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Miller-Cotto, Dana; Booth, Julie L.; Newcombe, Nora S. – Applied Cognitive Psychology, 2022
Both sketching and self-explanation are widely believed to be effective for problem-solving in science learning. However, it is unclear which aspects of these strategies promote learning and how they might interact. Compared to a read-only baseline, we examined the impact of instructing 11-year-old students to solve science problems to sketch,…
Descriptors: Freehand Drawing, Cognitive Processes, Middle School Students, Science Education
Price, Argenta M.; Kim, Candice J.; Burkholder, Eric W.; Fritz, Amy V.; Wieman, Carl E. – CBE - Life Sciences Education, 2021
A primary goal of science and engineering (S&E) education is to produce good problem solvers, but how to best teach and measure the quality of problem solving remains unclear. The process is complex, multifaceted, and not fully characterized. Here, we present a detailed characterization of the S&E problem-solving process as a set of…
Descriptors: Problem Solving, Science Education, Engineering Education, Teaching Methods
Care, Esther; Vista, Alvin; Kim, Helyn – Center for Universal Education at The Brookings Institution, 2020
This paper marks the second in a series of five reports detailing the work of the Optimizing Assessment for All (OAA) project at Brookings to strengthen education systems capacity to integrate 21st century skills into teaching and learning, using assessment as a lever for changing classroom practices. Twenty-first century skills (21CS) are now…
Descriptors: Foreign Countries, 21st Century Skills, Teaching Methods, Student Evaluation
Richards, Evan Thomas – ProQuest LLC, 2010
Despite decades of research on what learning actions are associated with effective learners (Palincsar and Brown, 1984; Atkinson, et al., 2000), the literature has not fully addressed how to cue those actions (particularly within the realm of physics). Recent reforms that integrate incorrect solutions suggest a possible avenue to reach those…
Descriptors: Protocol Analysis, Physics, Science Education, Problem Solving
Dixon, Raymond A.; Johnson, Scott D. – Journal of Technology Education, 2012
A cognitive construct that is important when solving engineering design problems is executive control process, or metacognition. It is a central feature of human consciousness that enables one "to be aware of, monitor, and control mental processes." The framework for this study was conceptualized by integrating the model for creative design, which…
Descriptors: Engineering, Novices, Metacognition, Higher Education
Tsai, Meng-Jung; Hou, Huei-Tse; Lai, Meng-Lung; Liu, Wan-Yi; Yang, Fang-Ying – Computers & Education, 2012
This study employed an eye-tracking technique to examine students' visual attention when solving a multiple-choice science problem. Six university students participated in a problem-solving task to predict occurrences of landslide hazards from four images representing four combinations of four factors. Participants' responses and visual attention…
Descriptors: Electronic Learning, Protocol Analysis, Attention, Problem Solving
Brekke, Stewart E. – 2002
This paper presents an overview of research on physics problem solving using verbal protocols. It asserts that the understanding of physics problem solving strategies enables researchers to write computer programs, which can automatically solve physics problems without the users having to be experts in physics. This, in turn, can generate more…
Descriptors: Educational Research, Higher Education, Physics, Problem Solving

Hackling, Mark W.; Lawrence, Jeanette A. – Journal of Research in Science Teaching, 1988
Compares experts', advanced students', and novice students' use of genetics knowledge to generate and test hypotheses while solving genetic pedigree problems. Reports that experts identified more critical cues, tested more hypotheses, were more rigorous in the falsification of alternative hypotheses, and were more flexible to their solving…
Descriptors: College Science, Genetics, Higher Education, Hypothesis Testing

Kindfield, Ann C. H. – 1991
Subcellular processes like meiosis are frequently problematic for learners because they are complex and, except for the extent that they can be observed under a light microscope, occur outside of our direct experience. More detailed characterization of what underlies various degrees of student understanding of a process is required to more fully…
Descriptors: Biology, Diagrams, Educational Research, Genetics

Bowen, Craig W. – Journal of Research in Science Teaching, 1990
Presented is an analysis of think-aloud protocols of graduate students solving several different tasks in organic chemistry. The systems used by these subjects were classified. It was reported that the methodological system was most often used. (CW)
Descriptors: College Science, Higher Education, Learning Strategies, Logical Thinking

Smith, Mike U. – Journal of Research in Science Teaching, 1988
Examines successful/unsuccessful distinctions between novices and experts in problem solving in terms of genetic knowledge, use of production rules, strategy selection, use of critical cues, use of logic, understanding of probability, and the thinking process itself. Suggests five implications for genetics instruction and provides three problems…
Descriptors: Abstract Reasoning, Biology, College Science, Genetics

Lythcott, Jean – Journal of Chemical Education, 1990
Reported is a study designed to improve problem-solving skills of high school chemistry students. Interpretations of the data are presented. Recommendations for improvement in teaching problem solving in chemistry are proposed. (CW)
Descriptors: Academic Achievement, Chemistry, College Science, Critical Thinking

Sawrey, Barbara A. – Journal of Chemical Education, 1990
Compared in this research was the performance of students on numerical versus conceptual chemistry problems at the introductory college level. Separate analyses were done to compare high and low achievers. It was shown that even the upper group of achievers had difficulty with concept questions. (CW)
Descriptors: Academic Achievement, Chemistry, College Science, Critical Thinking

Pickering, Miles – Journal of Chemical Education, 1990
Analyzed was the performance of students on numerical versus conceptual chemistry problems in their freshman general chemistry course and their sophomore organic chemistry course. Data indicated that the ability to solve a problem did not necessarily imply an understanding of the concepts involved. (CW)
Descriptors: Academic Achievement, Chemistry, College Science, Critical Thinking

Alick, Bonita; Atwater, Mary M. – School Science and Mathematics, 1988
Discusses problem-solving strategies and the successful strategy used to solve stoichiometric problems in general college chemistry courses. Reports that rereading problems, recalling a related concept, and reasoning deductively/inductively are the most heavily used strategies among 13 categories. (YP)
Descriptors: Blacks, Chemistry, Cognitive Processes, College Science
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