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Showing 1 to 15 of 21 results
Peer reviewedSchraw, Gregory; Brooks, David W.; Crippen, Kent J. – Journal of Chemical Education, 2005
The interactive compensatory model of learning (ICML) aims to provide a framework for understanding and improving teacher skills in creating learning environments. A research-supported way of understanding learning and to use this to generate some practical suggestions for teaching are outlined.
Descriptors: Chemistry, Science Instruction, Science Teachers, Teaching Skills
Peer reviewedBrooks, David W.; Schraw, Gregory; Crippen, Kent J. – Journal of Chemical Education, 2005
The feedback connected to some action made by a learner is discussed and the interactive compensatory model of learning (ICML) is described. It is suggested that instruction usually could be described in one of three approaches, namely direct, socially mediated, and autonomous learning.
Descriptors: Feedback, Models, Teaching Methods, Independent Study
Peer reviewedZielinski, Theresa Julia; Brooks, David W.; Crippen, Kent J.; March, Joe L. – Journal of Chemical Education, 2001
Discusses using time effectively in chemistry instruction, planning instruction to compete for students' time, and whether the time needed for expertise will increase or decrease over the next few years. (Contains 13 references.) (ASK)
Descriptors: Chemistry, Classroom Techniques, Elementary Secondary Education, Futures (of Society)
Peer reviewedLiu, Daonian; Walter, L. James; Brooks, David W. – Journal of Chemical Education, 1998
Access to professional development opportunities for in-service high school chemistry teachers remains a problem. In an effort to increase teacher access, a new cross-listed course called Chemistry 869/Curriculum and Instruction 869 was created at the University of Nebraska and offered via the Internet. Describes this course in microscale…
Descriptors: Chemistry, Course Descriptions, Distance Education, High Schools
Peer reviewedBrooks, David W. – Journal of Chemical Education, 1978
Discusses innovations in the presentation of general chemistry catagorized via media, computers, and applied psychology. (SL)
Descriptors: Chemistry, College Science, Computers, Educational Innovation
Peer reviewedBrooks, David W. – Journal of Chemical Education, 1978
Predicts changes likely to occur in the status of general chemistry at the graduate department level during the next five to ten years. (SL)
Descriptors: Chemistry, College Science, Curriculum, Educational Trends
Peer reviewedBrooks, David W. – Journal of Chemical Education, 1977
Discusses the management and coordination of a large general chemistry program. (SL)
Descriptors: Chemistry, Classroom Techniques, College Science, Cooperative Programs
Peer reviewedBrooks, David W. – Journal of Chemical Education, 1977
Presents the first of a series of papers discussing the major features and underlying philosophies of general college chemistry. This first paper reviews secondary level course content as well as college level general chemistry curricula. (SL)
Descriptors: Chemistry, College Science, Curriculum, Higher Education
Peer reviewedBrooks, David W.; And Others – Journal of Chemical Education, 1976
Videotapes were taken of segments of freshman chemistry recitations taught by graduate students and analyzed using interaction analysis. A person skilled in teaching methods used the tapes to help the graduate students improve their teaching techniques. (MLH)
Descriptors: Chemistry, College Science, Graduate Students, Higher Education
Peer reviewedBrooks, David W.; And Others – Journal of Chemical Education, 1975
States that college chemistry teachers can best assess a curriculum by observing how much reinforcement it provides to the students. Also urges that curricula should offer opportunities to instruct the concrete operational student in formal operational thought. (MLH)
Descriptors: Chemistry, College Science, Curriculum, Curriculum Evaluation
Peer reviewedBrooks, David W.; Levenson, Hanna – Journal of Chemical Education, 1974
Discusses some problems encountered in using questionnaires to evaluate teaching performance of both instructors and programs, involving ethical policy, identified and anonymous responses, study-teacher interactions, explanation of questionnaire results, test formats, and the state of the art used. (CC)
Descriptors: Chemistry, Conferences, Evaluation Methods, Program Evaluation
Peer reviewedHerron, J. Dudley; Brooks, David W. – Journal of Chemical Education, 1984
Suggests that academic departments reshape the intellectual climate for chemistry education as one way to ensure the future of chemistry. Current practices in chemistry and possible benefits which may result if the system is modified are examined. These benefits include better public support and understanding of chemistry. (JN)
Descriptors: Chemistry, College Science, Educational Objectives, Futures (of Society)
Peer reviewedBrooks, David W.; And Others – Journal of Chemical Education, 1980
Describes the Program for the Advancement of the College Teaching of Science (PACTS), which provides a sabbatical leave opportunity for college professors to study pedagogy. (CS)
Descriptors: Chemistry, College Science, Faculty Development, Higher Education
Peer reviewedBrooks, David W.; And Others – Journal of Chemical Education, 1985
The simulation of titration and qualitative analysis experiments by means of computer-driven laser videodisc recordings is described. (JN)
Descriptors: Chemical Analysis, Chemistry, College Science, Computer Simulation
Peer reviewedBrooks, David W. – Journal of Chemical Education, 1984
Alternatives to traditional, large-class lecturing are discussed. They include using canned lectures, demonstrations and lecture experiments, computer simulations, problem-solving strategies, breaks during lectures, and movies. Moving out of large classrooms to laboratories and resource rooms (or giving an examination) is also suggested. (JN)
Descriptors: Chemistry, College Science, Computer Simulation, Demonstrations (Educational)
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