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Coelho, Ricardo Lopes – Science & Education, 2014
In the theory of heat of the first half of the nineteenth century, heat was a substance. Mayer and Joule contradicted this thesis but developed different concepts of heat. Heat was a force for Mayer and a motion for Joule. Both Mayer and Joule determined the mechanical equivalent of heat. This result was, however, justified in accordance with…
Descriptors: Science Education, Heat, Scientific Concepts, Energy
Barto, D.; Cziraky, J.; Geerts, S.; Hack, J.; Langford, S.; Nesbitt, R.; Park, S.; Willie, N.; Xu, J.; Grogan, P. – Journal of Natural Resources and Life Sciences Education, 2009
Consumers are constantly being presented with choices that have economic, environmental, and lifestyle/social dimensions. For example, is an energy-efficient hybrid car (with regenerative braking) a better choice than a regular petroleum-only vehicle when considered from all three dimensions? Surprisingly, although each and all of these dimensions…
Descriptors: Undergraduate Students, Fuels, Fuel Consumption, Heat
Walker, Jearl – Scientific American, 1978
First, the procedure to be followed when grinding glass by hand to produce a smoother surface and avoid scratches is described. Second, an experiment conducted to compare the efficiency of a traditional fireplace against the slotlike arrangement design of Cranberg is explained. (GA)
Descriptors: Energy Conservation, Heat, Industry, Optics

Bamberger, C. E.; And Others – Journal of Chemical Education, 1978
Discusses the possible advantages of decomposing water by means of thermochemical cycles. Explains that, if energy consumption can be minimized, this method is capable of producing hydrogen more efficiently than electrolysis. (GA)
Descriptors: Chemical Reactions, Chemistry, Energy, Energy Conservation

Physics Today, 1975
Explains efficiency in terms of thermodynamics, and states specific ways in which energy efficiency can be increased in the following areas: automobiles, industrial processes, and indoor use in the home. (MLH)
Descriptors: Efficiency, Energy, Energy Conservation, Fuel Consumption
Young, Robert D. – 1982
This module applies basic laws of thermodynamics to the study of the efficiency at which heat can be converted to other useful forms of energy, including heat at low temperatures. The module is divided into four major sections. Section I treats energy conversion efficiency and defines the concept of first-law efficiency, the most widely used…
Descriptors: College Science, Energy, Energy Conservation, Engines
American Inst. of Architects, Washington, DC. – 1978
In presenting the basics of solar heating and hot water systems, this publication is organized from the general to the specific. It begins by presenting functional and operational descriptions of solar heating and domestic hot water systems, outlining the basic concepts and terminology. This is followed by a description of solar energy utilization…
Descriptors: Building Design, Climate Control, Energy Conservation, Environment

Technical Education Research Center, Cambridge, MA. – 1972
This module is intended to provide an understanding of the principles related to heat transfer. The objectives are designed to enable the learner to select and install a device for measuring the temperature of a power transistor, determine power ratings, measure the transient response for a power level and its final equilibrium temperature. Other…
Descriptors: Electronics, Energy Conservation, Heat, Kinetics

Stinner, Arthur O. – Physics Teacher, 1978
Discusses the feasibility of solar housing for northern latitudes. (SL)
Descriptors: Energy, Energy Conservation, Heat, Heating

Johnson, Harvey – School Science Review, 1978
Describes how a thermosyphoning solar water heater capable of heating 110 kilogram of water to 80 degree Celsius and maintaining this temperature for 24 hours was constructed by four students in the fifth form of Sekolah Date Abdul Razak, Seremban, Malaysia in 1976. (HM)
Descriptors: Energy Conservation, Heat, Instruction, Interests

Chemical and Engineering News, 1978
Reviews developments in the field of thermal analysis instrumentation. (SL)
Descriptors: College Science, Energy Conservation, Engineering Education, Equipment Evaluation
Mason, Jack L.; Cantrell, Joseph S. – 1979
This collection of teaching activities was developed to provide teachers with guidance in presenting solar energy education to students of middle school age. The unit provides activities presenting learning opportunities involving: (1) passive solar collectors, (2) active solar collectors, (3) concentrating collectors, and (4) photovoltaic cell…
Descriptors: Class Activities, Electricity, Energy, Energy Conservation

Ogborn, Jon – School Science Review, 1986
Advocates the accuracy of the common belief that the possession of energy drives, gives potential for, or accounts for change. Argues that the term "free energy" or entropy represents the possibility of change. Recommends that educators reexamine their use of these terms to prevent common misconceptions about energy. (TW)
Descriptors: Cognitive Structures, Concept Formation, Diffusion (Physics), Energy

Ross, Keith A. – School Science Review, 1988
Shows that the second law of thermodynamics is in the common experience of many people and if taught first, before the law of conservation, can result in fewer misconceptions among pupils. Stresses the use of common experiences in teaching. (CW)
Descriptors: Biological Sciences, Elementary School Science, Elementary Secondary Education, Energy Conservation

Hunt, Robert G. – Physics Teacher, 1991
Presents a framework for teachers to use the thermodynamic system of popping corn to generate student interest. Examines the popping mechanism and the role of steam in, the heat required during, and the energy efficiency of the popping process. (MDH)
Descriptors: Classroom Techniques, Energy Conservation, Enrichment Activities, Heat
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