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Gall, Meredith D., Ed. – Classroom Interaction Newsletter, 1971
Includes brief descriptions of laboratory products completed or under development. (RT)
Descriptors: Human Relations, Inquiry, Instructional Materials, Interaction Process Analysis
Peer reviewedBrown, Stephen I. – Journal of Research and Development in Education, 1982
The field of teacher education is in need of a problematic approach which would emphasize a more humanistic and less technological stance. Illustrations are given as to how such an approach could be applied in two different realms of teacher education: (1) mathematics education; and (2) field experiences for student teachers. (PP)
Descriptors: Competency Based Teacher Education, Divergent Thinking, Higher Education, Humanistic Education
Peer reviewedSterling, Donna R.; Davidson, Anne B. – Science Teacher, 1997
Explores the issue of how to make chemistry more personally meaningful to students who have no interest in continuing the study of science. Describes two projects that each have an interview, research, and presentation format. (DDR)
Descriptors: Chemistry, Educational Strategies, Hands on Science, Inquiry
Peer reviewedEdgington, William D. – Social Education, 2001
Focuses on how student problem solving skills can be improved by teaching them a problem solving model. Includes a technique for developing student inquiry thinking using the game, Twenty Questions, or by examining conflicting statements. Includes the article, "Using Problem Solving Skills in a Fifth-Grade Classroom" (Alan Rock and Nicole…
Descriptors: Educational Strategies, Elementary Secondary Education, Grade 5, Inquiry
Peer reviewedHamm, Mary; Adams, Dennis – Kappa Delta Pi Record, 2002
Working cooperatively in groups can help students connect learning with experience and build relationships at the same time. In collaborative inquiry, student questions can connect the big ideas that cut across disciplines. This paper describes how collaboration promotes social skills and a sense of partnership; discusses the appropriate learning…
Descriptors: Attitude Change, Computer Uses in Education, Cooperative Learning, Educational Technology
Peer reviewedPark, Do-Yong; O'Brien, George; Eraso, Mario; McClintock, Edwin – Science Activities, 2002
Describes an inquiry-based scooter activity in which students learn the mathematical concepts of measurement and proportionality and the science concepts of force, motion, velocity, and acceleration while using their problem solving skills. Explains strengths and weaknesses of the activity and includes suggestions for assessment. (YDS)
Descriptors: Experiential Learning, High Schools, Inquiry, Interdisciplinary Approach
Peer reviewedWentworth, Donald, R.; Western, Richard D. – Social Education, 1990
Advocates an inquiry perspective in high school economics rather than concentrating on economic theory. Describes the assumptions for such an approach and discusses ways to apply them to problematic cases. Benefits of this approach would stimulate interest in economics and increase students' ability to analyze problematic situations. (GG)
Descriptors: Citizenship Education, Critical Thinking, Decision Making, Economics
Peer reviewedSchlenker, Richard M.; Schlenker, Karl R. – Science Activities, 1997
Details an activity in which students are challenged to consider real-world problems. Students collect and organize data on two fish species, examine the data mathematically, draw conclusions about the organisms with which they work, and extrapolate the results to other environments. (DDR)
Descriptors: Biology, Constructivism (Learning), Fishes, Hands on Science
Peer reviewedRoyce, Christine Anne – Science Teacher, 2001
Introduces a Storm Trackers unit that uses actual hurricane data to track hurricane movements. Uses an inquiry-based teaching approach in a cooperative learning environment. (YDS)
Descriptors: Active Learning, Activity Units, Cooperative Learning, Geography
Peer reviewedFreedman, Michael P. – Science and Children, 2000
Focuses on issues related to safety, education, and entertainment in classroom demonstrations. Explains to preservice teachers how to conduct a demonstration to motivate students. Lists several elements that should be included for a successful demonstration which include purpose, planning, repeatability, simplicity, safety, visibility, and…
Descriptors: Critical Thinking, Demonstrations (Educational), Elementary Education, Inquiry
Peer reviewedPalincsar, Annemarie Sullivan; Herrenkohl, Leslie Rupert – Theory into Practice, 2002
Summarizes lessons learned across two programs of research which featured peer collaboration to promote advanced literacies, including text comprehension and scientific reasoning, identifying lessons learned from reciprocal teaching research and ways that this research influenced the design of cognitive tools and intellectual roles, which were…
Descriptors: Classroom Environment, Cooperative Learning, Educational Research, Elementary Secondary Education
Peer reviewedCollier, Christine Foxen – Primary Voices K-6, 2002
Describes an exchange teacher program intended to develop more active learning communities with students and existing faculty. Observes that dialogue between teachers in the lounge and after school began to change. Notes that students engaged in more active learning and began to view themselves in a different light, taking ownership of their…
Descriptors: Active Learning, Critical Thinking, Curriculum Development, Educational Change
de Jesus, Helena Pedrosa; de Souza, Francisle Neri; Teixeira-Dias, Jose J. C.; Watts, Mike – Research in Science & Technological Education, 2005
Designing inquiry-based-learning with and for university students develops problem-solving skills and logical reasoning, as well as reflective thinking. It involves working as a member of a team, questioning, being creative, shaping the skills for continued intellectual development. It is argued that inquiry-based group work is one of the most…
Descriptors: Participant Observation, Intellectual Development, Chemistry, Student Attitudes
Engel, Bill; Schmidt, Diane L. – Mathematics Teaching in the Middle School, 2004
Many common objects can provide numerous opportunities for students to develop mathematical concepts and skills. The lesson described in this article provided an excellent opportunity for middle school students to discover how real-life situations do not always present obvious "right" answers. As students explored a question related to the…
Descriptors: Secondary School Mathematics, Middle School Students, Mathematical Concepts, Mathematics Skills
Lujan, Heidi L.; DiCarlo, Stephen E. – Advances in Physiology Education, 2006
The curriculum is packed with so much content that teachers resort to telling students what they know and students simply commit facts to memory. The packed curriculum leaves little time for students to acquire a deep understanding of the subject or to develop life-long skills such as critical thinking, problem solving, and communication. However,…
Descriptors: Teaching Methods, Curriculum, Active Learning, Educational Strategies

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