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Incorporating Biological Problems into Mathematics Courses

A Report on a Non-existent* White Paper. Incorporating Biological Problems into Mathematics Courses. Lester Caudill Kathy Hoke University of Richmond Department of Mathematics and Computer Science lcaudill@richmond.edu. * For now. What is a “White Paper”?. What is a “White Paper”?.

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Incorporating Biological Problems into Mathematics Courses

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  1. A Report on a Non-existent* White Paper Incorporating Biological Problems into Mathematics Courses Lester Caudill Kathy Hoke University of Richmond Department of Mathematics and Computer Science lcaudill@richmond.edu * For now

  2. What is a “White Paper”?

  3. What is a “White Paper”? • A report or guide that often addresses problems and how to solve them.

  4. What is a “White Paper”? • A report or guide that often addresses problems and how to solve them. • WPs are used to educate readers and help people make decisions.

  5. What is a “White Paper”? • A report or guide that often addresses problems and how to solve them. • WPs are used to educate readers and help people make decisions. • The thing in the binder is NOT the white paper!

  6. Combining Biology and Math • Three possible approaches:

  7. Combining Biology and Math • Three possible approaches: • Incorporate biological applications into existing math courses

  8. Combining Biology and Math • Three possible approaches: • Incorporate biological applications into existing math courses • Incorporate mathematical techniques into existing biology courses

  9. Combining Biology and Math • Three possible approaches: • Incorporate biological applications into existing math courses • Incorporate mathematical techniques into existing biology courses • Create new “hybrid” mathematical biology/biomathematics courses

  10. Combining Biology and Math • Three possible approaches: • Incorporate biological applications into existing math courses • Incorporate mathematical techniques into existing biology courses • Create new “hybrid” mathematical biology/biomathematics courses

  11. Working Group: • “Incorporating Bio into Math Courses” • Formed at Quantitative Biology meeting at ETSU, July 2007

  12. Why Work Bio into Math Courses?

  13. Why Work Bio into Math Courses? • Help students recognize, appreciate, and utilize the interconnections between biology and mathematics

  14. Why Work Bio into Math Courses? • Help students recognize, appreciate, and utilize the interconnections between biology and mathematics • Prepare biology students for modern quantitative biology

  15. Why Work Bio into Math Courses? • Help students recognize, appreciate, and utilize the interconnections between biology and mathematics • Prepare biology students for modern quantitative biology • Prepare mathematics students to support and contribute to modern biological research

  16. Why Work Bio into Math Courses? • Help students recognize, appreciate, and utilize the interconnections between biology and mathematics • Prepare biology students for modern quantitative biology • Prepare mathematics students to support and contribute to modern biological research • Reflect on what Pat and Malcolm said

  17. Different Levels of Integration (of bio into math courses)

  18. Different Levels of Integration (of bio into math courses) • Keep math course as it is, but insert biological applications (i.e. “flavoring” an existing course)

  19. Different Levels of Integration (of bio into math courses) • Keep math course as it is, but insert biological applications (i.e. “flavoring” an existing course) • Adapt the math topics in an existing course to include bio-friendly topics

  20. Different Levels of Integration (of bio into math courses) • Keep math course as it is, but insert biological applications (i.e. “flavoring” an existing course) • Adapt the math topics in an existing course to include bio-friendly topics • Build a new math course, including only bio-relevant math topics (e.g. math methods for biology)

  21. Four Challenges to Incorporating Bio into Math Courses

  22. Four Challenges to Incorporating Bio into Math Courses • Challenge #1: Not everyone recognizes the importance of doing this.

  23. Four Challenges to Incorporating Bio into Math Courses • Challenge #1: Not everyone recognizes the importance of doing this. • This is true on both sides of the fence.

  24. Four Challenges to Incorporating Bio into Math Courses

  25. Four Challenges to Incorporating Bio into Math Courses • Challenge #2: Competing interests

  26. Four Challenges to Incorporating Bio into Math Courses • Challenge #2: Competing interests • Biologists want to work on the biology courses

  27. Four Challenges to Incorporating Bio into Math Courses • Challenge #2: Competing interests • Biologists want to work on the biology courses • Mathematicians want to work on the math courses

  28. Four Challenges to Incorporating Bio into Math Courses • Challenge #2: Competing interests • Biologists want to work on the biology courses • Mathematicians want to work on the math courses • Evidence: Working group memberships

  29. Four Challenges to Incorporating Bio into Math Courses

  30. Four Challenges to Incorporating Bio into Math Courses • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do

  31. Four Challenges to Incorporating Bio into Math Courses • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • To identify “new” applications, need people well-educated in both biology and math

  32. Four Challenges to Incorporating Bio into Math Courses • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • To identify “new” applications, need people well-educated in both biology and math • Even bio-mathematicians usually only know the biology directly related to their research field

  33. Four Challenges to Incorporating Bio into Math Courses • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • Need real data sets to work with

  34. Four Challenges to Incorporating Bio into Math Courses • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • Need real data sets to work with • Not many texts available as resources

  35. Four Challenges to Incorporating Bio into Math Courses

  36. Four Challenges to Incorporating Bio into Math Courses • Challenge #4: Implementation issues

  37. Four Challenges to Incorporating Bio into Math Courses • Challenge #4: Implementation issues • Possible conflict between adapting course content for biological purposes and maintaining content needed for succeeding math courses

  38. Four Challenges to Incorporating Bio into Math Courses • Challenge #4: Implementation issues • Possible conflict between adapting course content for biological purposes and maintaining content needed for succeeding math courses • Resource issues (faculty dev time, course revision time, team teaching credit)

  39. Addressing the “Four Challenges”

  40. Addressing the “Four Challenges” • Challenge #1: Not everyone recognizes the importance of doing this.

  41. Addressing the “Four Challenges” • Challenge #1: Not everyone recognizes the importance of doing this. • Not everyone will buy into the idea – THIS IS OKAY! (PR can help)

  42. Addressing the “Four Challenges” • Challenge #1: Not everyone recognizes the importance of doing this. • Not everyone will buy into the idea – THIS IS OKAY! (PR can help) • Just need at least one biologist and at least one mathematician

  43. Addressing the “Four Challenges”

  44. Addressing the “Four Challenges” • Challenge #2: Competing interests

  45. Addressing the “Four Challenges” • Challenge #2: Competing interests • Many of the same math-bio connections will serve both sides, so WORK TOGETHER!

  46. Addressing the “Four Challenges” • Challenge #2: Competing interests • Many of the same math-bio connections will serve both sides, so WORK TOGETHER! • Each connection should be good for use in both bio and math courses

  47. Addressing the “Four Challenges”

  48. Addressing the “Four Challenges” • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do

  49. Addressing the “Four Challenges” • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • Work together and share! (e.g. existing courses – see wiki)

  50. Addressing the “Four Challenges” • Challenge #3: Identifying and utilizing good biological applications of mathematics is difficult to do • Work together and share! (e.g. existing courses – see wiki) • Need a repository of math applications in biology (More about this later)

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