CHAPTER ONE Introduction Background of the
Transcript of CHAPTER ONE Introduction Background of the
CHAPTER ONE
Introduction
Background of the Study
Mathematics is an important subject at the
basic, second cycle and the tertiary level. Its
importance cannot be underestimated in the national
curriculum. The usefulness of the subject is evident
in all subjects including language based subjects.
It is a fact that, success in any form of training
and work generally depends on the ability to
understand simple mathematical concepts effectively.
Moreover, mathematics is a basic requirement
for furthering one’s education. Poor performance in
mathematics among pupils has been a big problem for
most teachers in our Ghanaian schools especially
forms one pupils of Saint James Methodist Junior
High School. Policy makers, the Ghana Education
Service and other stakeholders in education all
express worry about the poor performance in
mathematics nationwide. The researcher observed that
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most of the pupils in the school have difficulties
in understanding simple mathematic concept (like
fraction, decimal, etc) largely due to anxiety among
other factors.
Saint James Methodist Junior High School is
located at Axim in the Nzema East Municipality in
the western region of Ghana. Fishing and subsistence
farming is the predominant occupation of the people.
The population of the area is estimated around ten
thousand (10000). Despite their occupation they
still see education as key to the development of
their community. Interestingly, most parents do not
have time for their wards education due to one
reason or another especially when their children
attend government school. I perceive the parent’s
attitude towards their wards education may be
attributed to poverty and low educational
background. The poverty level of the people is
evident in their livelihood. The educational level
of most of the parents in Axim is either basic or
did attend school at all. However, there are few
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parents who are committed to giving their children
the best of education.
The researcher’s interest towards the investigation
into anxiety factor and its effects on poor
performance of mathematics is as a result of the
following observation:
Firstly, the students under study do well in
other subjects but but low marks in mathematics. So
there is a cause for worry.
Secondly, their approach to other subjects is
very encouraging but mathematics. Taking their
general interest in other subjects into
consideration as compared to mathematics is woefully
abysmal.
In addition, it was observed that pupils
intentionally skip mathematics classes (especially
morning lessons) because of fear of being punished
in early morning mathematics drill popularly called
“mental”.
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Moreover, the researcher observed critically
that the relationship between the mathematics
teacher and the pupils is not the best (as compared
to other teachers); it can best as described as
“Master-Novice” relationship. The researcher
strongly believes that this is a contributing factor
to the mathematics anxiety among pupils in Saint
James Methodist Junior High School.
The researcher also observed with keen interest
other factors that may contribute to general poor
performance of mathematics at Saint James Methodist
Junior high School and it was revealed that teachers
teaching competencies (pedagogy) is another factor.
An observation at the primary school revealed that
class teachers concentrate more on subject they are
comfortable at against those they have challenges in
its delivery and mathematics seem to be one of the
challenging subjects. It was also observed that
teachers either skip challenging topics or teach it
haphazardly.
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Lastly, pupils lack other learning materials
such as workbook, mathematics, graph and other
learning material that can help them to further
practice at home to complement what was taught in
school.
At this juncture, let me acknowledge that
researcher’s investigation into the causes and
prevent of mathematics anxiety popularly called
mathematics phobia among pupils will not only
improve the performance in mathematics at the basic
schools but also its ripple effect will be felt in
other subjects especially the sciences.
Abstract
The research which was conducted for the pupil
of Saint James Methodist Junior High School was
aimed at investigating into the causes and
prevention of mathematical anxiety (mathematics
phobia) in order to improve mathematics performance
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among pupils. The main instruments used for data
collection were questionnaire, observation and test.
The population consisted of all pupils in Saint
James Methodist Junior High School form one.
However, twelve (12) were used as the sample
population. Five (5) teachers from the junior high
school and primary school were also used for the
study.
Findings from the study revealed that teaching
mathematics using games, appropriate teaching aid,
encouragement and positive reinforcement greatly
reduces anxiety among pupils and hence improve
performance of mathematics.
Based on the findings from the study, it was
recommended that teachers should vary their teaching
methods for better lesson delivery. In-Service
training should be organized regularly for
Mathematics teachers to better equip them on the
right strategies and approaches in their lesson.
