Effectiveness of Concept Mapping Strategy on Cognitive Process in Sciences at Secondary Level

3613
ISSN 2286-4822
www.euacademic.org
EUROPEAN ACADEMIC RESEARCH
Vol. IV, Issue 4/ July 2016
Impact Factor: 3.4546 (UIF)
DRJI Value: 5.9 (B+)
Effectiveness of Concept Mapping Strategy on
Cognitive Processes in Science at Secondary Level
SARADINDU BERA
Research Scholar, Utkal University
Bhubaneswar-751022, India
Dr. RAMAKANTA MOHALIK
Associate Professor, Regional Institute of Education (NCERT)
Bhubaneswar-751022, India
Abstract:
The present study investigated the effectiveness of concept
mapping strategy on cognitive processes in science at secondary level.
For this pre-test post-test experimental and control group design is
used, with 100 samples grouped as experimental group (50) and
control group (50) on the basis of matching by intelligence test. The
investigators conducted this experiment over twelve weeks by using
both traditional and concept mapping strategy. The self-developed
achievement test covering class IX text book of West Bengal Board of
Secondary Education, India was used as tool. The study found that the
students exposed to the concept mapping strategy significantly
achieved better than those exposed to the traditional teaching method
at their applying, analyzing, evaluating and creating level of cognitive
processes. In addition, the students exposed to the concept mapping
strategy significantly higher than those exposed to the traditional
teaching method in respect to their gain scores at every levels of
cognitive processes. The concept mapping strategy is capable of
improving student’s mastery of content at the higher order levels of
cognition. It is therefore recommended that concept mapping should be
used in science teaching for the development of student’s higher order
thinking level.
Key words: concept mapping, cognitive processes, higher order
thinking, science, secondary level.

Saradindu Bera, Ramakanta Mohalik- Effectiveness of Concept Mapping Strategy
on Cognitive Processes in Science at Secondary Level
EUROPEAN ACADEMIC RESEARCH - Vol. IV, Issue 4 / July 2016
3614
1.0. INTRODUCTION
Learning science is an intellectual search involving inquiry,
rational thinking and generalization. The highly conceptual
nature of science makes it particularly difficult for students and
the strategies used in the classroom have not sufficiently eased
the learning process. Learning is purposeful, conscious and
complex process (Adey & Shayer, 1994). It is the act of
acquiring new or modifying and reinforcing, existing
knowledge, behaviours, skills, values or preferences and may
involve synthesizing different types of information. Various
teaching learning approaches have been developed to accelerate
learning process of students in science. But in India, mostly
behavioural practices going on in schools where students are
passive and classroom are mostly dominated by the teacher. In
science education in recent years, the increasing awareness of
the importance of learner-centeredness in the teaching learning
situation has generated a lot of attention in relation to
understanding how learners learn and how to help them learn
about concepts (Jegede et.al., 1990). National Curriculum
Framework (2005) stresses for the paradigm shift from the
behaviourism to constructivism to enhance conceptual learning
in science education. To provide meaningful science education,
where students’ will construct knowledge and teacher will act
as facilitators possible through concept mapping strategy.
Concept mapping is one of the teaching learning
strategies under constructivism based on David Ausubel’s
Assimilation theory of cognitive learning for fostering
meaningful learning in the classroom (Ausubel et. al., 1978).
Concept maps are two dimensional graphical representation of
one’s knowledge of a domain (Novak & Gowin, 1984). A concept
map is a diagram showing the relationship among concepts. It
is a graphical tool for organizing and representing knowledge.
It includes concepts, usually enclosed in circles or boxes and
relationships between concepts indicated by a connecting line

