Different Approach in Teaching and Learning in Science for Mongolian Secondary Schools

The International Journal Of Engineering And Science (IJES)
|| Volume || 5 || Issue || 11 || Pages || PP 74-79 || 2016 ||
ISSN (e): 2319 – 1813 ISSN (p): 2319 – 1805
www.theijes.com The IJES Page 74
Different Approach in Teaching and Learning in Science for
Mongolian Secondary Schools
Huzeyfe CANBAZ
Assistant Principal of Darkhan Empathy school, Darkhan-Uul
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Date of Submission: 07 November 2016 Date of Accepted: 18 November 2016
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I. INTRODUCTION
Constructivist approaches of learning in science suggest that learners can only make sense of new
situations in terms of their existing understandings. Previous information is used by learners to interpret
observations; meaning is constructed by individuals in a process of adding to or modifying their existing
opinions (Driver, 1983; Osborne and Freyberg, 1985; Scott, 1987). The effects of such a view are that teachers
need to find out the learners' opinions in order to take these into account in their teaching. Teachers then need to
ensure experiences which difficult the learners' current understanding in order to help them restructure their
opinions. One sample of a teaching and learning sequence which defines this kind of way is shown in Appendix
1 (Driver and Oldham, 1986).
Constructivist angles have had a important effect on recent research in science education in the UK and
elsewhere. Much recent research has been concerned with finding out the opinions which learners typically hold
in order to inform teaching. Many science teacher educators are persuaded of the value of a constructivist
viewpoint and actively promote a constructivist philosophy. As a result it is now commonplace to find that
teachers have been exposed to constructivist opinions, have a commitment to constructivist rules and have made
some attempt to modify their practice to take these rules into account. Recently curriculum materials have begun
to emerge which adopt an explicit constructivist way, Nuffield Primary Science (1993a) being a prominent
sample. Bentley and Watts (1991) claim that there is a difference between what they characterise as the "strong"
theoretical version of what is involved in constructivism and the "weak" version of constructivism in practice
which many teachers implement in their classrooms. It may be that teachers have misunderstood what the
researchers are saying and that any modification to their practice is based on a misinterpretation of constructivist
rules.Alternatively the difference claimed by Bentley and Watts may be evidence of a more important problem.
Our belief is that the model of constructivism generally put forward is one which is based largely on methods
which work for researchers rather than methods which work for teachers in typical classrooms. The discrepancy
between the version put forward by researchers and the version applied in the classroom may therefore be
indicative of a realistic response by teachers, who may be committed to a constructivist way in principle but
have to find ways of making this manageable in practice. We believe that a number of important problems about
how to make constructivism applicable to classrooms have not yet been addressed by the various research
groups.
Problems appertain to constructivist ways to teaching and learning
One problem is that of the separation of the phases of the constructivist teaching and learning sequence.
Although it is recognised that the elicitation phase may provoke learners to reconsider their thinking (Needham,
1987), the phases are generally described as separate and distinct (Driver and Oldham 1986; Needham, 1987;
Scott, 1987). Teachers commonly perceive these phases as separate, and Nuffield Primary Science (1993b)
proposes that teachers may have difficulty in switching from one phase to the other. Curriculum materials
produced by Leeds (1992) describe how teachers will find it easier to plan activities after the learner's opinions
have been identified. However as a model for teaching this separation is not helpful. The practicalities of timing
and planning for teaching make this model, which works well as part of a research programme, very difficult to
implement. The separation of the two phases also means that the goal of the elicitation phase is only evident to
the teacher and not to the learner.
Precisely how the learner's opinions can be taken into account in planning convenient restructuring
activities is also a cause for concern. In principle the suggestion that teachers should plan activities on the basis
of what the learner already knows and understands seems like an obvious way to proceed. The problem comes
with the sheer practicality of attempting to do that with a class of 30 or even 40 or more students. Even if the
teacher has adequate information about the learners' initial opinions, attempting to respond to their individual

Different Approach in Teaching and Learning in Science for Mongolian Secondary Schools
opinions can become an impossible exercise in classroom management. We know many teachers and student
teachers who have made a commitment to a constructivist way but feel guilty because they are unable to manage
to implement this in their practice. Guidance is readily available on the opinions which learners hold and on the
range of methods which researchers have used to elicit the learners' opinions (Driver et al, 1985; White and
Gunstone, 1992; Driver et al, 1994). However the guidance available to teachers on how to promote
restructuring of the learners' opinions is much more limited. Claxton (1986) described the "mountain of samples
of children's alternative conceptions" (p126) which were available at that time and noted that the guidance for
teachers on how to restructure the learners' opinions was less prominent in the literature. The balance in more
recent research remains weighted towards elicitation rather than restructuring, and the comments made by
Claxton have been reiterated by Trumper (1990), White (1994) and Prideaux (1995). Research into the opinions
that learners hold is relatively "safe" research, in that it is located within a well-documented paradigm, it is easy
to manage, and it is very difficult to difficult since it makes no attempt to predict or to prescribe what practice
will be effective. By contrast research into how to restructure the learners' opinions has few advantages, even
though it may be more valuable for teachers.
