Computer use in psychology instruction: A survey of individual and institutional characteristics

This paper reports the results of a national survey of psychology faculty regarding their instructional use of computers. The survey was designed to answer three general questions: (1) In what ways and to what extent are psychologists using computers in their instruction? (2) What individual characteristics differentiate among levels of users? (3) What institutional characteristics appear to promote or inhibit the instructional use of computers? The results reveal that, although there appears to be extensive use of computers to support instruction, there are both institutional and individual characteristics that differentiate among levels and types of use. Several factors are identified that could lead to increased instructional use of computers, but their impact will largely be determined by the characteristics of the individual and the institution.     

Computers in psychology teaching in the U.K.

This paper describes the first year of operation of the CTI Centre for Psychology, which pro-motes the use of computers in psychology teaching in the U.K. We outline current use of computers in teaching and some of the obstacles to the effective development of computer-supported courses. In particular, we focus on the need for closer integration of innovative forms of teaching into courses. We describe the Centre’s strategy for supporting both conventional and innovative computer-supported teaching, and argue that effective use of software depends on both the instructional situation and the educational context.     

Survey on present and potential instructional use of computers in psychology

A survey of academic psychologists was taken to determine present use of computers in instruction, willingness to use good education software, and kinds of potential uses of computers in psychology courses. A majority of the respondents reported using computers in instruction. Respondents indicated substantial willingness to adopt computer-based courseware. Respondents believed that a variety of uses, including classroom demonstrations and student experiments, would facilitate student learning. The results of the survey are compared with the instructional modules the task force is developing.     

The computer as a tool in instructional computing: Students as software architects

The computer-rich environment that exists when every student has a computer provides a variety of new opportunities for instructional use of computers, including new opportunities for the use of microcomputer application programs. After arguing that computer programming has a limited role in instructional computing, this paper describes the assumptions, development, and structure of a psychology course in which students make use of the microcomputer and its application programs as a tool in software design. However, programming is not required. Rather, the personal computer and its application programs provide an environment in which the student has the freedom to develop software design and explore course content without being constrained by the mind-numbing minutiae involved in programming a rigid, inflexible tutee.     

Computer-based systems for applying psychological knowledge

Computer-based systems have long been seen as a means for applying psychological knowledge to instructing. However, from many years of research and development on instructional design and on using computers for instructing, we learned that the current instructional techniques are based on an inadequate scientific knowledge base and are poorly implemented. In order to do better, improved techniques based on modern cognitive science must be developed, and computer-based aids are needed to assist their application. Furthermore, a standardization and distribution system is needed to identify effective instructional programs and make them available. This seems especially important if we hope to have broad impact on education and training.     

Integrating a computer component into the student psychology laboratory: Problems and prospects

This paper presents some commonly occurring problems associated with integrating a computer component into student psychology laboratories. Implementation of a computer component requires consideration of differences among students, objectives and teaching style of the instructor, course level and content, and courseware to be used. These factors are examined with respect to how they can affect the success of an attempt to use computers in the instructional laboratory.     

Teaching psychology as a laboratory science in the age of the Internet

For over 30 years, psychologists have relied on computers to teach experimental psychology. With the advent of experiment generators, students can create well-designed experiments and can test sophisticated hypotheses from the start of their undergraduate training. Characteristics of new Net-based experiment generators are discussed and compared with traditional stand-alone generators. A call is made to formally evaluate the instructional effectiveness of the wide range of experiment generators now available. Specifically, software should be evaluated in terms of known learning outcomes, using appropriate control groups. The many inherent differences between any two software programs should be made clear. The teacher’s instructional method should be fully described and held constant between comparisons. Finally, the often complex interaction between the teacher’s instructional method and the pedagogical details of the software must be considered.     

CAN-4, an advanced author language for CAI,computer-based testing and psychological experimentation: PDP-9 implementation

The effective use of computers for tutorial (programmed instruction) teaching and on-line testing requires that curriculum authors have powerful special-purpose languages. One such language, CAN-4, has been designed and implemented to run on the PDP-9. The language includes advanced scoring, data recording, computation, timing, and file control facilities. The language and its implementation are described in relation to the instructional problems which the facilities are designed to meet.     

Instructional Uses of Microcomputers With Elementary Aged Mildly Handicapped Children

The goal of this article is to evaluate what we know about the instructional use of computers with young children and to suggest some priorities for their use with mildly handicapped children. While it is clear that computers can be programmed to provide effective instructions in a variety of skills, with mildly handicapped children they appear particularly suited to the delivery of highly motivational, speed oriented practice on basic academic skills in reading and math. Examples of currently available software are presented and evaluated in light of this priority, and needs for the future in terms of teacher training, service delivery systems, and hardware and software developments are disucssed.     

Painless computer-controlled experimentation

More Es might employ computers to control psychological experiments if computer languages suitable for experimental control were easier to learn. In fact, course author languages intended for writing instructional sequences offer many facilities desirable for experimental control. A particular language, CAN-4, is examined for its suitability, and its use in a concept learning experiment is illustrated.     

