请输入您要查询的百科知识：

　

词条 Multidimensional network
释义

  1. Terminology

  2. Definition

     Unweighted multilayer networks  Weighted multilayer networks  General formulation in terms of tensors 

  3. Multidimensional network-specific definitions

     Multi-layer neighbors  Multi-layer path length  Network of layers 

  4. Centrality measures

     Degree  Versatility as multilayer centrality  Eigenvector versatility  Katz versatility  HITS versatility  PageRank versatility 

  5. Triadic closure and clustering coefficients

  6. Community discovery

     Modularity maximization  Tensor decomposition  Statistical inference 

  7. Structural reducibility

  8. Other multilayer network descriptors

     Degree correlations  Path dominance  Shortest path discovery  Multidimensional distance  Dimension relevance  Dimension connectivity  Burst detection 

  9. Diffusion processes on multilayer networks

     Random walks  Classical diffusion  Information and epidemics spreading   Percolation of multilayer networks  

  10. Software

  11. References

  12. External links

{{Network Science}}

Multidimensional networks, a special type of multilayer network, are networks with multiple kinds of relations.[1][2][2][3][4][5] Increasingly sophisticated attempts to model real-world systems as multidimensional networks have yielded valuable insight in the fields of social network analysis,[6][2][7][8][9][10] economics, urban and international transport,[11][12][13] ecology,[14][15][16][17] psychology,[18][19] medicine, biology,[20] commerce, climatology, physics,[21][22] computational neuroscience,[23][24][25][26] operations management, and finance.

Terminology

The rapid exploration of complex networks in recent years has been dogged by a lack of standardized naming conventions, as various groups use overlapping and contradictory[27][28] terminology to describe specific network configurations (e.g., multiplex, multilayer, multilevel, multidimensional, multirelational, interconnected). Formally, multidimensional networks are edge-labeled multigraphs.[29] The term "fully multidimensional" has also been used to refer to a multipartite edge-labeled multigraph.[30] Multidimensional networks have also recently been reframed as specific instances of multilayer networks.[3][31][32] In this case, there are as many layers as there are dimensions, and the links between nodes within each layer are simply all the links for a given dimension.

Definition

Unweighted multilayer networks

In elementary network theory, a network is represented by a graph in which is the set of nodes and the links between nodes, typically represented as a tuple of nodes . While this basic formalization is useful for analyzing many systems, real world networks often have added complexity in the form of multiple types of relations between system elements. An early formalization of this idea came through its application in the field of social network analysis (see, e.g.,[33] and papers on relational algebras in social networks) in which multiple forms of social connection between people were represented by multiple types of links.[34]

To accommodate the presence of more than one type of link, a multidimensional network is represented by a triple , where is a set of dimensions (or layers), each member of which is a different type of link, and consists of triples with and .[4]

Note that as in all directed graphs, the links and are distinct.

By convention, the number of links between two nodes in a given dimension is either 0 or 1 in a multidimensional network. However, the total number of links between two nodes across all dimensions is less than or equal to .

Weighted multilayer networks

In the case of a weighted network, this triplet is expanded to a quadruplet , where is the weight on the link between and in the dimension .

]Further, as is often useful in social network analysis, link weights may take on positive or negative values. Such signed networks can better reflect relations like amity and enmity in social networks.[30] Alternatively, link signs may be figured as dimensions themselves,[35] e.g. where and This approach has particular value when considering unweighted networks.

This conception of dimensionality can be expanded should attributes in multiple dimensions need specification. In this instance, links are n-tuples . Such an expanded formulation, in which links may exist within multiple dimensions, is uncommon but has been used in the study of multidimensional time-varying networks.[36]

]

General formulation in terms of tensors

Whereas unidimensional networks have two-dimensional adjacency matrices of size , in a multidimensional network with dimensions, the adjacency matrix becomes a multilayer adjacency tensor, a four-dimensional matrix of size .[6] By using index notation, adjacency matrices can be indicated by , to encode connections between nodes and , whereas multilayer adjacency tensors are indicated by , to encode connections between node in layer and node in layer . As in unidimensional matrices, directed links, signed links, and weights are all easily accommodated by this framework.

In the case of multiplex networks, special types of multilayer networks where nodes can not be interconnected with other nodes in other layers, a three-dimensional matrix of size with entries is enough to represent the structure of the system[37][38] by encoding connections between nodes and in layer .

]

Multidimensional network-specific definitions

Multi-layer neighbors

In a multidimensional network, the neighbors of some node are all nodes connected to across dimensions.

Multi-layer path length

A path between two nodes in a multidimensional network can be represented by a vector r in which the th entry in r is the number of links traversed in the th dimension of .[39] As with overlapping degree, the sum of these elements can be taken as a rough measure of a path length between two nodes.

Network of layers

The existence of multiple layers (or dimensions) allows to introduce the new concept of network of layers,[6] peculiar of multilayer networks. In fact, layers might be interconnected in such a way that their structure can be described by a network, as shown in the figure.

The network of layers is usually weighted (and might be directed), although, in general, the weights depends on the application of interest. A simple approach is, for each pair of layers, to sum all of the weights in the connections between their nodes to obtain edge weights that can be encoded into a matrix . The rank-2 adjacency tensor, representing the underlying network of layers in the space is given by

where is the canonical matrix with all components equal to zero except for the entry corresponding to row and column , that is equal to one. Using the tensorial notation, it is possible to obtain the (weighted) network of layers from the multilayer adjacency tensor as .[6]

Centrality measures

Degree

In a non-interconnected multidimensional network, where interlayer links are absent, the degree of a node is represented by a vector of length . Here is an alternative way to denote the number of layers in multilayer networks. However, for some computations it may be more useful to simply sum the number of links adjacent to a node across all dimensions.[6][40] This is the overlapping degree:[2] . As with unidimensional networks, distinction may similarly be drawn between incoming links and outgoing links.

If interlayer links are present, the above definition must be adapted to account for them, and the multilayer degree is given by

where the tensors and have all components equal to 1. The heterogeneity in the number of connections of a node across the different layers can be taken into account through the participation coefficient.[2]

Versatility as multilayer centrality

When extended to interconnected multilayer networks, i.e. those systems where nodes are connected across layers, the concept of centrality is better understood in terms of versatility.[41] Nodes that are not central in each layer might be the most important for the multilayer systems in certain scenarios. For instance, this is the case where two layers encode different networks with only one node in common: it is very likely that such a node will have the highest centrality score because it is responsible for the information flow across layers.

