Centrality and network flow
By Stephen P. Borgatti. Soc. Networks, 2005
3,545 citations recorded by the source corpus.
Subfields: Computer Networks and Communications, Statistical and Nonlinear Physics
View Paper: https://www.semanticscholar.org/paper/3f37032782095a14df75974513a219a656366fd8
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Computer Networks and Communications
- Douglas J. Klein
- G. Mcdermott
- Rafael A. Corredoira
- Mads Haahr
- Elizabeth M. Daly
- Paolo Boldi
- Sebastiano Vigna
- U. Brandes
In Statistical and Nonlinear Physics
- Sacha Epskamp
- D. Hevey
- Richard J. McNally
- Douglas J. Klein
- U. Brandes
- Alexandre Heeren
- Filip Agneessens
- John Skvoretz
Citations in the corpus
- Adaptation, bridging and firm upgrading: How non-market institutions and MNCs facilitate knowledge recombination in emerging markets (2014, methodology): “Using NetDraw (Borgatti, 2005), we show in Figure 2a the aggregate ego network of the 59 firms in the sample and their ties to associations and GSIs.”
- Social Network Analysis for Information Flow in Disconnected Delay-Tolerant MANETs (2009, background): “A number of different flow processes are considered, such as package delivery, gossip, and infection.”
- On Network Theory (2011, background): “10The terminology in Borgatti and Foster (2003) is somewhat”
- A Critical Review of Centrality Measures in Social Networks (2010, methodology): “However, this assignment in Borgatti (2005) is merely argumentative, i.e. he does not provide quantitative criteria for intersubjective verification of the suitability of individual CM for certain applications.”
- Structuring for team success: The interactive effects of network structure and cultural diversity on team potency and performance (2014, neutral): “…‘‘density,’’ which reflects the degree to which a team’s members are interconnected; and ‘‘centralization,’’ which reflects the extent to which one or more members are disproportionately central in the team’s network (Borgatti, 2005; Freeman, Borgatti, & White, 1991; cf. Zhang & Peterson, 2011).”
- Centrality measure in graphs (2010, background): “[1,2,6,13,21,29,31,38,42,43] different efficient means have been sought [8,42,43, 47,48] for the computation of different centrality measures, further mathematical results have been enunciated [43,45,46,49,50] and comparisons of different definitions have been made [51–55].”
- Node centrality in weighted networks: Generalizing degree and shortest paths (2010, background): “’s (2004) generalization equates two ties with a weight of 1 and a single tie with a weight of 2, and the implementation of Dijkstra’s (1959) shortest path algorithm by Newman (2001) and Brandes (2001) implicitly assumes that the number of intermediary nodes only represent a negligent cost.”
- Connecting natural landscapes using a landscape permeability model to prioritize conservation activities in the United States (2012, methodology): “Third, we calculated a network centrality metric to quantify the relative importance of each cell to the broader landscape configuration (Borgatti 2005).”
- Graph models of habitat mosaics. (2009, background): “Borgatti (2005) emphasized the mode of transfer of information among nodes in a network and the implications of this for choosing an appropriate index of betweenness.”
- Stability and variability of personality networks. A tutorial on recent developments in network psychometrics (2017, background): “Centrality quantifies the relative importance of a node in the context of other nodes (Borgatti, 2005; Freeman, 1978).”
- Constructing, conducting and interpreting animal social network analysis (2015, methodology): “We give definitions of some of the most commonly used network metrics in Box 2, Newman (2010) provides detailed accounts of many more, and Borgatti (2005) provides detailed a detailed account of their appropriate use.”