Underpinning these concerns is the problem of the relevance of the research to teachers. There seems to
be little doubt that researchers frequently are concerned about the classroom relevance of their research. For
sample, Driver and Oldham (1986) make it clear that the aim of the Children's Learning in Science Project is to
"devise, implement and evaluate teaching materials and tactics which attempt to promote conceptual change"
(p108), and the Nuffield Primary Science (1993a) materials are a direct outcome of the SPACE Research
Project. In both of these major UK projects teachers have had a central role in researching, developing and
trialling teaching materials. However Webb (1990) notes the difficulty for teachers working within a research
group to question the values, paradigms and frameworks to which that group is committed and points out the
danger of teachers being channelled into certain ways of interpreting their world in forms of research which
specifically set out to "emancipate" them (p26).
Thus the interest of teachers in research projects is no guarantee that the outcomes of the research will
be viewed as relevant by teachers outside the research groups. There is no doubt that research into the
alternative conceptions held by learners is valuable, but it is unfortunate that much of the research does not take
the next step of putting forward specific tactics for developing their opinions. This may help to explain why
many teachers have made only limited use of the research data. From an action research perspective (Elliot
1991) it appears that the the priority for much of the research has been to improve understanding of the situation
in which practice occurs rather than to improve practice directly (Carr and Kemmis, 1986).
Concept cartoons as a way to teaching and learning in science
It was in response to problems such as these that we developed our cartoon-style drawings as a means
of presenting alternative conceptions in science. On the first occasion that they were used we were looking for
alternative ways to engage a group of students in thinking about science concepts. We hoped that by presenting
alternative opinions in a visually accessible and appealing format we would be able to elicit the students'
opinions and ensure convenient challenges which might lead to their opinions being developed further. Typical
samples of the concept cartoons which were generated are shown in Figures 1 and 2 (Keogh and Naylor, 1996).
A positive response from the students concerned led to the decision to research the use of these concept cartoons
systematically. The concept cartoons appeared to ensure an innovative and effective way to teaching and
learning in science, with considerable potential value for teachers. They also appeared to address some of the
problems mentioned above, raising the possibility of offering an way to teaching and learning in science which
took account of the central rules of constructivist angles and which was firmly based on typical classroom
practice. Research literature provided a ready source of possible alternative viewpoints which could be
presented in a cartoon-style format. Driver et al (1985), SPACE Research Reports (1990-2) and Driver et al
(1994) were particularly useful as sources of alternative conceptions. Other sources of inspiration were our own
teaching experience, suggestions from colleagues and everyday life experience.
There are some limited references to cartoons and annotated drawings in the science education literature. They
have been used for eliciting the learner's opinions (White and Gunstone, 1992; Hayes et al, 1994), for
illustrating scientific opinions (Gonick and Huffman, 1990) and as a stimulus to reflection on attitudes in
science (Lock, 1991). However the wayes described in the literature do not attempt to explore the use of
cartoon-style drawings as a teaching and learning way in science in a systematic way.
In contrast to much educational research, which is sometimes criticised on the grounds that it is
frequently of little practical benefit to teachers (Hopkins, 1987; Day, 1995; Hargreaves, 1996), we believed that
the concept cartoons could have a direct and immediate effect in the classroom. They also seemed to promote a
goalful way to practical work - a "hands-on, minds-on" way (Lorsbach and Tobin, 1992) - rather than the more
mechanical way to practical work which is sometimes adopted (Woolnough and Allsop, 1985; Hodson, 1990).

II. RESEARCH METHODOLOGY
An assessment of the use of concept cartoons was carried out by teachers and researchers working in a
variety of educational settings. These included school teachers covering the 5-18 age range, college lecturers,
teachers working with children with special educational needs, teachers of English as a second language and in-
service providers. These teacher-researchers were invited to use the cartoons and to evaluate them critically.
Data was collected by a combination of participant and non-participant observation, tape recordings,
questionnaires completed by the researchers, oral and written feedback from the learners involved, interviews
with some of the researchers and interviews with some of the learners. The groups observed have included
primary and secondary students, higher education students, parents and teachers. In many cases authentication
of the data was possible using a combination of investigator and methodological triangulation (Denzin 1970).