Eigenvector versatility

As for unidimensional networks, eigenvector versatility can be defined as the solution of the eigenvalue problem given by , where Einstein summation convention is used for sake of simplicity. Here, gives the multilayer generalization of Bonacich's eigenvector centrality per node per layer. The overall eigenvector versatility is simply obtained by summing up the scores across layers as .[42][43]

Katz versatility

As for its unidimensional counterpart, the Katz versatility is obtained as the solution of the tensorial equation , where , is a constant smaller than the largest eigenvalue and is another constant generally equal to 1. The overall Katz versatility is simply obtained by summing up the scores across layers as .[44]

HITS versatility

For unidimensional networks, the HITS algorithm has been originally introduced by Jon Kleinberg to rate Web Pages. The basic assumption of the algorithm is that relevant pages, named authorities, are pointed by special Web pages, named hubs. This mechanism can be mathematically described by two coupled equations which reduce to two eigenvalue problems. When the network is undirected, Authority and Hub centrality are equivalent to eigenvector centrality.

These properties are preserved by the natural extension of the equations proposed by Kleinberg to the case of interconnected multilayer networks, given by

and , where indicates the transpose operator, and indicate hub and authority centrality, respectively. By contracting the hub and authority tensors, one obtains the overall versatilities as and , respectively.[45]

PageRank versatility

PageRank, better known as Google Search Algorithm is another measure of centrality in complex networks, originally introduced to rank Web pages. Its extension to the case of interconnected multilayer networks can be obtained as follows.

First, it is worth remarking that PageRank can be seen as the steady-state solution of a special Markov process on the top of the network. Random walkers explore the network according to a special transition matrix and their dynamics is governed by a random walk master equation. It is easy to show that the solution of this equation is equivalent to the leading eigenvector of the transition matrix.

Random walks have been defined also in the case of interconnected multilayer networks[13] and edge-colored multigraphs (also known as multiplex networks).[46] For interconnected multilayer networks, the transition tensor governing the dynamics of the random walkers within and across layers is given by , where is a constant, generally set to 0.85, is the number of nodes and is the number of layers or dimensions. Here, might be named Google tensor and is the rank-4 tensor with all components equal to 1.

As its unidimensional counterpart, PageRank versatility consists of two contributions: one encoding a classical random walk with rate and one encoding teleportation across nodes and layers with rate .

If we indicate by the eigentensor of the Google tensor , denoting the steady-state probability to find the walker in node and layer , the multilayer PageRank is obtained by summing up over layers the eigentensor: [47]

Triadic closure and clustering coefficients

{{see|Triadic closure}}

Like many other network statistics, the meaning of a clustering coefficient becomes ambiguous in multidimensional networks, due to the fact that triples may be closed in different dimensions than they originated.[2][61][62] Several attempts have been made to define local clustering coefficients, but these attempts have highlighted the fact that the concept must be fundamentally different in higher dimensions: some groups have based their work off of non-standard definitions,[48] while others have experimented with different definitions of random walks and 3-cycles in multidimensional networks.[2][49]

Community discovery

While cross-dimensional structures have been studied previously,[50][51] they fail to detect more subtle associations found in some networks. Taking a slightly different take on the definition of "community" in the case of multidimensional networks allows for reliable identification of communities without the requirement that nodes be in direct contact with each other.[6][7][8][52]

For instance, two people who never communicate directly yet still browse many of the same websites would be viable candidates for this sort of algorithm.

Modularity maximization

A generalization of the well-known modularity maximization method for community discovery has been originally proposed by Mucha et al.[53] This multiresolution method assumes a three-dimensional tensor representation of the network connectivity within layers, as for edge-colored multigraphs, and a three-dimensional tensor representation of the network connectivity across layers. It depends on the resolution parameter and the weight of interlayer connections. In a more compact notation, making use of the tensorial notation, modularity can be written as , where , is the multilayer adjacency tensor, is the tensor encoding the null model and the value of components of is defined to be 1 when a node in layer belongs to a particular community, labeled by index , and 0 when it does not.[6]

Tensor decomposition

Non-negative matrix factorization has been proposed to extract the community-activity structure of temporal networks.[54] The multilayer network is represented by a three-dimensional tensor , like an edge-colored multigraph, where the order of layers encode the arrow of time. Tensor factorization by means of Kruskal decomposition is thus applied to to assign each node to a community across time.

Statistical inference

Methods based on statistical inference, generalizing existing approaches introduced for unidimensional networks, have been proposed. Stochastic block model is the most used generative model, appropriately generalized to the case of multilayer networks.[55][56]

As for unidimensional networks, principled methods like minimum description length can be used for model selection in community detection methods based on information flow.[57]

Structural reducibility

Given the higher complexity of multilayer networks with respect to unidimensional networks, an active field of research is devoted to simplify the structure of such systems by employing some kind of dimensionality reduction.[58][59]

A popular method is based on the calculation of the quantum Jensen-Shannon divergence between all pairs of layers, which is then exploited for its metric properties to build a distance matrix and hierarchically cluster the layers. Layers are successively aggregated according to the resulting hierarchical tree and the aggregation procedure is stopped when the objective function, based on the entropy of the network, gets a global maximum. This greedy approach is necessary because the underlying problem would require to verify all possible layer groups of any size, requiring a huge number of possibile combinations (which is given by the Bell number and scales super-exponentially with the number of units). Nevertheless, for multilayer systems with a small number of layers, it has been shown that the method performs optimally in the majority of cases.[60]

Other multilayer network descriptors

Degree correlations

The question of degree correlations in unidimensional networks is fairly straightforward: do networks of similar degree tend to connect to each other? In multidimensional networks, what this question means becomes less clear. When we refer to a node's degree, are we referring to its degree in one dimension, or collapsed over all? When we seek to probe connectivity between nodes, are we comparing the same nodes across dimensions, or different nodes within dimensions, or a combination?[4] What are the consequences of variations in each of these statistics on other network properties? In one study, assortativity was found to decrease robustness in a duplex network.[61]

Path dominance

Given two multidimensional paths, r and s, we say that r dominates s if and only if: and such that .[39]

Shortest path discovery

Among other network statistics, many centrality measures rely on the ability to assess shortest paths from node to node. Extending these analyses to a multidimensional network requires incorporating additional connections between nodes into the algorithms currently used (e.g., Dijkstra's). Current approaches include collapsing multi-link connections between nodes in a preprocessing step before performing variations on a breadth-first search of the network.

