Last Update: Oct. 24, 2020
The Class should be divided into up to 8 teams, each with a team leader. Each team can contain from 1 to 4 students (including the team leaders, ideal size: 3). The team leader will be in charge of coordinating the various contributions, and managing the extension of the Maple package that accompany the project, that I started but should be extended considerably. The team leader would also be in charge of comminicating the output files, fairly large "data-bases" that would generate new sequences, and study them. The minimum requirement would be listed below, but it is hoped that students can study the data and make interesting conjectures and perhaps even theorems. There should also be a write-up, that my, potentially, lead to a paper in the arxiv, and possibly a "real" journal. This "polishing up" can be done after the class is over. But the preliminary version of
For examples (from previous graduate classes See example from 2019, another example (of a different kind). See also an example from 2018 and another example from 2018.
Its purpose is to generate and investigate integer sequences counting the number of HAMILTONIAN CYCLES for interesting graphs that come from Chess. Generalizing and Extending Euler's Knight's tour
Its purpose is to create a database of sequences enumerating Lattice Walks to the diagonal in the 2-Dimensional Manhattan Lattice for many sets of atomic steps and also counting those walks that stay in x ≥ y . It also finds their recurrences, growth rates, critical exponents, asymptotics, and congruence properties The final output is a list of lists arranged in LEXICGORAPHIC ORDER
Its purpose is to create a database of sequences enumerating` Lattice Walks to the diagonal in the 3-Dimensional Manhattan Lattice for many sets of atomic steps` and also counting those walks that stay in x>=y>=z It also finds their recurrences, growth rates, critical exponents, asymptotics, and congruence properties. The final output is a list of lists arranged in LEXICGORAPHIC ORDER.
Its purpose is to generate a database of all binomial coefficients sum of the form
Sum (binomial(n,k)*binomial(a1*n+b1*k,k),k=0..n)*x^k for all non-trivial a1, b1,x <=K for some fixed K
Also
Sum (binomial(n,k)*binomial(a1*n+b1*k,k)*binomial(a2*n+b2*k,k)*x^k,k=0..n)
for all non-trivial a1, b1,a2,b2,x <=K for some fixed K
Also
Sum (binomial(n,k)*binomial(a1*n+b1*k,k)*binomial(a2*n+b2*k,k),k=0..n)*binomial(a3*n+b3*n)*x^k,k=0..n) for all non-trivial a1, b1,a2,b2,a3,b3,x <=K for some fixed K
It gives databases with the beginning part of each sequence, the recurrence (generated by the Zeilberger algorithm), And growh constants and critical exponents. It also tries to investigate congruence properties in the style of Ira Gessel's nice paper.
You are welcome to suggest other projects.