Games and teaching aid should be encouraged in the
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teaching and learning process. Finally, it was
reveal that most mathematics teachers are feared by
their pupils, therefore, positive reinforcement such
as praise, encouragement be employed regularly and
effectively to encourage pupil to be at ease during
mathematics lesson since this goes a long way to
reduce mathematics anxiety among pupils.
Statements of the problem
The problem was identified during a mathematics
lesson where some pupils could not do simple
addition of numerals which was taught previously
because of fear of been beaten or fear of the
subject. The researcher observed that pupil get
tensed whenever it is change over for mathematics
lesson. It was also observed that most of the
student could not do simple understand simple
mathematical calculation. It is against this
background that the researcher is investigating into
these problems and also to design an intervention
process to arrest the situation
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Purpose of the study
The purpose of the study is to investigate into
and identify the possible causes and prevention of
mathematics anxiety (mathematics phobia) among form
one pupils of Saint James Methodist Junior High
School with the aim of improving mathematics
performance in the school.
Research Question
The researcher formulated the following questions to
serve as a guide for the research.
1. What is mathematics anxiety (mathematics phobia)?
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2. What are the causes of mathematics anxiety
(mathematics phobia) among the pupils of Saint James
Methodist form one?
3. In what way does Mathematics anxiety (mathematics
phobia) contributes to the poor performance of
mathematics among form one pupils of Saint James
Methodist Junior High School?
4. What are some of teaching strategies that can be
used to minimized or prevent mathematics anxiety
(mathematics phobia) among form one pupils of Saint
James Methodist Junior High School?
Significances of the study
The outcome of the study will be helpful to
pupils, teachers, policy makers and parent. It will
improve pupils’ performance in mathematics and its
ripple effect will be felt in other subjects. The
outcome will enable teachers to employ appropriate
teaching technique and also strengthen a good pupil-
teacher relationship to ease unnecessary tension on
students in their lesson delivery. Again, the
outcome of the study will build confidence in
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students and make them love the subject they dreaded
most so that they can advance to higher academic
level of education.
The findings of the study will be beneficial to
the policy maker and curriculum developers in
preparation curriculum materials and implementation
of policies for the basic schools of the country. It
will also help parent to buy supplementary books and
take their wards education seriously.
Limitation
Adequate time was difficult to come by in
obtaining relevant information for this project. I
have really come to notice that the process of
gathering information from the basic school in the
Nzema East municipality needs time.
Some colleague teachers were reluctant to open
up to me for reasons best known to them. Truancy
also had its fair share on the problem encountered
especially among those from the coastal towns.
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Moreover, combining the research work with teaching
which involves preparation of lesson notes, weekly
one-on-one to and from the course centre coupled
with preparation of learning materials was a hectic
task.
Delimitation
The researcher would have wished to cover all
schools in Nzema East Municipality but due to time,
financial and other constraints, the researcher
concentrated on only Saint James Methodist Junior
High School even within this the scope of the
researcher it again limited to form one class from
which only12 pupils were sampled.
Conclusion
The chapter one talked about the introduction,
purpose of the study, statement of the study
research question, limitation and delimitation.
The chapter two focuses on the review of the
related literature on the purposed area of study.
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Chapter three comprises the description of the
methodology, the population and sample and sampling
procedure, the materials used in collecting data, it
also provides data collection procedure and discuss
the analysis of data and used in the study.
Chapter four presents and discusses the
analysis of data, intervention measures and summary.
Chapter five presents summary of the findings,
conclusion, recommendations, suggestions, appendices
and reference.
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CHAPTER TWO
LITERATURE REVIEW
2.1 Introduction
In conducting an action research on the topic
“Investigation into mathematics anxiety and
prevention (mathematics phobia) and performance
among form one pupils of Saint James Methodist
Junior High School ” the researcher decided to
review the related topic to enable him have the
overall goals of classifying how his study would
intend to address the gap in the existing
literatures. The literature is reviewed under the
following:
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1. What is mathematics anxiety (or mathematics
phobia)?
2. What are the causes of mathematics anxiety (or
mathematics phobia)?
3. Mathematics anxiety and its contribution to poor
performance of mathematics in schools.
4. Teaching strategies that can minimize mathematics
anxiety among pupils.
