Seven styles of software which may significantly improve mathematics and science learning are discussed. These include microworlds, educational games, microcomputer-based instrumentation, databases, tools, languages, and simulations. Opportunities and need for new software are also discussed, suggesting such items as a scientific text processing…

Following a discussion of how computers are used to solve chemical problems, offers suggestions for avoiding common problems, reviews successful applications and languages (BASIC and FORTRAN), speculates on future trends, and discusses why chemists need to know about computers. (SK)

Suggests approaches to teaching computer programing and applications to physics instruction. Indicates that the necessity of breaking a problem down into a programable entity ensures that the student will learn programing, logical sequential thinking, as well as physics content. (JN)

Suggests that students can learn the physics of a musical note by learning how to synthesize sounds on a computer. Discusses ADSR (attack, decay, sustain, and release of a note) and includes a program (with listing) which students can use to examine ADSR on a Commodore 64 microcomputer. (JN)

Discusses: how artificial intelligence (AI) can advance education; if the future of software lies in AI; the roots of intelligent computer-assisted instruction; protocol analysis; reactive environments; LOGO programming language; student modeling and coaching; and knowledge-based instructional programs. Numerous examples of AI programs are cited.…

First-hand accounts of what teachers have done with students and computers in their classrooms, how students have responded, and what and how teachers have learned from these experiences are discussed in the 19 articles in this book. The articles are presented under these headings: (1) teaching writing with word processors; (2) learning to inquire…

Describes physics experiments (including speed, acceleration, and acceleration due to gravity) in which students write programs to obtain and manipulate experimental data using the Atari microcomputer game port. The approach emphasizes the essential physics of the experiments while affording students useful experience of automatic data collection.…

Discusses the nature of expert systems, including various techniques they use to represent knowledge (such as production rules, semantic networks, frames, first-order logic, and others), system interactions, and such problem domains as science, medicine, computer configuration, trouble-shooting/repair, and oil/mineral exploration. Also discusses…

Uses of Zenith Z-100 microcomputers by chemistry students at Clarkson College are discussed. These include: (1) programing; (2) word processing; (3) numerical methods, statistical/plotting programs; (4) laboratory data acquisition and manipulation; (5) simulations; (6) computer assisted instruction; and (7) computer managed instruction. (JN)

Describes a flexible, multichannel, highly accurate, digital data acquisition system for use with a microcomputer. Includes a description of instrumentation for computer data acquisition, data acquisition systems, software, uses in the curriculum, library interaction and action, and use in a mechanical engineering laboratory. (DS)

Selections from volume 4 (numbers 1-4) of the Task Force on Computers in Chemical Education (TFCCE) Newsletter are presented. Number 1 includes an introduction to and objectives of the newsletter and TFCCE, a report on computer-related activities in the chemistry department at Eastern Michigan University, a list of TFCCE members, a discussion of a…

Because of the rapid introduction of computers into the Israeli education system, teachers resent the new technology or are unrealistically enthusiastic. Therefore, a split curriculum which enables teachers to follow a more logical path of adoption was developed. A brief description of the syllabus used (including course goals) is described. (JN)

Four uses of microcomputers in elementary science education are discussed. These include: (1) drill and practice; (2) simulation; (3) problem solving; and (4) programing. Indicates that mathematics instruction may be enhanced in the same ways. (JN)

Details the features of BASIC used in mathematics programming and provides the information needed to translate between the Apple II and IBM PC computers. Discusses inputing a user-defined function, setting scroll windows, displaying subscripts and exponents, variable names, mathematical characters and special symbols. (TW)