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Kimberly Vo; Mahbub Sarkar; Paul J. White; Elizabeth Yuriev – Chemistry Education Research and Practice, 2024
Despite problem solving being a core skill in chemistry, students often struggle to solve chemistry problems. This difficulty may arise from students trying to solve problems through memorising algorithms. Goldilocks Help serves as a problem-solving scaffold that supports students through structured problem solving and its elements, such as…
Descriptors: Metacognition, Scaffolding (Teaching Technique), Chemistry, Science Instruction
Yeong, Foong May – Teaching & Learning Inquiry, 2021
To foster students' learning of critical-thinking skills, I previously introduced ill-structured problems to provide students opportunities to apply content knowledge and thinking skills. However, I noted that my third-year, life sciences students were not solving such problems effectively. Therefore, I used a grounded approach and conducted…
Descriptors: Asynchronous Communication, Discussion Groups, Biological Sciences, Problem Solving
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
Morris, Bradley J.; Masnick, Amy M. – Cognitive Science, 2015
Comparing datasets, that is, sets of numbers in context, is a critical skill in higher order cognition. Although much is known about how people compare single numbers, little is known about how number sets are represented and compared. We investigated how subjects compared datasets that varied in their statistical properties, including ratio of…
Descriptors: Comparative Analysis, Number Concepts, Thinking Skills, Critical Thinking
Chitpin, Stephanie; Simon, Marielle – Teacher Education and Practice, 2012
The examination of problem-solving processes continues to be a current research topic in education. Knowing how to solve problems is not only a key aspect of learning mathematics but is also at the heart of cognitive theories, linguistics, artificial intelligence, and computers sciences. Problem solving is a multistep, higher-order cognitive task…
Descriptors: Teaching Methods, Problem Solving, Protocol Analysis, Preservice Teachers
Zahodnic, Richard J. – ProQuest LLC, 2009
The optimal development of expertise is dependent on the application of a regimen of deliberate practice. A component of this practice is the development of critical thinking skills related to the solving of complex problems in ill-structured, naturalistic environments. The cognitive steps used to solve problems by experts is frequently not…
Descriptors: Expertise, Educational Strategies, Protocol Analysis, Decision Making
Friede, Curtis R.; Irani, Tracy A.; Rhoades, Emily B.; Fuhrman, Nicholas E.; Gallo, Maria – Journal of Agricultural Education, 2008
This study was conducted to examine the statistical relationship between problem solving and critical thinking to guide future teaching and research for agricultural educators using the problem-solving approach. Students enrolled in an undergraduate genetics course in the College of Agricultural and Life Sciences at the University of Florida were…
Descriptors: Protocol Analysis, Problem Solving, Genetics, Biotechnology
Carrithers, David; Ling, Teresa; Bean, John C. – Business Communication Quarterly, 2008
This article investigates the critical thinking difficulties of finance majors when asked to address ill-structured finance problems. The authors build on previous research in which they asked students to analyze an ill-structured investment problem and recommend a course of action. The results revealed numerous critical thinking weaknesses,…
Descriptors: Majors (Students), Protocol Analysis, Audiences, Problem Sets

Woods, Donald R. – Journal of College Science Teaching, 1988
Explains the differences between successful and unsuccessful problem solvers' exploration of a problem, translation of information into different forms, approach to devising and executing a plan, and rechecking work. (RT)
Descriptors: Cognitive Development, College Science, Concept Formation, Critical Thinking

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

Pizzini, Edward L.; And Others – Science Teacher, 1988
Describes a model that teaches a problem-solving process and provides students with the opportunity to practice, develop, and enhance their thinking skills. States that applying learning to real problems is needed to increase a student's thinking ability. Provides diagrams of the problem-solving cycle and levels of thinking. (RT)
Descriptors: Cognitive Processes, Critical Thinking, Learning Processes, Learning Strategies

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

Ploger, Don; Harvey, Richard – Biochemical Education, 1988
Examines the problem-solving strategies of experts and novices. Summarizes the overall performance of four experts and eight novices. Examines several protocols in depth in order to show how subjects introduced new terms and relationships during problem solving sessions. Compares the strategies of expert and novice problem solvers. (CW)
Descriptors: Biochemistry, Cognitive Development, Cognitive Processes, Cognitive Structures