3615
linking two concepts. Words on the line referred to as linking
words or linking phrases, specify the relationship between the
two concepts (Dammani, 2012).Concept map is similar to a
spider chart or a flow chart with interconnections. Another
characteristic of concept map is hierarchical nature of the
concept map, with more general concepts at the top and more
inclusive specific concepts below. Thus a concept map depicts
hierarchy and relationships among concepts, which bring
clarity of meaning and integration of crucial details. It also
makes one think in multiple directions and different levels of
abstraction, resulting usually in acquiring deeper
understanding of the topic and clarifying misconceptions. Hence
concept mapping is an easy way to achieve very high levels of
cognitive performance, when the process is done well (Novak
and Canas, 2006).
Cognitive processes are processes that involve
knowledge and how people use their knowledge. It includes
matters such as attention, memory, producing and
understanding language, solving problems and making
decisions. So, cognitive processes are the performance of some
composite cognitive activity. In 1950s Benjamin Bloom
developed Taxonomy of cognitive objectives, means of
expressing qualitatively different kinds of thinking. It provides
way to organize thinking skills into six levels, from the most
basic to the more complex levels of thinking (Bloom, 1981). In
1990s Lorin Anderson revisited the Taxonomy and made
number of changes. Revised Bloom taxonomy creates
understanding the student behaviour and learning outcomes.
Taxonomy reflects different forms of thinking and thinking is
an active process (Anderson and Krathwohl, 2001). There are
six major categories in this taxonomy. These are as follows-
Remembering, Understanding, Applying, Analysing,
Evaluating and Creating. Among these six categories
Analysing, Evaluating and Creating come under higher order
thinking process and bottom two categories i.e., Remembering

3616
and Understanding come under Applying category. As students
are introduced to new science concepts, they embark on a
cognitive process of constructing meaning and making sense by
consciously or subconsciously integrating these new ideas with
their existing knowledge. Concept maps provide a unique
graphical view of how students organize, connect and
synthesize information (Vandies et. al., 2005).
2.0. RATIONALE OF THE STUDY
In science education, concept mapping has been widely
recommended and used in a variety of ways. Concept mapping
has been used to promote positive self-concepts, positive
attitudes toward science and increased responsibility for
learning (Novak and Gowin, 1984). It has been used to help
teachers and students to build an organised knowledge base in
a given discipline (Pankratius, 1990, Kopec et.al.,
1990).Different research studies indicate that the concept
mapping is an effective tool in teaching learning process on
academic performance at secondary level in the subject of
physics (Bascon and Novak, 1985; Pankratius, 1990, Karakuyu,
2010, Akeju et.al., 2011), in mathematics (Olarewaju and
Awofala, 2011, Kaur, 2012) and biology (Jegede et.al., 1990;
Esiobu and Soyibo, 1995; Shailaja, 2011; Udeni and Okafor,
2012;Bera and Mohalik, 2013;Sakiyo and Waziri, 2015). On the
other hand, concept mapping has been used as a diagnostic tool
to assess students’ conceptions (Ross and Munby, 1991;Wallace
and Mintzes, 1990), for clarifying student’s understandings and
making connections between concepts explicit as an alternative
science classroom achievement assessment (Stoddart
et.al.,2000) and assessing for learning processes (Fleener and
Marek, 1992).
The analysis of the above research studies found that
different researches had conducted on concept mapping
strategy but majority of researches were related to academic

3617
achievement of students. There were few studies conducted on
concept mapping strategy in India but most of the studies had
conducted in English medium schools and urban area. There
were no studies found in regional medium schools and the effect
of concept mapping strategy on cognitive process as well as
higher order thinking level. Therefore need was felt to conduct
study on effectiveness of concept mapping strategy on cognitive
process in science at secondary level.
3.0. STATEMENT OF THE PROBLEM
The present study is an attempt to investigate the
“Effectiveness of Concept Mapping Strategy on
Cognitive Processes in Science at Secondary Level”.
4.0. OPERATIONAL DEFINITION OF TERMS USED
Concept Mapping: A concept map is a graphic organizer
which uses schematic representation to hierarchically organize
a set of concepts, connected by means of order to build
meaningful statements. After identification of concepts from a
unit or sub-unit showing meaningful relationships between
concepts in the shape of proposition, the concept map reveals
each student’s performance of some composite cognitive
activity.
Cognitive Processes: In this study cognitive processes can be
stated operationally as mental abilities mentioned by Revised
Bloom’s Taxonomy. It involves process such as Applying,
Analyzing, Evaluating and Creating.
Secondary Level: Secondary level is a period of intense
physical change and formation of identity. It is also the period
of intense vibrancy and energy. Secondary level indicates the
students of class IX and X of the school. It refers to the boys and
girls individuals falling approximately 14-17 years.

