York University
Fall 2014 - Course Website
Basic Information
- Course Description: This course will focus on applications of quantum physics in biology and medicine. Three lectures hours per week and three laboratory hours every other week. One term. Three credits. Prerequisites: SC/BPHS 3090 3.00; SC/PHYS 3040 6.00.
- Location & Time: T,Th 1:00-2:30 (CB 120) AND W 1:30-4:30 (Petrie 108)
- Course Syllabus (includes course logistics): here (pdf)
- Lab wiki (note that some of the dates on the wii may be incorrect; refer to the course syllabus of this webpage for the most up to date info)
- Instructor: Christopher Bergevin
Office: Petrie 240
Email: cberge [AT] yorku.ca
Office Hours: TBD (or by appt.)
Phone: 416-736-2100 ext.33730 - Text Intermediate Physics for Medicine and Biology Fourth Edition, by R. Hobbie & B. Roth (Springer)
→ Via YorkU, you may be able to access the text online here
Updates and useful bits
- [10/7/14] As discussed in class, Lab 2 reports can be handed in on Monday 10/13.
- [10/1/14] Here are some guidelines for your lab books. Also, here are some guidelines for your Lab 2 report (due 10/10; note that this is a few days later than specified in the syllabus given HW3 is also due in the same week).
- Each HW will likely contain (at least) one Fermi problem. These are designed to give you an open-ended problem where you can creatively flex your quantitative muscle. Take advantage of such and have some fun!
Class Notes
- 12.04.14 - Course summary
- 12.02.14 - No class (university 'study day')
- 12.01.14 - Visit to York MRI facility (1:30-3:30)
- 11.27.14 - Jclub: Hair cell transduction/synaptic ribbons
- The goal of this lecture is two-fold. On one hand, we will discuss some further topics related to cochlear biomechanics and physiology. On the other, we will operate as if we are having a 'journal club' session. The goal of such is to provide students with some exposure and experience as how to run a successful 'Jclub'. Since we learn much about the 'cutting edge' by reading current scientific literature, the notion of a productive Jclub is very important no matter what direction you ultimately pursue (i.e., this is not only relevant for those going to graduate school).
- We will focus our discussion on the following paper. Try to look it over (and preferably read) ahead of time. You will be expected to ask questions!
- Notes
- Here are some potentially helpful resources in the context of a Jclub:
- How to make journal clubs interesting (Swift, 2004)
- What makes evidence-based journal clubs succeed? (Phillips et al., 2004)
- How to run an effective journal club: a systematic review (Deenadayalan et al., 2008)
- 11.20, 11.25.14 - Cochlear mechanics II
- Notes
- Relevant H&R chapters: 13.1-13.3
- Rough Google search turned up some links for tips on making 'posters'. Since your Lab 4 project culminates in the construction/presentation of a poster consistent with the style of what would be presented at an academic conference, there are some useful tips contained via these links. You are however encouraged to also look at other (more general) resources to (e.g., Tufte's excellent book).
- LSU (Geography and Anthropology)
- Youtube (I didn't watch this video to vet it!)
- NYU
- U. of Guelph
- 11.18.14 - Cochlear mechanics I
- 11.11.14 - NMR and MRI III
- Note: Lab 4 proposals due at start of class
- Notes
- Relevant H&R chapters: 18.5
- Links to articles that may be of interest:
- Principles of Diffusion Tensor Imaging and Its Applications to Basic Neuroscience Research (Mori & Zhang, Neuron, 2006)
- Reading Minds (Nature, 2013 article)
- MR Diffusion Tensor Spectroscopy and Imaging (Basser et al. 1994 Biophysical Journal)
- Nature Outlook section on Medical Imaging (scroll to bottom)
- 11.06.14 - NMR and MRI II
- Notes
- Recent news item from Nature of relevant interest
- Paper on chemotaxis alluded to in lecture (Levine & Rappel, Physics Today 2013)
- Relevant H&R chapters: 18.2-18.4 (ch.3.4-3.7 provide some useful background too)
- 11.04.14 - NMR and MRI I (the very basics)
- 10.28.14 - Spectroscopy II
- Notes
- Links to the two papers discussed in class:
- Force Spectroscopy with Dual-Trap Optical Tweezers: Molecular Stiffness Measurements and Coupled Fluctuations Analysis (Ribezzi-Crivellari & Ritort BJ, 2012)
- Ultrafast folding kinetics and cooperativity of villin headpiece in single-molecule force spectroscopy (Zoldak et al. PNAS, 2013)
- 10.23.14 - Spectroscopy I
- 10.21.14 - X-Ray Crystallography III
- 10.16.14 - Error analysis
- 10.14.14 - X-Ray Crystallography II
- 10.9.13 - X-Ray Crystallography I
- 10.07.14 - Radiation Interactions w/ Biological Tissue
- Notes
- Additional notes (may be helpful)
- Relevant H&R chapters: 15.10-15.12, 16.10-16.13
- Some guidelines/suggestion with regard to Lab 3
- Link to a paper on the Linear-Quadratic Model (to get a flavor for how oncologists deal with the physical/mathematical side of things...)
- 10.02.14 - No lecture
- 09.30.14 - Tomography
- 09.25.14 - Photon Interactions w/ Matter
- Pre-Problem
- Notes
- Additional notes (may be helpful)
- Relevant H&R chapters: 15.1-15.6
- 09.23.14 - Radiation Interactions w/ Matter (Intro)
- Pre-Problem
- Notes
- Relevant H&R chapters: 14.1-14.4, 14.9
- Additional notes (may be helpful)
- 09.16,18.14 - Images: Sampling, Convolutions
- Pre-Problem (9/16)
- Pre-Problem (9/18)
- Notes
- Relevant H&R chapters: 11.7-11.11, 11.14, 11.16, 12.1-12.2
- Additional notes (may be helpful)
- Zipped file containing several Matlab codes (chiefly specREP2.m) to visualize various aspects of Fourier transforms (it is really worth your time to fiddle around with these and develop some intuition!) This code (to build up a click, as demonstrated in class) might be useful.
- 09.11.14 - Images, Fourier transforms
- Pre-Problem
- Slides
- Relevant H&R chapters: 11.3-11.6, 11.9, 12.3
- 09.09.14 - Introduction, What is 'biophysics'?
- Slides
- Link to William Bialek's text
- What is biophysics? (according to the Biophysical Society; do you agree?)
- Note that HW1 has been assigned (see HW section at bottom of page)
HW Assignments
- HW6: Due 11/25/14
- HW5: Due 11/3/14
- HW4: Due 10/17/14
- HW3: Due 10/8/14 (the PNAS TOC can be found here)
- HW2: Due 10/1/14
- HW1: Due 9/17/14
Course Computing
→ Below are several assignments from previous iterations of BPHS 4090. While you are not required to do these, they are posted here for useful reference. Put another way, any attempts to work these assignments through will likely be time well spent.
→ Guide to help get you started with plotting in Matlab.
→ Guide to get Matlab running remotely (via York's internal server).
- Computing Exercise 8 - Image processing II
- Computing Exercise 7 - Nonlinearity and Fractals
- Computing Exercise 6 - Error function (this one can count for two assignments given that there is a handful of questions to be answered)
- Computing Exercise 5 - Riemann sums (good beginner place if you are uncomfortable with coding)
- Computing Exercise 4 - Image processing
- Computing Exercise 3 - Fourier transforms [you'll need this, this, this, and this]
- Computing Exercise 2 - Autocorrelation
- Computing Exercise 1 - Solving ODEs