2.2. What is mathematics anxiety?
Math anxiety
Cambridge International Dictionary of English
explains anxiety as an uncomfortable feeling of nervousness or
worry about something that is happening or might happen”. Per
the definition, mathematics anxiety can be defined
as uncomfortable feeling of nervousness or worry
about mathematics. In other words,
Mathematical anxiety is anxiety about one's ability
to do mathematics independent of skills.
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Mathematics anxiety is a phenomenon that is
often considered when examining students’ problems
in mathematics. It can also be called Mathematics
Phobia. Mark H. Ashcraft, Ph.D. defines math anxiety
as “a feeling of tension, apprehension, or fear that
interferes with math performance” (2002, p. 1). The
first math anxiety measurement scale was developed
by Richardson and Suinn in 1972. Since this
development, several researchers have examined math
anxiety in empirical studies. Hembree (1990)
conducted a thorough meta-analysis of 151 studies
concerning math anxiety.
Tsanwani (2009) views mathematics anxiety as an
irrational and impedimental dread of mathematics.
This term is used to describe the panic,
helplessness, mental paralysis and disorganisation
that arise among some individuals when they are
required to solve a problem of a mathematical
nature. The literature further indicates that
mathematics anxiety refers to a person’s feelings of
tension and anxiety that interfere with the
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manipulation of numbers and the solving of
mathematical problems in a wide variety of ordinary
and academic settings (Khatoon and Mahmood, 2010:
Leppavirta, 2011; Newstead, 1995; 2006; Perry 2004).
It can also be viewed that the sense of discomfort
observed while working on mathematical problems, is
associated with fear and apprehension to specific
mathematics related settings and seems unbiquitous .
(Khatoon and Mahmood, 2010).
2.3 What are the causes of mathematics anxiety (or
mathematics phobia)?
Causes
Hadfield and McNeil (1994) proposed a model of
mathematics anxiety which revolves round around
three main factors: environmental, intellectual and
personality variable. Environmental factors include
the classroom issues, parental pressure and the
perception of mathematics as a rigid set of rules.
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Intellectual variables include a mismatch of
learning style and self-doubt, whilst personality
factor include a a reluctance to ask question in
class and low-self esteem. Chinn (2008) argues that
the advantage of this tripartite model is that it
considers several, often inter-related factors.
However, besides parents, other individuals who
either contribute or are experiencing mathematics
anxiety are not clearly stated. A further
classification by Baloglu and Kocak (2006) cited
three anchors of mathematics anxiety namely:
dispositional, situational and environmental. In
addition to Hadfield and McNeil’s element of
environmental variable, Baloglu and Kocak view the
elements thereof as issues that affect learners
prior to their mathematical engagement; these
include age, gender, academic subjects, and previous
mathematics experience. The dispositional anchor
deals with psychological and emotional features such
as attitude towards mathematics, self-concept and
learning style. The self concept refers to the
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learners’ perception of their own ability to perform
well in mathematics and to learn new topics. The
situational anchor refers to direct features that
result from the mathematics subject which include
the design, topics, how the subject is presented and
the availability or lack of feedback.
Mathematics anxiety may also be associated with
the social learning theory (Erdogan, Kesici and
Sahin ,2011). Social learning theory focuses on
learning that occurs within a social context. It
considers that people learn from one another.
Negative or positive perceptions of mathematics from
parents and/or teachers are likely to give learners
some message (Sahin, 2008). According to Thomas
and Furner (1997), parents and teachers emphasise
how difficult mathematics is and, at the same time,
tell how mathematics skills are essential for
learners’ future achievements. Vann (1993) observed
that mathematics in the mother was significantly
predictive of mathematics anxiety in children. This
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implies that mathematics anxiety could be learned
behaviour.
Students often develop mathematical anxiety in
schools, often as a result of learning from teachers
who are themselves anxious about their mathematical
abilities in certain areas. Typical examples of
areas where mathematics teachers are often
incompetent or semi-competent include fractions,
(long) division, algebra, geometry "with proofs",
calculus, and topology. In many countries, would-be
math teachers are required only to obtain passing
grades of 51% in mathematics exams, so that a math
student who has failed to understand 49% of the math
syllabus throughout his or her education can, and
often does, become a math teacher. His or her fears
and lack of understanding then pass naturally to his
or her students. As John Taylor Gatto has
demonstrated at length, modern Western schools were
deliberately designed during the late 19th century
to create an environment which is ideal for
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fostering fear and anxiety, and for preventing or
delaying learning.
