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Biomechanics and Orthopedics (cont)

By Mark Saltzman - Yale
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Lecture Description

Professor Saltzman begins the lecture with discussion of the importance of motion for the survival and propagation of any living species. He presents the different modes of motion, taking first the example flight to talk about force balance, such as the magnitude of propulsive force that must be generated overcome drag to produce forward motion. Next, the mechanics of walking, running, cycling and swimming is discussed, with emphasis on efficient use of energy, overcoming drag and friction, and the influence of organism shape and size. An equation to calculate drag force of a spherical object of radius, r, moving at velocity, v, in a medium with viscosity, μ, is introduced: Fd = 6πvμr. Finally, Professor Saltzman talks about design of the artificial hip, which biomedical engineers must take into consideration the biomechanics and natural function of the pelvic bone.

Course Description

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Lecture Transcript, Reading Assignment, Handouts, and Problem Sets

Course Index

  1. What Is Biomedical Engineering?
  2. What Is Biomedical Engineering? (cont)
  3. Genetic Engineering
  4. Genetic Engineering (cont)
  5. Cell Culture Engineering
  6. Cell Culture Engineering (cont)
  7. Cell Communication and Immunology
  8. Cell Communication and Immunology (cont)
  9. Biomolecular Engineering: Engineering of Immunity
  10. Biomolecular Engineering: Engineering of Immunity (cont)
  11. Biomolecular Engineering: General Concepts
  12. Cardiovascular Physiology
  13. Cardiovascular Physiology (cont)
  14. Cardiovascular Physiology (cont)
  15. Renal Physiology
  16. Renal Physiology (cont)
  17. Biomechanics and Orthopedics
  18. Biomechanics and Orthopedics (cont)
  19. Bioimaging
  20. Bioimaging (cont)
  21. Tissue Engineering
  22. Tissue Engineering (cont)
  23. Biomedical Engineers and Cancer