Cognition in Scientific and Everyday Domains: Comparison and Learning Implications.

@article{Reif1991CognitionIS,
  title={Cognition in Scientific and Everyday Domains: Comparison and Learning Implications.},
  author={F. Reif and J. Larkin},
  journal={Journal of Research in Science Teaching},
  year={1991},
  volume={28},
  pages={733-760}
}
  • F. Reif, J. Larkin
  • Published 1991
  • Psychology
  • Journal of Research in Science Teaching
An analysis and comparison of everyday life and the domain of science reveals significant differences in their goals and in the cognitive means used to attain these goals. Students' lack of awareness of these differences can lead to pervasive learning difficulties in their study of science. Thus many students (a) have erroneous conceptions of scientific goals, (b) import goals and ways of thinking which are effective in everyday life but inadequate in science, and (c) devise ways of thinking… Expand
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References

SHOWING 1-10 OF 41 REFERENCES
Interpretation of scientific or mathematical concepts: Cognitive issues and instructional implications **
TLDR
The discussion elucidates some cognitive and metacognitive reasons why the learning of scientific or mathematical concepts is difficult and suggests instructional guidelines for teaching such concepts more effectively. Expand
Instructional design, cognition, and technology: Applications to the teaching of scientific concepts
The effective educational use of information technologies depends crucially on good instructional design based on an adequate understanding of cognitive processes. To teach flexible intellectualExpand
Beyond the purely cognitive: Belief systems, social cognitions, and metacognitions as driving forces in intellectual performance
This study explores the way that belief systems, interactions with social or experimental environments, and skills at the “control” level in decision-making shape people's behavior as they solveExpand
Mental Models : Towards a Cognitive Science of Language
Mental Models offers nothing less than a unified theory of the major properties of mind: comprehension, inference, and consciousness. In spirited and graceful prose, Johnson-Laird argues that weExpand
Development of explanation: Incremental and fundamental change in children's physics knowledge
In contrast to predictions or actions, explanations require articulating a model that accounts for the physical phenomenon. Therefore, examination of children's explanations provides a more powerfulExpand
How do students' views of science influence knowledge integration?
This study characterized students' views of science as falling into three groups: static, mixed, and dynamic. Those who view science as static assert that science consists of a group of facts thatExpand
Facilitation of Scientific Concept Learning by Interpretation Procedures and Diagnosis
Students' difficulties in learning and applying scientific concepts are often caused by knowledge that is fragmented and incorrectly interpreted. To remedy such difficulties, we propose an explicitExpand
Spontaneous Reasoning in Elementary Dynamics.
Summaries English The scope of this study was to explore and analyse spontaneous reasoning of students in elementary dynamics, from the last year at secondary school to the third year at University.Expand
Understanding and Teaching Problem‐Solving in Physics
Summaries English We describe a systematic study of skills for solving problems in basic physics, a domain of practical significance for instruction, but not of prohibitive complexity. Our studiesExpand
Investigation of student understanding of the concept of velocity in one dimension
This paper describes a systematic investigation of the understanding of the concept of velocity among students enrolled in a wide variety of introductory physics courses at the University ofExpand
...
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3
4
5
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