FedPer-KD, a privacy-aware federated framework that combines personalization with client-side knowledge distillation, is presented, which is effective under mild client heterogeneity, and is edge-oriented for downstream deployment.
Abstract
Tomato leaf diseases threaten global food security by reducing crop yield and quality. Centralized deep-learning detectors require farms to share raw images, which raises privacy, bandwidth, and data-sovereignty concerns. We present FedPer-KD, a privacy-aware federated framework that combines personalization with client-side knowledge distillation: each client keeps its raw images and personalized classifier head locally while the shared MobileNet-V2 feature extractor is aggregated, and a local EfficientNet-B0 teacher supervises the student through softened logits. We evaluate on the PlantVillage tomato leaf dataset (18,345 images, ten classes) using simulated federated clients (
N
= 2, 4, 6) trained for 10, 20, and 30 rounds with five random seeds. FedPer-KD reaches 99.34% test accuracy and 99.33% macro-F1 at six clients and 20 rounds while transmitting only the shared base (~ 8.9 MB per client per round, a 36% saving over FedAvg on the same student). Across 2–6 clients it consistently outperforms FedAvg, FedProx, Scaffold, FedPer, FedAvg + KD, and a capacity-matched FedAvg baseline; paired statistical comparisons with Holm-Bonferroni correction confirm significance (
p
< 0.05) and Cohen’s d > 1.0 on every comparison. We also report ablations over the Dirichlet heterogeneity parameter (alpha = 0.5, 0.3, 0.1), the teacher fine-tuning schedule, the distillation temperature tau and weight alpha, and a battery of synthetic image corruptions. The framework is privacy-aware rather than formally privacy-preserving, is effective under mild client heterogeneity, and is edge-oriented for downstream deployment.
An implementation of federated learning is presented that addresses challenges of collaborative model training among simulated distributed client nodes while ensuring that raw patient data remains confidential by enabling collaborative model training among simulated distributed client nodes while ensuring that raw pati...
B. Shrimali, Rebekah Geddam, H. Ghayvat et al.· Healthcare technology letter...· 0 citations
Retail search systems serve diverse geographic regions with distinct query patterns, vocabularies, and product preferences, creating significant data heterogeneity that challenges both privacy-preserving training and model personalization. Federated learning offers a natural solution for privacy, but standard FL method...
Q. Nguyen, Ali Lafzi, A. Phatak et al.· 0 citations
Pomegranate cultivation faces significant productivity losses due to fungal and bacterial diseases, yet existing automated detection systems rely on centralized deep learning pipelines that require raw image data aggregation, raising data privacy concerns in distributed agricultural settings. This paper proposes a fede...
Lokesh S, A. K, A. M. et al.· Frontiers in Plant Science· 0 citations
FedPurify is a framework that performs post-training data-free purification to remove malicious backdoors while preserving task-relevant knowledge in FL, and combines contrastive feature alignment with knowledge-preserving self-distillation to remove backdoor effects while preserving benign task performance.
Baolu Xue, Hanyuan Zheng, Tian-Xing Man et al.· Proceedings of the 32nd ACM...· 0 citations
Experimental results on diabetic retinopathy and breast cancer pathology datasets demonstrate that PPFedKD outperforms baseline methods in classification accuracy, privacy protection, and communication efficiency, providing a secure and effective solution for medical image classification.
Lei Yuan, Yaohua Luo, Mei Feng· Expert Syst. J. Knowl. Eng.· 0 citations
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