Aug 2026· International journal of computer information systems and industrial management applications· Vol 18, pp. 33-40· 0 citations
TL;DR
A new hybridized framework is proposed that integrates multi-strategy learning, decentralized consensus, and multiple pheromone-based communication for sturdy swarm operation, paving the way for resilient, self-configurable UAV swarms potential of addressing real-world reluctance through scalable and intelligent collaboration.
Abstract
Recent advances in swarm intelligence have instigated remarkable progress in autonomous unmanned aerial vehicle (UAV) systems, steering transformative applications in surveillance, disaster management and environmental monitoring. UAV swarms, inspired by biological collectives, exhibit robust self-organization, adaptability, and resilience in sophisticated environments. Integrating layered architectures, swarm intelligence algorithms span decision-making, path planning, cooperative control, inter, intra-drone communication, and mission-specific applications. Despite significant progress, achieving scalable, energy-efficient, and real-time coordinated behaviour in dynamic, uncertain situations remain wider challenge. Our approach blends fundamental research and cutting-edge innovations, highlighting emergent hybrid techniques that couple reinforcement learning, evolutionary optimization, and distributed consensus. A new hybridized framework is proposed that integrates multi-strategy learning, decentralized consensus, and multiple pheromone-based communication for sturdy swarm operation. Algorithmic efficiency is benchmarked on canonical search, mapping, and disaster mitigation events, disclosing marked improvements in task allocation, collision avoidance, and adaptive mission planning. Mathematical modelling and simulation underscore the approach’s ability to optimize resource utilization while maintaining high fault tolerance and adaptability. The presented framework paves the way for resilient, self-configurable UAV swarms potential of addressing real-world reluctance through scalable and intelligent collaboration.
This paper systematically reviews UAV swarm path planning through the lens of spatial, temporal, and task-level consistency constraints, providing a unique, application‑centric taxonomy based on consensus constraints, offering actionable insights for developing consistency-aware UAV swarm path planning technologies.
Ya-Na Lu, Lian-Peng Li, Hui Zhao et al.· IAES International Journal o...· 0 citations
Artificial General Intelligence-inspired Multi-Agent Knowledge Transfer (AGI-MAKT) is presented, a novel self-organizing framework for UAV cluster communication networks capable of self-organization and adaptation in complex, resource-constrained environments with limited human supervision.
Fan Zhou· Annals of Emerging Technolog...· 0 citations
Swarm intelligence (SI) is a bio-inspired concept of computing that allows self-organizing autonomous agents to cooperate and work together without the need for centralized control to overcome complex tasks. Based on the collective nature of social insects, birds and fish, SI uses the concepts of local interactions, em...
S. Gunanandhini, Sharmila Bhargavi Vijayan, E. Nalina et al.· 2026 2nd International Confe...· 0 citations
Unmanned aerial vehicle (UAV) swarms are increasingly investigated for search and rescue (SAR) operations to improve coverage, reduce response time, and enhance robustness in complex, time-critical environments. However, effective coordination remains a fundamental challenge due to communication constraints, dynamic ta...
A key contribution is an LLM-assisted architecture in which a base-station-hosted agent conducts global network reasoning and autonomously reconfigures access and backhaul infrastructure, and illustrates how this agentic-AI-driven approach can transform UAVs from task-specific platforms into a continuously evolving com...
Zhao-Yang Li, Xin Jin, Zi-Jiu Yang et al.· 0 citations
The proposed Adaptive k-Truss-Constrained Agentic AI Framework (ATAC), an AI-based decentralized coordination framework for multi-agent UAV systems, which explicitly factors in graph-theoretic structural considerations during decision-making, is compared to alternative graph-aware coordination approaches.