Dynamic social networks based on movement

Network modeling techniques provide a means for quantifying social structure in populations of individuals. Data used to define social connectivity are often expensive to collect and based on case-specific, ad hoc criteria. Moreover, in applications involving animal social networks, collection of th...

Full description

Bibliographic Details
Published in:The Annals of Applied Statistics
Main Authors: Scharf, Henry R., Hooten, Mevin B., Fosdick, Bailey K., Johnson, Devin S., London, Josh M., Durban, John W.
Format: Text
Language:English
Published: The Institute of Mathematical Statistics 2016
Subjects:
Online Access:http://projecteuclid.org/euclid.aoas/1483606856
https://doi.org/10.1214/16-AOAS970
_version_ 1821570748452438016
author Scharf, Henry R.
Hooten, Mevin B.
Fosdick, Bailey K.
Johnson, Devin S.
London, Josh M.
Durban, John W.
author_facet Scharf, Henry R.
Hooten, Mevin B.
Fosdick, Bailey K.
Johnson, Devin S.
London, Josh M.
Durban, John W.
author_sort Scharf, Henry R.
collection Project Euclid (Cornell University Library)
container_issue 4
container_title The Annals of Applied Statistics
container_volume 10
description Network modeling techniques provide a means for quantifying social structure in populations of individuals. Data used to define social connectivity are often expensive to collect and based on case-specific, ad hoc criteria. Moreover, in applications involving animal social networks, collection of these data is often opportunistic and can be invasive. Frequently, the social network of interest for a given population is closely related to the way individuals move. Thus, telemetry data, which are minimally invasive and relatively inexpensive to collect, present an alternative source of information. We develop a framework for using telemetry data to infer social relationships among animals. To achieve this, we propose a Bayesian hierarchical model with an underlying dynamic social network controlling movement of individuals via two mechanisms: an attractive effect and an aligning effect. We demonstrate the model and its ability to accurately identify complex social behavior in simulation, and apply our model to telemetry data arising from killer whales. Using auxiliary information about the study population, we investigate model validity and find the inferred dynamic social network is consistent with killer whale ecology and expert knowledge.
format Text
genre Killer Whale
Orca
Orcinus orca
Killer whale
genre_facet Killer Whale
Orca
Orcinus orca
Killer whale
id ftculeuclid:oai:CULeuclid:euclid.aoas/1483606856
institution Open Polar
language English
op_collection_id ftculeuclid
op_doi https://doi.org/10.1214/16-AOAS970
op_relation 1932-6157
1941-7330
op_rights Copyright 2016 Institute of Mathematical Statistics
publishDate 2016
publisher The Institute of Mathematical Statistics
record_format openpolar
spelling ftculeuclid:oai:CULeuclid:euclid.aoas/1483606856 2025-01-16T22:53:54+00:00 Dynamic social networks based on movement Scharf, Henry R. Hooten, Mevin B. Fosdick, Bailey K. Johnson, Devin S. London, Josh M. Durban, John W. 2016-12 application/pdf http://projecteuclid.org/euclid.aoas/1483606856 https://doi.org/10.1214/16-AOAS970 en eng The Institute of Mathematical Statistics 1932-6157 1941-7330 Copyright 2016 Institute of Mathematical Statistics Dynamic social network animal movement Orcinus orca hidden Markov model Gaussian Markov random field Text 2016 ftculeuclid https://doi.org/10.1214/16-AOAS970 2018-10-06T12:58:09Z Network modeling techniques provide a means for quantifying social structure in populations of individuals. Data used to define social connectivity are often expensive to collect and based on case-specific, ad hoc criteria. Moreover, in applications involving animal social networks, collection of these data is often opportunistic and can be invasive. Frequently, the social network of interest for a given population is closely related to the way individuals move. Thus, telemetry data, which are minimally invasive and relatively inexpensive to collect, present an alternative source of information. We develop a framework for using telemetry data to infer social relationships among animals. To achieve this, we propose a Bayesian hierarchical model with an underlying dynamic social network controlling movement of individuals via two mechanisms: an attractive effect and an aligning effect. We demonstrate the model and its ability to accurately identify complex social behavior in simulation, and apply our model to telemetry data arising from killer whales. Using auxiliary information about the study population, we investigate model validity and find the inferred dynamic social network is consistent with killer whale ecology and expert knowledge. Text Killer Whale Orca Orcinus orca Killer whale Project Euclid (Cornell University Library) The Annals of Applied Statistics 10 4
spellingShingle Dynamic social network
animal movement
Orcinus orca
hidden Markov model
Gaussian Markov random field
Scharf, Henry R.
Hooten, Mevin B.
Fosdick, Bailey K.
Johnson, Devin S.
London, Josh M.
Durban, John W.
Dynamic social networks based on movement
title Dynamic social networks based on movement
title_full Dynamic social networks based on movement
title_fullStr Dynamic social networks based on movement
title_full_unstemmed Dynamic social networks based on movement
title_short Dynamic social networks based on movement
title_sort dynamic social networks based on movement
topic Dynamic social network
animal movement
Orcinus orca
hidden Markov model
Gaussian Markov random field
topic_facet Dynamic social network
animal movement
Orcinus orca
hidden Markov model
Gaussian Markov random field
url http://projecteuclid.org/euclid.aoas/1483606856
https://doi.org/10.1214/16-AOAS970