As Internet of Things (IoT) grows, efficient self-organizing mechanisms are very much needed for the vast and ever-growing dynamic networks without being dependent on centralized algorithms to maintain a control over the systems. This paper introduces a bio-inspired artificial Intelligence (AI) model that leverages natural systems such as ant colonies, swarm behavior, and neural intelligence to upskill the IoT self-organization. It replicates the behavior typically observed in a biome. The proposed IoT model autonomously manages tasks, distributes workloads, and maintains a resilient network environment. This decentralized pathway opens up avenues for scalability, fault-tolerant systems, and adaptability which caters to the need of a critical IoT architecture. Simulation results demonstrate that the bio-driven model drastically outperforms outdated and traditional AI algorithms in terms of resource utilization, fault recovery, and network resilience. These findings suggest that bio-inspired AI models can offer a stalwart foundation for autonomous and resilient IoT systems.

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Deployment of Bio-Inspired Intelligent Model for Self-organizing Smart Sensory Systems

  • Debanksh Guha,
  • Ishaan Mukherjee,
  • Eshan Ghoshrave,
  • Venkata Suresh Babu Chilluri,
  • Rajkumar Singh Rathore,
  • Hang Wu,
  • Xinlei Chu

摘要

As Internet of Things (IoT) grows, efficient self-organizing mechanisms are very much needed for the vast and ever-growing dynamic networks without being dependent on centralized algorithms to maintain a control over the systems. This paper introduces a bio-inspired artificial Intelligence (AI) model that leverages natural systems such as ant colonies, swarm behavior, and neural intelligence to upskill the IoT self-organization. It replicates the behavior typically observed in a biome. The proposed IoT model autonomously manages tasks, distributes workloads, and maintains a resilient network environment. This decentralized pathway opens up avenues for scalability, fault-tolerant systems, and adaptability which caters to the need of a critical IoT architecture. Simulation results demonstrate that the bio-driven model drastically outperforms outdated and traditional AI algorithms in terms of resource utilization, fault recovery, and network resilience. These findings suggest that bio-inspired AI models can offer a stalwart foundation for autonomous and resilient IoT systems.