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Guest lecture by Professor Daniel Kaplan DeWitt Wallace Professor Mathematics & Computer Science Macalester College Date: Tuesday June 24 Time: 10am - midday Venue: Room 228 Molecular Biosciences Building (76) Refreshments provided Pleaser RSVP for catering purposes by 18 June [email protected] Toward a Calculus for our Era: Remodeling Maths Education in Today's University Daniel Kaplan is the DeWitt Wallace Professor of Mathematics and Computer Science at Macalester College in Minnesota, USA. His undergraduate work was in physics and philosophy at Swarthmore College; his graduate work was in engineeringeconomic systems at Stanford University and biomedical engineering at Harvard University. He has written textbooks on nonlinear dynamics and chaos theory, computer science, and statistics. He's currently on sabbatical at UQ, working with faculty in BACS on their revised BSc program. Toward a Calculus for our Era: Remodeling Maths Education in Today's University Abstract It's a truism that quantitative thinking is becoming more important for work and study in a large number of areas, not only in science and technology but also in public policy and management. The expansion we are witnessing today is analogous in some ways to the quantization of physical science that started with Galileo and Newton. The intellectual triumph of this quantization was the development of calculus and its application, playing out over three centuries, to areas that were originally treated qualitatively, such as electromagnetism. Calculus remains at the center of a university maths education, but problematically. Students in most areas see little applicability for differential and integral calculus; faculty in those areas can't often justify requiring such studies or even point to ways in which they use the material. Calculus was developed for studying problems of physical motion and growth, not for the analysis of data, the evaluation of trade-offs, or the untangling of multiple contributing factors in complex systems. But just as Newton and his successors invented the technology of calculus and modern algebraic notation to solve physics problems of their era, so new ``mathematical technologies'' --- often easier to use than the old ones --- have been invented over the last century to deal with new problems. I will argue that in most areas students will be better served by a university maths education that incorporates these new mathematical technologies. I'll describe the progress we have made at Macalester College in remodeling the introductory maths curriculum to do so.