Tutte polynomials computable in polynomial time
Discrete Mathematics - Algebraic graph theory; a volume dedicated to Gert Sabidussi
Complexity: knots, colourings and counting
Complexity: knots, colourings and counting
The complexities of the coefficients of the Tutte polynomial
Discrete Applied Mathematics - Special issue: Combinatorial Optimization 1992 (CO92)
An introduction to the analysis of algorithms
An introduction to the analysis of algorithms
An algorithm for the Tutte polynomials of graphs of bounded treewidth
Discrete Mathematics
Bicycle dimension and special points of the Tutte polynomial
Journal of Combinatorial Theory Series B
Random Structures & Algorithms - Special issue on statistical physics methods in discrete probability, combinatorics, and theoretical computer science
Tutte Polynomials of Perfect Matroid Designs
Combinatorics, Probability and Computing
Evaluating the Tutte Polynomial for Graphs of Bounded Tree-Width
Combinatorics, Probability and Computing
The Tutte Polynomial for Matroids of Bounded Branch-Width
Combinatorics, Probability and Computing
Combinatorics, Probability and Computing
Distributive lattices, polyhedra, and generalized flows
European Journal of Combinatorics
Computing the tutte polynomial on graphs of bounded clique-width
WG'05 Proceedings of the 31st international conference on Graph-Theoretic Concepts in Computer Science
Complexity of the cover polynomial
ICALP'07 Proceedings of the 34th international conference on Automata, Languages and Programming
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We show that evaluating the Tutte polynomial for the class of bicircular matroids is #P-hard at every point $(x,y)$ except those in the hyperbola $(x-1)(y-1)=1$ and possibly those on the lines $x=0$ and $x=-1$. Since bicircular matroids form a rather restricted subclass of transversal matroids, our results can be seen as a partial strengthening of a result by Colbourn, Provan and Vertigan, namely that the evaluation of the Tutte polynomial for the class of transversal matroids is #P-hard for all points except those in the hyperbola $(x-1)(y-1)=1$.