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Kamphorst, Floor; Vollebregt, M. J.; Savelsbergh, E. R.; van Joolingen, W. R. – Science & Education, 2023
Einstein's derivation of special relativity theory (SRT), based on hypothetical reasoning and thought experiments, is regarded as a prime example of physics theory development. In secondary education, the introduction of SRT could provide a great opportunity for students to engage in physics theorizing, but this opportunity is largely being missed…
Descriptors: Physics, Scientific Concepts, Secondary School Science, Science Education
Blake, Mel; McKee, James; Statom, Richard; Qiu, Chiong; Menapace, Francis – Journal of Astronomy & Earth Sciences Education, 2018
Micrometeorites originate from small pieces of rock from space colliding with the Earth's atmosphere at high velocity, such as the Perseid meteors which hit the atmosphere at 60 km/s. When they do so, they burn up, causing a flash of light that we see as a meteor. Many groups have been successful collecting these particles using various devices.…
Descriptors: Citizen Participation, Scientific Research, Data Collection, Astronomy
Haugland, Ole Anton – Physics Teacher, 2014
The bicycle generator is often mentioned as an example of a method to produce electric energy. It is cheap and easily accessible, so it is a natural example to use in teaching. There are different types, but I prefer the old side-wall dynamo. The most common explanation of its working principle seems to be something like the illustration in Fig.…
Descriptors: Science Education, Teaching Methods, Power Technology, Energy Education
Cheng, Meng-Fei; Cheng, Yufang; Hung, Shuo-Hsien – Teaching Science, 2014
Based on our experience of teaching physics in middle and senior secondary school, we have found that students have difficulty in reasoning at the microscopic level. Their reasoning is limited to the observational level so they have problems in developing scientific models of magnetism. Here, we suggest several practical activities and the use of…
Descriptors: Thinking Skills, Magnets, Science Education, Computer Simulation
Naab, Laurie; Henry, David – Science and Children, 2009
Using Wiggins and McTighe's (1998) concept of Big Ideas, the authors planned and designed an electricity investigation to address common student misconceptions about static electricity. With Styrofoam plates and transparent tape, elementary students investigated many properties of electrically charged and uncharged objects in a 5E learning cycle…
Descriptors: Science Activities, Investigations, Misconceptions, Energy
Peer reviewedWard, Alan – Science Activities, 1972
Descriptors: Instruction, Magnets, Physical Sciences, Science Activities
Peer reviewedNeeland, Edward G. – Journal of Chemical Education, 2002
Explains how to use magnets to demonstrate the electron flow mechanism of a chemical reaction. (YDS)
Descriptors: Chemical Reactions, Chemistry, Demonstrations (Science), Magnets
Peer reviewedCorder, Greg; Reed, Darren – Science Scope, 2003
Presents a science activity on collecting micrometeorites from rainwater using magnets. Includes procedural information. (YDS)
Descriptors: Astronomy, Earth Science, Inquiry, Magnets
Peer reviewedAtkinson, R. – Physics Education, 1978
Explains magneto-optical effects and describes techniques which may be used, in conjunction with certain materials, to reveal domain structures. In addition, simple experiments are described which enable domains to be observed under various conditions of applied fields. (Author/GA)
Descriptors: College Science, Electricity, Higher Education, Magnets
Peer reviewedLue, Chin-Shan – Physics Teacher, 1994
Provides a method, using the Rowland ring as a specimen, to observe the phase transition process directly on the oscilloscope and even extract the critical exponent of ferromagnetic transition. Includes theory, experimental setup, and results. (MVL)
Descriptors: Higher Education, Magnets, Physics, Science Activities
Peer reviewedHickey, Ruth; Schibeci, Renato A. – Physics Education, 1999
Reports on group conceptions of magnetism. (Author/CCM)
Descriptors: Concept Formation, Electricity, Higher Education, Magnets
Peer reviewedNicklin, R. C., Ed. – American Journal of Physics, 1975
Descriptors: Astronomy, College Science, Electronics, Light
Peer reviewedLanguis, Marlin – Science and Children, 1975
Presents detailed teaching plans for activities with "rubberized" magnets as well as background information and alternative teaching-learning approaches. This activity may be used to develop student skills in inferring and in observing evidence of interaction. Includes instructions for equipment construction. (BR)
Descriptors: Elementary School Science, Inquiry, Instruction, Instructional Materials
Peer reviewedBerridge, H. J. J. – School Science Review, 1973
Discusses five experimental methods used by senior high school students to provide an accurate calibration curve of magnet current against the magnetic flux density produced by an electromagnet. Compares the relative merits of the five methods, both as measurements and from an educational viewpoint. (JR)
Descriptors: Laboratory Experiments, Magnets, Measurement, Physics
Peer reviewedMolnar, Michael R.; Martin, Arthur J. – Physics Teacher, 1999
Compares various detector technology for measuring the direction and magnitude of magnetic fields. (CCM)
Descriptors: Experiments, Force, Higher Education, Magnets

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