Md Sayeed Anwar (Avtor), Gourab Kumar Sar (Avtor), Matjaž Perc (Avtor), Dibakar Ghosh (Avtor)

Povzetek

Higher-order interactions shape collective dynamics, but how they affect transitions between different states in swarmalator systems is yet to be determined. To that effect, we here study an analytically tractable swarmalator model that incorporates both pairwise and higher-order interactions, resulting in four distinct collective states: async, phase wave, mixed, and sync states. We show that even a minute fraction of higher-order interactions induces abrupt transitions from the async state to the phase wave and the sync state. We also show that higher-order interactions facilitate an abrupt transition from the phase wave to the sync state bypassing the intermediate mixed state. Moreover, elevated levels of higher-order interactions can sustain the presence of phase wave and sync state, even when pairwise interactions lean towards repulsion. The insights gained from these findings unveil self-organizing processes that hold the potential to explain sudden transitions between various collective states in numerous real-world systems.

Ključne besede

kolektivna dinamika;nelinearni oscilator;interakcije višjega reda;kompleksno omrežje;statistična fizika;collective dynamics;nonlinear oscillator;higher-order interactions;complex network;statistical physics;

Podatki

Jezik: Angleški jezik
Leto izida:
Tipologija: 1.01 - Izvirni znanstveni članek
Organizacija: UM FNM - Fakulteta za naravoslovje in matematiko
UDK: 53
COBISS: 187575299 Povezava se bo odprla v novem oknu
ISSN: 2399-3650
Št. ogledov: 0
Št. prenosov: 0
Ocena: 0 (0 glasov)
Metapodatki: JSON JSON-RDF JSON-LD TURTLE N-TRIPLES XML RDFA MICRODATA DC-XML DC-RDF RDF

Ostali podatki

Sekundarni jezik: Slovenski jezik
Sekundarne ključne besede: kolektivna dinamika;nelinearni oscilator;interakcije višjega reda;kompleksno omrežje;statistična fizika;
Vrsta dela (COBISS): Znanstveno delo
Strani: 11 str.
Letnik: ǂVol. ǂ7
Zvezek: ǂarticle no. ǂ59
Čas izdaje: 2024
DOI: 10.1038/s42005-024-01556-2
ID: 26352360