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Showing 1 to 15 of 113 results Save | Export
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Sinclair, Dina; Vondracek, Mark – Physics Teacher, 2015
Most high school and introductory college physics classes study simple harmonic motion and various wave phenomena. With the majority of states adopting the Next Generation Science Standards and pushing students to explore the scientific process for themselves, there is a growing demand for hands-on inquiry activities that involve and develop more…
Descriptors: Inquiry, Scientific Concepts, Physics, Hands on Science
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Singh, Vandana – Physics Teacher, 2010
Several misconceptions abound among college students taking their first general physics course, and to some extent pre-engineering physics students, regarding the physics and applications of electric circuits. Analogies used in textbooks, such as those that liken an electric circuit to a piped closed loop of water driven by a water pump, do not…
Descriptors: Physics, Energy, Misconceptions, Science Activities
CORRELL, MALCOLM; STRASSENBURG, ARNOLD A. – 1965
REPORTED ARE PROCEEDINGS OF THE BOULDER CONFERENCE ON PHYSICS FOR NONSCIENCE MAJORS, SPONSORED BY THE COMMISSION ON COLLEGE PHYSICS. PART I OF THIS REPORT IS AN INTRODUCTION EXPLAINING THE CONFERENCE. PART II CONTAINS EXPANDED COURSE OUTLINES OF PHYSICS COURSES FOR NONSCIENCE MAJORS THAT WERE PRESENTED TO THE GROUP BY SEVEN PARTICIPATING…
Descriptors: Bibliographies, Chemistry, College Science, Conference Reports
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Euler, Elias; Prytz, Christopher; Gregorcic, Bor – Physics Education, 2020
In this paper, we present three types of activity that we have observed during students' free exploration of a software called "Algodoo," which allows students to explore a range of physics phenomena within the same digital learning environment. We discuss how, by responding to any of the three activity types we identify in the students'…
Descriptors: Physics, Educational Environment, Educational Technology, College Students
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Clark, Clifton Bob – Physics Teacher, 1979
Describes a physics laboratory for college students, in which the students participate in a firsthand noninertial experience. The equipment and problems are described. (SA)
Descriptors: College Science, Higher Education, Laboratory Techniques, Motion
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Silverman, M. P. – American Journal of Physics, 1995
Describes an experiment in the teaching of introductory general physics at the college and university level that focuses on self-directed learning. Discusses the "Standard Model", premises of self-directed learning, classroom implementation, class work, laboratory work, out-of-class work, and assessment. Contains 34 references. (JRH)
Descriptors: Educational Strategies, Evaluation, Higher Education, Independent Study
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Wan, Tong; Geraets, Ashley A.; Doty, Constance M.; Saitta, Erin K. H.; Chini, Jacquelyn J. – International Journal of STEM Education, 2020
Graduate teaching assistants (GTAs) often lead laboratory and tutorial sections in science, technology, engineering, and mathematics (STEM), especially at large, research-intensive universities. GTAs' performance as instructors can impact student learning experience as well as learning outcomes. In this study, we observed 11 chemistry GTAs and 11…
Descriptors: Teaching Assistants, Graduate Students, Teaching Methods, College Science
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Koenig, Kathleen; Wood, Krista E.; Bortner, Larry J.; Bao, Lei – Journal of College Science Teaching, 2019
This article showcases how a physics lab course was successfully redesigned to promote important reasoning abilities not explicitly addressed in the typical college setting. Student development of such abilities is essential for sound decision making, particularly when living in an information age. Essential features of our guiding curricular…
Descriptors: Science Laboratories, Physics, Science Instruction, Logical Thinking
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Roberts, Ed; Gonzalez-Espada, Wilson J. – Tech Directions, 2006
The current paradigm in science education calls for greater emphasis on guiding students in active and extended scientific inquiry. This is supported by research suggesting that using a hands-on approach to learning fosters ownership in the learning process and allows students to gain greater appreciation for the design and implementation of…
Descriptors: Motor Vehicles, Science Projects, Physics, Science Education
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Frost-Schenk, J. W.; Diget, C. Aa.; Bentley, M. A.; Tuff, A. – Physics Education, 2018
An interactive activity to teach the hot Carbon, Nitrogen and Oxygen (HCNO) cycle is proposed. Justification for why the HCNO cycle is important is included via an example of x-ray bursts. The activity allows teaching and demonstration of half-life, nuclear isotopes, nuclear reactions, protons and a-particles, and catalytic processes. Whilst the…
Descriptors: Science Instruction, Teaching Methods, Interaction, Science Activities
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Overduin, James; Molloy, Dana; Selway, Jim – Physics Teacher, 2014
Electromagnetic induction is probably one of the most challenging subjects for students in the introductory physics sequence, especially in algebra-based courses. Yet it is at the heart of many of the devices we rely on today. To help students grasp and retain the concept, we have put together a simple and dramatic classroom demonstration that…
Descriptors: Introductory Courses, Physics, Algebra, Scientific Concepts
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Yuksel, Tugba; Tekbiyik, Ahmet; Avsar Erumit, Banu – Science Activities: Projects and Curriculum Ideas in STEM Classrooms, 2020
Using problems from real life contexts which is related to learners' environment or their culture plays an important role in their learning that concept. In this regard, science educators especially physics educators search for real-life domain of theoretical concepts for effective science teaching and they consider analogical and physical models…
Descriptors: Physics, Science Instruction, College Seniors, Preservice Teachers
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Patrick, Amanda L. – Journal of Chemical Education, 2020
Mass spectrometry is one of the few instrumental analysis techniques that can be relatively well-understood with physics/chemistry knowledge typical of an advanced high school or a beginning undergraduate student. This positions mass spectrometry well to be used as a bridge between abstract concepts typically set as learning goals in courses at…
Descriptors: Measurement, Measurement Equipment, Science Equipment, Science Instruction
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Baseden, Kyle A.; Tye, Jesse W. – Journal of Chemical Education, 2014
Density functional theory (DFT) is a type of electronic structure calculation that has rapidly gained popularity. In this article, we provide a step-by-step demonstration of a DFT calculation by hand on the helium atom using Slater's X-Alpha exchange functional on a single Gaussian-type orbital to represent the atomic wave function. This DFT…
Descriptors: Demonstrations (Educational), Computation, Science Activities, Scientific Concepts
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Briggs, Michael – Physics Teacher, 2019
The mystery tube is a fairly well known activity among science teachers for illustrating the nature of science. A variety of procedures have been presented for carrying out this activity, such as Scott Miller's method based on the BCSE 5E Instructional Model. Mystery tubes and other "black box" activities allow the students to engage in…
Descriptors: Physics, Science Instruction, Scientific Principles, Teaching Methods
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