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Jason Miller, John Beck, Michael Kelrick, and Jeffrey Osborn Truman State University Research-focused Learning Communities in Mathematical Biology 19 July 2005 ECMTB05

Truman's Mathematical Biology Program

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Presentation about Truman's Mathematical Biology program, at the European Conference on Mathematical and Theoretical Biology

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Page 1: Truman's Mathematical Biology Program

Jason Miller, John Beck, Michael Kelrick, and Jeffrey Osborn

Truman State University

Research-focused Learning Communities in Mathematical Biology

19 July 2005ECMTB05

Page 2: Truman's Mathematical Biology Program

Outline

• program goals

• our teams & our learning community

• programmatic activities (summer & other)

• what hasn’t worked and what has

Page 3: Truman's Mathematical Biology Program

Our Program

Page 4: Truman's Mathematical Biology Program

Our Program

• use team mentored interdisciplinary research projects as pedagogical vehicle

Page 5: Truman's Mathematical Biology Program

Our Program

• use team mentored interdisciplinary research projects as pedagogical vehicle

• undergraduates are collaborators

Page 6: Truman's Mathematical Biology Program

Our Program

• use team mentored interdisciplinary research projects as pedagogical vehicle

• undergraduates are collaborators

• projects are long-term so that students experience the whole range of the scientific enterprise

Page 7: Truman's Mathematical Biology Program

Our Program

• use team mentored interdisciplinary research projects as pedagogical vehicle

• undergraduates are collaborators

• projects are long-term so that students experience the whole range of the scientific enterprise

• made possible through NSF support (UBM)

Page 8: Truman's Mathematical Biology Program

Program Goals

Page 9: Truman's Mathematical Biology Program

Program Goals• to support high quality interdisciplinary research

projects for undergraduates and faculty

Page 10: Truman's Mathematical Biology Program

Program Goals• to support high quality interdisciplinary research

projects for undergraduates and faculty

• to engage students in activities designed to foster critical thinking skills, intellectual independence and professional and social interaction within the cross-disciplinary student cohort

Page 11: Truman's Mathematical Biology Program

Program Goals• to support high quality interdisciplinary research

projects for undergraduates and faculty

• to engage students in activities designed to foster critical thinking skills, intellectual independence and professional and social interaction within the cross-disciplinary student cohort

• to create resources for and to promote the integration of research and teaching in mathematics and biology

Page 12: Truman's Mathematical Biology Program

Program Goals• to support high quality interdisciplinary research

projects for undergraduates and faculty

• to engage students in activities designed to foster critical thinking skills, intellectual independence and professional and social interaction within the cross-disciplinary student cohort

• to create resources for and to promote the integration of research and teaching in mathematics and biology

• create and sustain a learning-community with mathematical biology as a common interest

Page 13: Truman's Mathematical Biology Program

Research Goals

Page 14: Truman's Mathematical Biology Program

• students are deeply invested and engaged in their project

Research Goals

Page 15: Truman's Mathematical Biology Program

• students are deeply invested and engaged in their project

• students are steeped in both disciplines

Research Goals

Page 16: Truman's Mathematical Biology Program

• students are deeply invested and engaged in their project

• students are steeped in both disciplines

• work is peer reviewed and presented at national meetings, published

Research Goals

Page 17: Truman's Mathematical Biology Program

• students are deeply invested and engaged in their project

• students are steeped in both disciplines

• work is peer reviewed and presented at national meetings, published

• co-mentors develop a long-term productive collaborative research relationship

Research Goals

Page 18: Truman's Mathematical Biology Program

Projects

Page 19: Truman's Mathematical Biology Program

Projects• represent facets of research programs in

biology

Page 20: Truman's Mathematical Biology Program

Projects• represent facets of research programs in

biology

• span range of biological scales

Page 21: Truman's Mathematical Biology Program

Projects• represent facets of research programs in

biology

• span range of biological scales

• encompass a variety of areas from the mathematical sciences

Page 22: Truman's Mathematical Biology Program

Projects• represent facets of research programs in

biology

• span range of biological scales

• encompass a variety of areas from the mathematical sciences

• cross-disciplinary pair of co-mentors, one from Biology, other from Math/CS/Stat

