Relates the experiences of a naive computer-using teacher attempting to integrate the microcomputer into a course unit on human anatomy. Based on these experiences, advice is offered to others who are incorporating computers into their courses for the first time. (JN)

Describes 17 situations in physics which require students to write computer programs to solve. All the projects are general in nature and require students to have a thorough conceptual understanding of the content to apply the algorithm needed to solve the specific type of problem illustrated. (JN)

Emphasis on interfacing -- the various processes for passing information into or out of computers -- is suggested. Why the Texas Instruments microcomputer is plausible for this is noted, followed by specific interfacing suggestions, including programs for a timer and the assembly language subroutine. (MNS)

A Macintosh microcomputer and MacPaint program can be used to quickly make charts of structural formulas that fill standard-sized paper with a minimum of instruction, and smaller drawings or structures or fragments may be inserted into text composed with a word processing program. Shows how this is done. (JN)

Examines various types of software useful in teaching about nuclear energy. Includes a list of 11 software resources (including program name, source and cost, system requirements, and brief comments about the program). (JN)

A complete listing of a projectile motion program for the Apple II microcomputer is provided. A discussion of this computer simulation and a table with variables used in the program (as well as their meanings) can be found in SE 533 596. (JN)

Discusses why, when and how microcomputer simulations of biological topics should be used in the classroom. Includes a five-step procedure for creating such simulations using population growth as an example to describe each step. Steps include topic/background material selection, writing program, and making support materials for the simulation.…

Describes a computer program for Commodore PET (requiring 8K) which illustrates the statistical nature of entropy by providing a simple analogy. The analogy involves the distribution of objects free to move in a box divided into two compartments. A listing of program statements is also included. (JN)

Discusses four phases in the development of a simulation. These include a definition of the simulated universe (including parameters and boundary conditions), mathematical description of the mode, and programing and testing the simulation. Also discusses the development of a physics simulation, focusing on each of the four phases. (JN)

Reports on a process which allows active study of mutating the characteristics of a population of organisms. States that the program, written in C, should run on a MS/DOS system with 640K; CGA is required for graphics output. Describes implementation procedures and two examples using the program. (RT)

Presented are seven abstracts of papers presented at a microcomputer conference. Areas considered include: development of "Rocky's Boots," a logic simulation game; using computers for practice and problem solving; experiences using LOGO; a computer science curriculum; microcomputers in the science laboratory; computer literacy; and a…

Advantages and disadvantages of microcomputer use are noted. Computer managed and assisted instruction are discussed, followed by guidelines for software and microcomputer selection. Uses of CAI in the science curriculum are noted: simulation, modeling, gaming, drills, and tutorials. Finally, a project to disseminate instructional materials in…

Describes how to input and output through the game ports of the Atari microcomputer to control experiments and collect data in the science laboratory. Indicates that the simple techniques described are easily transferred to other microcomputers. (JN)

Provides an annotated list of 25 references on various aspects of computer uses in chemical education. Includes sources for programs, instructional strategies, research studies, laboratory use, and integrating computers into the chemistry curriculum. (JN)

Describes direct and indirect voltage input techniques and their applications to voltage measurements with a microcomputer. Details circuitry that can be used for this with a gameport. Gives examples of circuit modifications, application of voltage measurement, and alternatives to this method. (CW)