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| Reports - Descriptive | 8 |
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Peer reviewedClack, Jhules A. M.; Toepker, Terrence P. – Physics Teacher, 1990
Describes an experiment demonstrating Lenz's law by measuring a magnet falling through a copper tube compared to a nonmagnet falling. Presents diagrams and pictures showing the apparatus. (YP)
Descriptors: Computer Interfaces, Laboratory Equipment, Laboratory Experiments, Laboratory Procedures
Peer reviewedMoore, Guy S. M. – Physics Education, 1990
Discusses when alternating and magnetic fields are independent. Provides examples of experiments involving mains hum and the detection of induced signals. Describes electric circuits and oscilloscope displays. (Author/YP)
Descriptors: College Science, Electric Circuits, Electricity, Higher Education
Peer reviewedHoon, S. B.; Tanner, B. K. – Physics Education, 1985
Continues a discussion of magnetic fluids by providing background information on and procedures for conducting several demonstrations. Indicates that, with a little patience and ingenuity, only modest magnetic fields and about 20 ml of low-viscosity, commercial magnetite-water-based magnetic fluid are required. (JN)
Descriptors: College Science, Demonstrations (Educational), Fluid Mechanics, Higher Education
Peer reviewedBarrow, Lloyd H. – Science and Children, 1990
Described is the use of ordinary ceramic magnets to replace the more expensive bar magnets commonly used. Suggestions for 11 task cards to help introduce children to the uses and principles of magnetism are provided. (CW)
Descriptors: Elementary Education, Elementary School Science, Laboratory Procedures, Magnets
Peer reviewedConnolly, Walter, Ed. – Physics Teacher, 1990
Provides the apparatus setup, experimental method, necessary formulas, and references for three measurement experiments: (1) "Determine the Magnetic Induction of a Coil with a Hall Element"; (2) "Measuring Magnetic Force and Magnetic Field of Small Permanent Magnets"; and (3) "Measurements of Sound Velocity by Means of PZT" (piezoelectric…
Descriptors: Laboratory Equipment, Laboratory Experiments, Laboratory Procedures, Magnets
Peer reviewedWake, Masayoshi – Physics Teacher, 1990
A room-temperature demonstration of a floating magnet using a high-temperature superconductor is described. The setup and operation of the apparatus are described. The technical details of the effect are discussed. (CW)
Descriptors: College Science, Demonstrations (Educational), Higher Education, Laboratory Experiments
Peer reviewedSood, B. R.; And Others – American Journal of Physics, 1980
Describes an undergraduate physics experiment for studying Curie temperature and Curie constant of a ferromagnetic material. The exchange field (Weiss field) has been estimated by using these parameters. (HM)
Descriptors: College Science, Higher Education, Laboratory Procedures, Magnets
Peer reviewedSmith, D. G. – American Journal of Physics, 1980
A magnetic multipole apparatus suitable for the physics teaching laboratory is described. The apparatus enables the student to measure the magnetic field configuration of a single large coil, and of systems of one or more small coils. (Author/DS)
Descriptors: College Science, Electrical Systems, Electricity, Higher Education
Peer reviewedMurata, Hiroshi; Sakuraoka, Mitsuru – American Journal of Physics, 1980
Described is a laboratory experiment in measurement of electrostatic potentials to help students gain an idea of potentials, which will provide a basis for deeper understanding of electricity and magnetism. The theoretical potential in this report is derived by taking into account the boundary of the actual experimental setup. (Author/DS)
Descriptors: College Science, Electricity, Higher Education, Laboratory Experiments
Peer reviewedMilson, James L. – Science and Children, 1990
Three activities involving electromagnetism are presented. Discussed are investigations involving the construction of an electromagnet, the effect of the number of turns of wire in the magnet, and the effect of the number of batteries in the circuit. Extension activities are suggested. (CW)
Descriptors: Electricity, Elementary Education, Elementary School Science, Instructional Materials
Peer reviewedChamberlain, William G., III – Science Activities, 1978
This laboratory exercise for junior or senior high school students forms a basis for expansion of concepts, offers opportunities for analytical thinking, and presents possibilities for independent thinking. (BB)
Descriptors: Earth Science, Electricity, Force, Force Field Analysis
Peer reviewedJacob, Anthony T.; And Others – Journal of Chemical Education, 1988
Shows that the mutual repulsion that enables a superconductor to levitate a magnet and a magnet to levitate a superconductor can be combined into a single demonstration. Uses an overhead projector, two pellets of "1-2-3" superconductor, Nd-Fe-B magnets, liquid nitrogen, and paraffin. Offers superconductor preparation, hazards, and disposal…
Descriptors: Chemistry, College Science, Electricity, Instructional Materials
Peer reviewedSpurgin, Bernard – School Science Review, 1990
The significant stages in the development of understanding of the concept of electric charge are discussed. The history is outlined with references to certain important experiments, and suggestions are made for relevant school demonstrations and experiments. (KR)
Descriptors: Atomic Structure, Demonstrations (Educational), Electricity, Laboratories
Peer reviewedWorthy, Ward – Chemical and Engineering News, 1987
Describes the "Project 1-2-3" levitation kit used to demonstrate superconductivity. Summarizes the materials included in the kit. Discusses the effect demonstrated and gives details on how to obtain kits. Gives an overview of the documentation that is included. (CW)
Descriptors: Chemistry, Engineering, Instructional Materials, Laboratory Procedures
Goodwin, Peter – 1990
This resource manual focuses on physics labs that relate to the world around us and utilize simple equipment and situations. Forty-five laboratories are included that relate to thermodynamics, electricity, magnetism, dynamics, optics, wave transmission, centripetal force, and atomic physics. Each lab has three sections. The first section…
Descriptors: Atomic Theory, Data Analysis, Data Collection, Electricity
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