Jul 2026· 2026 7th International Conference on Smart Systems and Inventive Technology (ICSSIT)· pp. 1842-1847· 0 citations· 17 references
Abstract
The edge devices generate a tremendous amount of sensitive data, which makes the centralized model of training difficult to implement. In this regard, federated learning is introduced, which can perform the task of model training across multiple devices without the need for sharing data, although communication overhead is introduced. The Transformer model is known for its superior learning ability, although the computational cost makes it less applicable for edge devices. Therefore, the need for the proposed CoLT-FL, which is a federated learning framework using a compressed lightweight Transformer model, is introduced. The sparsity-based attention mechanism is introduced, which not only minimizes communication overhead but retains the relevant data as well. The observations made during the experiment indicate that the proposed model performs faster, minimizes latency, and increases the overall accuracy.
An adaptive model compression method, LSTM-AdaPQFL, which dynamically adjusts compression ratios based on predicted bandwidth, gradient information, and training progress, which offers a novel approach to integrating adaptive model compression into hierarchical FL, advancing privacy‐preserving and communication‐efficie...
Xia Liu, Hongyu Zhang, Jian-Ping Wang et al.· Computing· 0 citations
This work proposes HFL-Lite, a hierarchical federated learning framework that achieves practical privacy without cryptographic primitives, and shows that HFL-Lite reduces per-round communication to 0.5 KB and sensor-side latency to 9 ms while delivering competitive accuracy.
Cang-Ming Liang, Kuan Ching Li, Zulong Diao et al.· Tsinghua Science and Technol...· 0 citations
Edge IoT devices are increasingly targeted for on-device intelligence using federated learning (FL). However, conventional FL imposes heavy communication and energy costs that make it impractical for battery-constrained, bandwidth-limited deployments with heterogeneous (non-IID) data. In this paper we present a practic...
Energy-Aware Adaptive Quantization and Freezing (EA-AQF), a unified framework that co-optimizes communication and computation, is presented, a unified framework that co-optimizes communication and computation and maintains robust convergence in highly heterogeneous tasks.
A reparameterized transformer framework that integrates High-Rank Factorization (HRF) during training, layer merging at inference, and dynamic, load-balanced distributed inference across multiple devices is proposed, highlighting that reparameterized transformers, coupled with adaptive distributed inference and ultra-l...
H. Esmaeili, M. A. Afsharkazemi, R. Radfar et al.· Turkish Journal of Electrica...· 0 citations
As data in scenarios such as medical, transportation and the Internet of Things continue to be dispersed to institutions and edge devices, how to balance the quality of model training and communication costs without concentrating raw data has become an important issue in the deployment of federated learning. Federated...
Chang Ma· Applied and Computational En...· 0 citations
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