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Effect of Agile Learning Approach on the Mathematics
Performance of Grade 10 Students
Ma. Angie A. Reliente
Chapter 1
Introduction of the Study
Chapter 1 was composed of five parts, namely: (1)
Background and Theoretical Framework of the Study, (2)
Statement of the Problem and Hypotheses, (3) Significance of
the Study, (4) Definition of Terms, and (5) Delimitation of
the Study.
Part One, Background and Theoretical Framework of the
Study, gives the introduction, justifies the need for
investigation, discusses the importance of selecting the
problem and presents the theoretical framework, which
supports the existence of the study.
Part Two, Statement of the Problem and Hypotheses,
gives the general as well as the specific problems the study
sought to answer. It also presents the hypotheses to be
tested.
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Part Three, Significance of the Study, identifies the
stakeholders of the research and the benefits each can get
from the results.
Part Four, Definition of Terms, conceptually and
operationally defines the important terms in the study.
Part Five, Delimitation of the Study, states the scope
of the research in terms of research design, variables,
participants, research instrument, and statistical tools
used in the study.
Background and Theoretical Framework of the Study
Students often quote Mathematics as their least liked
school subject. Regardless of being a major subject,
students at times took for granted Mathematics and showed
lack of interest toward it. It is difficult to engage
students when they do not enjoy and they lack interaction in
their Mathematics class. Teachers often have classes with
varied learners in the same classroom portraying different
learning styles, intelligences, and capabilities. Teachers
must decide how to meet the needs of the individual students
in their classrooms and employ different strategies that
will suit the abilities of the student- strategies that will
make learning amusing and worthwhile. Indeed, educators
nowadays must be flexible and must be ready to engage
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learners to cope with the fast changing society, equip them
with knowledge and skills to be productive and competitive
individuals for education plays a relevant role in the
learners’ lives. According to World Bank, education can
also be one of the strongest instruments for reducing
poverty, there upon improving the well-being of the people.
However, to establish and maintain a high-quality
educational system, proper investments must be made
(Philippine Institute for Developmental Studies, 2012 as
cited by Falcis (2017).
A Science and Education Institute study on Trends in
Mathematics and Science Study (TIMMS) in 2003, cited by
Consolacion (2018), showed that students’ skills and
competencies in Math ranked a pitiful 42nd out of 46
participating countries. Results of the Student Achievement
Test indicate very poor performance, specifically in
Mathematics and Science. These problems have serious
implications for the academic trajectory of the many
underprepared students who will enter post secondary
education. Despite the allocation of considerable resources
to development education, many students in college-credit
courses display continuing difficulties in applying these
foundational skills to the learning of subject matter.
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As cited in the Newfoundland Labrador (2015), students
are curious, active learners with individual interests,
abilities, and needs. They come to classrooms with varying
knowledge, life experiences and backgrounds. A key component
in developing mathematical literacy is making connections to
these backgrounds and experiences. Students learn by
attaching meaning to what they do, and they need to
construct their own meaning of Mathematics. This meaning is
best developed when learners encounter mathematical
experiences that proceed from the simple to the complex and
from the concrete to the abstract. Through the use of
manipulative and a variety of pedagogical approaches,
teachers can address the diverse learning styles, cultural
backgrounds, and developmental stages of students and
enhance within them the formation of sound, transferable
mathematical understandings. Students at all levels benefit
from working with a variety of materials, tools, and
contexts when constructing meaning about new mathematical
ideas. Meaningful student discussions provide essential
links among concrete, pictorial, and symbolic
representations of mathematical concepts. The learning
environment should value and respect the diversity of
students’ experiences and ways of thinking, so that students
feel comfortable taking intellectual risks, asking questions
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and posing conjectures. Students need to explore problem-
solving situations in order to develop personal strategies
and become mathematically literate. They must come to
understand that it is acceptable to solve problems in a
variety of ways and that a variety of solutions may be
acceptable.
As a Mathematics teacher and a researcher, it was
observed throughout the First Quarter’s Written and
Performance tasks that the Mathematics performance of Grade
10 students was weakening as what has been revealed in their
First and Second Quarter Test results. It has been observed
that students showed misconceptions on some topics
particularly in the Basics of Mathematics. The researcher
also observed that the students knew the terminologies but
were not able to explain their meanings and the uses to
real-life situations. For the first two years in teaching
Mathematics, the approach seems to spun mostly in discovery,
lecture, discussion, and problem solving. It became
successive daily routines in Math Learning and seems to be
memorized already by the students. Still, the researcher
observed that the result of the quizzes, performances,
assessments, and departmental tests were still weakening. It
has been observed also that not all students actively
participate during the classroom activities.
