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Showing 1 to 15 of 27 results Save | Export
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William P. McCarthy; David Kirsh; Judith E. Fan – Cognitive Science, 2023
The ability to reason about how things were made is a pervasive aspect of how humans make sense of physical objects. Such reasoning is useful for a range of everyday tasks, from assembling a piece of furniture to making a sandwich and knitting a sweater. What enables people to reason in this way even about novel objects, and how do people draw…
Descriptors: Abstract Reasoning, Scientific Concepts, Manipulative Materials, Task Analysis
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Ebba Koerfer; Bor Gregorcic – Physical Review Physics Education Research, 2024
Statistical mechanics has received limited attention in physics education research and remains a relatively underrepresented topic even in research on upper-division physics courses. The purpose of this study was to explore potential challenges that physics students encounter when they solve statistical mechanics problems in groups. Adopting a…
Descriptors: Physics, Science Instruction, Mechanics (Physics), Barriers
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Tan, Aik-Ling; Ong, Yann Shiou; Ng, Yong Sim; Tan, Jared Hong Jie – Science & Education, 2023
Balancing disciplinary knowledge and practical reasoning in problem solving is needed for meaningful learning. In STEM problem solving, science subject matter with associated practices often appears distant to learners due to its abstract nature. Consequently, learners experience difficulties making meaningful connections between science and their…
Descriptors: STEM Education, Problem Solving, Middle School Students, Grade 8
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Watts, Field M.; Zaimi, Ina; Kranz, David; Graulich, Nicole; Shultz, Ginger V. – Chemistry Education Research and Practice, 2021
Reasoning about organic chemistry reaction mechanisms requires engagement with multiple concepts and necessitates balancing the relative influence of different chemical properties. A goal of organic chemistry instruction is to support students with engaging in this type of reasoning. In this study, we describe our use of case comparison problems…
Descriptors: Organic Chemistry, Science Process Skills, Abstract Reasoning, Case Method (Teaching Technique)
Jessica M. Karch – ProQuest LLC, 2021
Productive problem solving, concept construction, and sense making occur through the core process of abstraction. Although the capacity for domain-general abstraction is developed at a young age, the role of abstraction in increasingly complex and disciplinary environments, such as those encountered in undergraduate STEM education, is not well…
Descriptors: Undergraduate Students, Science Instruction, Chemistry, Problem Solving
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May, Jason M.; Barth-Cohen, Lauren A.; Gerton, Jordan M.; De Grandi, Claudia; Adams, Adrian L. – Physical Review Physics Education Research, 2022
There is growing interest in implementing reform-based lab courses in undergraduate physics that are student driven rather than instructor driven. In these courses, students develop and carry out experiments while simultaneously reasoning about their hypotheses, data collection procedures, collected evidence, and the relevant physics content.…
Descriptors: Introductory Courses, Physics, Science Instruction, Teaching Methods
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Gifford, Julian D.; Finkelstein, Noah D. – Physical Review Physics Education Research, 2021
This paper extends prior work establishing an operationalized framework of mathematical sense making (MSM) in physics. The framework differentiates between the object being understood (either physical or mathematical) and various tools (physical or mathematical) used to mediate the sense-making process. This results in four modes of MSM that can…
Descriptors: Curriculum Design, Multiple Choice Tests, Correlation, Problem Solving
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Manneh, Ilana L.; Hamza, Karim M.; Rundgren, Carl-Johan; Eriksson, Lars – Asia-Pacific Forum on Science Learning and Teaching, 2018
Anthropomorphisms are widespread at all levels of the educational system even among science experts. This has led to a shift in how anthropomorphisms are viewed in science education, from a discussion of whether they should be allowed or avoided towards an interest in their role in supporting students' understanding of science. In this study we…
Descriptors: Undergraduate Students, Scientific Attitudes, Misconceptions, Knowledge Level
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Sung, Euisuk – Technology and Engineering Teacher, 2019
Computational thinking has been popularized in the last decade, particularly with the emphasis on coding education in K-12 schools. The core idea of computational thinking has a close relationship with technology and engineering education (TEE). TEE has emphasized the use of computing skills to solve problems, and integrative STEM education…
Descriptors: Skill Development, Computation, STEM Education, Engineering
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Talanquer, Vicente – International Journal of Science Education, 2018
One of the central goals of modern science and chemistry education is to develop students' abilities to understand complex phenomena, and productively engage in explanation, justification, and argumentation. To accomplish this goal, we should better characterise the types of reasoning that we expect students to master in the different scientific…
Descriptors: Science Education, Chemistry, Science Process Skills, Abstract Reasoning
Shenk, Lynne M. – ProQuest LLC, 2018
The periodic table is recognized as one of the most powerful tools in science. While it is included in virtually all high school and undergraduate general chemistry curricula, it remains a mystery to many chemistry students who find it impossible to decode. Students are often able to predict periodic trends concerning atomic radius, ionization…
Descriptors: Science Process Skills, Abstract Reasoning, Chemistry, Problem Solving
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Jessica E. Bartley; Michael C. Riedel; Taylor Salo; Emily R. Boeving; Katherine L. Bottenhorn; Elsa I. Bravo; Rosalie Odean; Alina Nazareth; Robert W. Laird; Matthew T. Sutherland; Shannon M. Pruden; Eric Brewe; Angela R. Laird – npj Science of Learning, 2019
Understanding how students learn is crucial for helping them succeed. We examined brain function in 107 undergraduate students during a task known to be challenging for many students--physics problem solving--to characterize the underlying neural mechanisms and determine how these support comprehension and proficiency. Further, we applied module…
Descriptors: Brain, Cognitive Processes, Science Process Skills, Abstract Reasoning
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Stapleton, Andrew J. – Cultural Studies of Science Education, 2018
In response to the authors, I demonstrate how threshold concepts offer a means to both contextualise teaching and learning of quantum physics and help transform students into the culture of physics, and as a way to identify particularly troublesome concepts within quantum physics. By drawing parallels from my own doctoral research in another area…
Descriptors: Quantum Mechanics, Physics, Science Education, Imagery
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Caspari, I.; Weinrich, M. L.; Sevian, H.; Graulich, N. – Chemistry Education Research and Practice, 2018
If an organic chemistry student explains that she represents a mechanistic step because ''it's a productive part of the mechanism,'' what meaning could the professor teaching the class attribute to this statement, what is actually communicated, and what does it mean for the student? The professor might think that the explanation is based on…
Descriptors: Organic Chemistry, Abstract Reasoning, Science Process Skills, Scientific Attitudes
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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
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