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Shimelis Kebede Kekeba; Abera Gure; Teklu Tafesse Olkaba – Interactive Technology and Smart Education, 2025
Purpose: The purpose of this study was to investigate the impact of using a jigsaw learning strategy integrated with computer simulation (JLSICS) on the academic achievement and attitudes of students, along with exploring the relationships between them in the process of learning about acids and bases. Design/methodology/approach: The research…
Descriptors: Teaching Methods, Learning Strategies, Computer Simulation, Technology Uses in Education
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Frederik, Ineke; Sonneveld, Wim; de Vries, Marc J. – International Journal of Technology and Design Education, 2011
Artifacts are probably our most obvious everyday encounter with technology. Therefore, a good understanding of the nature of technical artifacts is a relevant part of technological literacy. In this article we draw from the philosophy of technology to develop a conceptualization of technical artifacts that can be used for educational purposes.…
Descriptors: Philosophy, Learning Strategies, Educational Strategies, Technological Literacy
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Kroeger, Stephen D.; Burton, Cathy; Preston, Christopher – TEACHING Exceptional Children, 2009
The purpose of this study was to examine the effectiveness of an evidence-based practice that addresses the learning needs of middle school students who have difficulty comprehending science texts. The teachers used a single-subject reversal design to implement peer-mediated instruction while asking to what degree the use of peer-mediated…
Descriptors: Middle School Students, Learning Strategies, Peer Teaching, Scientific Concepts
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Ueckert, Catherine Wilcoxson; Gess-Newsome, Julie – Science Teacher, 2008
When students understand content deeply, they recognize main concepts and understand the relationships among ideas. But the typical processes students use to study are generally not designed to generate conceptual understandings. Instead, they tend to become passive learners. In this article, the authors present three commonly used classroom…
Descriptors: Classroom Techniques, Learning Strategies, Active Learning, Worksheets
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Gelbart, Hadas; Brill, Gilat; Yarden, Anat – Research in Science Education, 2009
Providing learners with opportunities to engage in activities similar to those carried out by scientists was addressed in a web-based research simulation in genetics developed for high school biology students. The research simulation enables learners to apply their genetics knowledge while giving them an opportunity to participate in an authentic…
Descriptors: Genetics, Biology, Internet, Scientists
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De Avila, Paulo, Jr.; Torres, Bayardo B. – Biochemistry and Molecular Biology Education, 2010
Understanding the scientific method fosters the development of critical thinking and logical analysis of information. Additionally, proposing and testing a hypothesis is applicable not only to science, but also to ordinary facts of daily life. Knowing the way science is done and how its results are published is useful for all citizens and…
Descriptors: Undergraduate Students, Critical Thinking, Logical Thinking, Publications
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Nelson, Jennifer; Robison, Diane F.; Bell, John D.; Bradshaw, William S. – CBE - Life Sciences Education, 2009
Pedagogical strategies have been experimentally applied in large-enrollment biology courses in an attempt to amplify what teachers do best in effecting deep learning, thus more closely approximating a one-on-one interaction with students. Carefully orchestrated in-class formative assessments were conducted to provide frequent, high-quality…
Descriptors: Feedback (Response), Biology, Misconceptions, Thinking Skills
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Glynn, Shawn – Science Teacher, 1995
Describes the use of analogies to explain scientific concepts. Presents the teaching-with-analogies model. (JRH)
Descriptors: Concept Formation, Educational Strategies, Learning Strategies, Models
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Miller, Kenneth W.; And Others – Science and Children, 1996
Presents an integrated approach that helps students understand difficult science concepts. Involves counteracting children's confusion over certain concepts, confronting children's misconceptions through inquiry, and presenting a multitude of experiences that challenge children's erroneous beliefs. Presents an example of applying this approach to…
Descriptors: Childrens Literature, Elementary Education, Elementary School Science, Interdisciplinary Approach
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Leonard, William H. – Journal of College Science Teaching, 1989
Summarizes research on inquiry and investigative strategies for teaching laboratory science. Concludes that meaningful laboratory instruction is distinguished by: student engagement in science inquiry processes, student manipulation of experimental materials, and the experiential teaching of specific scientific concepts. (RT)
Descriptors: College Science, Educational Research, Inquiry, Laboratory Procedures
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Campbell, Ann – Australian Science Teachers Journal, 1993
Outlines a module developed with the aim of teaching a group of secondary science students several learning strategies which could be transferred into classroom learning. Students demonstrate that knowledge about "elaboration" and the linking of new learning to previous knowledge enhances learning and understanding of scientific concepts.…
Descriptors: Elementary Secondary Education, Learning Activities, Learning Strategies, Learning Theories
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Clifford, Paul – Journal of Biological Education, 2004
Problem solving is an ideal learning strategy, especially for topics that are perceived as difficult to teach. As an example, a format is described for a problem-solving session designed to help students understand the pressure-flow hypothesis of phloem transport in plants. Five key facts and their discussion can lead to the conclusion that a…
Descriptors: Learning Strategies, Problem Solving, Discussion (Teaching Technique), Botany
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Giordan, Andre – Impact of Science on Society, 1991
Discusses the epistemology and typical applications of learning models focusing on practical methods to operationally introduce the distinctive, alloseric models into the educational environment. Alloseric learning models strive to minimize the characteristic resistance that learners typically exhibit when confronted with the need to reorganize or…
Descriptors: Cognitive Structures, Concept Formation, Elementary Secondary Education, Learning Strategies
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Langrehr, John – Australian Science Teachers Journal, 1993
Discusses some scaffolds or prompts for helping students to ask themselves better questions about science topics. Presents some teacher questions that test and develop some core thinking skills. (PR)
Descriptors: Elementary Secondary Education, Learning Activities, Learning Strategies, Learning Theories
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Schultz, Emeric – Biochemistry and Molecular Biology Education, 2005
Learning the wealth of information in metabolic pathways is both challenging and overwhelming for students. A step-by-step guided discovery approach to the learning of the chemical steps in gluconeogenesis and the citric acid cycle is described. This approach starts from concepts the student already knows, develops these further in a logical…
Descriptors: Learning Strategies, Memory, Technology Uses in Education, Internet
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