in academic profession from 3.75 (traditional) to 4.00
(wavering).
Still using worksheets, Donna has
progressed to those that pull in multiple concepts and multiple
representations. When asked about how
she would teach a specific idea Donna’s response was that she would pull in the
characteristics of the graph and of the situation but also stated that she
would present the concepts first and then try to make connections. Content knowledge has been gained by doing
the above because she had to recognize the connections herself. Her pre- and post-survey scores, 3.63 and
3.75 (both wavering) upholds this belief in content; an increase in
understanding but at the same time holding on to beliefs about procedural
skills being very important. She
discussed not letting her students have calculators during lessons on
transforming functions as they needed to understand the formula. Also the teaching profession, 4.13 to 3.63,
methods, 3.88 to 3.88, and student understanding, 4.38 to 3.88, categories are
also at the wavering level and either remained constant or fell closer to
tradition. She acknowledges the
empowerment and growth that can occur when students are given the opportunity
to investigate and discover, stating that “…it gets them more involved so
engagement is definitely better as far as everyone needs to know what is going
on, before I might have been losing students.”
Donna beliefs are still very strong as she explains how she approached
planning a lesson. “Well we are on
quadratics now so when I did quadratics I did not talk about everything [in the
past], I didn’t talk about domain and range, I didn’t’ talk about increasing
and decreasing intervals but now I am.”
Donna’s response was about what she
would do during the lesson, remaining the giver of information, with students
in a sit and get mode of learning. She is
trying to pull more information into the lesson so students can see a broader
picture. While not in groups, students
are permitted to talk across the aisles but the class culture has not led to a
sense of community where students take on the responsibility of learning and
helping others to understand. Classroom
management survey results rose slightly from 4.00 to 4.13, still on the
wavering level, as Donna still maintains quite a bit of control of the classroom. She disclosed that real world scenarios and
data are very difficult for her to put in a lesson, too many unknowns could
happen and time could be wasted. While admitting
that she is still a traditionalist Donna is now aware that the changes have had
a drastic affect on the student’s attitude about mathematics. They are participating, asking, and answering
questions.
Case Study 3: Carl, Open-minded
But Cautious
Carl spoke about how mathematics had
changed since he was in high school. He
felt that he was good in mathematics and could perform any procedure
presented. Now he realizes that he can
do the procedures but understanding and making connections in another
story. Carl states “I can set up and
start to do a table and that would be the only way I would probably ever get an
equation” referring to an activity where participants were challenged to find
the pattern using pictures or manipulatives.
He goes on to state “I was never really presented with stuff like
that….professional development is the first time I have seen things like that
or have been prompted to think about things like that.” Carl’s attitude toward teaching mathematics evolved
during the sessions to view the function approach as the opportunity to analyze
concepts from different angles, stating “I think definitely [it’s] a positive
giving them alternate opportunities or alternate methods to be successful.”
He asserted that manipulating numbers
along with problem solving is what mathematics is all about. Carl’s survey results parallel with his words
as his teaching profession scores fell from 5.25 to 4.88, reform down to
wavering (understanding student responses score fell from 6 to 4). Content survey scores remained constant at
4.38, wavering, as Carl believes that students need to be able to do the
computations, memorize the formulas, and perform the procedures as students
performed drills during class to repeat procedures in order to “learn”. Drill was stressed over understanding even though
he states “…if they are getting it with one or two examples…”
Carl believes that students will be
more comfortable “doing” math than he is since he does not like the
unexpected. Survey scores on methods,
5.38 falling to 5.13, was due to Carl selecting a unit lower for the importance
of being shown how to work a problem and remembering information. Student understanding, falling from 5.63 to
4.88, was mainly due to a drastic drop from a 5 to 2 on the importance of a
student acknowledging mathematical statements as being true. Carl changed his choice from 6 to 3 on
whether finding solutions to one problem being helpful in other situations
resulting in classroom management falling from 5.25 to 4.88. This contradicts classroom actions when he
encourages students to look at other problems on the worksheet to help them decide
on a procedure. A radical change in
Carl’s response to the need of mathematics for a student’s future work and that
mathematics plays a role in their current lives led to practical value
increasing from 4.25 to 5.00
The professional learning sessions
have encouraged the collaborative planning times to be more productive with Carl’s
group working together to decide how to present concepts. By bringing math to life for students, Carl
watched students learn mathematics despite their strengths, weaknesses, and
beliefs about their own abilities. He
also made the statement that students need to “determine the method they choose
to do and what they look at.” This is a
major difference from being told how to do a process to knowing more about
themselves and their own thinking abilities.
The difficulty for Carl is planning.
Even with the collaborative group meetings, planning takes time with more
creating and less get, sit, and do x
number of problems in the text. Finally
Carl hopes that students will “…keep an open mind and to be willing to be
challenged.”
Overall Findings
Both types of professional learning
sessions together resulted in changes in teacher beliefs toward reform-based
teaching and learning. All categories
except practical value (-0.07993), disclosed a positive average growth ranging
from 0.0408 (content) to 0.1726 (teaching profession). Method A and Method B revealed an average
positive change of all seven categories of 0.0669 and 0.0948,
respectively.
