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Biology Pedagogical BibliographyBooksAllen, D.E. (1997). Bringing problem-based learning to the introductory biology classroom. In Student-active science: models of innovation in college science teaching. (pp. 259-278). Toronto: Saunders College Publishing. A change in how science is taught as well as what is taught has been the rallying cry behind a national call for educational reform that has gained momentum throughout the past decade (AAAS 1990). A nucleus of science faculty at the University of Delaware has responded by developing models for implementing problem-based learning (PBL) in a variety of undergraduate courses. Library access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 S78 Center for Science, Mathematics, and Engineering Education. (1999). Transforming undergraduate education in science, mathematics, engineering, and technology. Washington: National Academy Press. Today, a quiet revolution is under way in the teaching of undergraduate science, mathematics, engineering, and technology. Courses that have resembled nothing so much as their 19th century precursors are beginning to change, as students and instructors realize that employment and citizenship in the 21st century will require radically different kinds of skills and knowledge. Library access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 T73 D’Avanzo, C & McNeal, A.P. (1997). Research for all students: structuring investigation into first-year courses. . In Student-active science: models of innovation in college science teaching. (pp. 279-300). Toronto: Saunders College Publishing. Since its inception in 1970 Hampshire College science teaching has emphasize “inquiry”—i.e. active strategies for getting students to “act like scientists”. In line with these ideals, every student is required to design and complete a scientific research project in the first two years. Library access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 S78 McNeal, A.P. (1997). Teacher active workshops: collaborative structures for curricular reform. In Student-active science: models of innovation in college science teaching. (pp. 475-482). Toronto: Saunders College Publishing. The purpose of this article is to present several useful, tested ideas for participatory structures for workshops aimed at faculty interested in student-active learning. Library access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 S78 Narum, J. (1997) Some lessons learned. In Student-active science: models of innovation in college science teaching. (pp. 3-20). Toronto: Saunders College Publishing. To understand where we are in the process of transforming undergraduate science, mathematics, engineering and technology (SME&T) education in the last years of the 20th century, it is important to think first about why reform was needed. It will help to explore what went wrong, how teaching and learning, research, and education in the sciences and mathematics in the nation’s undergraduate community came to have deep-seated problems. Library access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 S78 National Research Council (US). Committee of Developments in the Science of Learning. (2000). How people learn: brain, mind, experience, and school. Washington, D.C.: National Academy Press. Key findings of How People Learn:
Library Access: Guelph McLaughlin Book Stacks LB1060 .H672 National Research Council (US). Committee of Developments in the Science of Learning. (2004). BIO2010: Transforming Undergraduate Education for Future Research Biologists. Washington, D.C.: National Academy Press. The report recommends a comprehensive reevaluation of undergraduate science education for future biomendial researchers. In particular it calls for a renewed discussion on the ways that engineering and computer science, as well as chemistry, phyisics, and mathemativs are presented to life science students. Library Access: On order Rothman, F. & Narum, J. (1999). Then, now, & in the next decade: a commentary on strengthening undergraduate science, mathematics, engineering, and technology education. DC: Project Kaleidoscope The undergraduate years are critical for strengthening out nation’s science and mathematics capacity. It is at college where future scientists and college faculty are recruited and prepared for graduate study; where our nation’s elementary and secondary teachers, educators of America’s youth. Library Access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 .R68 Tashiro, J. & Rowland, P.M. (1997). What works: empirical approaches to restructuring courses in biology and environmental sciences. In Student-active science: models of innovation in college science teaching. (pp. 163-188). Toronto: Saunders College Publishing. We have tried to ask some hard questions about what works in Biology and Environmental Sciences curricular frameworks and the courses that compose these frameworks. Library Access: Guelph Teaching Support Resource Centre, Day Hall Rm. 125 Q183.3.A1 .R68
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