Math is usually taught as a right and wrong
subject and as isf getting the right answer was
paramount. In contrast to most subjects, mathematics
problems almost always have a right answer.
Additionally, the subject is often taught as if
there were a right way to solve the problem and any
other approaches would be wrong, even if students
got the right answer. When learning, understanding
the concepts should be paramount, but with a
right/wrong approach to teaching math, students are
encouraged not to try, not to experiment, not to
find algorithms that work for them, and not to take
risks. “Teachers benefit children most when they
encourage them to share their thinking process and
justify their answers out loud or in writing as they
perform math operations. With less of an emphasis on
right or wrong and more of an emphasis on process,
teachers can help alleviate students' anxiety about
math”.
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While teaching of many subjects has progressed
from rote memorization to the current Constructivist
approach, math is still frequently taught with a
rote learning behaviourist approach. That is:
A problem set is introduced
A solution technique is introduced
Practice problems are repeated until mastery is
achieved
Constructivist theory says the learning and
knowledge is the student’s creation, yet rote
learning and a right/wrong approach to teaching math
ensures that it is external to the student.
Teachers who actually understand what they are
teaching tend to encourage questions from the
students. Those teachers who do not understand much
about their subject, on the other hand, impose fear
on the students to prevent them from asking
questions which might expose the teacher's
ignorance.
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It has long been well established that anyone
(other than a tiny minority who have serious
learning disabilities) can learn any area of
mathematics, given a desire to learn, a coherent
presentation of the information, and adequate
practice. Nevertheless, many educational
administrators continue to profess the belief that
anything more complex than simple arithmetic is too
difficult for most people.
In spite of this, a remarkably high percentage
[quantify] of schoolchildren continue to find
mathematics interesting, relaxing, easy, and
enjoyable.
2.4. Mathematics anxiety and its contribution to
performance of mathematics in schools
It has been determined that math anxiety is
related to poor math performance on math achievement
tests and that math anxiety is related to negative
attitudes concerning math. Hembree also suggests
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that math anxiety is directly connected with math
avoidance. That is, the pupils who are
mathematically anxious develop a great dislike for
mathematics related subjects. Ashcraft (2002)
suggests that highly anxious math students will
avoid situations in which they have to perform
mathematical calculations. Unfortunately, math
avoidance results in less competency, exposure and
math practice, leaving students more anxious and
mathematically unprepared to achieve. In college and
university, anxious math students take fewer math
courses and tend to feel negative towards math.
In fact, Ashcraft found that the correlation
between math anxiety and variables such as
confidence and motivation are strongly negative. In
addition to their avoidance of mathematics, high
math anxious people often experience negative
thoughts and ruminations when they are engaging in
math tasks. These negative thoughts often focus on
the consequences of doing poorly on their math
problems or tests (Ashcraft & Kirk, 2001). Math
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anxiety can start in children as young as first
grade. Research by Sian Beilock and colleagues
demonstrates that not only do young children
experience math anxiety, but this anxiety is
associated with poor performance in math (e.g.,
Beilock, Gunderson, Ramirez, & Levine, 2010).
According to Ashcraft, because math anxiety can
cause math avoidance, an empirical dilemma arises.
For instance, when a highly math-anxious student
performs disappointingly on a math question, it
could be due to math anxiety, or the lack of
competency in math because of math avoidance.
Ashcraft determined that by administering a test
that becomes increasingly more mathematically
challenging, he noticed that even highly math-
anxious individuals do well on the first portion of
the test measuring performance. However, on the
latter and more difficult portion of the test, there
was a stronger negative relationship between
accuracy and math anxiety.
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Levine (2008) found that teachers with
mathematics anxiety emphasised rule-based strategies
and treat mathematics as an arbitrary collection of
facts, perhaps to promote an illusion of their
expertise and disciplinary power to students.
Students therefore, see maths teachers as magicians.