Multidimensional distance

One way to assess the distance between two nodes in a multidimensional network is by comparing all the multidimensional paths between them and choosing the subset that we define as shortest via path dominance: let be the set of all paths between and . Then the distance between and is a set of paths such that such that dominates . The length of the elements in the set of shortest paths between two nodes is therefore defined as the multidimensional distance.[39]

Dimension relevance

In a multidimensional network , the relevance of a given dimension (or set of dimensions) for one node can be assessed by the ratio: .[40]

Dimension connectivity

In a multidimensional network in which different dimensions of connection have different real-world values, statistics characterizing the distribution of links to the various classes are of interest. Thus it is useful to consider two metrics that assess this: dimension connectivity and edge-exclusive dimension connectivity. The former is simply the ratio of the total number of links in a given dimension to the total number of links in every dimension: . The latter assesses, for a given dimension, the number of pairs of nodes connected only by a link in that dimension: .[40]

Burst detection

Burstiness is a well-known phenomenon in many real-world networks, e.g. email or other human communication networks. Additional dimensions of communication provide a more faithful representation of reality and may highlight these patterns or diminish them. Therefore it is of critical importance that our methods for detecting bursty behavior in networks accommodate multidimensional networks.[62]

Diffusion processes on multilayer networks

Diffusion processes are widely used in physics to explore physical systems, as well as in other disciplines as social sciences, neuroscience, urban and international transportation or finance. Recently, simple and more complex diffusive processes have been generalized to multilayer networks.[22][63] One result common to many studies is that diffusion in multiplex networks, a special type of multilayer system, exhibits two regimes: 1) the weight of inter-layer links, connecting layers each other, is not high enough and the multiplex system behaves like two (or more) uncoupled networks; 2) the weight of inter-layer links is high enough that layers are coupled each other, raising unexpected physical phenomena.[22] It has been shown that there is an abrupt transition between these two regimes.[64]

In fact, all network descriptors depending on some diffusive process, from centrality measures to community detection, are affected by the layer-layer coupling. For instance, in the case of community detection, low coupling (where information from each layer separately is more relevant than the overall structure) favors clusters within layers, whereas high coupling (where information from all layer simultaneously is more relevant than the each layer separately) favors cross-layer clusters.[7][8]

Diffusion reaction process on a multilayer system has been studied by Lazaridis et al.[65] It is found that for the process where A and B are initially in different layers there appear, due to the reaction, a kind of repulsion between A and B that delays them.

Random walks

As for unidimensional networks, it is possible to define random walks on the top of multilayer systems. However, given the underlying multilayer structure, random walkers are not limited to move from one node to another within the same layer (jump), but are also allowed to move across layers (switch).[13]

Random walks can be used to explore a multilayer system with the ultimate goal to unravel its mesoscale organization, i.e. to partition it in communities,[7][8] and have been recently used to better understand navigability of multilayer networks and their resilience to random failures,[13] as well as for exploring efficiently this type of topologies.[66]

In the case of interconnected multilayer systems, the probability to move from a node in layer to node in layer can be encoded into the rank-4 transition tensor and the discrete-time walk can be described by the master equation

where indicates the probability of finding the walker in node in layer at time .[6][13]

There are many different types of walks that can be encoded into the transition tensor , depending on how the walkers are allowed to jump and switch. For instance, the walker might either jump or switch in a single time step without distinguishing between inter- and intra-layer links (classical random walk), or it can choose either to stay in the current layer and jump, or to switch layer and then jump to another node in the same time step (physical random walk). More complicated rules, corresponding to specific problems to solve, can be found in the literature.[22] In some cases, it is possible to find, analytically, the stationary solution of the master equation.[13][66]

Classical diffusion

The problem of classical diffusion in complex networks is to understand how a quantity will flow through the system and how much time it will take to reach the stationary state. Classical diffusion in multiplex networks has been recently studied by introducing the concept of supra-adjacency matrix,[67] later recognized as a special flattening of the multilayer adjacency tensor.[6] In tensorial notation, the diffusion equation on the top of a general multilayer system can be written, concisely, as

where is the amount of diffusing quantity at time in node in layer . The rank-4 tensor governing the equation is the Laplacian tensor, generalizing the combinatorial Laplacian matrix of unidimensional networks. It is worth remarking that in non-tensorial notation, the equation takes a more complicated form.

Many of the properties of this diffusion process are completely understood in terms of the second smallest eigenvalue of the Laplacian tensor. It is interesting that diffusion in a multiplex system can be faster than diffusion in each layer separately, or in their aggregation, provided that certain spectral properties are satisfied.[67]

Information and epidemics spreading

{{see also|epidemiology}}

Recently, how information (or diseases) spread through a multilayer system has been the subject of intense research.[68][69][70]

Percolation of multilayer networks

Buldyrev et al[71] developed a framework to study percolation in multilayer networks with dependency links between the layers. New physical phenomena has been found, including abrupt transitions and cascading failures.[72] When the networks are embedded in space they become extremely vulnerable even for a very small fraction of dependency links[73] and for localized attacks on a zero fraction of nodes.[74] When recovery of nodes is introduced a rich phase diagram is found that include multicritical points and metastable regimes.[75][76]

Software

  • muxViz, free and efficient framework for analysis and visualization of multilayer networks, based on R [https://github.com/manlius/muxViz] [77]
  • Multilayer Networks Library for Python (Pymnet) by Mikko Kivelä
  • [https://github.com/KatolaZ/mammult MAMMULT] Metrics And Models for MULTilayer networks (collection of C/Python code)[78][5]
  • GenLouvain MATLAB code for community detection based on multislice modularity maximization[79]
  • Multinet R and C++ library for the analysis of multilayer networks.

