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Scalable Coordinated Learning for H2M/R Applications over Optical Access Networks (Invited)

Sourav Mondal, Elaine Wong

TL;DR

This work addresses scalable human-to-machine/robot (H2M/R) collaboration over converged fiber-optic access networks by introducing the GLAD framework, which coordinates Local AIs at the network edge with a Global AI in the cloud to enable rapid onboarding of new machines while preserving ongoing operations. GLAD employs a binary touch classifier and reinforcement learning-based haptic forecasting to reduce end-to-end latency and leverages a federated-learning–like approach for cross-site knowledge sharing. The authors validate the approach with a VR haptic dataset, showing substantial training-time benefits and the ability to meet sub-millisecond latency targets over extended HO–machine distances, up to about 60 km under moderate network load. The results demonstrate a scalable path for Industry 5.0 H2M/R deployments on converged optical access networks, with potential improvements under lower network loads and larger-scale deployments.

Abstract

One of the primary research interests adhering to next-generation fiber-wireless access networks is human-to-machine/robot (H2M/R) collaborative communications facilitating Industry 5.0. This paper discusses scalable H2M/R communications across large geographical distances that also allow rapid onboarding of new machines/robots as $\sim72\%$ training time is saved through global-local coordinated learning.

Scalable Coordinated Learning for H2M/R Applications over Optical Access Networks (Invited)

TL;DR

This work addresses scalable human-to-machine/robot (H2M/R) collaboration over converged fiber-optic access networks by introducing the GLAD framework, which coordinates Local AIs at the network edge with a Global AI in the cloud to enable rapid onboarding of new machines while preserving ongoing operations. GLAD employs a binary touch classifier and reinforcement learning-based haptic forecasting to reduce end-to-end latency and leverages a federated-learning–like approach for cross-site knowledge sharing. The authors validate the approach with a VR haptic dataset, showing substantial training-time benefits and the ability to meet sub-millisecond latency targets over extended HO–machine distances, up to about 60 km under moderate network load. The results demonstrate a scalable path for Industry 5.0 H2M/R deployments on converged optical access networks, with potential improvements under lower network loads and larger-scale deployments.

Abstract

One of the primary research interests adhering to next-generation fiber-wireless access networks is human-to-machine/robot (H2M/R) collaborative communications facilitating Industry 5.0. This paper discusses scalable H2M/R communications across large geographical distances that also allow rapid onboarding of new machines/robots as training time is saved through global-local coordinated learning.

Paper Structure

This paper contains 4 sections, 3 figures.

Figures (3)

  • Figure 1: Local AIs (edge servers) and Global AI (cloud server) supporting H2M/R collaboration over fiber-wireless access networks.
  • Figure 2: Percentage of Local AI training time saved by GLAD against total number of machine/robots.
  • Figure 3: Transmission latencies between human operator, Local AI, and machine/robot over an XG-PON with a 1:16 split ratio.