Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-free networks with unbounded degree fluctuations, we count the number of times a small connected graph occurs as a subgraph (motif counting) or as an induced subgraph (graphlet counting). We obtain these results by analyzing the configuration model with degree exponent $\tau\in(2,3)$ and introducing a novel class of optimization problems. For any given subgraph, the unique optimizer describes the degrees of the nodes that together span the subgraph. We find that every subgraph occurs typically between vertices with specific degree ranges. In this way, we can count and characterize {\it all} subgraphs. We refrain from double counting in the cas...
\u3cp\u3eDue to its ease of use, as well as its enormous flexibility in its degree structure, the co...
For scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the structur...
\u3cp\u3eFor scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
\u3cp\u3eDue to its ease of use, as well as its enormous flexibility in its degree structure, the co...
For scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the structur...
\u3cp\u3eFor scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Subgraphs reveal information about the geometry and functionalities of complex networks. For scale-f...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
Due to its ease of use, as well as its enormous flexibility in its degree structure, the configurati...
\u3cp\u3eDue to its ease of use, as well as its enormous flexibility in its degree structure, the co...
For scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the structur...
\u3cp\u3eFor scale-free networks with degrees following a power law with an exponent τ ∈ (2, 3), the...