Conceptual Understanding Of BSED Science Major Students Using The Molecular Models In Inorganic Chemistry

Ma. Victoria D. Naboya
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Abstract

Science is dynamic in nature and with the emerging trends in the world of teaching, the methodology of the teaching process must be innovative to adapt to the current trends in education. Chemistry is often regarded as a challenging subject, an observation that sometimes discourages learners from continuing with their studies. Students prefer learning in a classroom where active participation is greatly encouraged, and it is desirable that Science teachers introduce strategies that will enable students to think of solutions that address scientific knowledge construction. With these, the researcher was interested in finding alternative ways to help the BSED Science major students improve their conceptual understanding. The highlight of the study was the use of manipulative instructional materials that will make learning and understanding molecular geometry more concrete and enjoyable, anchored on the constructivism theory, which views learning as an active process that results from self-constructed meanings. The study utilized the quasi-experimental design, particularly the non-equivalent control group design. Based on the results, there is no noteworthy difference between the conceptual understanding of learning molecular geometry using molecular models and the lecture method, and both are effective teaching strategies for improving the conceptual understanding of the BSED Science major students.
本科教育科学专业学生使用无机化学分子模型的概念理解
科学的本质是动态的,随着教学领域的新趋势,教学过程的方法必须创新,以适应当前的教育趋势。化学通常被认为是一门具有挑战性的学科,这种看法有时会挫伤学习者继续学习的积极性。学生更喜欢在积极鼓励参与的课堂上学习,科学教师最好能引入一些策略,让学生能够思考解决科学知识建构的方案。有鉴于此,研究人员有兴趣寻找其他方法,帮助教育科学学士学位科学专业的学生提高概念理解能力。建构主义理论认为,学习是一个主动的过程,是自我建构意义的结果,而本研究的亮点则是使用操作性教学材料,使分子几何的学习和理解更加具体和愉快。本研究采用了准实验设计,特别是非等效对照组设计。研究结果表明,使用分子模型学习分子几何与讲授法在概念理解方面没有显著差异,两者都是提高本科教育科学专业学生概念理解能力的有效教学策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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