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Acero, Jesus; Carretero, Claudio – IEEE Transactions on Education, 2021
Contribution: This article proposes a comprehensive graduate course on magnetic design that addresses existing gaps in current power electronics (PEs) education, provides theoretical foundations and hands-on skills, and matches syllabi coverage with current societal needs for electronic energy conversion. Background: A growing worldwide interest…
Descriptors: Graduate Study, College Science, Magnets, Power Technology
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Holz, Christoph; Pusch, Alexander – Physics Education, 2020
Powerbanks differ in the amount of energy they can store. Usually this capacity (in a colloquial sense) of the powerbanks is stated in the form of charge in mAh for effective advertising. From a physical point of view, shouldn't the energy that a powerbank can provide be of interest? For students, charging smartphones with power banks is…
Descriptors: Power Technology, Energy, Physics, Computer Uses in Education
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Cheng, Ka Wai Eric; Chan, Chung Lun – Education Sciences, 2019
A remote-controlled experiment for power electronics was developed for a virtual laboratory. Power converter experiments were set up, allowing students to conduct a remote-controlled experiment with special hardware and electric power. Students can activate parameter controls, connect wires, and tune electric load conditions with preset electronic…
Descriptors: Electronics, Engineering Education, Virtual Classrooms, Undergraduate Students
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Lu, Yang; Santino, Luciano M.; Acharya, Shinjita; Anandarajah, Hari; D'Arcy, Julio M. – Journal of Chemical Education, 2017
The design and fabrication of functional scientific instrumentation allows students to forge a link between commonly reported numbers and physical material properties. Here, a two-point and four-point probe station for measuring electrical properties of solid materials is fabricated via 3D printing utilizing an inexpensive benchtop…
Descriptors: Energy, Electronics, Energy Education, Power Technology
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Karns, Robert J. – Tech Directions, 2012
Starting a renewable energy technology (RET) program can be as simple as shifting the teaching and learning focus of a traditional electricity program toward energy production and energy control systems. Redirecting curriculum content and delivery to address photovoltaic solar (PV solar) technology and small wind generation systems is a natural…
Descriptors: Energy, Power Technology, Electronics, Energy Education
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Rusk, Bryan; Mahfouz, Tarek; Jones, James – Tech Directions, 2011
Energy exists in many forms and can be converted from one form to another. However, this conversion is not 100% efficient, and energy is lost in the form of heat during conversion. In addition, approximately 6% of the monthly consumption of the average American household's electricity is neither lost nor used by its residents. These losses are…
Descriptors: Energy Conservation, Energy, Heat, Power Technology
Yildiz, Faruk – Journal of Technology Studies, 2009
Ambient energy harvesting is also known as energy scavenging or power harvesting, and it is the process where energy is obtained from the environment. A variety of techniques are available for energy scavenging, including solar and wind powers, ocean waves, piezoelectricity, thermoelectricity, and physical motions. For example, some systems…
Descriptors: Energy, Investigations, Environment, Power Technology
Manitoba Dept. of Education, Winnipeg. – 1983
This guide for industrial arts grades 7-9 provides teachers with a curriculum for the subject cluster of power/energy. An "Overview" section presents the rationale, discusses how the content of the program is related to the developmental stages of the adolescent, describes the structure of the industrial arts program, and lists program goals and…
Descriptors: Behavioral Objectives, Curriculum Guides, Electricity, Electronics
Missouri Univ., Columbia. Instructional Materials Lab. – 1990
This guide provides materials for the first high school specialization course beyond the broad-based foundation provided by the Introduction to Industrial Technology and Exploration of Technology courses. Section I is the Instructor's Guide, which contains suggestions about how the energy and power technology cluster might be taught as a course…
Descriptors: Behavioral Objectives, Competency Based Education, Electricity, Electronics
Old Dominion Univ., Norfolk, VA. Dept. of Industrial Arts Education. – 1979
Six competency catalogs of tasks for industrial arts programs are presented. These include catalogs in Architectural Drawing, Basic Technical Drawing, Electricity and Electronics, Energy and Power, Engineering Drawing, and Graphic Communications. The purpose of each catalog is to establish a basis for program content selection and criterion levels…
Descriptors: Architectural Drafting, Competence, Competency Based Education, Electricity
Technical Education Research Center, Waco, TX. – 1979
This concept module on vibrations and waves is one of thirteen modules that provide a flexible, laboratory-based physics instructional package designed to meet the specialized needs of students in two-year, postsecondary technical schools. Each of the thirteen concept modules discusses a single physics concept and how it is applied to each energy…
Descriptors: Acoustics, Audio Equipment, Electric Circuits, Electronic Equipment
Technical Education Research Centre-Southwest, Waco, TX. – 1980
This course in electronic devices and systems is one of 16 courses in the Energy Technology Series developed for an Energy Conservation-and-Use Technology curriculum. Intended for use in two-year postsecondary technical institutions to prepare technicians for employment, the courses are also useful in industry for updating employees in…
Descriptors: Adult Education, Behavioral Objectives, Course Descriptions, Courses
Lawrence, Allen; And Others – 1981
This course guide for an electrical/electronic technology course is one of four developed for the energy/power area in the North Dakota senior high industrial arts education program. (Eight other guides are available for two other areas of Industrial Arts--graphic communications and production.) Part 1 provides such introductory information as a…
Descriptors: Behavioral Objectives, Careers, Course Descriptions, Course Objectives
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Henrico County Public Schools, Glen Allen, VA. Virginia Vocational Curriculum Center. – 1986
This guide presents a plan for the complete secondary school technology education curriculum approved by the Technology Education Service in Virginia. Intended users are vocational administrators, program designers, guidance counselors, teachers, and students. It presents a curriculum structure for technology education and a chart of technology…
Descriptors: Architectural Drafting, Behavioral Objectives, Career Exploration, Communications
Callahan, J. Thomas – 1978
Designed to help the high school industrial arts instructor in teaching power technology, this curriculum guide concentrates on seven subject areas: exploratory power technology, electricity, electronics, small gas engines, automotive repair, transportation, and alternate energy sources. The general course objectives are identified as enabling the…
Descriptors: Auto Mechanics, Bibliographies, Career Awareness, Class Size
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