Rotational Flocking with Spontaneous Directional Changes

Revealing the underlying decision-making strategy governing the high-group polarization accompanied by conflicting individual preferences may play a central part in the lives of social animals. Hereby, we construct a structured spin model in accordance with empirical validation, which shows how dist...

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Main Authors: Xiaolu Liu, Guanbo Shao, Yudong Tang, Duxin Chen
Format: Article
Language:English
Published: Hindawi-Wiley 2021-01-01
Series:Complexity
Online Access:http://dx.doi.org/10.1155/2021/1288161
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spelling doaj-b7a4e5b413c34d8495d1a57afedcf87c2021-08-09T00:00:14ZengHindawi-WileyComplexity1099-05262021-01-01202110.1155/2021/1288161Rotational Flocking with Spontaneous Directional ChangesXiaolu Liu0Guanbo Shao1Yudong Tang2Duxin Chen3School of MathematicsSchool of MathematicsSchool of AutomationSchool of MathematicsRevealing the underlying decision-making strategy governing the high-group polarization accompanied by conflicting individual preferences may play a central part in the lives of social animals. Hereby, we construct a structured spin model in accordance with empirical validation, which shows how distinct individual preferences converge from one consensus homeostasis to another lowest-energy equilibrium. To verify the theoretical derivation, we use high-resolution spatiotemporal GPS data of a flock of thirty pigeons and study the dynamical evolution mechanism of systemic spins. Therein, we find successful rotational direction transitions requiring a sufficient number of supporters. A few initiators trigger the phase transition from one equilibrium to another, where the symmetric transient state indicates a diamond hierarchical network being completed by the intermediates and the rear individuals. By further studying the nature, we reveal that decision-making sequences are strongly triggered and influenced by individual positions and the leader-follower relationship. Thus, we can predict which individual is more likely to make the decision before the initial transition moment and who will draw the complete stop. Consequently, the revealed decision-making strategy facilitates a comprehensive understanding of collective behavioral transition.http://dx.doi.org/10.1155/2021/1288161
collection DOAJ
language English
format Article
sources DOAJ
author Xiaolu Liu
Guanbo Shao
Yudong Tang
Duxin Chen
spellingShingle Xiaolu Liu
Guanbo Shao
Yudong Tang
Duxin Chen
Rotational Flocking with Spontaneous Directional Changes
Complexity
author_facet Xiaolu Liu
Guanbo Shao
Yudong Tang
Duxin Chen
author_sort Xiaolu Liu
title Rotational Flocking with Spontaneous Directional Changes
title_short Rotational Flocking with Spontaneous Directional Changes
title_full Rotational Flocking with Spontaneous Directional Changes
title_fullStr Rotational Flocking with Spontaneous Directional Changes
title_full_unstemmed Rotational Flocking with Spontaneous Directional Changes
title_sort rotational flocking with spontaneous directional changes
publisher Hindawi-Wiley
series Complexity
issn 1099-0526
publishDate 2021-01-01
description Revealing the underlying decision-making strategy governing the high-group polarization accompanied by conflicting individual preferences may play a central part in the lives of social animals. Hereby, we construct a structured spin model in accordance with empirical validation, which shows how distinct individual preferences converge from one consensus homeostasis to another lowest-energy equilibrium. To verify the theoretical derivation, we use high-resolution spatiotemporal GPS data of a flock of thirty pigeons and study the dynamical evolution mechanism of systemic spins. Therein, we find successful rotational direction transitions requiring a sufficient number of supporters. A few initiators trigger the phase transition from one equilibrium to another, where the symmetric transient state indicates a diamond hierarchical network being completed by the intermediates and the rear individuals. By further studying the nature, we reveal that decision-making sequences are strongly triggered and influenced by individual positions and the leader-follower relationship. Thus, we can predict which individual is more likely to make the decision before the initial transition moment and who will draw the complete stop. Consequently, the revealed decision-making strategy facilitates a comprehensive understanding of collective behavioral transition.
url http://dx.doi.org/10.1155/2021/1288161
work_keys_str_mv AT xiaoluliu rotationalflockingwithspontaneousdirectionalchanges
AT guanboshao rotationalflockingwithspontaneousdirectionalchanges
AT yudongtang rotationalflockingwithspontaneousdirectionalchanges
AT duxinchen rotationalflockingwithspontaneousdirectionalchanges
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