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Through these experiences and observations, immediate
and accurate actions must be given into consideration in
order to cater the needs and to strengthen the academic
performance of the students, particularly in Mathematics.
Being in the service for 2 years will not hinder the
researcher to find a solution to this weakening performance
and to find out the effectiveness of using the Agile
Learning Approach in the teaching learning process.
In recent years, a transition to agile learning in
education settings has been gaining a lot of momentum. In
contrast to traditional classroom layouts, agile learning
spaces are designed to be fluid, adjustable, and flexible.
They are intended to promote classroom discussion and
collaboration, improve student engagement, and enhance
creativity. Research also suggests that learning
environments can improve academic performance, so you can
see why it has become such a hot topic. The organization for
Economic Co-operation and Development’s (OECD) Centre for
Educational Research and Innovation (CERI) identified seven
key aspects of an Innovative Learning Environment, each of
which is hampered by the design of traditional classrooms:
considers student-centered learning, considers social
learning, considers emotional development, leaves room for
individualization, stretches students, considers assessment
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for learning, and builds horizontal connections. Traditional
classroom layouts feature rows of desks all focused on a
blackboard or white board at the front of the classroom.
They were designed to allow only the person at the front to
be in control of learning and limited the types of
experiences one could have in the space. Their primary role
is to provide a basic shelter for a group of children and an
adult. Today one might expect to see adjustable
standing/sitting desks, beanbags, cushions, amphi-theatres
and breakout spaces. The most significant difference is that
one will see learners moving around the classroom. These
spaces allow the teacher and the student to explore many
different types of settings and experiences, sometimes
within the same day. It also shifts the teacher’s position
from authority of power, to leader of learning
(http://info.trinity.nsw.edu.au/blog/5-benefits-of-agile-
learning-spaces-for-boys)Retrieved July 10, 2018).
Agile learning is a relatively recent buzzword that can
take several meanings. There seems to be quite a confusion
between "agile planning of instruction" (as one may find on
commercial e-learning web sites), introducing "agile design
methodology" in the project-oriented and/or reflective
classroom and finally introducing "agile thinking" in a
given population. A similar idea is to favor dynamic
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planning of learner activities in teaching. Many inquiry-
based learning settings require dynamic agile planning for
both the teacher and his students. A very typical example
would be the knowledge-building community model.
There is a variety of meaning that composes agile
learning. Agile learning also can refer to running a class
like a development group. This implies that one has to
provide students with practice in agile development,
regardless of their subject area, and to use agile
principles in working together with students to achieve the
learning objectives of the module. Agile learning also can
refer to supporting emerging individual learning path, i.e.
how students’ progress through a set of learning objectives
in traditional learning. From the teaching perspective, this
can be summarized as "give students what they need when they
need it".
Whereas in the conventional view, Math lessons in
secondary schools have changed relatively little in recent
decades. Math teachers tend to spend most of their time
standing at the front of the class and asking questions,
while pupils listen and copy down notes (http://www.sec-
ed.co.uk/news/traditional-teaching-methods-dominate-in-
maths-lessons/)Retrieved Oct. 14, 2017.
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According to (White-Clark, et. al, 2008 as cited by
Ferguson, 2010), teachers often teach the way they were
taught during their own educational experiences. Some
veteran teachers still believe that the role of the teacher,
especially in the secondary grades, is to give information
to their students and hope they retain it for future use.
According to the study conducted by the academics at
the University of Manchester (2012) entitled “Teaching and
Learning Practices in Secondary Mathematics: Measuring
teaching from teachers’ and students’ perspectives”
presented to the British Educational Research Association’s
annual conference, the study found that traditional teaching
methods dominate in today’s Math lessons, largely because of
time constraints and the pressure to prepare pupils for
exams.