Table 3 reveals the mean values per
category of the pre- and post assessments completed by the participants for
Method A and Method B respectively as well as the amount of change. A positive change occurred in all areas
except practical value for participants in both methods. The table also discloses the change in
beliefs for each of the two methods separately.
Method A did not show growth toward reform teaching and learning in
academic profession nor practical value; Method B did not show growth in
practical value and classroom management.
Pre- and post-assessment scores were not affected by the teacher’s years
of education, level of education, or the professional development method
attended.
TABLE
3
Pre- and Post-Survey Results
Pre-Survey
Mean
Post-Survey Mean Post-Survey –
Pre-Survey Mean
Content Method A 4.5357 4.1563 -0.3794
Method B 4.1750 4.2125 0.0375
Classroom management
Method A 5.0938 5.0938 0.0000
Method B 4.9375 4.8750 -0.0625
Academic profession
Method A 4.4688 4.2500 -0.2188 Method B 4.2250 4.4071 0.1821
Teaching profession
Method A 4.8750 4.8125 -0.0625
Method B 4.6000 4.6750 0.0750
Student understanding
Method A 4.0000 4.0000 0.0000
Method B 4.0500 3.8861 -0.1639
Methods Method A 3.7813 3.8750 0.0937
Method B 3.8250 3.7750 -0.0500
Practical value
Method A 3.7813 3.5446 -0.2367
Method
B 3.9125 3.9500 0.0375
Discussion and Conclusion
Some common themes emerged in the
observations and interviews: the need to have confidence in their actions, being
frustrated with their own learning, and the need for collaboration among peers. The teachers have confidence in their
procedural skills which correlates with how they learned. During both methods of professional learning,
teachers acknowledged being aware of the NCTM Process Standards (2000) as shown
by the increase in survey responses toward more reform-based teaching and
learning. Students taking the lead and
communicating their knowledge was addressed by all three interviewees. Donna talks about student engagement in group
work, Carl speaks about students discussing what they have learned in a task,
and Bethany’s revelation about being able to be quiet and let the students take
the lead reveals their growth in students communicating mathematics. All three also discussed how they were taught
mathematics using procedures and working many problems which in turn is how
they approached teaching. Donna and Carl
stated that their collaborative groups were an essential ingredient as a
support on the road to reform, giving them the confidence to try. Assurance and the camaraderie of the
collaborative team helped Donna overcome negative feelings of being “forced to
change” and Carl opening his thoughts to other approaches to a topic. Bethany didn’t have the support of a
collaborative team but became more willing to let those who could help from the
professional learning sessions to do so.
Frustration was mentioned by the
interviewees. Frustration working with
manipulatives, the amount of time involved when planning, and the amount of
time a lesson may take were mentioned.
Carl stated that looking back over the year that he probably spent too
much time on some lessons but experience will remedy the pacing concerns. Bethany stated that she was frustrated
because she did not know what questions or concerns the students may have as
well as a fear of not being able to answer.
Confidence and frustration leads to a
common theme of collaboration. Donna and
Carl collaborate weekly with their Algebra II teams where all members in their
teams are involved in the school district professional learning sessions. Bethany was the anomaly of the interviewees
of not having collaborative team support but she did take advantage of the support
available through professional learning.
Carl shared that his collaborative team evolved during the time frame of
the professional learning sessions to focus on how to present concepts, what
connections could be made, and what are the big questions thereby increasing
teacher confidence. Cross states that as
a teacher’s self-confidence increases so does their subject matter knowledge
(2009).
Teacher beliefs progressed toward reform
as they experienced positive reactions and results to their efforts. The
evidence of success reinforced Bethany’s confidence in herself and her students
with each productive lesson. Donna
disclosed that “before I might have been losing students here and there for
whatever reason but now they are working doing more group work.” Both
methods of professional learning centered on exposing teachers to tasks that
reflected the reform movement so they might have some of the same experiences
as students. Some of the participants
became immediately “sold” on the methodology, loving the challenge and the
connections being made, others expressing concern about not knowing or seeing
the patterns in the data, and not being able to make all the connections. A few teachers wondered that if they
struggled with tasks what would the students do.
Discrepancies between actions, words,
and the survey are believed to be due to the teacher’s beliefs and/or lack of
knowledge or understanding about reform-based teaching and learning. The small changes in the mean values between
pre- and post-survey results may be due to participant involvement in previous
professional learning sessions in the school district over the past few
years. Past sessions focused on
questioning, big ideas, rule of 5, and the NCTM Process Standards (2000). The participants in the study were not only
knowledgeable about reform ideas but had already begun attempting
non-traditional lesson presentations.
They were ready for more help and knowledge.
The study reveals that collaboration and
support are essential ingredients for teacher growth towards reform. Teachers may believe they are addressing the
NCTM Process Standards but knowledge and confidence comes with experience and
evidence of results. In addition, the
amount of time spent in the professional learning sessions provided teachers
with time to collaborate and learn as they were expected to put in to action
what was discussed during the sessions and then reflect on those actions. Future research on the connections and
influence school administration has on teacher growth toward mathematics
reform, teacher beliefs, and student achievement for secondary mathematics is
needed.
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