Moreover, there is often limited classroom
interaction, resulting in students’ questions not
being asked or answered, and knowledge presented as
limited and confusing. Mathematics anxiety has been
found to decrease the efficiency of an individual’s
working memory because intrusive thoughts and
worries take the focus away from the mathematics
tasks at hand. This makes it difficult to think
logically and results in increased errors and longer
processing times when solving problems mentally. In
the long-term, mathematics anxiety leads to
decreased competence, reduced completion rates and
lower academic performance in subject (Ho, Senturk,
Lam, Zimmer, Hong, Okamoto and Chiu, 2000). Ho et
al. (2000) found that learners with higher levels of
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mathematics anxiety tend to have lower levels of
performance in mathematics, suggesting the existence
of a negative correlation between mathematics
anxiety and performance.
Performance anxiety
People's fear of math can be related to test
taking and performance anxiety. Some scholars have
suggested a strong relation between math anxiety and
math performance.
Anxiety Rating Scale
A rating scale for mathematics anxiety was
written about in 1972 by Richardson and Suinn.
Richardson and Suinn defined mathematical anxiety as
"feelings of apprehension and tension concerning
manipulation of numbers and completion of
mathematical problems in various contexts."
Richardson and Suinn introduced the MARS
(Mathematics Anxiety Rating Scale) in 1972. Elevated
scores on the MARS test translate to high math
anxiety. The authors presented the normative data,
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including a mean score of 215.38 with a standard
deviation of 65.29, collected from 397 students that
replied to an advertisement for behaviour therapy
treatment for math anxiety.[5] For test-retest
reliability, the Pearson product-moment coefficient
was used and a score of 0.85 was calculated, which
was favourable and comparable to scores found on
other anxiety tests.
Richardson and Suinn validated the construct of
this test by sharing previous results from three
other studies that were very similar to the results
achieved in this study. They also administered the
Differential Aptitude Test, a 10 minute math test
including simple to complex problems. Calculation of
the Pearson product-moment correlation coefficient
between the MARS test and Differential Aptitude Test
scores was -0.64 (p < .01), indicating that higher
MARS scores relate to lower math test scores and
“since high anxiety interferes with performance, and
poor performance produces anxiety, this result
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provides evidence that the MARS does measure
mathematics anxiety”.
This test was intended for use in diagnosing
math anxiety, testing efficacy of different math
anxiety treatment approaches and possibly designing
an anxiety hierarchy to be used in desensitization
treatments. The MARS test is of interest to those in
counselling psychology and the test is used
profusely in math anxiety research. It is available
in several versions of varying length and is
considered psychometrically sound. Other tests are
often given to measure different dimensionalities of
math anxiety, such as the Fennema-Sherman
Mathematics Attitudes Scales (FSMAS).
The FSMAS evaluates nine specific domains using
Likert-type scales: attitude toward success,
mathematics as a male domain, mother‘s attitude,
father’s attitude, teacher’s attitude, confidence in
learning mathematics, mathematics anxiety,
affectance motivation and mathematics usefulness.
Despite the introduction of newer instrumentation,
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the use of the MARS test appears to be the
educational standard for measuring math anxiety due
to its specificity and prolific use.
Math and culture
While there are overarching similarities
concerning the acquisition of math skills,
researchers have shown that children’s mathematical
abilities differ across countries. In Canada,
students score substantially lower in math problem-
solving and operations than students in Korea and
Singapore. Researchers have conducted thorough
comparisons between countries, and have determined
that in countries such as Taiwan and Japan, parents
place more emphasis on effort rather than one’s
innate intellectual ability in school success.
Moreover, parents in these countries tend to set
higher expectations and standards for their
children. In turn, students spend more time on
homework and value homework more than American
children. (Stevenson & Lee,1990).
