Welcome to the M3 Webpage!!!
M
3: Mentoring for Minorities in Mathematics is part of the National Research Experience for Undergraduates Program (
NREUP)
funded by the Mathematical Association of America (MAA), the National
Science Foundation Division of Mathematical Sciences (NSF-DMS), the
National Security Agency (NSA), and the Moody's Foundation (they
ceased funding this project in 2009). We have also received internal
funding
from the College of Science and Math, Department of Mathematics and
Statistics, and the Office for Diversity at James Madison University.
The topic for Summer 2009 is Mancala-like games. We will be
in session from May 11
th to June 19
th. Drs.
Thelwell and Tongen will mentor the following four students for this
research project:
- Rex Ford
- David Melendez
- Juan Carlos Ortega
- Zurisadai Pena
- Melinda Vergara
Project Summary:
The focus of the research project is Mancala, an ancient family of board
games popular in Africa and Asia. While there are many possible rule
variants, this 'sowing' type game is based on moving stone seeds from
one container to others according to prescribed deterministic rules. Play
can be surprisingly involved, with a large number of legal moves possible
each turn. Surprisingly, there has been little published mathematical
research of this very interesting game. John Conway developed his own
variant, 'Sowing,' which led to some simple mathematical language and
structure which could be further developed. The primary research question
for this project is "Is there an optimal strategy, against which no other
competing strategy can win." Mancala has been played for more than ten
thousand years, suggesting that no obvious optimal strategy exists.
However, with M
3 mathematicians, we propose to do the
following:
- Change the number of containers and number of seeds to see when an
optimal strategy exists. For instance, with four total containers and one
seed initially in each container, the first player has an optimal
strategy, against which the other player cannot win.
- Explore and implement various
rule sets and strategies numerically to build intuition.
- Use a
combinatorial approach to discuss the number of possible moves and
strategies.
- Consider the game as a discrete dynamical system. What type
of analysis is possible using this abstraction?
Final Presentation - Friday, June 19
th, 2009 at 2:30
pm in Roop 103
The topic for Summer 2008 was Dynamical Systems and Chaos. We will
be
in session from May 5
th to June 13
th. Drs. Thelwell and Tongen will mentor the following four students for this research project:
- Jan Herburt-Hewell (hand in pocket)
- Michael Dankwa (baseball cap)
- Lianne Louizou (long hair)
- Juan Carlos Ortega (colorful shirt)
Project Summary:
During the first two days of the summer program, the students built a
chaotic waterwheel (see picture to the right). They then
proceeded to learn dynamical systems so they could better understand,
mathematically, the behavior of the wheel they built. They are
next going to build the first ever choatic sandwheel (at least to our
knowledge) and derive the equations that govern the behavior of the new
system and answer questions like:
Do you still see chaotic behavior?
Do you still see periodic behavior?
What is the qualitative behavior of the sand wheel?
What is the quantitative behavior the sand wheel?
Final Presentation - Friday, June 13
th, 2008 at 1:30 pm in Roop 103
You can see the experimental progress that was made by examining the following two movies:
Water and
Sand (you will need quicktime to view these movies).
The topic for Summer 2007 was Discrete Mathematics with applications to Biology. We were in session from May 14
th to June 22
nd. The following four students were the primary investigators for this research:
- Charell Wingfield (left of James Madison)
- Michael Frempong (right of James Madison
- Jan Herburt-Hewell (behind James Madison)
- Michael Dankwa (in front of James Madison)
Project Summary:
During the first two weeks of the M3 program, the participants will be
introduced to discrete equations focusing on both analysis and numerical
simulation. The director will present numerous open questions and ask the
students to choose a couple on which to concentrate. The entire program
(participants and director) will work together to solve the open questions
pertaining to two-gender population models.
During the third and fourth week of this research experience, the students
will perform a biological investigation of mate choice by male Betta
splendens fish using video playback of females. In this experiment, the
students will determine whether males spend more time with and direct more
courtship behaviors to a female with vertical lines than to a female without
vertical lines. This experiment will be in addition to the open questions
started during the first two weeks.
During the final two weeks of this research experience, the students will
conclude their research along with developing a mathematical model of mate
choice in
Betta splendens. The students will give a 50
minute presentation of their research results on the last day of the program.
After the conclusion of the research experience, the students will disseminate
their results in July at the JMU Biology REU poster session, a poster and oral
presentation in October at the Shenandoah Undergraduate Mathematics and
Statistics Conference, and the director will be giving an oral presentation of
the results in August at the Society for Mathematical Biology's annual meeting.
Final Presentation - Friday, June 22
nd, 2007 at 1:30 pm in Roop 103
- The influence of Female-Male Interactions on Offspring Sex Selection, Michael Dankwa and Jan Herburt-Hewell
- Infectious Disease Modeling of Human Papillomavirus, Michael Fremprong and Charell Wingfield
Click
here to go to Anthony Tongen's webpage.
Thanks again to MAA, NSF-DMS, NSA, and Moody for their generous support of this project!!
edited on 5/24/07