Page 23: Truman's Mathematical Biology Program

Projects• represent facets of research programs in

biology

• span range of biological scales

• encompass a variety of areas from the mathematical sciences

• cross-disciplinary pair of co-mentors, one from Biology, other from Math/CS/Stat

• work started 1/1/2005, ongoing

Page 24: Truman's Mathematical Biology Program

Quantitative Identification of

Northeastern Missouri Bats via

Acoustic and Standard Surveys

Page 25: Truman's Mathematical Biology Program

Quantitative Identification of

Northeastern Missouri Bats via

Acoustic and Standard Surveys

• using Anabat bat detectors (zero-crossing analysis) to identify a bat to species

Page 26: Truman's Mathematical Biology Program

Quantitative Identification of

Northeastern Missouri Bats via

Acoustic and Standard Surveys

• using Anabat bat detectors (zero-crossing analysis) to identify a bat to species

• creating a library of known calls (priors) for the nine species in Missouri

Page 27: Truman's Mathematical Biology Program

Quantitative Identification of

Northeastern Missouri Bats via

Acoustic and Standard Surveys

• using Anabat bat detectors (zero-crossing analysis) to identify a bat to species

• creating a library of known calls (priors) for the nine species in Missouri

• taxonomic identification of bats; discriminant function analysis

Page 28: Truman's Mathematical Biology Program

The Effects of Prescribed Burning in

Grasslands on the Population

Structure of Predatory Beetles: a

Spatial Modeling Approach

Page 29: Truman's Mathematical Biology Program

The Effects of Prescribed Burning in

Grasslands on the Population

Structure of Predatory Beetles: a

Spatial Modeling Approach

•use spatial analysis as a tool in assessing the population structure of predatory ground beetles and field crickets in both burned and unburned grasslands

Page 30: Truman's Mathematical Biology Program

The Effects of Prescribed Burning in

Grasslands on the Population

Structure of Predatory Beetles: a

Spatial Modeling Approach

•use spatial analysis as a tool in assessing the population structure of predatory ground beetles and field crickets in both burned and unburned grasslands

•discern if there is any significant preference among field crickets for burned or unburned habitat (mark recapture)

Page 31: Truman's Mathematical Biology Program

The Effects of Prescribed Burning in

Grasslands on the Population

Structure of Predatory Beetles: a

Spatial Modeling Approach

•use spatial analysis as a tool in assessing the population structure of predatory ground beetles and field crickets in both burned and unburned grasslands

•discern if there is any significant preference among field crickets for burned or unburned habitat (mark recapture)

•pithfall traps, spatial statistics/analysis

Page 32: Truman's Mathematical Biology Program

The Aerodynamics of Saccate Pollen

and its Implications for Wind

Pollination

Page 33: Truman's Mathematical Biology Program

The Aerodynamics of Saccate Pollen

and its Implications for Wind

Pollination

•empirically and quantitatively verify the effects of pollen sacs in the wind dispersal of saccate pollen grains;

Page 34: Truman's Mathematical Biology Program

The Aerodynamics of Saccate Pollen

and its Implications for Wind

Pollination

•empirically and quantitatively verify the effects of pollen sacs in the wind dispersal of saccate pollen grains;

•develop a mathematical model of pollen dispersal patterns and pollen settling speeds that can substitute for empirical testing.

Page 35: Truman's Mathematical Biology Program

The Aerodynamics of Saccate Pollen

and its Implications for Wind

Pollination

•empirically and quantitatively verify the effects of pollen sacs in the wind dispersal of saccate pollen grains;

•develop a mathematical model of pollen dispersal patterns and pollen settling speeds that can substitute for empirical testing.

•electron microscopy; geometric/computer models

Page 36: Truman's Mathematical Biology Program

The Aerodynamics of Saccate Pollen

and its Implications for Wind

Pollination

•empirically and quantitatively verify the effects of pollen sacs in the wind dispersal of saccate pollen grains;

•develop a mathematical model of pollen dispersal patterns and pollen settling speeds that can substitute for empirical testing.

