Optimizing communication and computational cost for IoT devices in energy efficient swarm robotics

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Authors: Amir Ijaz, Hashem Haghbayan, Ethiopia Nigussie, Abdul Malik, Juha Plosila
Cited by: 1
References: 26

Abstract

The Internet of Things (IoT) renders swarm robotics possible, which makes tasks like surveillance, farming, and disaster response more efficient and flexible. The limited energy and processing power on board make things very difficult, especially since coordination requires a lot of communication. The goal of this paper is to lower the cost of communication in robotic swarms so that they last longer and make better use of resources. We offer a unified optimization framework that combines adaptive communication protocols with heuristic offloading algorithms. The main goal is to reduce communication energy, with computational cost being a secondary concern. The system changes the power levels and transmission rates based on how well the network is working. It uses a heuristic based on PSO to find the best balance between processing data locally and sending it to the cloud. Numerous evaluations on embedded platforms (NVIDIA Jetson Nano and TX2) demonstrate that the proposed method significantly conserves energy, reducing communication related energy consumption by approximately 25–35 percent relative to static schemes, while also mitigating CPU load fluctuations. Our results show that putting communication optimization first greatly improves swarm energy efficiency without hurting coordination performance. • Validate energy-efficient IoT operation through detailed simulations. • Analyze communication energy factors in robotic IoT swarms. • Relate computation and communication costs in swarm scheduling. • Propose a heuristic for joint workload and communication optimization. • Implement adaptive wireless protocols on embedded hardware.

Fields of Study & Subjects

Robotics and Automated Systems IoT and Edge/Fog Computing Modular Robots and Swarm Intelligence

Publication details

Journal / source
Green Technologies and Sustainability
Publisher
Elsevier BV
Volume
4
Issue
3
Pages
100409–100409
Publication date
9 May 2026
Language
EN