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50 Years of ERIC
50 Years of ERIC
The Education Resources Information Center (ERIC) is celebrating its 50th Birthday! First opened on May 15th, 1964 ERIC continues the long tradition of ongoing innovation and enhancement.

Learn more about the history of ERIC here. PDF icon

Showing all 11 results
Peer reviewed Peer reviewed
Summers, M. K. – Physics Education, 1976
Discusses the analog simulation of several quantum mechanical problems, including the Schrodinger equation and the de Broglie relation. (MLH)
Descriptors: Analog Computers, College Science, Computer Assisted Instruction, Higher Education
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Summers, M. K. – Physics Education, 1979
Discusses the potential impact of microcomputers on physics computer-assisted learning in the United Kingdom. Explains some available systems, their requirements, advantages, problems, and the cost involved. (GA)
Descriptors: Computer Assisted Instruction, Computers, Electronic Equipment, Independent Study
Peer reviewed Peer reviewed
Summers, M. K. – Physics Education, 1978
Describes a simple computing system which can solve the quantum mechanical problem of a particle trapped in a rectangular potential well. (SL)
Descriptors: Computers, Instruction, Physics, Problem Solving
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Summers, M. K. – Physics Education, 1978
Defines all recurrence relations used in the Nuffield course, to solve first- and second-order differential equations, and describes a typical algorithm for computer generation of solutions. (Author/GA)
Descriptors: Algorithms, Atomic Theory, College Science, Computer Oriented Programs
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Summers, M. K. – Physics Education, 1978
Describes how to implement numerical integration on a pocket calculator to solve two kinds of differential equations important in physics. The two equations are those defining simple harmonic and quantum harmonic motion. The half-increment method is used for this purpose. (GA)
Descriptors: Calculators, College Science, Computation, Computers
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Summers, M. K. – Physics Education, 1977
Described is a novel approach to the teaching of projectile motion of sixth form level. Students are asked to use an analogue circuit to observe projectile motion and to graph the experimental results. Using knowledge of basic dynamics, students are asked to explain the shape of the curves theoretically. (Author/MA)
Descriptors: Electronics, Instruction, Instructional Materials, Learning Activities
Peer reviewed Peer reviewed
Summers, M. K. – Physics Education, 1977
Describes how first- and second-order differential equations applied to the Schrodinger equation can be used to obtain the wavefunctions of the quantum harmonic oscillator. (SL)
Descriptors: College Science, Compulsory Education, Higher Education, Instruction
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Summers, M. K. – Physics Education, 1975
Descriptors: Atomic Structure, College Science, Computer Assisted Instruction, Energy
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Summers, M. K. – Physics Education, 1985
Outlines three projects which have been designed for teaching electronics to ages 11-13, 13-16, and 16-18. Aims, content, approach, and equipment are discussed with guidelines for teacher use. Indicates that work with microprocessors (alongside Nuffield style analogue work) should help digital electronics receive greater emphasis in secondary…
Descriptors: Curriculum Development, Electronics, Elementary School Science, Intermediate Grades
Peer reviewed Peer reviewed
Summers, M. K. – Physics Education, 1982
Describes the design of a simple yet flexible microprocessor and how to construct it using a breadboard. (DC)
Descriptors: College Science, Computer Science Education, Electric Circuits, Electronics
Peer reviewed Peer reviewed
Summers, M. K. – Physics Education, 1982
Provides instructions for programming a system described in a previous article in this journal. Lists three programs: (1) a check that the system is functioning correctly; (2) a monitor program; and (3) a program which adds hex numbers from 00 to 0F and stores the result in memory location 20. (SK)
Descriptors: College Science, Computer Programs, Computer Science, Electric Circuits