𝔖 Bobbio Scriptorium
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The Tutte polynomial

✍ Scribed by Henry H. Crapo


Publisher
Springer
Year
1969
Tongue
English
Weight
61 KB
Volume
3
Category
Article
ISSN
0001-9054

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πŸ“œ SIMILAR VOLUMES


The Tutte polynomial
✍ Dominic Welsh πŸ“‚ Article πŸ“… 1999 πŸ› John Wiley and Sons 🌐 English βš– 151 KB

This is a close approximation to the content of my lecture. After a brief survey of well known properties, I present some new interpretations relating to random graphs, lattice point enumeration, and chip firing games. I then examine complexity issues and concentrate in particular, on the existence

An Interpretation for the Tutte Polynomi
✍ V Reiner πŸ“‚ Article πŸ“… 1999 πŸ› Elsevier Science 🌐 English βš– 204 KB

For any matroid M realizable over Q , we give a combinatorial interpretation of the Tutte polynomial T M (x, y) which generalizes many of its known interpretations and specializations, including Tutte's coloring and flow interpretations of T M (1t, 0), T M (0, 1t); Crapo and Rota's finite field inte

Generalized activities and the tutte pol
✍ Gary Gordon; Lorenzo Traldi πŸ“‚ Article πŸ“… 1990 πŸ› Elsevier Science 🌐 English βš– 621 KB

The notion of activities with respect to spanning trees in graphs was introduced by W.T. Tutte, and generalized to activities with respect to bases in matroids by H. Crapo. We present a further generalization, to activities with respect to arbitrary subsets of matroids. These generalized activities

Tutte polynomials for trees
✍ Sharad Chaudhary; Gary Gordon πŸ“‚ Article πŸ“… 1991 πŸ› John Wiley and Sons 🌐 English βš– 682 KB

## Abstract We define two two‐variable polynomials for rooted trees and one two‐variable polynomial for unrooted trees, all of which are based on the coranknullity formulation of the Tutte polynomial of a graph or matroid. For the rooted polynomials, we show that the polynomial completely determine

A Convolution Formula for the Tutte Poly
✍ W. Kook; V. Reiner; D. Stanton πŸ“‚ Article πŸ“… 1999 πŸ› Elsevier Science 🌐 English βš– 75 KB

Following Crapo [2], let `(x, y)(M)=x r(M) y r(M\*) , where K=Z[x, y]. Lemma 1. `(x, y) &1 =`(&x, &y).