Kathryn M. Bateman, Cristina G. Wilson, Randolph T. Williams, Basil Tikoff, Thomas F. Shipley
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引用次数: 0
Abstract
Abstract
Understanding and communicating uncertainty is a key skill needed in the practice of science. However, there has been little research on the instruction of uncertainty in undergraduate science education. Our team designed a module within an online geoscience field course which focused on explicit instruction around uncertainty and provided students with an uncertainty rating scale to record and communicate their uncertainty with a common language. Students then explored a complex, real-world geological problem about which expert scientists had previously made competing claims through geologic maps. Provided with data, expert uncertainty ratings, and the previous claims, students made new geologic maps of their own and presented arguments about their claims in written form. We analyzed these reports along with assessments of uncertainty. Most students explicitly requested geologists’ uncertainty judgments in a post-course assessment when asked why scientists might differ in their conclusions and/or utilized the rating scale unprompted in their written arguments. Through the examination of both pre- and post-course assessments of uncertainty and students’ course-based assessments, we argue that explicit instruction around uncertainty can be introduced during undergraduate coursework and could facilitate geoscience novices developing into practicing geoscientists.
期刊介绍:
Science & Education publishes research informed by the history, philosophy and sociology of science and mathematics that seeks to promote better teaching, learning, and curricula in science and mathematics. More particularly Science & Education promotes: The utilization of historical, philosophical and sociological scholarship to clarify and deal with the many intellectual issues facing contemporary science and mathematics education. Collaboration between the communities of scientists, mathematicians, historians, philosophers, cognitive psychologists, sociologists, science and mathematics educators, and school and college teachers. An understanding of the philosophical, cultural, economic, religious, psychological and ethical dimensions of modern science and the interplay of these factors in the history of science. The inclusion of appropriate history and philosophy of science and mathematics courses in science and mathematics teacher-education programmes. The dissemination of accounts of lessons, units of work, and programmes in science and mathematics, at all levels, that have successfully utilized history and philosophy. Discussion of the philosophy and purposes of science and mathematics education, and their place in, and contribution to, the intellectual and ethical development of individuals and cultures.