Mathematics for Biology from a Biologist’s Perspective

Posted by sdonovan@pitt.edu on Jan 08 2009 | Uncategorized

dscn3874Raquell Holmes, Andrei Olifer, Devi Potluri

Overiding “Question”: How do we give biology students the ability to recognize, work with and appreciate connections between biology and math?

Two main goals:  (1) new math course (integrated math) for biologist based in biology AND (2) incorporating math into Bio101/Intro Bio Courses.

Commonality: Matrix of topics.

Differences: Emphasis of topics.  In the math course, topics will go from simple to complex, etc.

Pedagogical considerations: (1) sufficient introduction and discussion of mathematical topics to allow teachers to introduce math in more than one dimension (ie. mutliple examples, different perspectives). (2) math teachers should understand biology behind the topics to engage bio students.

Specific aims/objectives:

1. Complete matrix of biology topics: math area: available esteem tools

2. Create specific examples of lessons, lectures or labs that fit within either course.

For biology course: Topic respiration. Take  lecture slides (wiring diagram/chemical equation) and lab (yeast, germinating seed respiration) from existing general biology courses and  add introduction of kinetic rates and simulation of experimental observations. Use these to develop understanding of linear relationships (rates-algebra) between glucose concentrations and CO2 production/O2 consumption.

Immediate next steps: obtain lab protocol, link rate discussions to lab, develop additional math exercises or explanations.

General Math: linear, polynomials; logarithmic, exponential; periodic functions, sin, cos
Biology       Math Areas ESTEEM   Misc  
Chemistry Atoms, Molecules              
    Carbohydrates            
    proteins              
    lipids              
    nucleic acids combinatorics, probability        
    H20              
    ph   logarithmic buffer preparation Henderson-Hasselbach
                   
Cell Plant and Animals              
  Orgnaelles              
    nucleus              
    chloroplast            
    mitochondria            
  Membrane              
  Cell Division   doubling   cotinuous growth models    
Functions Physicals                
    Diffusion   Vectors, Gaussian        
    osmosis              
    enzymes   algebraic-MM, Inhibitors, etc        
  Respiration              
    glycolysis   linear equation of change in amounts   a Yeast- co2
    Krebs         k*C germinating seeds measure co2
    Electron Transport System            
  Photosynthesis   Periodic Functions        
    Light              
    Chorophyll            
    LR PSII            
      PSII            
    LIR              
      Calvin Cycles            
      C3            
      C4            
Ecology                  
  Ecosystems   logistics   geophyl      
  Nutrient Cycles              
  Biodiversity       biodiversity    
Evolution/Diversity                
  Taxonomy              
  Systematics              
    Phylogenetic trees     3D fractal      
  DNA         EvolSeq      
Genetics                  
  Heredity                
Systems Physiology                
  Animal                
    Digestion              
    circulation              
    nervous              
  Plant                
  Nutrient uptake and transport            
  water uptake and transport            
                   
Reproductive Physiology              
  Hormones                
  Sexual/Asexual              

Resources:

modelingglycolysisexcerptsmodelingglycolysisexcerpts

Example math model of glycolysis

 

 

 

 

 

 

Questions:

1. Is it useful to do some of the mathematics problems during the lab periods?

2. Is it useful to have a chapter or two at the beginning of the course on mathematics principles that may be involved;  just like we have a chapter or two on chemistry in introductory biology books?

3. If you are developing a new quantitative biology curriculum, do you have the ability/room to have a new math course for biologists?

9 comments for now

9 Responses to “Mathematics for Biology from a Biologist’s Perspective”

  1. pelesko@math.udel.edu

    In answer to question 3 – might want to look at our curriculum:
    http://www.udel.edu/qbio/
    I also have a white paper that looks at many such programs around the
    country…don’t have it here, but I can dig it up if you are interested.

    09 Jan 2009 at 12:46 pm

  2. christopher.beck@emory.edu

    There are other areas in ecology that could be included, such as population growth, competition theory, predator-prey theory, host-parasite interactions. For evolution, you can consider population genetics.

    Doing the math in labs or tutorial sessions might be a good idea, but you would have to deal with issues of consistency of presentation across sections.

    09 Jan 2009 at 12:48 pm

  3. stanleye@beloit.edu

    The notion of intro quantitative reasoning chapters in bio is intriguing. I imagine pages populated with all kinds of data – output from lab equipment, tables and graphs from journal entries, modeling simulations, field survey results, etc.

    Love to connect this to OMNI proposal on Online Mathematics Networking Initiative.

    09 Jan 2009 at 12:49 pm

  4. sdonovan@pitt.edu

    I can’t wait to see where this goes. I’m on tilt right now but I’ll come back and make a real comments later.

    09 Jan 2009 at 12:52 pm

  5. pelesko@math.udel.edu

    Also look at http://wikifuse.pbwiki.com/HHMIQuantBioMiniGrant#minigrant

    09 Jan 2009 at 12:53 pm

  6. mark.s.bergland@uwrf.edu

    An excellent way of integrating biology and math. Associated math and biology courses might be a way to go, although it is difficult to do in our experience.

    09 Jan 2009 at 12:53 pm

  7. pmars@learnlink.emory.edu

    I think we need on-line textbooks that go both ways coupled with development spaces for how people are using it…like the case mash up and like chris and sam’s tool for examples of how students are using the concepts….this work however takes faculty development and collaboration

    09 Jan 2009 at 12:54 pm

  8. RXL5@PSU.EDU

    Hello,

    Great idea, parallelism between and integration of mathematics and biology is critical. I particularly like the multiple levels of mathematics, because the students in introductory biology will have different levels of mathematics comeptency.

    Best,
    Rob

    09 Jan 2009 at 12:54 pm

  9. jaseiter@oaklandcc.edu

    I really like the idea of having a chapter of all types of data and ways to use and interpret the data. This makes the chemistry, biology and math “relevant.”

    09 Jan 2009 at 12:54 pm

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