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Math and Gender
Another difference in mathematic abilities
often explored in research concerns gender
disparities. There has been research examining
gender difference in performance on standardized
tests across various countries. Some researchers
have argued that females have higher mathematics
anxiety than males (Salwani and Salleh, 2001;
Woodard, 2004, Yuksel-Sahin, 2008; Karimi and
Venkatesan, 2009; Khatoon and Mahmood, 2010). In
addition, female students are often labelled as shy
and this characteristic can harm their ability to
learn. Male students were found to be more active in
a wider range of social activities than female
students (Khatoon and Mahmood, 2010). Yuksel-Sahin,
2008, study on secondary school student in Turkey
reported that the stereotypical view of this issue
has a powerful impact. Beller and Gafni’s have
shown that children at approximately nine years of
age do not show consistent gender difference in
relation to math skills. However, in 17 out of the
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20 countries examined in this study, 13 year old
boys tended to score higher than girls. Moreover,
mathematics is often labelled as a masculine
ability; as a result, girls often have low
confidence in their math capabilities. These gender
stereotypes can reinforce low confidence in girls
and can cause math anxiety as research has shown
that performance on standardized math tests is
affected by one’s confidence (Dar-Nimrod & Heine,
2006). As a result, educators have been trying to
abolish this stereotype by fostering confidence in
math in all students in order to avoid math anxiety.
Female students believed boys were blessed with the
advantage of mastering mathematics, while the boys
felt they were better able to perform in mathematic
when compared with their female counterparts such
believes negatively affect the ability of female
students and their initial assumptions about
mathematic achievement can have a long-term impact
on their achievement. However, other studies do not
support this theory. Base on several studies, some
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researchers have argued that there is no significant
difference in mathematics anxiety between male and
females (Marsh and Tapia, 2002).
Mathematics and Women
Related to this is gender and mathematics as
younger female scholars are thought to develop
anxiety towards mathematics and sciences when they
become more interested in social relations in their
teen years. It is thought that women experience more
anxiety in mathematics as a group than men and this
has also been suggested in regards computer
programming. See for instance [Copper, Joel, &
Weaver D, Kimberlee. Gender and Computers:
"Understanding the Digital Divide" who explore
computing and gender and especially have done
experiments relating gender and anxiety. It has also
been suggested that in primary elementary years, if
female students have an anxious female math teacher,
they are more likely to confirm the math anxiety as
a gender stereotype. Girls are more likely than boys
to take notice of their female teachers "negatives
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and fears about math", which could negatively
influence their future pursuit of the subject. One
method to help address this issue is ensuring that
teaching programs are reinforcing positive attitudes
towards math, and helping teacher candidates
solidify their grasp on mathematics.
When men and women take math exams, there is a
stereotype that women score less than men, saying
they are not as good as men. The researchers explain
that it is not a biological but more of a social
effect. The researchers doing the experiment believe
that gender stereotype threat could be a key factor
in explaining women and men’s difference in
performance on math exams. The gender stereotype
threat would be gender references on the exams and
that they could affect how a male or female answers
the question and if they get it correct or not. The
gender references on the exam could also be called
gender labelling.
The researchers did 2 experiments. In
experiment 1, they created an exam consisting of 1/3
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of male, female, and neutral questions. The results
found that both male and female answered male-
labelled questions with better proficiency than
others. Even if the questions were the same, the
gender label affected the result. Here is a question
they used on the exam, “There are 12 car pools at
the plant where Mr. Holst works. Half of them
contain 4 people, the other half contain 5 people.
How many workers at Mr. Holst’s plant belong to car
pools?” The way they manipulated the questions was
to change Mr. Holst to Mrs. Holst or do not include
a name at all to remain neutral.
The ones that performed well did best on male-
labelled questions while the ones that performed
poorly did best on female-labelled questions. In
experiment 2, they tested university students
because gender differences in test performance have
been show to increase with age. Their main focus was
to see if a negative stereotype towards women would
affect their performance. The results showed that
there were more correct answers on gender stereotype
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situations and men outperformed compared to women.
The results showed that a brief written reference to
gender in the questions affected women’s performance
negatively, supporting their hypothesis. Based on
the results of this experiment, gender labelling on
exams could cause women to underperform on math
exams. Stereotype threat can interfere with
performance, affecting men positively but women
negatively.
Math Pedagogy
The principles of mathematics are generally
understood at an early age; preschoolers can
comprehend the majority of principles underlying
counting. By kindergarten, it is common for children
to use counting in a more sophisticated manner by
adding and subtracting numbers. While
kindergarteners tend to use their fingers to count,
this habit is soon abandoned and replaced with a
more refined and efficient strategy; children begin
to perform addition and subtraction mentally at
approximately six years of age. When children reach
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approximately eight years of age, they can retrieve
answers to mathematical equations from memory. With
proper instruction, normally functioning children
acquire these basic mathematic skills, and are able
to solve more complex mathematical problems with
more sophisticated training.[14] (Kail & Zolner,
2005).