•electron microscopy; geometric/computer models

Poster 13-8

Page 37: Truman's Mathematical Biology Program

GENEVA - Gene Expression

and Visualization Application

Page 38: Truman's Mathematical Biology Program

GENEVA - Gene Expression

and Visualization Application

•computerized data extraction and visualization techniques applied to microarray data will reveal global gene expression patterns in the shoot apical meristem (SAM) tissues of maize

Page 39: Truman's Mathematical Biology Program

GENEVA - Gene Expression

and Visualization Application

•computerized data extraction and visualization techniques applied to microarray data will reveal global gene expression patterns in the shoot apical meristem (SAM) tissues of maize

•students present results at Maize Meetings (Mexico, 2005)

Page 40: Truman's Mathematical Biology Program

GENEVA - Gene Expression

and Visualization Application

•computerized data extraction and visualization techniques applied to microarray data will reveal global gene expression patterns in the shoot apical meristem (SAM) tissues of maize

•students present results at Maize Meetings (Mexico, 2005)

•microarray data; MySQL and more

Page 41: Truman's Mathematical Biology Program

[CS team grafted to established research team]

GENEVA - Gene Expression

and Visualization Application

•computerized data extraction and visualization techniques applied to microarray data will reveal global gene expression patterns in the shoot apical meristem (SAM) tissues of maize

•students present results at Maize Meetings (Mexico, 2005)

•microarray data; MySQL and more

Page 42: Truman's Mathematical Biology Program

[CS team grafted to established research team]

GENEVA - Gene Expression

and Visualization Application

•computerized data extraction and visualization techniques applied to microarray data will reveal global gene expression patterns in the shoot apical meristem (SAM) tissues of maize

•students present results at Maize Meetings (Mexico, 2005)

•microarray data; MySQL and more[potential for long-term funded collaboration;

national Maize Project]

Page 43: Truman's Mathematical Biology Program

Mathematical Modeling of Plastron

Respiration in Dermacentor

variabilis (Acari: Ixodidae)

Page 44: Truman's Mathematical Biology Program

Mathematical Modeling of Plastron

Respiration in Dermacentor

variabilis (Acari: Ixodidae)

•determine if ticks respire under water via a plastron (first example of such in Ixodidae)

Page 45: Truman's Mathematical Biology Program

Mathematical Modeling of Plastron

Respiration in Dermacentor

variabilis (Acari: Ixodidae)

•determine if ticks respire under water via a plastron (first example of such in Ixodidae)

•predict underwater survivability of other species of ticks which show both interspecific and intergeneric morphological variation in spiracular plate structure

Page 46: Truman's Mathematical Biology Program

Mathematical Modeling of Plastron

Respiration in Dermacentor

variabilis (Acari: Ixodidae)

•determine if ticks respire under water via a plastron (first example of such in Ixodidae)

•predict underwater survivability of other species of ticks which show both interspecific and intergeneric morphological variation in spiracular plate structure

•use SEM to measure plastron structure and develop mathematical model of mechanism

Page 47: Truman's Mathematical Biology Program

Predicting occurrence of Missouri

Bladderpod (Lesquerella filiformis):

Modeling over space and time

Page 48: Truman's Mathematical Biology Program

Predicting occurrence of Missouri

Bladderpod (Lesquerella filiformis):

Modeling over space and time

•determine which habitat attributes most strongly influence the presence, absence and/or abundance of L. filiformis

Page 49: Truman's Mathematical Biology Program

Predicting occurrence of Missouri

Bladderpod (Lesquerella filiformis):

Modeling over space and time

•determine which habitat attributes most strongly influence the presence, absence and/or abundance of L. filiformis

•determine if the abundance of L. filiformis significantly change over time

Page 50: Truman's Mathematical Biology Program

Predicting occurrence of Missouri

Bladderpod (Lesquerella filiformis):

Modeling over space and time

•determine which habitat attributes most strongly influence the presence, absence and/or abundance of L. filiformis