References

1. ^{{Cite book|last1=Coscia|first1=Michele|title="You Know Because I Know": A Multidimensional Network Approach to Human Resources Problem|journal=Advances in Social Network Analysis and Mining (ASONAM)|volume=2013|pages=434|last2=Rossetti|first2=Giulio|last3=Pennacchioli|first3=Diego|last4=Ceccarelli|first4=Damiano|last5=Giannotti|first5=Fosca|year=2013|doi=10.1145/2492517.2492537|arxiv=1305.7146|isbn=9781450322409}}
2. ^1 2 3 4 5 {{Cite journal| year = 2014| last1= Battiston| first1 = F.| title = Structural measures for multiplex networks| journal = Physical Review E| volume = 89| issue= 3| pages = 032804| last2 = Nicosia| first2 = V.| last3 = Latora| first3 = V.| doi=10.1103/PhysRevE.89.032804| pmid= 24730896| bibcode= 2014PhRvE..89c2804B| arxiv= 1308.3182}}
3. ^1 {{Cite journal | doi = 10.1093/comnet/cnu016| title = Multilayer networks| journal = Journal of Complex Networks| volume = 2| issue = 3| pages = 203–271| year = 2014| last1 = Kivela | first1 = M.| last2 = Arenas | first2 = A.| last3 = Barthelemy | first3 = M.| last4 = Gleeson | first4 = J. P.| last5 = Moreno | first5 = Y.| last6 = Porter | first6 = M. A.|url=http://comnet.oxfordjournals.org/content/2/3/203.full}}
4. ^1 2 {{Cite journal|last1= Boccaletti|first1= S.|title= The structure and dynamics of multilayer networks|journal= Physics Reports|volume= 544|issue= 1|pages= 1–122|last2= Bianconi|first2= G.|last3= Criado|first3= R.|last4= del Genio|first4= C. I.|last5= Gómez-Gardeñes|first5= J.|last6= Romance|first6= M.|last7= Sendiña-Nadal|first7= I.|last8= Wang|first8= Z.|last9= Zanin|first9= M.|year= 2014|doi= 10.1016/j.physrep.2014.07.001|arxiv=1407.0742|bibcode= 2014PhR...544....1B}}
5. ^1 {{Cite journal|last=Battiston|first=Federico|last2=Nicosia|first2=Vincenzo|last3=Latora|first3=Vito|date=2017-02-01|title=The new challenges of multiplex networks: Measures and models|journal=The European Physical Journal Special Topics|language=en|volume=226|issue=3|pages=401–416|doi=10.1140/epjst/e2016-60274-8|issn=1951-6355|arxiv=1606.09221|bibcode=2017EPJST.226..401B}}
6. ^1 2 3 4 5 6 7 8 9 {{Cite journal | doi = 10.1103/PhysRevX.3.041022| title = Mathematical Formulation of Multilayer Networks| journal = Physical Review X| volume = 3| issue = 4| pages = 041022| year = 2013| last1 = De Domenico | first1 = M. | last2 = Solé-Ribalta | first2 = A. | last3 = Cozzo | first3 = E. | last4 = Kivelä | first4 = M. | last5 = Moreno | first5 = Y. | last6 = Porter | first6 = M. | last7 = Gómez | first7 = S. | last8 = Arenas | first8 = A. |url=http://www.isi.it/wp-content/uploads/publication/document/physrevx_3_041022_1389284935.pdf | bibcode = 2013PhRvX...3d1022D| arxiv = 1307.4977}}
7. ^1 2 3 {{Cite journal| year = 2010| last1 = Mucha| first1 = P.| title = Community structure in time-dependent, multiscale, and multiplex networks| journal = Science| volume = 328|issue=5980| pages = 876–878| displayauthors=etal|arxiv=0911.1824|url=https://people.maths.ox.ac.uk/porterm/papers/multislice.pdf|doi=10.1126/science.1184819| pmid = 20466926| bibcode = 2010Sci...328..876M| citeseerx = 10.1.1.749.3504}}
8. ^1 2 3 {{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Identifying Modular Flows on Multilayer Networks Reveals Highly Overlapping Organization in Interconnected Systems| journal = Physical Review X| volume = 5| issue= 1| pages = 011027| last2 = Lancichinetti| first2 = A.| last3 = Arenas| first3 = A.| last4 = Rosvall| first4 = M.| doi=10.1103/PhysRevX.5.011027| arxiv=1408.2925| bibcode= 2015PhRvX...5a1027D}}
9. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
10. ^{{Cite journal|last=Battiston|first=Federico|last2=Iacovacci|first2=Jacopo|last3=Nicosia|first3=Vincenzo|last4=Bianconi|first4=Ginestra|last5=Latora|first5=Vito|date=2016-01-27|title=Emergence of Multiplex Communities in Collaboration Networks|journal=PLoS ONE|volume=11|issue=1|pages=e0147451|doi=10.1371/journal.pone.0147451|issn=1932-6203|pmc=4731389|pmid=26815700|bibcode=2016PLoSO..1147451B|arxiv=1506.01280}}
11. ^{{Cite journal| year = 2013| last1= Cardillo| first1 = A.| title = Emergence of network features from multiplexity| journal = Scientific Reports| volume = 3| pages = 1344 | displayauthors=etal|doi=10.1038/srep01344| pmid= 23446838| pmc= 3583169|url=http://www.nature.com/articles/srep01344| bibcode= 2013NatSR...3E1344C| arxiv= 1212.2153}}
12. ^{{Cite journal| year = 2014| last1= Gallotti| first1 = R.| title = Anatomy and efficiency of urban multimodal mobility| journal = Scientific Reports| volume = 4| pages = 6911| last2 = Barthelemy| first2 = M.| arxiv=1411.1274| doi=10.1038/srep06911| pmid= 25371238| pmc= 4220282| url=http://www.nature.com/articles/srep06911| bibcode= 2014NatSR...4E6911G}}
13. ^1 2 3 4 5 {{Cite journal| year = 2014| last1= De Domenico| first1 = M.| title = Navigability of interconnected networks under random failures| journal = PNAS| volume = 111| issue= 23| pages = 8351–8356| last2 = Sole-Ribalta| first2 = A.| last3 = Gomez| first3 = S.| last4 = Arenas| first4 = A.|doi=10.1073/pnas.1318469111| pmid= 24912174|url=http://www.pnas.org/content/111/23/8351.full| bibcode= 2014PNAS..111.8351D| pmc=4060702}}
14. ^{{Cite journal|last1=Stella|first1=M.|last2=Andreazzi|first2=C.S.|last3=Selakovic|first3=S.|last4=Goudarzi|first4=A.|last5=Antonioni|first5=A.|title=Parasite spreading in spatial ecological multiplex networks|journal=Journal of Complex Networks|volume = 5|issue = 3|pages = 486–511|doi = 10.1093/comnet/cnw028|url = https://academic.oup.com/comnet/article-abstract/5/3/486/2557036/Parasite-spreading-in-spatial-ecological-multiplex|year=2016|arxiv=1602.06785}}
15. ^{{Cite journal|last1=Pilosof|first1=S.|last2=Porter|first2=M.A.|last3=Pascual|first3=M.|last4=Kefi|first4=S.|title=The Multilayer Nature of Ecological Networks|journal=Nature Ecology & Evolution|volume = 1|issue=4|pages = 0101|doi = 10.1038/s41559-017-0101|pmid=28812678|url = http://www.nature.com/articles/s41559-017-0101|year=2017|arxiv=1511.04453}}