High risk teaching styles are often explored to
gain a better understanding of math anxiety.
Goulding, Rowland and Barber (2002) suggest that
there are linkages between a teacher’s lack of
subject knowledge and ability to effectively plan
teaching material. These findings suggest that
teachers that do not have a sufficient background in
mathematics may struggle with the development of
comprehensive lesson plans for their students.
Similarly, Laturner’s research (2002) shows that
teachers with certification in math are more likely
to be passionate and committed about teaching math
than those without certification. However, those
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without certification vary in their commitment to
the profession depending on coursework preparation.
Moreover, a study conducted by Kawakami,
Steele, Cifa, Phills, and Dovidio (2008) they
examined attitudes towards math and behaviour during
math examinations. The study examined the effect of
extensive training in teaching women to approach
math. The results showed that women that were
trained to approach rather than avoid math showed a
positive implicit attitude towards math. These
findings were only consistent with women low in
initial identification with math. This study was
replicated with women either encouraged to approach
math or received neutral training. Results were
consistent and demonstrated that women taught to
approach math had an implicit positive attitude and
completed more math problems than women taught to
approach math in a neutral manner.
Johns, Schmader, and Martens (2005) conducted a
study in which they examined the effect of teaching
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stereotype threat as a means of improving women’s
math performance.
The researchers concluded from the study’s
results that women tended to perform worse than men
when problems were described as math equations.
However, women did not differ from men in a
condition with a test sequence described as problem
solving or in a condition in which they learned
about stereotype threats. This research has
practical implications; educating female teachers
about stereotype threat can reduce its negative
effects in the classroom.
Common Beliefs
In the United States, many people believe that
only a few "gifted" individuals have "what it takes"
to learn math, and that hard work cannot compensate
for this. Studies have shown "When asked to explain
why some children do better in math than others,
Asian children, their teachers, and their parents
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point to hard work, their American counterparts to
ability."
Women mathematicians in the United States have
almost always been a minority according to Margaret
Murray. Although the exact difference fluctuates
with the times as she has explored in her book
[Women Becoming Mathematicians: Creating a
Professional Identity in Post-World War II America].
"Since 1980, women have earned over 17 percent of
the mathematics doctorates. The trends in gender are
by no means clear, but perhaps parity is still a way
to go. Thus parity will take more work to overcome
mathematical anxiety and this is one reason for
women in mathematics being role models for younger
women.
2.5. Teaching strategies that can minimize
mathematics anxiety among students
Studies by Herbert P. Ginsburg, Columbia
University, show the influence of parents' and
teachers' attitudes on "'the child's expectations in
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that area of learning.'... It is less the actual
teaching and more the attitude and expectations of
the teacher or parents that count." This is further
supported by a survey of Montgomery County, Maryland
students who "pointed to their parents as the
primary force behind the interest in mathematics."
Math Academy Online/Platonic Realms contends
that math has two components. The first component,
commonly focused on in many schools, is to calculate
the answer. This component also has two
subcomponents, namely the answer and the process or
method used to determine the answer. Focusing more
on the process or method enables students to make
mistakes, but not 'fail at math'. The second
component is to understand the mathematical concepts
that underlay the problem being studied. “… and in
this respect studying mathematics is much more like
studying, say, music or painting than it is like
studying history or biology.”
Amongst others supporting this viewpoint is the
work of Dr. Eugene Geist, Associate Professor at
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Ohio University – Athens, Ohio and an early
childhood education specialist. Dr. Geist's
recommendations include focusing on the concepts
rather than the right answer and letting students
work on their own and discuss their solutions before
the answer is given. Emphasis is given that young
people hate to be wrong and hate situations where
they can be embarrassed by being wrong.
