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<title>Department of Chemistry Education</title>
<link>http://41.74.91.244:8080/handle/123456789/714</link>
<description/>
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<dc:date>2026-04-05T20:07:14Z</dc:date>
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<title>Engagement in constructing understanding of selected chemistry concepts through the integration of indigenous knowledge</title>
<link>http://41.74.91.244:8080/handle/123456789/2198</link>
<description>Engagement in constructing understanding of selected chemistry concepts through the integration of indigenous knowledge
Assey, C.E.
Students’ engagement in chemistry lessons is essential for construction of knowledge and &#13;
understanding. The issue is with the adoption of teaching and learning strategies that &#13;
encourage students’ engagement. Indigenous knowledge (IK) practices have been argued &#13;
to provide suitable contexts in relation to the students’ everyday life experiences to reveal &#13;
the relevance, practicality and applicability of concepts for effective teaching and learning. &#13;
Therefore, chemistry lessons designed using suitable contextual IK practices, have the &#13;
tendency to promote the meaningfulness of concepts to students thereby fostering their &#13;
engagement in lessons. The study was conducted as a case study to evaluate the effect of &#13;
students’ engagement in ‘integrated indigenous knowledge-chemistry lessons’ (IIK-CLs) &#13;
on students’ learning outcome. Relevant data was collected from 20 purposely sampled IK &#13;
experts and 8 chemistry tutors and ‘integrated indigenous knowledge-chemistry lessons &#13;
were consequently developed. Specific chemistry concepts were taught using the ‘IIK CLs’ which engaged students in numerous activities. The behavioural, emotional and &#13;
cognitive engagement of 26 randomly sampled students were assessed using observational &#13;
schedule and questionnaire on all three types of engagement. The interrupted time series &#13;
design was also used to evaluate the effect of the designed ’integrated ‘IK-CLs on the &#13;
students’ learning outcome and on gender. Students’ responses were analysed using Excel &#13;
and statistical package for the social sciences (SPSS) and the results presented in tables &#13;
and graphs. The ‘IIK-CL’ recorded a high percentage of students’ engagement, revealed a &#13;
significant improvement in students’ performance and impacted positively on students&#13;
learning. The integration of IK practices in the teaching of chemistry concepts promoted &#13;
students’ engagement and enabled the construction of knowledge and understanding
A thesis in the Department of Science Education, Faculty of Science Education &#13;
submitted to the School of Graduate Studies in partial fulfilment&#13;
of the requirements for the award of the degree of&#13;
Doctor of Philosophy&#13;
(Science Education)&#13;
in the University of Education, Winneba
</description>
<dc:date>2022-01-01T00:00:00Z</dc:date>
</item>
<item rdf:about="http://41.74.91.244:8080/handle/123456789/2165">
<title>Using micro chemistry equipment activities to improve undergraduate teacher-trainees’ conceptions of selected inorganic chemistry topics</title>
<link>http://41.74.91.244:8080/handle/123456789/2165</link>
<description>Using micro chemistry equipment activities to improve undergraduate teacher-trainees’ conceptions of selected inorganic chemistry topics
Hanson, R
The study was aimed at improving on 48 teacher-trainees‟ concepts in an introductory &#13;
inorganic chemistry course through practical micro chemistry equipment (MCE) &#13;
activities and curriculum materials. These materials were validated through scrutiny by &#13;
experts in Chemistry Education, trials in a comparable institution and Kuder Richardson‟s formula, KR-20. Some of the topics which were covered in the study were &#13;
the nature of solutions, chemical stoichiometry, balancing of equations, periodicity and &#13;
hybridisation. A practical approach to instruction was adopted while using MCE as an &#13;
interventive tool. The study was an action research. Data were collected from an intact &#13;
class of 48 regular first year chemistry teacher-trainees at the University of Education, &#13;
Winneba, by means of a two-tiered diagnostic concept test, classroom lessons and &#13;
MCE-activities during chemistry periods. Semi-structured interviews, questionnaires &#13;
and observation schedules were employed to triangulate the data. There was also an &#13;
evaluation of students‟ acquired skills in the use of the micro-chemistry equipment as &#13;
they were trained in the use of MCE, which they could access readily and handle &#13;
without fear of damage. The activities were also to imbue them with the skills of using &#13;
the MCEs to design more authentic chemistry practical activities when they move to the &#13;
schools as classroom teachers. Students were expected to gain concept, process and &#13;
laboratory skills. From the study, it was found that the MCE approach enhanced &#13;
practical skills acquisition and chemistry concept formation. The implications of the &#13;
results for the teaching and learning of chemistry concepts are that teaching through the &#13;
MCE-concept approach has the potential to change the way chemistry is taught and &#13;
learned in a more interactive, exciting, simple and easy way. In addition, MCE &#13;
activities developed in this study would be feasible for use in other institutions of &#13;
learning.
A thesis in the Department of Science Education, Faculty of Science Education, &#13;
submitted to the School of Graduate Studies, University of Education, Winneba, in &#13;
partial fulfilment of the requirements for the award of a Doctor of Philosophy &#13;
(Science Education) Degree &#13;
DECEMBER, 2014
</description>
<dc:date>2014-01-01T00:00:00Z</dc:date>
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