•determine if the abundance of L. filiformis significantly change over time

•GIS environment; MANOVA, repeated-measures analysis, logistic regression (using SAS)

Page 51: Truman's Mathematical Biology Program

Image Analytic and Mathematical

Modeling of the Structure and

Dynamics of Biological Tissues

Page 52: Truman's Mathematical Biology Program

Image Analytic and Mathematical

Modeling of the Structure and

Dynamics of Biological Tissues

• image analytic computational utilities that are available as free software (measurements of in vitro vasculogenic structure and of the cell cycle in mouse epidermis)

Page 53: Truman's Mathematical Biology Program

Image Analytic and Mathematical

Modeling of the Structure and

Dynamics of Biological Tissues

• image analytic computational utilities that are available as free software (measurements of in vitro vasculogenic structure and of the cell cycle in mouse epidermis)

• mathematical models of latter

Page 54: Truman's Mathematical Biology Program

Image Analytic and Mathematical

Modeling of the Structure and

Dynamics of Biological Tissues

• image analytic computational utilities that are available as free software (measurements of in vitro vasculogenic structure and of the cell cycle in mouse epidermis)

• mathematical models of latter

Started Summer 2004; continued summer 2005Collaboration with KCOM

Page 55: Truman's Mathematical Biology Program

Programmatic Activities

Page 56: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences

Page 57: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:

Page 58: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,

Page 59: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,

Page 60: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,-weekly workshops, and

Page 61: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,-weekly workshops, and-group meetings and discussions

Page 62: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,-weekly workshops, and-group meetings and discussions-meals together + (on Fridays) faculty mentors

Page 63: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,-weekly workshops, and-group meetings and discussions-meals together + (on Fridays) faculty mentors

• academic year: research (continues), monthly workshops, mathematical biology seminar

Page 64: Truman's Mathematical Biology Program

Programmatic Activities

• long-term research experiences• summer:-housed together in residence hall,-meetings with team,-weekly workshops, and-group meetings and discussions-meals together + (on Fridays) faculty mentors

• academic year: research (continues), monthly workshops, mathematical biology seminar

• field trip to regional stakeholders (Donald Danforth Plant Science Center, Monsanto, etc.)

Page 65: Truman's Mathematical Biology Program

Discussions & Workshops

Page 66: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)

Page 67: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals

Page 68: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback

Page 69: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback-gives sense summer community

Page 70: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback-gives sense summer community

• Discussions (Wednesdays), MathBio Workshop (Fridays)

Page 71: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback-gives sense summer community

• Discussions (Wednesdays), MathBio Workshop (Fridays)-topics related to professional, academic, and skill development

Page 72: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback-gives sense summer community

• Discussions (Wednesdays), MathBio Workshop (Fridays)-topics related to professional, academic, and skill development

• Optional workshops

Page 73: Truman's Mathematical Biology Program

Discussions & Workshops

• Large group meetings (Mondays), mentor meetings (every third Monday)-highs & lows, short term goals-informal questions/feedback-gives sense summer community

• Discussions (Wednesdays), MathBio Workshop (Fridays)-topics related to professional, academic, and skill development

• Optional workshops (skills, mostly)

Page 74: Truman's Mathematical Biology Program

Discussions

Page 75: Truman's Mathematical Biology Program

•Preparing a research proposalDiscussions

Page 76: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

Discussions

Page 77: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

Discussions

Page 78: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

Discussions

Page 79: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

Discussions

Page 80: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

•Different modes of conducting research

Discussions

Page 81: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

•Different modes of conducting research

•Ethics and responsible research conduct

Discussions

Page 82: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

•Different modes of conducting research

•Ethics and responsible research conduct

•The importance of writing and submitting papers and grant proposals for peer review

Discussions

Page 83: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

•Different modes of conducting research

•Ethics and responsible research conduct

•The importance of writing and submitting papers and grant proposals for peer review

•Conducting interdisciplinary research

Discussions

Page 84: Truman's Mathematical Biology Program

•Preparing a research proposal

•Library training

•Reading the primary literature

•Keeping a research notebook or journal

•Giving an oral presentation

•Different modes of conducting research

•Ethics and responsible research conduct

•The importance of writing and submitting papers and grant proposals for peer review