National Council of Teachers of Mathematics
(NCTM) (1989, 1995b) suggestions for teachers
seeking to prevent math anxiety include:
a. Accommodating for different learning styles
b. Creating a variety of testing environments
c. Designing positive experiences in math classes
d. Refraining from tying self-esteem to success
with math
e. Emphasizing that everyone makes mistakes in
mathematics
f. Making math relevant
g. Letting students have some input into their own
evaluations
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h. Allowing for different social approaches to
learning mathematics
i. Emphasizing the importance of original, quality
thinking rather than rote manipulation of
formulas
Math (and Statistics) Therapy is a combination
of coaching and counselling, provided for adults by
people with credentials in both counselling and math
education. In Math Therapy the reasons for anxiety
are addressed, as well as the mathematical skills
which are lacking. New coping skills are introduced
and practiced, so that fear, distaste or other
negative emotions do not block math (or statistics)
learning.
There are several anxiety reducing techniques
that teachers can teach their children and practice
periodically throughout the year. Teachers will need
to learn these techniques and encourage the students
to practice them at home and to use them prior to
testing or when feeling anxious during math class.
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Several studies have shown that relaxation
techniques can be used to help alleviate anxiety
related to mathematics. In her workbook Conquering
Math Anxiety, 3rd edition, Cynthia Arem offers
specific strategies to reduce math avoidance and
anxiety. One strategy she advocates for is
relaxation exercises and indicates that by
practicing relaxation techniques on a regularly
basis for 10–20 minutes students can significantly
can reduce their anxiety.
Dr. Edmundo Jacobson’s Progressive Muscle
Relaxation taken from the book Mental Toughness
Training for Sports, Loehr (1986) can be used in a
modified form to reduce anxiety as posted on the
website HypnoGenesis.
Visualization has also been used effectively to
help reduce math anxiety. Arem has a chapter that
deals with reducing test anxiety and advocates the
use visualization. In her chapter titled Conquer
Test Anxiety (Chapter 9) she has specific exercises
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devoted to visualization techniques to help the
student feel calm and confident during testing.
Studies have shown students learn best when
they are active rather than passive learners.
The theory of multiple intelligences suggests
that there is a need for addressing different
learning styles. Math lessons can be tailored for
visual/spatial, logical/mathematics, musical,
auditory, body/kinesthetic, interpersonal and
intrapersonal and verbal/linguistic learning styles.
Everyone is capable of learning, but may learn
best in different ways. Therefore, lessons must be
presented in a variety of ways. New concepts can be
taught through play acting, cooperative groups,
visual aids, hands on activities or information
technology. To help with learning statistics, there
are many applets found on the Internet that help
students learn about many things from probability
distributions to linear regression. These applets
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are commonly used in introductory statistics
classes, as many students benefit from using them.
Active learners ask critical questions, such
as: Why do we do it this way, and not that way? Some
teachers may find these questions annoying or
difficult to answer, and indeed may have been
trained to respond to such questions with hostility
and contempt, designed to instil fear. Better
teachers respond eagerly to these questions, and use
them to help the students deepen their understanding
by examining alternative methods so the students can
choose for themselves which method they prefer. This
process can result in meaningful class discussions.
Talking is the way in which students increase their
understanding and command of math. Teachers can
emphasize the importance of original thinking rather
than rote manipulation of formulas. This can be done
through class conversations. Teachers can give
students insight as to why they learn certain
content by asking students questions such as "What
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purpose is served by solving this problem?" and "why
are we being asked to learn this?"
Reflective journals help students develop
metacognitive skills by having them think about
their understanding. According to Pugalee, writing
helps students organize their thinking which helps
them better understand mathematics. Moreover,
writing in mathematics classes helps students’
problem solve and improve mathematical reasoning.
When students know how to use mathematical
reasoning, they are less anxious about solving
problems.
However, there is still a large part of school
math teaching which consists of memorization,
repetition, and mechanically performed operations.
Times tables are one example, wherein rote learning
is essential to mathematics performance. When a
student fails to learn the times tables at a young
age, they can experience math anxiety later, when
all the students' classmates can remember the tables
but they cannot.
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Children learn best when math is taught in a
way that is relevant to their everyday lives.
Children enjoy experimenting. To learn mathematics
in any depth, students should be engaged in
exploring, conjecturing, and thinking, as well as in
rote learning of rules and procedures.
Summary and conclusion
From the number of literature reviewed above,
it is established that mathematics anxiety
(mathematics phobia) has received attention.
Mathematics anxiety can be attributed to teacher
factor and student factor.
It can be reduced through motivation, positive
self concept and good teaching technique on the part
of the teacher.
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