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E. Nigussie

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Open access Aug 2026

Co-Management of Communication and Computational Energy in Wirelessly Connected Mobile Robots

Battery-powered mobile robots that rely on an edge server for perception spend energy in three places at once: the on-board processor, the radio front end and the drivetrain. These budgets are normally optimised separately, which is a mistake, as lowering the processor clock pushes work onto the wireless link, transmit...

Amir Ijaz, Hashem Haghbayan, E. Nigussie et al. · 0 citations
Open access Aug 2026

JECCO-M: Integrated Optimization of Communication and Computational Energy in Wirelessly Connected Mobile Robots

This paper presents, to our knowledge, the first framework that jointly and provably optimizes communication and computation energy across an entire fleet of wirelessly connected mobile robots, rather than for a single device or under a fixed offloading policy as in prior work. Battery capacity limits the endurance of...

Amir Ijaz, Hashem Haghbayan, E. Nigussie et al. · 0 citations
Open access Jul 2026

Optimization of Communication Tasks in an Energy-Efficient Swarm and the Spatial Distribution of Robots

The execution-placement decision is folded into the edge-relaxation step of an A* path search, using a composite cost whose communication term is derived from the instantaneous neighborhood of each node; routing and compute placement are co-optimized within a single search rather than in decoupled stages.

Amir Ijaz, Hashem Haghbayan, E. Nigussie et al. · 0 citations
Open access Jul 2026

JCCO: Jointly Optimizing the Computational and Communication Costs for Resource Allocation in Energy-Efficient Swarm Robotics

A joint communication–computation optimization (JCCO) framework for energy-efficient resource allocation in edge-assisted swarm robotics that achieves improved fairness, lower communication overhead, and efficient embedded deployment suitability for TinyML-enabled robotic platforms.

Amir Ijaz, Hashem Haghbayan, E. Nigussie et al. · 0 citations

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