Action research with our own teaching groups allowed us to discuss alternative formats for the concept cartoons
with students and teachers as well as providing further assessment data. This led to a number of developments in
the format of the concept cartoons. These include a shift from negatively-worded to positively-worded
statements, a shift from statements to questions and a shift from single alternatives to multiple alternatives.
The concept cartoons have also been presented to a variety of audiences at local, regional, national and
international Conferences. This has been helpful in gauging the views of a larger cross-section of the teaching
population, since our main sample of about 80 teacher-researchers consisted of volunteers who were interested
in using the concept cartoons.
III. EVALUATING THE USE OF THE CONCEPT CARTOONS
Elicitation
The concept cartoons were intended to stimulate discussion and to make the learners' opinions explicit
through this discussion. The data consistently indicated that the concept cartoons were very effective in this
elicitation process. Many teachers commented on how the concept cartoons readily gave them access to the
learners' opinions and revealed the learners' conceptual development - "the opinions are so explicit they do not
require further probing" was one teacher's comment. One instance of this was an eight-year old child's
description of why snow is bright - "Sun pings onto snow, then pings off again into your eyes". A teacher
working with children with behavioral difficulties noted that "the children were less inhibited than when asked
questions verbally" and other teachers commented on how the concept cartoons were particularly useful for
encouraging discussion amongst students who are reluctant to reveal their own thinking.
Restructuring
Many of the teachers involved observed samples of restructuring in a range of teaching situations.
Teachers commented on how the concept cartoons promoted cognitive development in the learners. Learners
mentioned sometimes changing their minds when they discussed the concept cartoons - how they "had thought
one thing but now believed something else". The concept cartoons appeared to ensure a stimulus which
frequently led to the learner's opinions being modified and developed.
Linking together elicitation and restructuring
There is evidence that the concept cartoons have drawn together the elicitation and restructuring phases
of the constructivist teaching sequence. Several clear samples were observed where opinions were being
expressed and then modified during the discussions and investigations which emerged from the use of the
concept cartoons. In each instance the concept cartoon was the starting point for the discussion and in many no
further input to stimulate change in opinions was made by the teacher. One group of 13-14 year olds quickly
agreed that there would be no light if clouds covered the sun and then modified their opinions through
discussion within the group - "the sun goes behind the clouds so it goes duller not dark" and "the sun is powerful
so the light goes through the clouds". Learners were frequently able to make explicit the process which they had
gone through in developing their opinions. One student wrote about how the concept cartoons "really made me
change my mind" after discussing some concept cartoons with fellow students.
Promoting investigation
Several samples were quoted of the concept cartoons acting as a stimulus for investigation. One
situation was described where "within 10 minutes the whole group were engaged in active investigations".
Another teacher remarked on how the concept cartoons led to students testing out their opinions with "no further
prompting". Students noted that "you can see what the problem is" and talked about being "unable to wait" to
investigate their opinions. Although there were rare instances where the individual or group involved seemed
reluctant to engage in investigation, a ready progression from discussion to investigation was the usual response.

Motivation and interest
Without exception teachers using the concept cartoons commented on the high levels of interest of the
learners. This was evident across the whole range of teaching situations observed. It was particularly notable
that the concept cartoons hearten interest amongst students who are normally reluctant to get involved in
discussion, enabling students who do not normally converse much about science to articulate their opinions
more readily.The level of motivation in each situation evaluated was described as high. Teachers remarked on
the speed and ease with which discussions started. The success of the concept cartoons in enthusing students
with low levels of motivation was noted by both students and teachers - "There are lots of naughty children in
our class but we are busy and better behaved . . . even Dennis, the naughtiest boy in our class, wanted to stay in
at the end of the lesson to carry on with the cartoons" was the comment from some 14 year old students in an
inner city school. The visual effect of the concept cartoons was emphasized by one pupil's comment that "it
beats written work any day!"
Transferability
The initial decisions about the value of this way in our own teaching have been replicated with a
variety of groups in many different teaching situations. These include primary and secondary schools, students
with special educational needs, students learning English as a second language, undergraduate and postgraduate
students, primary and secondary school teachers and parents. Although the clarity of some of the concept
cartoons has had to be improved, teachers generally found them remarkably easy to use and effective in their
outcomes. "You just photocopy and go!" was how one teacher described the process.
Other outcomes
Other outcomes have emerged from the research to extend the potential value for the concept cartoons.
Differentiation was one important problem. Although an attempt had been made to produce material which was
accessible at a range of levels, we had not anticipated enabling such a wide degree of access as was shown with
many of the cartoons. In some instances (Figure 4) the same concept cartoon generated considerable interest in
groups ranging from young children to adults holding degrees in physics! One teacher also noted how it was
possible to demonstrate progression of opinions within her class through the students' responses to the concept
cartoons.
