
doi: 10.1007/bf02579341
A decomposition theory for submodular functions is described. Any such function is shown to have a unique decomposition consisting of indecomposable functions and certain highly decomposable functions, and the latter are completely characterized. Applications include decompositions of hypergraphs based on edge and vertex connectivity, the decomposition of matroids based on three-connectivity, the Gomory—Hu decomposition of flow networks, and Fujishige’s decomposition of symmetric submodular functions. Efficient decomposition algorithms are also discussed.
hypergraph functions, submodular functions, Combinatorial aspects of matroids and geometric lattices, Hypergraphs, network functions, Graph theory, unique decomposition, Discrete mathematics in relation to computer science, decomposition algorithms, Circuits, networks
hypergraph functions, submodular functions, Combinatorial aspects of matroids and geometric lattices, Hypergraphs, network functions, Graph theory, unique decomposition, Discrete mathematics in relation to computer science, decomposition algorithms, Circuits, networks
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