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Lauren C. Bauman; Trà Hu?nh; Amy D. Robertson – Physical Review Physics Education Research, 2024
Literature on student ideas about circuits largely focuses on misunderstandings and difficulties, with seminal papers framing student thinking as stable, difficult to change, and connected to incorrect ontological categorizations of current as a thing rather than a process. In this paper, we analyzed 417 student responses to a conceptual question…
Descriptors: Physics, Sequential Learning, Abstract Reasoning, Electronic Equipment
Ayça K. Fackler; Daniel K. Capps – International Journal of Science Education, 2024
The literature on scientific modelling practices in science education has provided a fruitful discussion on how learners tend to view models vs. how and what they should think about them. One approach is to teach students that models are abstractions so that they do not view them as a copy of phenomena they represent. Although teaching students…
Descriptors: Science Education, Scientific Concepts, Models, Science Instruction
Julia Eckhard; Marc Rodemer; Sascha Bernholt; Nicole Graulich – Journal of Chemical Education, 2022
Supporting students in building well-grounded explanations plays a crucial role in scientific practice. Research in organic chemistry education on students' mechanistic explanations, however, has revealed various challenges. When solving mechanistic tasks, students experience difficulties when (I) deriving implicit properties from structural…
Descriptors: College Students, College Science, Technology Uses in Education, Video Technology
Weinrich, M. L.; Sevian, H. – Chemistry Education Research and Practice, 2017
Students often struggle with solving mechanism problems in organic chemistry courses. They frequently focus on surface features, have difficulty attributing meaning to symbols, and do not recognize tasks that are different from the exact tasks practiced. To be more successful, students need to be able to extract salient features, map similarities…
Descriptors: Science Instruction, Organic Chemistry, Problem Solving, Scientific Concepts
Kalinowski, Steven T.; Willoughby, Shannon – Journal of Research in Science Teaching, 2019
We present a multiple-choice test, the Montana State University Formal Reasoning Test (FORT), to assess college students' scientific reasoning ability. The test defines scientific reasoning to be equivalent to formal operational reasoning. It contains 20 questions divided evenly among five types of problems: control of variables, hypothesis…
Descriptors: Science Tests, Test Construction, Science Instruction, Introductory Courses
Sevian, H.; Bernholt, S.; Szteinberg, G. A.; Auguste, S.; Pérez, L. C. – Chemistry Education Research and Practice, 2015
A perspective is presented on how the representation mapping framework by Hahn and Chater (1998) may be used to characterize reasoning during problem solving in chemistry. To provide examples for testing the framework, an exploratory study was conducted with students and professors from three different courses in the middle of the undergraduate…
Descriptors: Chemistry, Science Instruction, Problem Solving, Undergraduate Study
Jeppsson, Fredrik; Haglund, Jesper; Amin, Tamer G.; Stromdahl, Helge – Journal of the Learning Sciences, 2013
A growing body of research has examined the experiential grounding of scientific thought and the role of experiential intuitive knowledge in science learning. Meanwhile, research in cognitive linguistics has identified many "conceptual metaphors" (CMs), metaphorical mappings between abstract concepts and experiential source domains,…
Descriptors: Abstract Reasoning, Chemistry, Figurative Language, Cognitive Processes
Using Students' Representations Constructed during Problem Solving to Infer Conceptual Understanding
Domin, Daniel; Bodner, George – Journal of Chemical Education, 2012
The differences in the types of representations constructed during successful and unsuccessful problem-solving episodes were investigated within the context of graduate students working on problems that involve concepts from 2D-NMR. Success at problem solving was established by having the participants solve five problems relating to material just…
Descriptors: Accuracy, Problem Solving, Graduate Students, Spectroscopy
Podolefsky, Noah S.; Finkelstein, Noah D. – Physical Review Special Topics - Physics Education Research, 2007
Previously, we proposed a model of student reasoning which combines the roles of representation, analogy, and layering of meaning--analogical scaffolding [Podolefsky and Finkelstein, Phys. Rev. ST Phys. Educ. Res. 3, 010109 (2007)]. The present empirical studies build on this model to examine its utility and demonstrate the vital intertwining of…
Descriptors: Physics, Logical Thinking, Science Instruction, Concept Formation
Coletta, Vincent P.; Phillips, Jeffrey A.; Steinert, Jeffrey J. – Physical Review Special Topics - Physics Education Research, 2007
Preinstruction SAT scores and normalized gains (G) on the force concept inventory (FCI) were examined for individual students in interactive engagement (IE) courses in introductory mechanics at one high school (N=335) and one university (N=292), and strong, positive correlations were found for both populations (r=0.57 and r=0.46, respectively).…
Descriptors: Mechanics (Physics), Abstract Reasoning, Standardized Tests, Scores
Gentner, Dedre – 1980
Analogical models can be powerful aids to reasoning, as when light is explained in terms of water waves; or they can be misleading, as when chemical processes are thought of in terms of life processes such as putrefaction. This paper proposes a structural characterization of good science analogy using a theoretical approach in which complex…
Descriptors: Abstract Reasoning, Analogy, College Science, Higher Education

Arons, A. B. – American Journal of Physics, 1982
Specific illustrations are given of questions and problems designed to lead students in introductory physics courses into visualizing and reasoning qualitatively about physical phenomena. Examples include phenomena related to mechanics, electrostatic/magnetic interactions, resistive direct-current circuits, and Thompson's experiments marking the…
Descriptors: Abstract Reasoning, Atomic Theory, College Science, Electricity

Lawson, Anton E. – Journal of Research in Science Teaching, 1983
Two selection and nine evaluation hypothesis testing tasks varying systematically with respect to causality, response alternatives, and context continuity were administered to two samples of adults (N=35; N=32). It was to determine effects of these variables and the degree to which subjects reasoned with material conditional, biconditional,…
Descriptors: Abstract Reasoning, Biology, Cognitive Processes, College Science

Arons, Arnold B. – Journal of College Science Teaching, 1984
Argues that much of current science curricula and instructional strategies do not accommodate the thinking and reasoning capabilities of students. Level of capacity for abstract logical reasoning, whether the capacity can be cultivated/enhanced, consequences of mismatched intellectual levels and instructional modes, and what thinking/reasoning…
Descriptors: Abstract Reasoning, Cognitive Processes, College Science, Developmental Stages

Thornton, Melvin C.; Fuller, Robert G. – Journal of Research in Science Teaching, 1981
Reports results of a study investigating the ability of college students to solve problems using proportional reasoning. Also discusses implications for consideration of Piagetian cognitive level of students in planning college courses. (CS)
Descriptors: Abstract Reasoning, Cognitive Development, Cognitive Tests, College Science
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