•Conducting interdisciplinary research

•Data synthesis & presentation

Discussions

Page 85: Truman's Mathematical Biology Program

Workshops

Page 86: Truman's Mathematical Biology Program

•Using LateXWorkshops

Page 87: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

Workshops

Page 88: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

Workshops

Page 89: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

Workshops

Page 90: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

Workshops

Page 91: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

Workshops

Page 92: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

Workshops

Page 93: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

•Using Excel

Workshops

Page 94: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

•Using Excel

•Using databases and database software

Workshops

Page 95: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

•Using Excel

•Using databases and database software

•Editing digital images

Workshops

Page 96: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

•Using Excel

•Using databases and database software

•Editing digital images

•Preparing posters for Truman's large format printer

Workshops

Page 97: Truman's Mathematical Biology Program

•Using LateX

•Using Statistical Software

•Electron microscopy: A primer

•Image analysis & processing

•Conducting phylogenetic analyses

•Introduction to GIS for research applications

•Introduction to PERL & BioInformatics

•Using Excel

•Using databases and database software

•Editing digital images

•Preparing posters for Truman's large format printer

•Finding and using open source software

Workshops

Page 98: Truman's Mathematical Biology Program

Community

Summer

Page 99: Truman's Mathematical Biology Program

Community

Summer

Page 100: Truman's Mathematical Biology Program

Community

Summer

Page 101: Truman's Mathematical Biology Program

Community

Summer

Page 102: Truman's Mathematical Biology Program

Community

Summer

Page 103: Truman's Mathematical Biology Program

Community

Summer

Page 104: Truman's Mathematical Biology Program

Community

Summer

Page 105: Truman's Mathematical Biology Program

Summer

Page 106: Truman's Mathematical Biology Program

Residence Hall

Small Group Meetings + MentorsWeekly Discussions/Workshops

Meals

Social EventsMathBio Seminar

Summer

Page 107: Truman's Mathematical Biology Program

Residence Hall

Small Group Meetings + MentorsWeekly Discussions/Workshops

Meals

Social EventsMathBio Seminar

Summer

Page 108: Truman's Mathematical Biology Program

• Image Analysis group (2004):- too many students- too many mentors- gave students too little direction, too

much lattitude

• curriculum reform (so far)

What’s Failed

Page 109: Truman's Mathematical Biology Program

• we’re thrilled with the way things are going

- student growth (intellectual, professional, skill sets)

- quality of science/mathematics- student ownership, enthusiasm- affect on faculty as researchers and

mentors

• we have a community of interdisciplinary scholars (students & faculty)

What’s Worked

Page 110: Truman's Mathematical Biology Program

• long-term nature has been critical to success

• when students live & eat together, they do talk shop with one another

• proposal presentation (summer week 3) was a trial by fire, but students raised the bar on one another!

• communication is difficult and critically important

Important Lessons

Page 111: Truman's Mathematical Biology Program

• the criteria for judging whether a course is interdisciplinary (cf. Newell) are different from those of research

• “This has completely changed the way I view my work.” (Dr. Laura Fielden)

• “[With the addition of the CS team] we’ve leaped an order of magnitude in what we are able to accomplish.” (Dr. Brent Buckner)

• “At the start, I wasn’t thrilled by the statistics, but now that we have data, I can’t wait to get to it.” (R. Rader)

• “I wish I could rewind my biology education and start it over in a way that had more mathematics.” (M. Mertz)

Thoughts

Page 112: Truman's Mathematical Biology Program

Acknowledgements• the students (11+)

• the colleagues (12+)

• Truman

• the MAA/AMS/CUR

• the National Science Foundation (DUE)

Page 113: Truman's Mathematical Biology Program

Acknowledgements• the students (11+)

• the colleagues (12+)

• Truman

• the MAA/AMS/CUR

• the National Science Foundation (DUE)

Page 114: Truman's Mathematical Biology Program

Thank you