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Tytler, Russell – Cultural Studies of Science Education, 2018
This article discusses a case for a different, socio-cultural way of looking at learning progressions as treated in the next generation science standards (NGSS) as described by Ralph Cordova and Phyllis Balcerzak's paper "Co-constructing cultural landscapes for disciplinary learning in and out of school: the next generation science standards…
Descriptors: Learning Processes, Academic Standards, Science Education, Science Curriculum
Peer reviewedWallace, John; Wildy, Helen – Science Educator, 1995
Argues that the regulated approach to schooling needs to be replaced by one that is more highly responsive and adaptable to changing circumstances and requirements. States that traditional structures and organizational arrangements inhibit the growth of scientific knowledge skills. Contains 20 references. (DDR)
Descriptors: Constructivism (Learning), Cooperation, Educational Change, Educational Philosophy
Goulart, Maria Ines Mafra; Soares, Eduardo Sarquis – Cultural Studies of Science Education, 2009
Elementary science teaching has been considered by recent researchers as a process in which students should be engaged in a variety of activities to develop science concepts, science process skills and scientific attitudes. From this perspective, hands-on activities are prominent in this approach because it leads the students to both reflect on…
Descriptors: Elementary School Science, Scientific Attitudes, High Stakes Tests, Learning Processes
Chrisman, Kent – Science and Children, 2005
Young children are born scientists, exploring everything in their world around them. Yet, many teachers still find it hard to integrate science into the daily schedule. However, open-ended science or discovery centers are a perfect way for teachers to help students develop science processes and build literacy skills while they integrate science…
Descriptors: Science Education, Problem Solving, Learning Centers (Classroom), Discovery Learning
Peer reviewedHodson, Derek – International Journal of Science Education, 1998
Reviews the traditional definition of practical work in science, offers a different definition of it, and points out that practical work is not always laboratory based. Discusses the logistics of coordinating fieldwork. Contains 17 references. (DDR)
Descriptors: Educational Experience, Foreign Countries, Hands on Science, Higher Education
Hatton, Mary – 2000
In order for students to experience science as scientists do, they must learn the skills of inquiry. This paper examines inquiry as a way of learning science and presents strategies to promote inquiry in teaching science. A model of progression of inquiry skills from grades K-2 to 3-5 is presented and the skills are aligned with the Massachusetts…
Descriptors: Elementary Education, Inquiry, Learning Processes, Science Instruction
Leyden, Michael B. – Teaching PreK-8, 1995
Describes how one activity can lead students to investigate and understand science concepts. Example provided involves ripping of a newspaper and the resultant discussions on saws, fabric, meat, and newsprint. Suggests that this activity can be a bridge to study in language arts, career education, graphic arts, mathematics, science, and…
Descriptors: Active Learning, Classroom Techniques, Elementary Education, Science Activities
Toth, G. F. – 1994
In teaching a well-organized college physics course that is understandable to students, teachers should first understand students' conditions and circumstances and be clear on the goals of the course. The goals of physics teaching are commonly defined as understanding the nature of scientific reasoning and the concepts and methods of physics,…
Descriptors: Abstract Reasoning, Course Descriptions, Course Objectives, Curriculum Development
Peer reviewedGilbert, John K.; Reiner, Miriam – International Journal of Science Education, 2000
If science education is to be related as closely as possible to science, then Thought Experiments (TEs) must play an appropriate part. Presents a typology of TEs with examples drawn from the history of physics and addresses their various uses in bringing about students' conceptual development. Finds appropriate use of TEs is lacking in physics…
Descriptors: Cognitive Processes, High Schools, Higher Education, Learning Strategies
Ediger, Marlow – 1999
Science teachers need to stress several kinds of objectives in teaching and learning. One kind, cognitive, receives major emphasis by teachers. In addition to vital facts and concepts, pupils should also acquire major generalizations. And, in addition to facts, concepts, and generalizations, pupils also need to be able to think critically.…
Descriptors: Affective Behavior, Affective Objectives, Democratic Values, Educational Practices

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