The use of the computer language Logo offers an excellent opportunity to use technology to help develop problem-solving skills and other mathematical concepts. Examples of explorations are presented. (MNS)

Suggestions for how teachers can use the programs in the Micro Primer Software Packs are given. While the reader needs to be familiar with the programs to make full use of the comments, some ideas concerning the interaction between child, computer, and teacher can be garnered. (MNS)

The purpose of the study was to survey self-regulation while responding to the addition facts. First graders' performance on microcomputer practice exercises was observed and recorded. Subjects could choose an analytic mode of operation using a symbolic or a finger strategy; or, they could choose a geometric mode of operation using a pictorial or…

An activity is described in which students write programs for each other using the Logo programing language. A program developed by two fifth graders is discussed. (MNS)

Seymour Papert, creator of LOGO, explains how he came to create this important problem-solving language and how he intended it to be used to foster learning among children. What children can do with turtle geometry (indicated to be a natural approach to mathematics) is one topic considered. (Author/JN)

Use of a microcomputer spreadsheet program to help students understand long division is described. An example of a problem with powers of 10 used with seventh graders is presented, with note of another lesson on decimals for grade 6. (MNS)

This manual is used with MATHBOXES, a computer program written for Apple II microcomputers to help children relate formal mathematical symbols for representing simple word problems to the informal strategies using physical objects that they naturally use to solve them. There is a substantial body of research that documents that young children are…

This document reports on the initial phase of a project investigating how to relate formal mathematical representational and problem solving skills to informal strategies that children naturally invent to solve simple addition and subtraction problems. A program was developed that allows pupils to solve word problems on a microcomputer. A pilot…

This annotated bibliography contains 12 references on computers in elementary school mathematics. Topics include developing mathematical concepts with microcomputer activities, teaching mathematics with computers in primary grades, microcomputers and problem solving, review for grade 1 software, early learning of logic and geometry using…

Reports that microcomputer use will help six year-old children solve some types of problems better but will not improve their general learning and thinking abilities. Logo programing resulted in higher creativity scores and in children's ability to monitor their own thinking, but revolutionary changes in cognitive development were not found. (DH)

The purpose of the project was to develop computer games that could be used by students in grades 1-4 as part of their mathematics instruction. Eight games were developed, covering a wide variety of mathematical topics, including number/numeration, computation, geometry, measurement, statistics, and probability. The games were field tested in 20…

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)

Suggestions for using four-function calculators, programmable calculators, and microcomputers are considered in this collection of 36 articles. The first section contains articles considering general implications for mathematics curricula implied by the freedom calculators offer students from routine computation, enabling them to focus on results…

Cites need for properly integrating computers into curriculum, warning about past mistakes and looking at methods to promote curricular change. Identifies as important goals a clear definition of mathematics education and the benefits of a technologically integrated curriculum presenting ideas/strategies for achieving these goals. (JM)

Describes a study which compared the performance of learning handicapped and nonhandicapped boys in grades four, five, and six working in like pairs, mixed pairs, and individually at the computer on a mathematics problem-solving task. It was found that the boys worked as effectively in pairs as they did individually. (LRW)