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Robert D. Milligan; Donald J. Wink – Journal of Chemical Education, 2024
A key part of the practice of chemistry is the analysis of chemical composition, including through gravimetric analysis and spectrophotometry. However, the complexity of doing multiple calculations to obtain analytical evidence, such as that required to determine an empirical formula, presents a challenge if such analytical methods are to be…
Descriptors: Student Attitudes, Scientific Attitudes, Science Process Skills, Spectroscopy
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Cavlazoglu, Baki; Stuessy, Carol – Journal of Educational Research, 2017
The authors find justification for integrating science, technology, engineering, and mathematics (STEM) in the complex problems that today's students will face as tomorrow's STEM professionals. Teachers with individual subject-area specialties in the STEM content areas have limited experience in integrating STEM. In this study, the authors…
Descriptors: Science Teachers, Scientific Attitudes, Knowledge Level, Scientific Concepts
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Murcia, Karen – Teaching Science, 2013
Nanotechnology is guided by the assumption that with the ability to shape or re-shape at the molecular level, we could manipulate the physical world. Some speculate that this ability will be the beginning of the next technological revolution. Hence, an aim of secondary science education should be the development of scientifically literate citizens…
Descriptors: Secondary School Students, Student Attitudes, Science Curriculum, Curriculum Development
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Okere, Mark I. O.; Keraro, Fred N.; Anditi, Zephania – European Journal of Educational Research, 2012
Emerging evidence indicates that culture influences pupils learning of science. However, the influence of culture on science learning is usually not considered when developing science curricular for both primary and secondary schools. This study investigated the extent to which primary and secondary school pupils believe in cultural…
Descriptors: Foreign Countries, Elementary School Students, Student Attitudes, Heat
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Freundlich, Yehudah – Teachers College Record, 1980
To develop scientific thinking in students, the history of science should be integrated in school curricula. This would present conflicting theories, within and outside of science, that would help to develop the students' abilities to compare and criticize. (CJ)
Descriptors: Critical Thinking, Curriculum Development, Elementary Secondary Education, Logical Thinking
Wolfe, Deborah Partridge – Sci Children, 1970
Presents summary of AAAS Commission on Science Education, Teacher Education Committee report, Preservice Science Education of Elementary School Teachers." Recommendations for preservice science course objectives, content and facilities are based on deliberation at seven national conferences. Emphasis is placed on trends in elementary school…
Descriptors: College Science, Conference Reports, Curriculum Development, Elementary School Teachers
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Rutledge, James A. – Educational Leadership, 1973
Considers the development of science curricula from World War II and how the emphasis has changed to conceptualization of science knowledge in order to encourage intellectual activity. As well, this change has led to an improved climate for curriculum innovation. (Author/RK)
Descriptors: Curriculum Development, Educational Practices, Institutes (Training Programs), Science Course Improvement Projects
Pool, Ithiel de Sola; Angell, George W., Jr. – 1969
At the Massachusetts Institute of Technology, a 4-year project was undertaken to restructure the sophomore elective course in social science for natural science and engineering students. The restructured course emphasized an objective, rigorous, and exact approach to social phenomena. Readings were designed to carry the student step by step from…
Descriptors: College Students, Course Content, Course Evaluation, Course Objectives
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McCormack, Alan J.; Yager, Robert E. – Science Teacher, 1989
Argues that there are five domains of science education: knowing and understanding, exploring and discovering, imagining and creating, feeling and valuing, using and applying, and not just the two domains of content and process which many people view as being science. (RT)
Descriptors: Creative Thinking, Curriculum Development, Futures (of Society), Relevance (Education)
Osborne, Roger; And Others – 1979
The first (exploratory) phase of the Learning in Science Project focused on science teaching/learning in the Form 1 to 4 level (ages 10 to 14) and sought to identify problems and difficulties in several areas. Provided in this paper are comments obtained during structured/unstructured interviews (from students, ex-students, teachers, headmasters,…
Descriptors: Academic Achievement, Curriculum Development, Elementary School Science, Elementary Secondary Education
VanTassel-Baska, Joyce; And Others – 1992
This concept paper outlines the rationale for a project on the development of science curriculum for K-8 high ability learners. The rationale was developed through a synthesis of major recommendations from national science reform reports and from a review of the literature on effective science curriculum for high ability learners. The paper begins…
Descriptors: Academically Gifted, Curriculum Development, Curriculum Evaluation, Demonstration Programs
Michigan State Board of Education, Lansing. – 1986
Guidance for the development, assessment and/or improvement of science education programs in Michigan is provided in this handbook for teachers, administrators, and parents. It provides a philosophical foundation and curricular framework from which educators could construct comprehensive local science education programs. The nature of science is…
Descriptors: Biological Sciences, Curriculum Development, Earth Science, Educational Philosophy