16. ^{{Cite journal|last=Timóteo|first=S.|last2=Correia|first2=M.|last3=Rodríguez-Echeverría|first3=S.|last4=Freitas|first4=H.|last5=Heleno|first5=R.|title=Multilayer networks reveal the spatial structure of seed-dispersal interactions across the Great Rift landscapes |journal=Nature Communications|year=2018|doi=10.1038/s41467-017-02658-y|pmid=29321529|volume=9|issue=1|page=140|url=https://www.nature.com/articles/s41467-017-02658-y.pdf}}
17. ^{{Cite journal|last=Costa|first=J.M.|last2=Ramos|first2=J.A.|last3=Timóteo|first3=S.|last4=da Silva|first4=L.P.|last5=Ceia|first5=R.C.|last6=Heleno|first6=R.|title=Species activity promote the stability of fruit-frugivore interactions across a five-year multilayer network|biorxiv=421941|year=2018|doi=10.1101/421941}}
18. ^{{Cite journal | pmid = 18079416| year = 2007| last1= Fiori| first1 = K. L.| title = Social network types among older adults: A multidimensional approach| journal = The Journals of Gerontology Series B| volume = 62| issue = 6| pages = P322–30| last2 = Smith| first2 = J| last3 = Antonucci| first3 = T. C.| url=http://psychsocgerontology.oxfordjournals.org/content/62/6/P322.long | doi=10.1093/geronb/62.6.p322}}
19. ^{{Cite journal | pmid = 5402256| year = 2017| last1= Stella| first1 = M.| title = Multiplex lexical networks reveal patterns in early word acquisition in children| journal = Scientific Reports| issue = 7| pages = 619–23| last2 = Beckage| first2 = N. M.| last3 = Brede| first3 = M.| url=https://www.nature.com/articles/srep46730 | doi=10.1038/srep46730 | volume=21| arxiv= 1609.03207| bibcode= 2017NatSR...746730S}}
20. ^{{Cite journal| year = 2015| last= De Domenico| first1 = M.| title = Structural reducibility of multilayer networks| journal = Nature Communications| volume = 6| pages = 6864| last2 = Nicosia| first2 = V.| last3 = Arenas| first3 = A.| last4 = Latora| first4 = V.|doi=10.1038/ncomms7864 | pmid= 25904309|url=http://www.nature.com/ncomms/2015/150423/ncomms7864/full/ncomms7864.html| bibcode= 2015NatCo...6E6864D}}
21. ^{{Cite journal|last=Gao|last2=Buldyrev|last3=Stanley|last4=Havlin|date=22 December 2011|title=Networks formed from interdependent networks|url=http://www.nature.com/nphys/journal/v8/n1/full/nphys2180.html|journal=Nature Physics |doi=10.1038/nphys2180|pmid=|access-date=|volume=8|issue=1|pages=40–48|bibcode=2012NatPh...8...40G|citeseerx=10.1.1.379.8214}}
22. ^1 2 3 {{Cite journal|last=De Domenico|first=M.|last2=Granell|first2=C.|last3=Porter|first3=Mason A.|last4=Arenas|first4=A.|date=7 April 2016|title=The physics of spreading processes in multilayer networks|volume=12|issue=10|pages=901–906|arxiv=1604.02021|url=http://www.nature.com/nphys/journal/vaop/ncurrent/full/nphys3865.html|doi= 10.1038/nphys3865|journal=Nature Physics |bibcode=2016NatPh..12..901D}}
23. ^{{Cite journal|last=Timme|first=N.|last2=Ito|first2=S.|last3=Myroshnychenko|first3=M.|last4=Yeh|first4=F.C.|last5=Hiolski|first5=E.|last6=Hottowy|first6=P.|last7=Beggs|first7=J.M.|doi=10.1371/journal.pone.0115764|pmid=25536059|journal=PLoS ONE |volume=9|issue=12|pages=e115764|title=Multiplex Networks of Cortical and Hippocampal Neurons Revealed at Different Timescales|year=2014|bibcode=2014PLoSO...9k5764T|pmc=4275261}}
24. ^{{Cite journal|last=De Domenico|first=M.|last2=Sasai|first2=S.|last3=Arenas|first3=A.|doi=10.3389/fnins.2016.00326|pmid=27471443|pmc=4945645|journal=Frontiers in Neuroscience |volume=10|pages=326|title=Mapping multiplex hubs in human functional brain networks|year=2016}}
25. ^{{Cite journal|last=Battiston|first=F.|last2=Nicosia|first2=V.|last3=Chavez|first3=M.|last4=Latora|first4=V.|arxiv=1606.09115|title=Multilayer motif analysis of brain networks|year=2017|doi=10.1063/1.4979282|volume=27|issue=4|journal=Chaos: An Interdisciplinary Journal of Nonlinear Science|page=047404|bibcode=2017Chaos..27d7404B}}
26. ^{{Cite journal|last=De Domenico|first=M.|url=https://academic.oup.com/gigascience/article-lookup/doi/10.1093/gigascience/gix004|doi=10.1093/gigascience/gix004|pmid=28327916|pmc=5437946|journal=GigaScience|volume=6|issue=5|pages=1–8|title=Multilayer modeling and analysis of human brain networks|year=2017}}
27. ^{{Cite book | doi = 10.1109/ASONAM.2011.67| chapter = Shortest Path Discovery in the Multi-layered Social Network| title = 2011 International Conference on Advances in Social Networks Analysis and Mining| pages = 497–501| year = 2011| last1 = Bródka | first1 = P. | last2 = Stawiak | first2 = P. | last3 = Kazienko | first3 = P. | isbn = 978-1-61284-758-0| arxiv = 1210.5180}}
28. ^{{Cite journal | doi = 10.1098/rstb.2012.0113| title = Taking sociality seriously: The structure of multi-dimensional social networks as a source of information for individuals| journal = Philosophical Transactions of the Royal Society B | volume = 367| issue = 1599| pages = 2108–18| year = 2012| last1 = Barrett | first1 = L.| last2 = Henzi | first2 = S. P.| last3 = Lusseau | first3 = D.|pmid=22734054 |pmc=3385678 }}
29. ^{{cite arXiv |eprint= 1401.3126|last1= Zignani|first1= Matteo|title= Exploiting all phone media? A multidimensional network analysis of phone users' sociality|last2= Quadri|first2= Christian|last3= Gaitto|first3= Sabrina|author4= Gian Paolo Rossi|class= cs.SI|year= 2014}}
30. ^1 {{cite journal | last1 = Contractor | first1 = Noshir | last2 = Monge | first2 = Peter | last3 = Leonardi | first3 = Paul M. | year = 2011 | title = Network Theory: Multidimensional Networks and the Dynamics of Sociomateriality: Bringing Technology Inside the Network | url = http://ijoc.org/index.php/ijoc/article/view/1131/550 | journal = International Journal of Communication | volume = 5 | issue = | page = 39 }}