This study was anchored on the “Experiential Learning
Theory” of Kolb (1984). He believed that, ‘experiential
learning’ is a broad umbrella term to cover this wide
variety of approaches to learning by doing. Experiential
learning focuses on learners reflecting on their experience
of doing something, so as to gain conceptual insight as well
as practical expertise. As to Kolb, he suggests four stages
in this process: active experimentation, concrete
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experience, reflective observation, and abstract
conceptualization.
In addition to the above interaction in teaching
learning process, learning style of an individual is
important to undergo different learning cycle. The three
main types of learning styles are auditory, visual, and
kinesthetic. Whenever the task is given for an individual,
the above learning styles can be adopted; meanwhile if the
task is for a team with different learning styles of a
student, then there is a need to focus on the style of
learning. The three styles of learning are active learning,
cooperative learning, and problem based learning (Salunke,
et.al,2016)(http://www.journaleet.org/index.php/jeet/article
/view/85524, Retrieved: 9/3/18).
This study investigated the effects of Agile Learning
Approach on the Mathematics performance of Grade 10 students
of Milibili National High School, Milibili, Roxas City for
school year 2018-2019.
The independent variables were the two distinct
strategies used in instruction such as Agile Learning
Approach and conventional teaching strategy in teaching
while the dependent variable was the Mathematics
performance.
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The variable relationship in this study was shown in
Figure 1.
Independent Variables Dependent Variable
Agile Learning
Approach
Mathematics Performance
Conventional
Teaching Strategy
Figure 1. A Schematic Diagram Showing the Effect of Agile
Learning Approach on the Mathematics Performance of Grade 10
Students
Statement of the Problem and the Hypothesis
This study aimed to compare the effect of Agile
Learning Approach and Conventional Teaching strategy on the
Mathematics performance of Grade 10 students of Milibili
National High School, Roxas City for school year 2018-2019.
Specifically, the study sought to answer the following
questions:
1. What is the Mathematics performance of Grade 10
students in the pretest and posttest of the control and the
experimental groups?
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2. Is there a significant difference in the Mathematics
performance in the pretest of the control and the
experimental groups?
3. Is there a significant difference in the Mathematics
performance in the pretest and posttest of the control and
the experimental groups?
4. Is there a significant difference in the Mathematics
performance in the posttest of the control and the
experimental groups?
5. What is the effect size of Agile Learning Approach
on the mathematics performance of Grade 10 students?
In view of the preceding problems, the following
hypotheses were tested:
1. There is no significant difference in the
Mathematics performance in the pretest of the control and
experimental groups.
2. There is no significant difference in the
Mathematics performance n the pretest and posttest of the
control group.
3. There is no significant difference in the
Mathematics performance in the pretest and posttest of the
control and experimental group.
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4. There is no significant difference in the
Mathematics performance in the posttest of the control and
experimental group.
5. The Agile Learning Approach has no effect on the
Mathematics performance of Grade 10 students.
Significance of the Study
The result of this study was beneficial to the
following stakeholders: Students, Mathematics Teachers,
Parents, School Administrators, Education Program
Specialists, and Future Researchers:
Students. Through the use of Agile Learning Approach in
the teaching-learning process, the students may be able to
recognize individual strengths for an active participation
in classroom activities. As they engage in interactive and
lively activities, they will be able to learn the concepts
meaningfully and will increase retention and their
performance in the subject.
Mathematics Teachers. The findings may provide hints
for the teachers to better identify and address their
students' most pressing learning needs. This will deepen the
understanding of the teachers on the weakening performance
of the students. In an interactive teaching-learning
process, the students may be more interested to the subject
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and will correct some misconceptions. The teachers may
provide greater retention to the student by providing a
strategy that is fun and exciting yet meaningful.
Parents. This study can provide the parents ample
information on their children’s difficulties. The awareness
will arise to them and will encourage them to monitor their
children’s performance in school. By knowing such
difficulties, the parents can spend time to provide
solutions and to support their children in order for them to
participate well in the class and to improve their
performance not just in Mathematics but in all the subject
area.
School administrators. The discoveries of this study
will provide information and solution to the principals
about the problem arousing through the weakening performance
in Mathematics that will be a basis for changes in the
Mathematics curriculum and for encouraging their teachers to
create an expressive teaching-learning process through the
utilization of the Agile Learning Approach.
Education Program Specialist. The results of this study
will provide sufficient information for the EPS in
Mathematics to incorporate Agile Learning Approach in the
content and classroom activities. This will add to the new
strategies that may be useful in increasing retention in the
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subject area whereas to achieve a positive result in the
assessments.