3618
5.0. OBJECTIVES OF THE STUDY
1. To study the effect of concept mapping strategy on
cognitive process (applying, analysing, evaluating and
creating) in science at secondary level in comparison to
traditional teaching strategy.
2. To ascertain the significant difference in gain score of
control and experimental group in cognitive process
(applying, analysing, evaluating and creating).
6.0. HYPOTHESES OF THE STUDY
1. There will not be significant difference in the cognitive
process of students taught by concept mapping strategy
and traditional teaching strategy.
2. There will not be significant difference in the gain score
of cognitive processes between the control group and
experimental group.
7.0. METHODOLOGY
7.1. Research Design:
The present study is an experimental research. The
independent variable is concept mapping teaching strategy and
the dependent variables is cognitive processes in science. This
study adopted a pre-test, post-test equivalent group design.
The diagrammatic representation of the design is shown in the
following figure-
Experimental group O1X1 O2
Control group O3 X2O4
Where, O1, O3 represent pre-test
O2, O4 represent post-test
X1 represents treatment (concept mapping strategy)
X2 represents treatment (traditional method)

3619
7.2. Sample and Sampling Procedure:
The present study was conducted at Kendradangal High
Madrasah (H.S.) in Birbhum district of West Bengal, India. The
study was conducted on a sample of 100 students of class IX.
These students belong to both the gender, i.e., boys and girls.
Students of both control and experimental groups are assigned
on the basis of their intelligence score. The students were
divided into two groups, i.e., control group (50 students) and
experimental group (50 students). The control group was taught
through traditional method and experimental group was taught
through concept mapping strategy. The effectiveness of concept
mapping strategy on cognitive process in science was
determined by administering the self developed test on
cognitive processes of both the groups.
7.3. Tools
7.3.1. Intervention Tool:
Concept Mapping Lesson Plan: Concept maps were
prepared on the selected topics of science and used by the
investigators. At first researchers selected the second chapter of
life science of class IX book biological process containing plant
physiology, respiration, nutrition, circulation and excretion
units. Researchers identified concepts and sub concepts from
the selected topic and developed concept map against every
topic. Researchers developed lesson plan for every class based
on concept mapping. Each lesson plan contains major five
points. Learning points and learning objectives were fixed for
each lesson. Teaching learning process composed of
introduction, presentation and summarization. At the end of
teaching, researcher assessed the day’s lesson through concept
map. Home assignment was given by the researcher for the
measuring students’ understanding of concept map. During
teaching learning process researcher explained every topic,
concept map was also prepared and discussed in the class. They
were also allowed to discuss with peers and also the

3620
investigator helped them to clarify their doubts. After
discussion investigator summarized the day’s lesson through
concept map with the help of students’ opinion.
7.3.2. Measuring Tool:
i) Intelligence Test: Standard Progressive Matrices
(SPM) (2000 Edition: updated 2004) was used for
assessing intelligence of the students. There were sixty
problems in the test divided into five sets as A, B, C, D
and E. the problems are arranged from simple to
difficult level. Scoring was done using the instruction
given in manual. In the original work with SPM
reliabilities range from 0.83-0.93, with the higher values
being associated with younger respondents (under 30).
From the analysis of the criterion oriented content
validity, factorial construct validity and internal validity
it has been found that the SPM is a good measure of
general intellectual ability.
ii) Test on Cognitive Processes: This test was developed
by the investigator. The maximum marks of the test
were fifty. Test comprised of multiple choice questions,
true/false, matching, fill in the blanks, find out odd one,
comparison and short answer type questions. Test was
constructed based on applying, analyzing, evaluating
and creating categories. The test was content validated
by taking experts comments and was tested for
reliability using test-retest method. The reliability
coefficient of 0.82 was obtained.
7.4. Procedure:
The permission of the head of the institution was obtained by
the researcher. On the basis of Intelligence score groups were
equated in control (traditional teaching) and experimental
(concept mapping) group. The both groups were pre-tested
using a researcher made achievement test. The experimental