31. ^{{Cite journal|last1= Boccaletti|first1= S.|title= The structure and dynamics of multilayer networks|journal= Physics Reports|volume= 544|issue= 1|pages= 1–122|last2= Bianconi|first2= G.|last3= Criado|first3= R.|last4= del Genio|first4= C. I.|last5= Gómez-Gardeñes|first5= J.|last6= Romance|first6= M.|last7= Sendiña-Nadal|first7= I.|last8= Wang|first8= Z.|last9= Zanin|first9= M.|year= 2014|doi= 10.1016/j.physrep.2014.07.001|arxiv=1407.0742|bibcode= 2014PhR...544....1B}}
32. ^{{Cite book | doi = 10.1109/ASONAM.2011.114| chapter = The ML-Model for Multi-layer Social Networks| title = 2011 International Conference on Advances in Social Networks Analysis and Mining| pages = 5| year = 2011| last1 = Magnani | first1 = M. | last2 = Rossi | first2 = L. | isbn = 978-1-61284-758-0}}
33. ^{{cite book |last=Goffman |title=Frame analysis: an essay on the organization of experience |isbn=9780930350918 |year=1986 }}
34. ^{{Cite book|title=Social Network Analysis: Methods and Applications|isbn=9780521387071|author1=Wasserman|first1=Stanley|author-link1=Stanley Wasserman| date=1994-11-25|location=Cambridge|publisher= Cambridge University Press}}
35. ^{{Cite journal|arxiv=1003.2429|last1=Leskovec|first1=Jure|title=Predicting Positive and Negative Links in Online Social Networks|journal=WWW : ACM WWW International Conference on World Wide Web|volume=2010|issue=2010|last2=Huttenlocher|first2=Daniel|last3=Kleinberg|first3=Jon|year=2010|url=https://www.cs.cornell.edu/home/kleinber/www10-signed.pdf|doi=10.1145/1772690.1772756|pages=641–650|citeseerx=10.1.1.154.3679}}
36. ^{{Cite book | doi = 10.1007/978-3-642-23935-9_37| chapter = Multidimensional Social Network: Model and Analysis| title = Computational Collective Intelligence. Technologies and Applications| volume = 6922| pages = 378| series = Lecture Notes in Computer Science| year = 2011| last1 = Kazienko | first1 = P. A. | last2 = Musial | first2 = K. | last3 = Kukla | first3 = E. B. | last4 = Kajdanowicz | first4 = T. | last5 = Bródka | first5 = P. | isbn = 978-3-642-23934-2}}
37. ^{{Cite journal| year = 2010| last1 = Mucha| first1 = P.| title = Community structure in time-dependent, multiscale, and multiplex networks| journal = Science| volume = 328|issue=5980| pages = 876–878| displayauthors=etal|arxiv=0911.1824|url=https://people.maths.ox.ac.uk/porterm/papers/multislice.pdf|doi=10.1126/science.1184819| pmid = 20466926| bibcode = 2010Sci...328..876M| citeseerx = 10.1.1.749.3504}}
38. ^{{Cite journal| year = 2013| last1 = Nicosia| first1 = V.| last2 = Bianconi| first2 = G.| last3 = Nicosia| first3 = V.| last4 = Barthelemy| first4 = M.| title = Growing multiplex networks| journal = Physical Review Letters| volume = 111|issue=5| pages =058701|doi= 10.1103/PhysRevLett.111.058701| pmid = 23952453| arxiv = 1302.7126| bibcode = 2013PhRvL.111e8701N}}
39. ^1 2 M. Magnani, A. Monreale, G. Rossetti, F. Giannotti: "On multidimensional network measures", SEBD 2013, Rocella Jonica, Italy
40. ^1 2 {{Cite book | doi = 10.1109/ASONAM.2011.103| chapter = Foundations of Multidimensional Network Analysis| title = 2011 International Conference on Advances in Social Networks Analysis and Mining| pages = 485| year = 2011| last1 = Berlingerio | first1 = M. | last2 = Coscia | first2 = M. | last3 = Giannotti | first3 = F. | last4 = Monreale | first4 = A. | last5 = Pedreschi | first5 = D. | isbn = 978-1-61284-758-0|chapter-url=http://www.michelecoscia.com/wp-content/uploads/2012/08/foundations.pdf| citeseerx = 10.1.1.717.5985}}
41. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
42. ^{{Cite journal | doi = 10.1103/PhysRevX.3.041022| title = Mathematical Formulation of Multilayer Networks| journal = Physical Review X| volume = 3| issue = 4| pages = 041022| year = 2013| last1 = De Domenico | first1 = M. | last2 = Solé-Ribalta | first2 = A. | last3 = Cozzo | first3 = E. | last4 = Kivelä | first4 = M. | last5 = Moreno | first5 = Y. | last6 = Porter | first6 = M. | last7 = Gómez | first7 = S. | last8 = Arenas | first8 = A. |url=http://www.isi.it/wp-content/uploads/publication/document/physrevx_3_041022_1389284935.pdf | bibcode = 2013PhRvX...3d1022D| arxiv = 1307.4977}}
43. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
44. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
45. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
46. ^{{Cite journal| year = 2016| last1= Battiston| first1 = F.| title = Efficient exploration of multiplex networks| journal = New Journal of Physics| volume = 18| issue= 4| pages = 043035| last2 = Nicosia| first2 = V.| last3 = Latora| first3 = V.|url=http://stacks.iop.org/1367-2630/18/i=4/a=043035| bibcode= 2016NJPh...18d3035B| doi= 10.1088/1367-2630/18/4/043035| arxiv= 1505.01378}}
47. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Ranking in interconnected multilayer networks reveals versatile nodes| journal = Nature Communications| volume = 6| pages = 6868| last2 = Sole-Ribalta| first2 = A.| last3 = Omodei| first3 = E.| last4 = Gomez| first4 = S.| last5 = Arenas| first5 = A.| doi=10.1038/ncomms7868| pmid= 25904405| bibcode= 2015NatCo...6E6868D}}
48. ^1 {{Cite journal|arxiv=1207.4293|last1=Bródka|first1=Piotr|title=Analysis of Neighbourhoods in Multi-layered Dynamic Social Networks|journal=International Journal of Computational Intelligence Systems|volume=5|issue=3|pages=582–596|last2=Kazienko|first2=Przemysław|last3=Musiał|first3=Katarzyna|last4=Skibicki|first4=Krzysztof|year=2012|doi=10.1080/18756891.2012.696922}}
49. ^1 {{Cite journal |journal=New Journal of Physics|volume=17|issue=7|pages=073029|last1=Cozzo|first1=Emanuele|title=Structure of triadic relations in multiplex networks|last2=Kivelä|first2=Mikko|author3=Manlio De Domenico|last4=Solé|first4=Albert|last5=Arenas|first5=Alex|last6=Gómez|first6=Sergio|last7= Porter|first7=Mason A.|last8=Moreno|first8=Yamir|year=2015|doi=10.1088/1367-2630/17/7/073029|arxiv=1307.6780|url=https://people.maths.ox.ac.uk/porterm/papers/ccmult-published.pdf|bibcode=2015NJPh...17g3029C}}
