aiqbench analysis
This research introduces SFLaaS, a framework integrating Neural Architecture Search (NAS) with carbon-constrained scheduling to ensure feasible participation in Federated Learning environments under strict sustainability limits. By dynamically optimizing architecture selection and consumer workload allocation based on real-time energy profiles, the approach balances predictive performance with environmental feasibility without compromising data coverage. The work addresses critical infrastructure challenges for deploying scalable AI models where computational efficiency must align with global carbon reduction goals.
Designing Sustainable Federated Learning as a Service using Neural Architecture Search
arXiv:2608.14359v1 Announce Type: new Abstract: The sustainability constraints of FLaaS consumers pose significant challenges to maintaining carbon-feasible federated training in FLaaS environments. These constraints often lead to infeasible consumer participation and unstable federated training under hard carbon constraints. We propose a Sustainable Federated Learning as a Service (SFLaaS), a carbon- constrained Neural Architecture Search (NAS) framework for heteroge- neous sustainable constraints. We introduce a requirement-driven search space that transforms consumer sustainability profiles into a feasible architecture region before federated execution. We develop a consumer-level carbon feasibility estimation mechanism to evaluate candidate architectures under dynamic carbon conditions. We propose a sustainable con- sumer scheduling strategy that adaptively selects feasible consumers and allocates local workloads to preserve consumer participation and statistical data coverage. An evolutionary search strategy jointly optimised for predictive performance, consumer feasibility, and participation coverage under hard carbon constraints. Experiments on real-world datasets and a simulated environment demonstrate the effectiveness of the proposed approach.
Abstract:The sustainability constraints of FLaaS consumers pose significant challenges to maintaining carbon-feasible federated training in FLaaS environments. These constraints often lead to infeasible consumer participation and unstable federated training under hard carbon constraints. We propose a Sustainable Federated Learning as a Service (SFLaaS), a carbon- constrained Neural Architecture Search (NAS) framework for heteroge- neous sustainable constraints. We introduce a requirement-driven search space that transforms consumer sustainability profiles into a feasible architecture region before federated execution. We develop a consumer-level carbon feasibility estimation mechanism to evaluate candidate architectures under dynamic carbon conditions. We propose a sustainable con- sumer scheduling strategy that adaptively selects feasible consumers and allocates local workloads to preserve consumer participation and statistical data coverage. An evolutionary search strategy jointly optimised for predictive performance, consumer feasibility, and participation coverage under hard carbon constraints. Experiments on real-world datasets and a simulated environment demonstrate the effectiveness of the proposed approach.
Artificial Intelligence (cs.AI)
arXiv:2608.14359 [cs.AI]
(or arXiv:2608.14359v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2608.14359 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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