3621
group taught through concept mapping strategy. Researcher
had prepared concept maps of all the selected units of biological
process covered were plant physiology, nutrition, respiration,
circulation and excretion. Concept map was also prepared and
discussed in the class. Doubts of students were cleared. They
were also allowed to discuss among themselves and with also
researcher to clarify their doubts. The control group taught
through traditional method. In case of traditional method
researcher taught the control group through chalk and talk
method and with the help of traditional teaching aids. All topics
were taught in the same sequence to experimental as well as to
control group. Both experimental and control groups were not
aware that they were being involved in a study. The treatment
was continuing over 12 weeks. At the end of the treatment the
same test was administered in both the groups.
7.5. Data Analysis
The obtained data was analyzed by using mean, standard
deviation and t-test. The independent samples t-test was used
to compare means on the post test and on the applying,
analysing, evaluating and creating components of the cognitive
process. Significance level of 0.01 was used. All quantitative
data were analysed by using IBM SPSS statistics 20.
8.0. RESULTS
The first objective of this study was to find out effect of concept
mapping strategy on cognitive process (applying, analysing,
evaluating and creating) in science at secondary level in
comparison to traditional teaching strategy. For this
investigators, calculated t value for both control and
experimental group in post-test, which is given in table-1.

3622
Table.1. Comparison of Means of Variables of Control and
Experimental Group in Post Test
Variables Group N Mean SD SEM df t-value Significance
Applying Control 50 8.20 1.565 0.221 49 7.584 0.000
Experimental 50 9.46 1.432 0.202
Analyzing Control 50 8.18 1.587 0.224 49 6.960 0.000
Experimental 50 9.24 1.302 0.184
Evaluating Control 50 8.02 1.450 0.205 49 8.566 0.000
Experimental 50 9.72 1.565 0.221
Creating Control 50 7.62 1.524 0.216 49 7.737 0.000
Experimental 50 9.20 1.498 0.212
Cognitive
Processes
Control 50 32.14 5.175 0.732 49 12.132 0.000
Experimental 50 37.74 5.337 0.755
Table.1. shows the means the means, standard deviations and
standard error of mean of the students’ post test scores in the
applying, analyzing, evaluating and creating levels of cognitive
process of the two groups. The results showed significant
outcomes in the students’ scores at applying level (t=7.584,
p<0.01), analyzing level (t=6.960, p<0.01), evaluating (t=8.566,
p<0.01) and creating (t=7.737, p<0.01) of cognitive processes.
The overall result showed (t=12.132, p<0.01) significant
outcomes in the students’ scores at cognitive processes. Hence
the null hypothesis there will not be significant difference
‘There will not be significant difference in the cognitive process
of students taught by concept mapping strategy and traditional
teaching strategy.’ is rejected at 0.01 levels. It can be concluded
that the students exposed to the concept mapping strategy
significantly achieved better than those exposed to the
traditional teaching method at their applying, analyzing,
evaluating and creating level of cognitive processes.
The investigators also to find out the gain scores of the
students in the applying, analysing, evaluating and creating
levels of cognitive process of the two groups. The investigators
calculated t value for gain score of control and experimental
group, which is given in table-2.

3623
Table.2. Comparison of Gain Scores of Variables of Control and
Experimental Group in Pre and Post Test
Variables Group N Mean SD SEM df t-value Significance
Applying Control 50 4.34 1.451 0.205 49 5.581 0.000
Experimental 50 5.68 1.518 0.215
Analysing Control 50 4.40 1.678 0.237 49 4.341 0.000
Experimental 50 5.48 1.502 0.212
Evaluating Control 50 4.56 1.487 0.210 49 7.160 0.000
Experimental 50 6.24 1.492 0.211
Creating Control 50 4.88 1.734 0.245 49 7.133 0.000
Experimental 50 6.52 1.403 0.198
Cognitive
Processes
Control 50 18.25 4.685 0.662 49 11.165 0.000
Experimental 50 24.01 4.554 0.644
Table 2. revealed that the means, standard deviations and
standard error of means of the students’ gain scores in the
applying, analysing, evaluating and creating levels of cognitive
process of the two groups. The result showed significant
outcomes in the students’ gain scores at applying (t=5.581,
p<0.01), analysing (t=4.341, p<0.01), evaluating (t=7.160,
p<0.01) and creating (t=7.133, p<0.01) levels of cognitive
process. The cognitive process showed significant outcomes in
the students’ gain score (t=11.165, p<0.01). Hence the null
hypothesis there will not be significant difference ‘There will
not be significant difference in the gain score of cognitive
processes between the students taught by concept mapping
strategy and traditional teaching strategy.’ is rejected at 0.01
levels. These outcomes showed that the students exposed to the
concept mapping strategy significantly gain better than those
exposed to the traditional teaching method at their applying,
analyzing, evaluating and creating level of cognitive processes.
9.0. DISCUSSION
The results of the present study showed that the post-test mean
score of the students in the experimental group was found to be
significantly better from that of their counterparts in the
control group at higher order thinking level. This findings
consistent with concept mapping assesses students’ structural
knowledge which mediates the translation between declarative