Future Researchers. The findings gained in this study
would serve as a basis for future studies that is related to
the utilization of Agile Learning Approach to cater the
needs of the students and to improve their performance in
Mathematics.
Definition of Terms
For better clarification and understanding of the terms
related to this study, the following terms were defined
conceptually and operationally.
Agile Learning Approach- refers to the strategy that
any approach to content development that focuses on speed,
flexibility, and collaboration to create the same goal
(Kiang, 2014).
In this study, “Agile Learning Approach”, referred to
the intervention given in the weakening Mathematics
performance through running a class like a development group
that promotes collaboration, time bounded-tasks, and agile
learning or acquiring and applying new knowledge to solve
problems. This implies that one has to provide students with
practice in agile development, regardless of their subject
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area and to use agile principles in working together with
students to achieve the learning objectives.
Control Group — refers to the group that was not
exposed to the same factor to which the experimental group
was exposed to, or it received a different treatment or it
was left to its usual way of doing things (Ardales, 2008).
In this study, “control group”, referred to the group
of students exposed to Conventional Teaching Strategy such
as lecture and discussion as a method of Mathematics
learning.
Experimental Group—refers to the group exposed to the
influence of a factor, an intervention or treatment under
consideration (Ardales, 2008).
In this study, “experimental group”, referred to the
group of students exposed to Agile Learning Approach in
instruction of their Mathematics subject.
Mathematics Performance —refers to the ability to
perform and execute mathematical computations and problem
solving (Merriam- Webster Dictionary).
In this study, “Mathematics Performance”, referred to
the scores obtained by the Grade 10 students in the 55-item
researcher-made Mathematics Performance Test during the
pretest and posttest. The scores obtained from this test
were interpreted as: did not meet expectations (0.0-11.00),
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fairly satisfactory (11.01- 22.00), satisfactory (22.01-
33.00), very satisfactory (33.01-44.00) and outstanding
(44.01-55.00).
Posttest – refers to the test given to the participants
after the treatment or intervention has been applied to a
certain group (Best and Kahn, 2003).
In this study, “posttest”, referred to a 55-item
Mathematics Performance Test with four options which was the
same as that of the pretest but the items were scrambled so
that it will appear different from the pretest. This was
given to the participants after exposing them to Agile
Learning Approach and Conventional strategies within four
(4) weeks.
Pretest – refers to the test given to the participants
before the treatment or intervention has been applied to a
certain group (Best and Kahn, 2003).
In this study, “pretest”, referred to a 55- items
researcher’s made Mathematics Performance Test with four
options divided into four weeks upon regrouping the class to
undergo Agile Learning Approach and Conventional Teaching
Strategy. A 15-item pretest for week 1, 16-item test for
week 2, 9-item test for week 3, and 15-item test for the
fourth week were given to student respondents.
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Delimitation of the Study
This quasi-experimental research design study was used
to determine the effect of Agile Learning Approach and
Conventional Teaching Strategy on the Mathematics
performance of Grade 10 students of Milibili National High
School, Roxas City for school year 2018-2019.
It utilized two sections of Grade 10 students composed
of thirty one(31) students each group; one group was
exposed in Agile Learning Approach while the other group was
under the Conventional Strategies of teaching. The number of
participants for both groups was determined by comparing
their average grades in the first and second grading to
ensure similarity of both groups. Elimination of students in
each group was made until their grades became comparable
using t-test for independence. Those students who were
selected in the first group was assigned in the experimental
group and taught under the Agile Learning Approach while the
second group was assigned in the control group and taught
under the conventional strategies of instruction.
A 55-item researcher-made multiple choice Mathematics
Performance Test with four options was utilized to measure
the Mathematics performance of the students. The Mathematics
performance test underwent content validation and item
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analysis. After the validation, it was pilot tested to
thirty (30) students who were not included as participants
of the study. After the item analysis, items left were used
as pretest and posttest instruments.
The independent variables in the study were the Agile
Learning Approach and Conventional Teaching Strategy in
teaching while the dependent variable was the students’
Mathematics performance.
The statistical tools used in data analysis were mean,
standard deviation, t-test for independent and dependent
samples for inferential tests set at 5% alpha level of
significance.