Spontaneous stable rotation of flocking flexible active matter
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View abstract on PubMed
Summary
This summary is machine-generated.This study introduces a flexible active matter model showing that increased direction detectability in flocking agents leads to stable, synchronized cluster rotation. This finding explains collective rotational motion in systems like worms or dogs flocking towards a source.
Area Of Science
- Physics
- Complex Systems
- Biophysics
Background
- Collective motion in nature, such as flocking, is a fundamental phenomenon.
- Active matter systems exhibit emergent behaviors from self-propelled individual units.
- Understanding the dynamics of flocking agents is crucial for various scientific fields.
Purpose Of The Study
- To investigate the collective motion of achiral agents in a flexible active matter model.
- To explore the emergence of stable cluster rotation based on direction detectability.
- To establish a relationship between agent detectability, flock chirality, and rotational motion.
Main Methods
- Developed an n-node flexible active matter model for agents on a 2D surface.
- Introduced a measure of direction detectability to guide agents towards a food source.
- Employed analytical derivations and numerical simulations to analyze emergent behaviors.
Main Results
- Spontaneous stable cluster rotation emerges with increasing direction detectability.
- The rotation is synchronized with chirality induced by agent alignment and active forces.
- A linear relationship was observed between normalized angular velocity and chirality.
Conclusions
- The model successfully explains spontaneous stable cluster rotation in flexible active matter systems.
- Findings are applicable to real-world examples like worms or dogs flocking to a single source.
- Direction detectability is a key factor driving synchronized rotational flocking behavior.
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