BMCB625:Mathematics in Biology

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BMCB625 Advanced Topics in Molecular Biology

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Overview of Topic

1.) Take Home Message (Big Picture / Themes):

A.) Common Languages for Quantitative Biology
B.) Probability in Gene Expression

2.) Important Experimental Details


Papers

Outline of Talk and Discussion

  • Introduction: Perspectives between disciplines and the Language of Biology
Can we develop a common language? Is it mathematics? Should it be? In what cases?
  • Classic Biological Underpinning by Mathematical (Statistical) Arguments
Luria-Delbrück Fluctuation Analysis
  • Static Picture of Dynamic Pathways
The Lac Operon as a Model of Bistability and Stochastic Events
  • Discussion

PAPERS:

  • MAIN PAPER: "Multistability in the lactose utilization network of Escherichia coli"
EM Ozbudak, et al, Nature 427, 737-740 (19 February 2004)

[[1]]

  • CLASSIC: "Mutations of Bacteria from Virus Sensitivity to Virus Resistance"
S. E. Luria and M. Delbrück, Genetics. 1943 November; 28(6): 491–511

[[2]]

  • See Below: "Biologists Fixing Radios" [[3]]

Chris - Bonus Materials

Ranking:

  • Critical Read/of Outstanding Interest (oo)
  • Importand Read (o)
  • Of Interest (no label)
  1. (o) A good primer on how biologists and engineers look at a problem in different ways; while many comments do not address the complexity of biochemistry and genetics, it does provide an interesting perspective on what we consider "important." Also, of importance, in my opinion, is developing a common language by which numerous disciplines can communicate. I'll touch more on this particular topic during my talk.

Y. Lazebnik, "Can a Biologist Fix a Radio? or, What I Learned while Studying Apoptosis" [[4]]




Unresolved Questions for Followup


Discussion/Homework Questions

Mahta


Larry

1. As a reductionist, I would attempt to explain the behavior of such circuits in terms of the behavior of the components, what are the limitations of this approach (reductionist view)?

2. "Despite many molecular components of biological organisms being identified and characterized using genetic and biochemical techniques, it is still not possible to predict system behavior except in the simplest systems."( pmid:17170763) What needs to happen in the field in order to be able to model more complex systems?


Chayne


Jon


Jeremy


Faculty Questions and Comments