IV. DISCUSSION
The use of concept cartoons as a means of enabling restructuring of opinions to occur seems
particularly important. As noted earlier, guidance on how to restructure the learners' opinions is less well
documented than the opinions that they hold and how to elicit them. Concept cartoons which demonstrate
alternative viewpoints appear to ensure an important extension to the range of tactics currently available to
teachers. They appear to offer a valuable strategy in a variety of teaching situations and with students covering a
wide range of ages and capabilities. Another important point is the way that the concept cartoons frequently
enabled the elicitation and restructuring phases of the constructivist teaching sequence to go on concurrently or
consecutively without the need for teacher intervention. Bentley and Watts (1991) recognise that the linearity of
the sequence form elicitation to restructuring is problematic. The use of the concept cartoons provides one
means by which the time interval between these two phases may be reduced, enabling the elicitation and
restructuring phases to be part of a more continuous process. From the learner's perspective this is probably a
more valuable way than one in which elicitation is separated temporally and procedurally from restructuring.
The concept cartoons enabled learners to become more aware of their own opinions and of possible alternative
viewpoints so that the need for further investigation became evident to them. Deciding what kind of
investigation would be most appropriate therefore became a matter of judgment for the learner rather than for
the teacher. In this way the concept cartoons helped to minimize the problem of teachers having to respond to
learners individually in the light of their opinions. The goal of elicitation was to help map out the context for an
investigation rather than simply to ensure teachers with information about the learner's current level of
understanding. Elicitation therefore became a more purposeful part of the process for the learners. The concept
cartoons were viewed by many of the teacher-researchers as providing a more realistic perspective on how the
constructivist teaching and learning framework might be applied in the classroom.
It is important that development and restructuring of opinions did not always require practical activity
as a stimulus. Although it is recognized that activity on its own does not guarantee learning (Driver, 1983;
Hodson, 1990; Keogh and Naylor, 1993), the belief persists in many teachers that practical activity is necessary
for learning in science to take place. The use of the concept cartoons demonstrates an way to learning in science
in which practical activity may not always be necessary, providing a useful sample of a context for learning
which "engages the intellect . . and fires the imagination" (Millar and Driver, 1987, p56).

The use of concept cartoons is consistent with the model of generative science teaching put forward by
Wittrock (1994), in which he notes the significance of the learner's attention in promoting learning. They appear
to ensure a powerful stimulus to learners to focus their attention on constructing meaningful explanations for the
situations described in the drawings. In this way they promote the active engagement of the learner, which is a
vital part of the learning process (Millar and Driver, 1987; Somekh and Davies, 1991). The element of cognitive
conflict built into the concept cartoons provides an important parallel with the more typical use of cartoons for
humour (Larson 1989) and appears to have an effect on motivation. The effect of the use of the concept cartoons
on the motivation of learners must be one of the most important factors in evaluating their use in the classroom.
Woolnough (1994) notes that if students are motivated and if they are given the freedom and the opportunity,
they will find ways of learning. If they are not, they will not bother (page 111).
The focus of this research has been on the value of concept cartoons as a teaching and learning way in
science. We have been conscious in the research of the need to ensure that teachers have been fully involved,
not only in the assessment of the cartoons but also in constructing the assessment criteria. Much of the
assessment has been unrestricted, with teachers making their own decisions about how they chose to evaluate
the use of the concept cartoons. In every case the extent to which the concept cartoons have had a positive effect
in the classroom has been a central feature of the assessment process. One unanticipated outcome of the research
has been the effect on our own practice. The use of the concept cartoons with our own teaching groups has
hearten us to reflect on our own practice and has led to important developments in our practice and in our
understanding of how best to implement a constructivist way in the classroom. Areas where our practice has
changed importantly have included the goal of elicitation, the link between elicitation and restructuring and how
the learners' opinions can be taken into account.
We recognize that our views about constructivist rules and practice may be based on a
misunderstanding of some aspects of the relevant literature. However we have first-hand evidence that our
views about the difficulty of putting constructivist opinions into practice are shared by many teachers. If we
have misunderstood the effects of the literature then we suspect that many teachers share our misunderstanding,
and we would see it as a priority for research groups to attempt to minimize any possible misunderstandings of
the effects of their work. It is encouraging Nuffield Primary Science, which is based firmly on the SPACE
Research Project, has recognized the importance of the problems that we have raised and has begun to address
them in its most recent publication (Nuffield 1996), pointing out the difference between research and teaching.
We hope that our research will help to promote further development of constructivist frameworks in the future.
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