3624
knowledge and procedural knowledge (Jonassen et.al., 1993)
and higher order abilities (applying, analysing, evaluating and
creating) (Novak et al., 1983) which possess some degree of
transferability (Liu and Hinchey., 1996). One likely explanation
for this finding is that concept mapping enabled the students to
break down complex concepts into component sub concepts to
see relationships for clarity and at the same time putting
together these sub concepts with linking words to form an
integrated meaningful whole (Olarewaju and Awofola, 2011).
Besides these skills, students were able to make value
judgements about arrangement of the concepts and assess the
appropriateness of the linking words. All these may have
enhanced the better performance of the concept mapping group.
Another reason is that concept mapping provides opportunity
for active involvement of students in their learning process and
hence enhances their thinking ability while cross questioning
and thinking for seeking solution (Cheema and Mirza, 2013).
Presentation of the concepts to the fellow students brings a
greater conceptual clarity for themselves (Freeman, 2004).
During the discussion among the peers, learners become aware
of their misconceptions. Inconsistent reasoning leads to
cognitive conflict. In normal discourse there is a chance that
misconceptions can be traced very easily by the teacher or by
comparing student made concept maps with the scientifically
accepted concept maps (Cheema and Mirza, 2013).
The noticeable impact of concept mapping on students’
achievement recorded in this study may be attributed to the
characteristics inherent in the use of concept mapping. In this
study students were able to comprehend concept meanings,
organize concepts in hierarchy and form meaningful
relationships between concepts to arrive at a coherent,
integrate network of the material learned. Research evidence
has indicated that pieces of information are better remembered
by students when they are communicated and learned verbally
and visually. Concept mapping combines visually learning with

3625
spatial representation of information to promote meaningful
conceptual learning. Visual learning according to (Asan, 2007)
is absorbing information from illustrations, photos, diagrams,
graphs, symbols, icons and other visual models.
10.0. EDUCATIONAL IMPLICATIONS
The present study was conducted on regional medium students
to find out the effectiveness of concept mapping strategy on
cognitive processes in science. The result of the study found
that concept mapping strategy enhancing the cognitive process
and higher order thinking level. So, it is useful for parents,
teachers, curriculum planner, students, teacher educators, text
book writers, researchers, corporate and government
organization.
i) Teacher can use the concept map as a tool for
teaching and learning science effectively for the
development of cognitive process.
ii) Concept mapping strategy can be used as an effective
tool to study the science at secondary level and
student can be easily constructing their own
knowledge with higher order thinking.
iii) The educational administrator can think for training
teachers in using concept mapping in their class as it
enhances students higher order thinking. The study
would also helpful for teachers for creating concept
maps for teaching science based on cognitive process.
iv) Curriculum planner may incorporate this strategy in
curriculum guidelines for achievement of intended
learning outcomes and content development for
meaningful and higher order learning.
v) Text book writers may present and organize the
content thoughtfully with the help of concept map to
children.

3626
11.0. CONCLUSION
The present study reveals that the concept mapping strategy
has significantly better effect on cognitive processes in science.
The results of the study support that concept map is an
effective tool to engage students in higher order thinking level
of cognitive process. Adopting concept mapping requires that
science teacher have a good knowledge of constructivist
learning and the ways in which concept mapping can be used to
foster students’ thinking. Hence it is suggested that teachers
should use the technique of concept mapping while teaching
science. Moreover the teachers should be trained to develop and
use such maps. This study can be replicated with larger sample
size and other subject disciplines. This would determine the
most efficient means of using concept mapping for students’
benefit.
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