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Muniz, Marc N.; Crickmore, Cassidy; Kirsch, Joshua; Beck, Jordan P. – Chemistry Education Research and Practice, 2018
Chemical processes can be fully explained only by employing quantum mechanical models. These models are abstract and require navigation of a variety of cognitively taxing representations. Published research about how students use quantum mechanical models at the upper-division level is sparse. Through a mixed-methods study involving think-aloud…
Descriptors: Advanced Courses, Chemistry, Science Instruction, Correlation
Yang, Wenjing; Dietrich, Arne; Liu, Peiduo; Ming, Dan; Jin, Yule; Nusbaum, Howard C.; Qiu, Jiang; Zhang, Qinglin – Creativity Research Journal, 2016
Evidence from a range of fields indicates that inventions are often inspired by drawing a parallel to solutions found in nature. However, the cognitive mechanism of this process is not well understood. The cognitive mechanism of heuristic prototype in scientific innovation was tested with 3 experiments. First, 84 historical accounts of important…
Descriptors: Heuristics, Problem Solving, Undergraduate Students, Foreign Countries
van Opstal, Mary T.; Daubenmire, Patrick L. – International Journal of Science Education, 2015
Metacognition can be described as an internal conversation that seeks to answer the questions, "how much do I really know about what I am learning" and, "how am I monitoring what I am learning?" Metacognitive regulation skills are critical to meaningful learning because they facilitate the abilities to recognize the times when…
Descriptors: Metacognition, Science Instruction, Qualitative Research, Heuristics
Ardasheva, Yuliya; Norton-Meier, Lori; Hand, Brian – Studies in Science Education, 2015
In this review, we explore the notion of teaching science to English language learners (ELLs) as a balancing act between simultaneously focusing on language and content development, on the one hand, and between structuring instruction and focusing on student learning processes, on the other hand. This exploration is conducted through the lens of a…
Descriptors: Science Instruction, English Language Learners, Teaching Methods, Heuristics
Cho, Younsoon; Chung, Hye Young; Choi, Kyoulee; Seo, Choyoung; Baek, Eunjoo – Journal of Creative Behavior, 2013
This research explores the emergence of student creativity in classroom settings, specifically within two content areas: science and social studies. Fourteen classrooms in three elementary schools in Korea were observed, and the teachers and students were interviewed. The three types of student creativity emerging in the teaching and learning…
Descriptors: Elementary Schools, Foreign Countries, Creativity, Elementary School Students
Chander, Subhash – Gifted Education International, 2012
The number of day-to-day challenges has increased at every stage of life, particularly in developing countries, and therefore there is a crying need for a search for solutions. Education plays an important role in providing correct direction, and science education can prove crucial in achieving this goal. Solutions to individual as well as…
Descriptors: Evidence, Creativity, Scientific Principles, Problem Solving
Madden, Sean P.; Jones, Loretta L.; Rahm, Jrene – Chemistry Education Research and Practice, 2011
This study examined the representational competence of students as they solved problems dealing with the temperature-pressure relationship for ideal gases. Seven students enrolled in a first-semester general chemistry course and two advanced undergraduate science majors participated in the study. The written work and transcripts from videotaped…
Descriptors: Teaching Methods, Advanced Students, Heuristics, Chemistry
De Ambrosis, Anna; Levrini, Olivia – Physical Review Special Topics - Physics Education Research, 2010
This paper concerns an empirical study carried out with a group of high school physics teachers engaged in the Module on relativity of a Master course on the teaching of modern physics. The study is framed within the general research issue of how to promote innovation in school via teachers' education and how to foster fruitful interactions…
Descriptors: Foreign Countries, Science Teachers, Scientific Concepts, Questionnaires
Lorenzo, Mercedes – International Journal of Science and Mathematics Education, 2005
Problem-solving is one of the main goals in science teaching and is something many students find difficult. This research reports on the development, implementation and evaluation of a problem-solving heuristic. This heuristic intends to help students to understand the steps involved in problem solving (metacognitive tool), and to provide them…
Descriptors: Formative Evaluation, Heuristics, Chemistry, Problem Solving

Seroussi, Dominique-Esther – Science Education, 1995
Analyzes difficulties of students experiencing their first contact with heuristic hypotheses. Attempts to interpret these difficulties and suggest remediations. Uses an example from the chemistry of aqueous solutions. (MKR)
Descriptors: Chemistry, Concept Formation, Heuristics, Higher Education

Woods, D. R. – Journal of College Science Teaching, 1984
Describes the Whimbey-Lochhead approach to help students develop problem-solving skills, providing instructions for using the approach in instructional programs. Includes a list of 70 tactics or heuristics used (or misused) in problem solving. Other ideas and information from books and articles on problem solving are included. (JN)
Descriptors: College Science, Heuristics, Higher Education, Problem Solving

Kramers-Pals, H.; Pilot, A. – International Journal of Science Education, 1988
Presents four guidelines for teaching quantitative problem-solving based on research results: analyze difficulties of students, develop a system of heuristics, select and map key relations, and design instruction with proper orientation, exercise, and feedback. Discusses the four guidelines and uses flow charts and diagrams to show how the…
Descriptors: Feedback, Guidelines, Heuristics, Problem Solving
Frank, David V.; Herron, J. Dudley – 1985
A problem-solving method of teaching was used in the recitation sections of a freshmen chemistry course for science and engineering majors at Purdue University. The method was based on prior research which revealed that good problem solvers formed better representations and used heuristics more often than poor problem solvers. Consequently, the…
Descriptors: Chemistry, College Science, Conventional Instruction, Heuristics

Pizzini, Edward L.; And Others – Science Education, 1989
This article discusses problem solving and how science educators can integrate problem solving into their instruction. The Search, Solve, Create, and Share (SSCS) model was developed based on the findings of problem solving research. (YP)
Descriptors: Cognitive Processes, Heuristics, Learning Strategies, Models

Hafner, Robert; Stewart, Jim – Science Education, 1995
Examines how problem solving in the domain of Mendelian genetics proceeds in situations where solvers' mental models are insufficient to solve problems at hand (model-revising problem solving). The study addressed the heuristics characteristic of successful model-revising problem solving and other aspects of student model use. (LZ)
Descriptors: Concept Formation, Genetics, Heuristics, High Schools
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