50. ^{{Cite book | doi = 10.1109/ICDE.2006.34| chapter = CLAN: An Algorithm for Mining Closed Cliques from Large Dense Graph Databases| title = 22nd International Conference on Data Engineering (ICDE'06)| pages = 73| year = 2006| last1 = Jianyong Wang| last2 = Zhiping Zeng| last3 = Lizhu Zhou| isbn = 978-0-7695-2570-9|chapter-url=http://dbgroup.cs.tsinghua.edu.cn/zengzp/pdfs/073_R23-1-161-Wang.pdf}}
51. ^{{Cite book | doi = 10.1007/11564126_44| chapter = Community Mining from Multi-relational Networks| title = Knowledge Discovery in Databases: PKDD 2005| volume = 3721| pages = 445| series = Lecture Notes in Computer Science| year = 2005| last1 = Cai | first1 = D. | last2 = Shao | first2 = Z. | last3 = He | first3 = X. | last4 = Yan | first4 = X. | last5 = Han | first5 = J. | isbn = 978-3-540-29244-9}}
52. ^{{Cite journal | doi = 10.1007/s10618-013-0331-0| title = ABACUS: Frequent p Attern mining-BAsed Community discovery in m Ultidimensional networkS| journal = Data Mining and Knowledge Discovery| volume = 27| issue = 3| pages = 294–320| year = 2013| last1 = Berlingerio | first1 = M. | last2 = Pinelli | first2 = F. | last3 = Calabrese | first3 = F.|arxiv=1303.2025}}
53. ^{{Cite journal| year = 2010| last1 = Mucha| first1 = P.| title = Community structure in time-dependent, multiscale, and multiplex networks| journal = Science| volume = 328|issue=5980| pages = 876–878| displayauthors=etal|arxiv=0911.1824|url=https://people.maths.ox.ac.uk/porterm/papers/multislice.pdf|doi=10.1126/science.1184819| pmid = 20466926| bibcode = 2010Sci...328..876M| citeseerx = 10.1.1.749.3504}}
54. ^{{Cite journal|last=Gauvin|first=L.|last2=Panisson|first2=A.|last3=Cattuto|first3=C.|doi=10.1371/journal.pone.0086028|pmid=24497935|pmc=3908891|journal=PLoS ONE |volume=9|issue=1|pages=e86028|title=Detecting the community structure and activity patterns of temporal networks: a non-negative tensor factorization approach|year=2014|bibcode=2014PLoSO...986028G|arxiv=1308.0723}}
55. ^{{Cite journal | doi = 10.1103/PhysRevE.92.042807| pmid = 26565289| title = Inferring the mesoscale structure of layered, edge-valued, and time-varying networks| journal = Physical Review E| volume = 92| issue = 4|pages=042807| year = 2015| last1 = Peixoto | first1 = T.P. | arxiv = 1504.02381| bibcode = 2015PhRvE..92d2807P}}
56. ^{{Cite journal | doi = 10.1103/PhysRevX.6.011036| title = Multilayer stochastic block models reveal the multilayer structure of complex networks| journal = Physical Review X| volume = 6| issue = 1|pages=011036| year = 2016| last1 = Valles-Català | first1 = T.|last2=Massucci|first2=F.|last3=Guimerà|first3=R.|last4=Sales-Pardo|first4=M.| bibcode = 2016PhRvX...6a1036V}}
57. ^{{Cite journal| year = 2015| last1= De Domenico| first1 = M.| title = Identifying Modular Flows on Multilayer Networks Reveals Highly Overlapping Organization in Interconnected Systems| journal = Physical Review X| volume = 5| issue= 1| pages = 011027| last2 = Lancichinetti| first2 = A.| last3 = Arenas| first3 = A.| last4 = Rosvall| first4 = M.| doi=10.1103/PhysRevX.5.011027| arxiv=1408.2925| bibcode= 2015PhRvX...5a1027D}}
58. ^{{Cite journal| year = 2015| last= De Domenico| first1 = M.| title = Structural reducibility of multilayer networks| journal = Nature Communications| volume = 6| pages = 6864| last2 = Nicosia| first2 = V.| last3 = Arenas| first3 = A.| last4 = Latora| first4 = V.|doi=10.1038/ncomms7864 | pmid= 25904309|url=http://www.nature.com/ncomms/2015/150423/ncomms7864/full/ncomms7864.html| bibcode= 2015NatCo...6E6864D}}
59. ^{{Cite journal| year = 2014| last= Sánchez-García| first1 = R.J.| title = Dimensionality reduction and spectral properties of multilayer networks| journal = Physical Review E| volume = 89.5| issue= 5| pages = 052815| last2 = Cozzo| first2 = E.| last3 = Moreno| first3 = Y.|doi=10.1103/PhysRevE.89.052815| pmid= 25353852| arxiv= 1311.1759| bibcode= 2014PhRvE..89e2815S}}
60. ^{{Cite journal| year = 2015| last= De Domenico| first1 = M.| title = Structural reducibility of multilayer networks| journal = Nature Communications| volume = 6| pages = 6864| last2 = Nicosia| first2 = V.| last3 = Arenas| first3 = A.| last4 = Latora| first4 = V.|doi=10.1038/ncomms7864 | pmid= 25904309|url=http://www.nature.com/ncomms/2015/150423/ncomms7864/full/ncomms7864.html| bibcode= 2015NatCo...6E6864D}}
61. ^{{Cite journal | doi = 10.1103/PhysRevE.86.066103| pmid = 23368000| title = Assortativity decreases the robustness of interdependent networks| journal = Physical Review E| volume = 86| issue = 6| pages = 066103| year = 2012| last1 = Zhou | first1 = D. | last2 = Stanley | first2 = H. E. | last3 = d’Agostino | first3 = G. | last4 = Scala | first4 = A. | bibcode = 2012PhRvE..86f6103Z| arxiv = 1203.0029}}
62. ^{{Cite journal | doi = 10.1371/journal.pone.0103183| pmid = 25068479| title = Multidimensional Human Dynamics in Mobile Phone Communications| journal = PLoS ONE| volume = 9| issue = 7| pages = e103183| year = 2014| last1 = Quadri | first1 = C. | last2 = Zignani | first2 = M. | last3 = Capra | first3 = L. | last4 = Gaito | first4 = S. | last5 = Rossi | first5 = G. P. | bibcode = 2014PLoSO...9j3183Q | pmc=4113357}}
63. ^{{Cite journal| year = 2015| last1= Salehi| first1 = M.| title = Spreading Processes in Multilayer Networks| journal = IEEE Transactions on Network Science and Engineering| volume = 2| issue= 2| pages = 65–83|display-authors=etal| doi=10.1109/TNSE.2015.2425961| url=http://ieeexplore.ieee.org/xpl/abstractAuthors.jsp?arnumber=7093190|arxiv=1405.4329}}
64. ^{{Cite journal| year = 2013| last1= Radicchi| first1 = F.| title = Spreading Processes in Multilayer Networks| journal = Nature Physics| volume = 9| issue= 11| pages = 717–720| last2 = Arenas| first2 = A.| doi=10.1038/nphys2761| url=http://www.nature.com/nphys/journal/v9/n11/full/nphys2761.html|arxiv=1307.4544| bibcode= 2013NatPh...9..717R}}
