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Showing 1 to 15 of 61 results Save | Export
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Rutter, Charles; Pancorbo, Jennifer – Chemical Engineering Education, 2020
Fermentation is responsible for the production of myriad products across a variety of industrial sectors. In particular, the biomanufacturing industry requires a labor force proficient in fermentation and its associated technologies to drive the production of recombinant protein therapeutics. This paper describes the development of a course that…
Descriptors: Biotechnology, Manufacturing Industry, Biochemistry, Scientific Concepts
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Ferri, Bonni H.; Ferri, Aldo A.; Majerich, David M.; Madden, Amanda G. – Advances in Engineering Education, 2016
This paper examines the effects of hands-on learning in an undergraduate circuits class that is taught to non-majors; i.e., students outside of electrical and computing engineering. The course, ECE3710, is taught in a blended format facilitated by the video lectures prepared for two Massive Open Online Courses developed for the Coursera Platform.…
Descriptors: Outcomes of Education, Hands on Science, Science Laboratories, Large Group Instruction
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Lega, Joceline C.; Buxner, Sanlyn; Blonder, Benjamin; Tama, Florence – Journal of College Science Teaching, 2014
We describe a third-year undergraduate course that focuses on multiscale modeling and protein folding and has as its primary goal the encouragement of students to integrate thinking across and beyond disciplinary boundaries. The ability to perform innovative and successful research work in STEM (science, technology, engineering, and mathematics)…
Descriptors: Integrated Activities, Science Activities, Science Education, Undergraduate Students
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Carmichael, Stephen W.; Robb, Richard A. – Anatomical Sciences Education, 2008
There is a perceived need for anatomy instruction for graduate students enrolled in a biomedical engineering program. This appeared especially important for students interested in and using medical images. These students typically did not have a strong background in biology. The authors arranged for students to dissect regions of the body that…
Descriptors: Graduate Students, Biomedicine, Anatomy, Science Activities
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Boily P.; Rees, B. B.; Williamson, L. A. C. – Advances in Physiology Education, 2007
Here, we describe a laboratory experiment as part of an upper-level vertebrate physiology course for biology majors to investigate the physiological response of vertebrates to osmoregulatory challenges. The experiment involves measuring plasma osmolality and Na[superscript +] -K[superscript +] -ATPase activity in gill tissue of teleost fish…
Descriptors: Majors (Students), Animals, Physiology, Biology
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Chakrabarti, Debopam – Biochemistry and Molecular Biology Education, 2009
This new course in biotechnology for upper division undergraduates provides a comprehensive overview of the process of drug discovery that is relevant to biopharmaceutical industry. The laboratory exercises train students in both cell-free and cell-based assays. Oral presentations by the students delve into recent progress in drug discovery.…
Descriptors: Science Activities, Labor Market, Science Laboratories, Biotechnology
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Macomber, Roger S. – Journal of Chemical Education, 1972
Descriptors: Chemistry, College Science, Course Descriptions, Instructional Materials
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Davies, W. A.; And Others – Chemical Engineering Education, 1991
Described is a laboratory in which students are confronted with rigs built from full-sized industrial machinery and equipment. Students must draw a flow sheet, dismantle and draw key components, reassemble the parts, operate the rig, and interpret the run data. The laboratory and the course built around it are discussed. (KR)
Descriptors: Chemical Engineering, Chemistry, College Science, Course Descriptions
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MacKinnon, John A. – Physics Teacher, 1974
Descriptors: College Science, Computers, Course Descriptions, Electronics
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DeWitt, Randolph A. – Physics Teacher, 1972
Descriptors: College Science, Course Descriptions, General Education, Laboratory Experiments
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Beilby, Alvin L. – Journal of Chemical Education, 1972
Usually the textbook descriptions of analytical methods fall short of making comparisons among several methods employed for analysis. Emphasis should be placed on making decisions about using a particular method on the basis of its merits. Listed are experiments that could be used for instruction. (PS)
Descriptors: Chemistry, College Science, Course Descriptions, Instruction
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Graetzer, Hans G. – American Journal of Physics, 1972
Descriptors: College Science, Course Descriptions, Instruction, Laboratory Experiments
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Githens, Sherwood, Jr. – Physics Teacher, 1970
Describes the development and organization of a course begun in 1962 consisting of a sequence of manipulative learning operations. The laboratory operations of Quantitative Physical Science lead the student through the fundamentals of instrumentation and of measurement processes. Principles studied include physical, electrical, chemical, and wave…
Descriptors: Course Descriptions, Course Evaluation, Curriculum Development, Instruction
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Kilner, Cary – Journal of Chemical Education, 1988
Discusses the development of concentration and organizational skills, patience, self-discipline, attention to detail, and appreciation for error analysis through an expanded titration project. Describes the various activities in the extended project and the materials and instructional support needed. Stresses the advantage to students in their…
Descriptors: Chemistry, College Science, Course Descriptions, Educational Experiments
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Selco, Jodye I.; Roberts, Julian L., Jr.; Wacks, Daniel B. – Journal of Chemical Education, 2003
Describes a sea-water analysis project that introduces qualitative and quantitative analysis methods and laboratory methods such as gravimetric analysis, potentiometric titration, ion-selective electrodes, and the use of calibration curves. Uses a problem-based cooperative teaching approach. (Contains 24 references.) (YDS)
Descriptors: Chemical Analysis, Chemistry, Cooperative Learning, Course Descriptions
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