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Participation shifts explain degree distributions in a human communications network
C Ben Gibson1, Norbou Buchler1, Blaine Hoffman1
1Army Research Laboratory, Aberdeen, Maryland, United States of America.
Plos One
|May 24, 2019
Summary
Human communication networks exhibit heavy-tailed degree distributions, not random patterns. This study reveals that conversational norms like turn-taking explain these distributions, even without network growth.
Area of Science:
- Network science
- Sociology
- Communication studies
Background:
- Human communication systems form complex networks driving political, technological, and economic progress.
- Network degree distributions, often heavy-tailed (Pareto), diverge from random (Poisson) models.
- Preferential attachment explains power-law distributions but fails in non-growing networks.
Purpose of the Study:
- To identify interpersonal dynamics causing heavy-tailed degree distributions in non-growing networks.
- To propose an alternative mechanism to preferential attachment for explaining network structure.
- To analyze organizational email networks for insights into communication patterns.
Main Methods:
- Analysis of an organization's email network data.
- Modeling degree distributions based on observed communication dynamics.
- Comparison of proposed mechanisms against preferential attachment theory.
Main Results:
- Organizational email network degree distribution is not explained by preferential attachment alone.
- Turn-taking and turn-continuing norms significantly explain the observed degree distribution.
- A novel mechanism for heavy-tailed distributions in static networks is identified.
Conclusions:
- Interpersonal communication norms, specifically turn-taking, are key drivers of network structure.
- This provides a mechanism for understanding heavy-tailed degree distributions without network growth.
- Findings offer insights into the fundamental dynamics of human interaction networks.
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