Machine Learning for Next-Generation Communication and Edge Networks (ML4NxtGNet)

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Learning in Next Generation (NextG) communication networks will be performed on data predominantly originating at edge and user devices in order to support applications such as 6G and beyond wireless networks, Internet of Things (IoT), mobile healthcare, self-driving cars, etc. A growing body of research work has focused on learning at the edge-to-cloud continuum by engaging the edge in the learning process, along with the cloud, and everything in between, which can be advantageous in terms of a better utilization of network resources, delay reduction, and resiliency against unavailability and failures.

However, enabling emerging artificial intelligence/ machine learning (AI/ML) algorithms in NextG and edge networks necessitates going back to the drawing board to rethink several now-established assumptions on networks, resources, and infrastructures. For instance, standard centralized solutions can be ill-equipped to handle more complicated and larger AI/ML models, such as large language models (LLM) at the edge, given the network-constrained resources. In this context, research is needed to tailor AI/ML mechanisms for the edge-to-cloud continuum to securely harvest limited and heterogeneous resources, including computing power, storage, battery, networking resources (including bandwidth), etc., scattered across end devices, edge servers, and cloud with a minimum amount of communication cost.

This workshop will explore the AI/ML mechanism over NextG and edge networks by exploiting techniques including decentralized learning, model distributed inference and conditional computation. We invite researchers to contribute their novel research results that advance the development of distributed AI/ML at the resource-constrained edge.

Topics of interest include, but are not limited to:

• Decentralized learning
• Model-distributed training and inference
• Split learning
• Large language models at edge-to-cloud continuum
• Random-walk-based learning
• Efficient gossip algorithms for decentralized learning
• Early-exit mechanisms for resource-aware AI/ML
• Conditional computation and mixture of experts
• Low-cost privacy-preserving AI/ML
• Trustworthy AI/ML
• Hybrid distributed and decentralized learning

Submission Guidelines

A full paper should not exceed 6 pages (US letter size) double column including figures, tables, and references in standard ACM format. Papers must be submitted electronically in printable PDF form via the workshop’s website. Templates for the standard ACM format can be found at this link.