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Judson, Eugene; Hayes, Kathryn N.; Glassmeyer, Kristi – Science Education, 2020
Although 20 states have adopted Next Generation Science Standards (NGSS), 24 other states have developed their own K-12 science standards based on the same National Research Council (NRC) Framework. Understanding what influences content standards developers, realizing the supports and impediments to implementation they foresee, and knowing their…
Descriptors: Science Instruction, Standards, Course Content, Elementary Secondary Education
Oates, Tim – School Science Review, 2014
This article explores the rationale for the 2011-2013 review of the National Curriculum in England, a rationale informed by the work of an Expert Panel chaired by the author. The focus is on the fundamental principles that determine the nature and content of the curriculum. The approach adopted by the review is contrasted with that adopted when…
Descriptors: Science Education, National Curriculum, Curriculum Development, Educational Change
Kopelevich, Dmitry I.; Ziegler, Kirk J.; Lindner, Angela S.; Bonzongo, Jean-Claude J. – Chemical Engineering Education, 2012
Because rapid growth of nanotechnology is expected to lead to intentional and non-intentional releases, future engineers will need to minimize negative environmental and health impacts of nanomaterials. We developed two upper-level undergraduate courses centered on life-cycle assessment of nanomaterials. The first part of the course sequence…
Descriptors: Curriculum Design, Engineering Education, Higher Education, Science Education
Carmel, Justin H.; Jessa, Yasmin; Yezierski, Ellen J. – Journal of Chemical Education, 2015
A liberal education curriculum requires discipline-specific courses that develop intellectual and practical skills. With this promise of development, it is crucial that instruction focuses on content knowledge as well as the thinking patterns associated with the content. In chemistry, scientific reasoning is one such skill that students should…
Descriptors: Nonmajors, Science Education, College Science, Chemistry
Sidey, D.; And Others – 1978
Fracture mechanics is a multidisciplinary topic which is being introduced to undergraduate engineering students in such courses as materials engineering. At a recent Conference on Fracture held at the University of Waterloo, a session was devoted to fracture education. Some of the ideas presented at that session are included and discussed here.…
Descriptors: Conference Reports, Course Content, Curriculum Design, Engineering

Kimmel, Howard S.; Lambert, Don G. – Journal of Chemical Education, 1973
Outlines a physical chemistry course which is designed for civil engineering juniors and seniors to solve environmental problems. (CC)
Descriptors: Chemistry, College Science, Course Content, Curriculum Design

Goodier, J. – Physics Education, 1972
The editorial raises questions for curriculum designers: Should standards of physics content be lowered to meet lower academic ability? How much emphasis should physics be given? How much specialization is suitable? When should specialization be introduced? (PS)
Descriptors: Course Content, Curriculum Design, Editorials, Educational Objectives
Richards, Dig – South Australian Science Teachers Journal, 1975
Describes a two-phase program in which phase one provides the basic concepts and skills for later science study and phase two provides a real choice of science units to suit the needs of students. (GS)
Descriptors: Course Content, Curriculum Design, Curriculum Development, Program Content

McKenzie, Scott – Australian Science Teachers Journal, 1976
Described is the science course syllabus utilized for secondary science education in Queensland, Australia. Included are educational aims, course design, and assessment procedures. (SL)
Descriptors: Course Content, Curriculum, Curriculum Design, Curriculum Guides

Wright, P. G. – Education in Chemistry, 1974
Discusses difficulties of teaching thermodynamics at the secondary school level, including misconceptions about entropy, teachers' insufficient preparation, and the physical and mathematical nature of the subject. Concludes that thermodynamics has to be reserved for university teaching since it is a "non-pictorial theory" in physical science. (CC)
Descriptors: Chemistry, Content Analysis, Course Content, Curriculum Design

Ogborn, Jon – Education in Chemistry, 1974
Describes arguments against teaching thermodynamics at the secondary school level as an argument against teaching it in a certain way. Concludes that an honest and simple presentation of thermodynamic ideas is possible after special steps have been taken to help teachers in understanding the subject. (CC)
Descriptors: Chemistry, Content Analysis, Course Content, Curriculum Design

DiLavore, Philip – Physics Teacher, 1973
Discusses the development of a basic physics course in which the technological device or system is used as a motivational factor or a focus for teaching of fundamental concepts. Included are a list of module titles and examples of textual materials derived from pressure cookers, toasters, and ionization chambers. (CC)
Descriptors: College Science, Course Content, Curriculum Design, Curriculum Development
van Hengel, A. H. E. – Higher Education and Research in the Netherlands, 1975
This article considered the form, content, objectives and background of courses relating to science and society. (Author/RK)
Descriptors: Course Content, Course Objectives, Curriculum Design, Educational Research

Leggat, Peter A. – Medical Teacher, 1997
Discusses the two major forms of curriculum design in Australian medical schools: the innovative approach and the traditional approach. The innovative medical school has a problem-based, student-centered community orientation and has been the curriculum of choice in the newer medical schools for meeting future challenges in medical education. The…
Descriptors: Community Influence, Conventional Instruction, Course Content, Curriculum Design

Miller, James M.; And Others – Journal of Chemical Education, 1973
Discusses the undergraduate liberal arts chemistry curriculum of Drew University which emphasizes preparation of students either for a chemistry vocation or for medical or other science careers. Indicates that interdisciplinary training, articulation of courses to students' background, and elimination of traditional course organization are main…
Descriptors: Chemistry, College Science, Course Content, Curriculum Design