STEP—A System for Teaching Experimental Psychology using E-Prime

Students in psychology need to learn to design and analyze their own experiments. However, software that allows students to build experiments on their own has been limited in a variety of ways. The shipping of the first full release of the E-Prime system later this year will open up a new opportunity for addressing this problem. Because E-Prime promises to become the standard for building experiments in psychology, it is now possible to construct a Web-based resource that uses E-Prime as the delivery engine for a wide variety of instructional materials. This new system, funded by the National Science Foundation, is called STEP (System for the Teaching of Experimental Psychology). The goal of the STEP Project is to provide instructional materials that will facilitate the use of E-Prime in various learning contexts. We are now compiling a large set of classic experiments implemented in E-Prime and available over the Internet from http://step.psy.cmu.edu. The Web site also distributes instructional materials for building courses in experimental psychology based on E-Prime.     

Computers in psychology: A survey of instructional applications

This paper describes the results of a survey of psychology department chairpersons and faculty concerning the use of instructional computing in undergraduate instruction. The survey summarizes characteristics of departments and faculty, past and future change in instructional computing, current instructional computing activities, and perceived needs for future development in this rapidly changing area.     

Comments on applications of microcomputers in teaching

As instructional applications of microcomputers mature, both recurrent and new themes emerge. These include (1) getting started in instructional microcomputing, (2) the identification and evaluation of software, (3) the diminishing appeal of computer-based demonstrations, (4) the increasing importance of student control in student-computer interactions, (5) the emergence of tool-based courseware, (6) the importance of thoughtful integration of computers into the course, and (7) the critical need to evaluate both course and courseware. Careful attention to these issues can improve the quality of students’ understanding of psychology and the science of behavior.     

Logic and human reasoning: an assessment of the deduction paradigm

The study of deductive reasoning has been a major paradigm in psychology for approximately the past 40 years. Research has shown that people make many logical errors on such tasks and are strongly influenced by problem content and context. It is argued that this paradigm was developed in a context of logicist thinking that is now outmoded. Few reasoning researchers still believe that logic is an appropriate normative system for most human reasoning, let alone a model for describing the process of human reasoning, and many use the paradigm principally to study pragmatic and probabilistic processes. It is suggested that the methods used for studying reasoning be reviewed, especially the instructional context, which necessarily defines pragmatic influences as biases.     

The computer psychiatrist: How far have we come? Where are we heading? How far dare we go?

The use of computers in psychiatry and psychology is reviewed. It is noted that computers are already being used successfully for consultation, interviewing, and continuing education. Issues related to the usage of computers in mental health are discussed. Guidelines for future work in the area are suggested.     

Internet and the support of psychology education

The Computers in Teaching Initiative (CTI) Centre for Psychology has been promoting the use of computers in psychology education for the last 5 years. The advent of the Internet and ubiquitous access to the World-Wide Web has the potential to revolutionize the way the teaching and learning of psychology can be supported. This paper describes how we are using the Web to support psychology education through information dissemination, through the provision of teaching resources, and through facilities for communication.     

Point and Click or Grab and Heft: Comparing the Influence of Physical and Virtual Instructional Materials on Elementary School Students' Ability to Design Experiments

The widespread availability of computers in elementary schools makes them an appealing option for presenting instructional materials in laboratory science. However, there are neither theoretical nor empirical grounds for predicting whether virtual or physical presentation of instructional materials will be more effective. The definition of "active manipulation" is poorly specified and there are few studies that directly compare the two approaches unaccompanied by other potential confounds. In this study, 4th- and 5th-grade children were taught how to design simple unconfounded experiments using 1 of 2 instructional methods differing only in whether children manipulated physical or virtual materials. The 2 types of materials were equally effective in achieving several instructional objectives, including the design of unconfounded experiments, the derivation of correct predictions from them, and explicit reference to the need for experiments to be unconfounded.     

The use of on-line computers in psychobiology

This paper examines several areas in the use of laboratory computers in psychobiology, specifically how they are being used, the problems in languages and software, in interfacing computers to experimental configurations, and in the hardware involved. The paper defines the experimental tasks and data requirements which tend to distinguish computer usage in physiological research from other areas of psychology and the tasks which absolutely necessitate the use of a computer and in what mode. Finally we present our views of the dangers of computer use and misuse and make our own subjective evaluation of how well computers are living up to their end of the bargain, how well scientists are doing at their end, and where we should go from here.     

Computers come to school,but psychology hasn't noticed

Children are beginning to learn about computers at school, but more fundamental changes in their education will occur as computers are used across the whole curriculum. Although some psychologists are playing pioneering roles, the discipline of psychology seems largely unaware of the deep changes just starting in education. Yet psychology has the methodology and subject matter knowledge to make a central contribution. In addition, computers in regular educational use have great promise as research facilities, possibly allowing at last good control to be combined with realism in educational research, and giving new hope for a theory of human learning. Psychologists must be more active in the development of educational computing, and in the public policy debate that will determine the future of our children's education.     

Microcomputers in undergraduate laboratory training in psychology

Goals for undergraduate training in psychology are reviewed, and a survey is reported to suggest ways in which computers are being used to meet these goals. Currently computers primarily aid data collection and analysis. Computer-based literature searching and word processing are becoming more common. The true challenge of laboratory training, however, is inquiry training: helping students generate and frame research questions and interpret their results. Are we using the time we have gained through computer data collection and analysis to meet these goals? Are there ways in which the computer can directly help us meet these goals? The new generation of flexible experiment-generator software may provide direct help of this sort, as may effective simulations of theory.