65. ^{{Cite journal|last=Lazaridis|first=Filippos|last2=Gross|first2=Bnaya|last3=Maragakis|first3=Michael|last4=Argyrakis|first4=Panos|last5=Bonamassa|first5=Ivan|last6=Havlin|first6=Shlomo|last7=Cohen|first7=Reuven|date=2018-04-04|title=Spontaneous repulsion in the A + B → 0 reaction on coupled networks|url=https://www.researchgate.net/publication/324236713|journal=Physical Review E|volume=97|issue=4|pages=040301|doi=10.1103/PhysRevE.97.040301|pmid=29758747|arxiv=1804.05337}}
66. ^1 {{Cite journal| year = 2016| last1= Battiston| first1 = F.| title = Efficient exploration of multiplex networks| journal = New Journal of Physics| volume = 18| issue= 4| pages = 043035| last2 = Nicosia| first2 = V.| last3 = Latora| first3 = V.| doi=10.1088/1367-2630/18/4/043035|arxiv=1505.01378| bibcode= 2016NJPh...18d3035B}}
67. ^1 {{Cite journal| year = 2013| last1= Gomez| first1 = S.| title = Diffusion dynamics on multiplex networks| journal = Physical Review Letters| volume = 110| issue= 2| pages = 028701|display-authors=etal| doi=10.1103/PhysRevLett.110.028701| pmid= 23383947|arxiv=1207.2788| bibcode= 2013PhRvL.110b8701G}}
68. ^{{Cite journal|last=Granell|first=Clara|last2=Gómez|first2=Sergio|last3=Arenas|first3=Alex|date=2013-09-17|title=Dynamical Interplay between Awareness and Epidemic Spreading in Multiplex Networks|journal=Physical Review Letters|volume=111|issue=12|pages=128701|doi=10.1103/PhysRevLett.111.128701|pmid=24093306|bibcode=2013PhRvL.111l8701G|arxiv=1306.4136}}
69. ^{{Cite journal|last=Battiston|first=Federico|last2=Cairoli|first2=Andrea|last3=Nicosia|first3=Vincenzo|last4=Baule|first4=Adrian|last5=Latora|first5=Vito|date=2016-06-01|title=Interplay between consensus and coherence in a model of interacting opinions|url=http://www.sciencedirect.com/science/article/pii/S016727891500202X|journal=Physica D: Nonlinear Phenomena|series=Nonlinear Dynamics on Interconnected Networks|volume=323–324|pages=12–19|doi=10.1016/j.physd.2015.10.013|bibcode=2016PhyD..323...12B|arxiv=1506.04544}}
70. ^{{cite arxiv|last=Battiston|first=Federico|last2=Nicosia|first2=Vincenzo|last3=Latora|first3=Vito|last4=Miguel|first4=Maxi San|date=2016-06-17|title=Robust multiculturality emerges from layered social influence|eprint=1606.05641|class=physics.soc-ph}}
71. ^{{Cite journal|last=Buldyrev|first=S.V.|last2=Parshani|first2=R.|last3=Paul|first3=G.|last4=Stanley|first4=H.E.|last5=Havlin|first5=S.|date=2010|title=Catastrophic cascade of failures in interdependent networks|url=|journal=Nature|volume=464|pages=08932|via=}}
72. ^{{Cite journal|last=Gao|first=J.|last2=Buldyrev|first2=S.V.|last3=Stanley|first3=H.E.|last4=Havlin|first4=S.|date=2012|title=Networks formed from interdependent networks|url=|journal=Nature Physics|volume=8|pages=40–48|via=|doi=10.1038/nphys2180|bibcode=2012NatPh...8...40G|citeseerx=10.1.1.379.8214}}
73. ^{{Cite journal|last=Bashan|first=A.|last2=Berezin|first2=Y.|last3=Buldyrev|first3=S.V.|last4=Havlin|first4=S.|date=2013|title=The extreme vulnerability of interdependent spatially embedded networks|url=|journal=Nature Physics|volume=9|issue=10|pages=667|via=|doi=10.1038/nphys2727|arxiv=1206.2062|bibcode=2013NatPh...9..667B}}
74. ^{{Cite journal|last=Berezin|first=Y.|last2=Bashan|first2=A.|last3=Danziger|first3=M.M.|last4=Li|first4=D.|last5=Havlin|first5=S.|date=2015|title=Localized attacks on spatially embedded networks with dependencies|url=|journal=Scientific Reports|volume=5|pages=8934|via=|doi=10.1038/srep08934|pmid=25757572|pmc=4355725|bibcode=2015NatSR...5E8934B}}
75. ^{{Cite journal|last=Majdandzic|first=Antonio|last2=Podobnik|first2=Boris|last3=Buldyrev|first3=Sergey V.|last4=Kenett|first4=Dror Y.|last5=Havlin|first5=Shlomo|last6=Eugene Stanley|first6=H.|date=2013-12-01|title=Spontaneous recovery in dynamical networks|url=http://www.nature.com/articles/nphys2819|journal=Nature Physics|language=En|volume=10|issue=1|pages=34–38|doi=10.1038/nphys2819|issn=1745-2473|bibcode=2014NatPh..10...34M}}
76. ^{{Cite journal|last=Majdandzic|first=Antonio|last2=Braunstein|first2=Lidia A.|last3=Curme|first3=Chester|last4=Vodenska|first4=Irena|last5=Levy-Carciente|first5=Sary|last6=Eugene Stanley|first6=H.|last7=Havlin|first7=Shlomo|date=2016-03-01|title=Multiple tipping points and optimal repairing in interacting networks|url=https://www.nature.com/articles/ncomms10850|journal=Nature Communications|language=En|volume=7|pages=10850|doi=10.1038/ncomms10850|pmid=26926803|pmc=4773515|issn=2041-1723|arxiv=1502.00244|bibcode=2016NatCo...710850M}}
77. ^{{cite journal | last1 = De Domenico | first1 = M. | last2 = Porter | first2 = M. A. | last3 = Arenas | first3 = A. | year = 2015 | title = Multilayer Analysis and Visualization of Networks | url = | journal = Journal of Complex Networks | volume = 3 | issue = 2| pages = 159–176 | doi=10.1093/comnet/cnu038}}
78. ^{{Cite journal| year = 2014| last1= Battiston| first1 = F.| title = Structural measures for multiplex networks| journal = Physical Review E| volume = 89| issue= 3| pages = 032804| last2 = Nicosia| first2 = V.| last3 = Latora| first3 = V.| doi=10.1103/PhysRevE.89.032804| pmid= 24730896| bibcode= 2014PhRvE..89c2804B| arxiv= 1308.3182}}
79. ^{{Cite journal| year = 2010| last1 = Mucha| first1 = P.| title = Community structure in time-dependent, multiscale, and multiplex networks| journal = Science| volume = 328|issue=5980| pages = 876–878| displayauthors=etal|arxiv=0911.1824|url=https://people.maths.ox.ac.uk/porterm/papers/multislice.pdf|doi=10.1126/science.1184819| pmid = 20466926| bibcode = 2010Sci...328..876M| citeseerx = 10.1.1.749.3504}}

External links

{{Commons category|Network Science}}

2 : Networks|Network theory
随便看

　

开放百科全书收录14589846条英语、德语、日语等多语种百科知识，基本涵盖了大多数领域的百科知识，是一部内容自由、开放的电子版国际百科全书。

　

Copyright © 2023 OENC.NET All Rights Reserved
京ICP备2021023879号 更新时间：2024/11/15 0:59:07