Mahmoud Abbasi;Amin Shahraki;Javier Prieto;Angélica González Arrieta;Juan M. Corchado
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Knowledge distillation is a solution to help ML by compressing complex models into smaller ones suitable for IoT devices. In this paper, we examine the use of knowledge distillation for IoT traffic classification. Through experiments, we show that the student model achieves a balance between accuracy and efficiency. It exhibits similar accuracy to the larger teacher model while maintaining a smaller size. This makes it a suitable alternative for resource-constrained scenarios like mobile or IoT traffic classification. We find that the knowledge distillation technique effectively transfers knowledge from the teacher model to the student model, even with reduced training data. The results also demonstrate the robustness of the approach, as the student model performs well even with the removal of certain classes. Additionally, we highlight the trade-off between model capacity and computational cost, suggesting that increasing model size beyond a certain point may not be beneficial. 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Network Traffic Classification (NTC) in IoT is a crucial step for optimizing network performance, enhancing security, and improving user experience. Different methods are introduced for NTC, but recently Machine Learning solutions have received high attention in this field, however, Traditional Machine Learning (ML) methods struggle with the complexity and heterogeneity of IoT traffic, as well as the limited resources of IoT devices. Deep learning shows promise but is computationally intensive for resource-constrained IoT devices. Knowledge distillation is a solution to help ML by compressing complex models into smaller ones suitable for IoT devices. In this paper, we examine the use of knowledge distillation for IoT traffic classification. Through experiments, we show that the student model achieves a balance between accuracy and efficiency. It exhibits similar accuracy to the larger teacher model while maintaining a smaller size. 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引用次数: 0
摘要
物联网(IoT)通过产生大量数据彻底改变了我们的生活,但这些数据需要实时收集、处理和分析。物联网中的网络流量分类(NTC)是优化网络性能、增强安全性和改善用户体验的关键步骤。针对 NTC 引入了不同的方法,但最近机器学习解决方案在这一领域受到高度关注,然而,传统的机器学习(ML)方法难以应对物联网流量的复杂性和异构性,以及物联网设备的有限资源。深度学习大有可为,但对于资源有限的物联网设备来说,其计算密集度较高。知识提炼是一种帮助 ML 的解决方案,它能将复杂的模型压缩成适合物联网设备的较小模型。本文研究了知识蒸馏在物联网流量分类中的应用。通过实验,我们发现学生模型实现了准确性和效率之间的平衡。它的准确性与较大的教师模型相似,同时保持了较小的规模。这使它成为移动或物联网流量分类等资源受限场景的合适选择。我们发现,即使在训练数据减少的情况下,知识蒸馏技术也能有效地将知识从教师模型转移到学生模型。结果还证明了该方法的鲁棒性,因为即使删除某些类别,学生模型也能表现出色。此外,我们还强调了模型容量和计算成本之间的权衡,表明模型规模的增加超过一定程度可能并无益处。研究结果强调了软标签在利用有限数据资源训练学生模型方面的价值。
Unleashing the Potential of Knowledge Distillation for IoT Traffic Classification
The Internet of Things (IoT) has revolutionized our lives by generating large amounts of data, however, the data needs to be collected, processed, and analyzed in real-time. Network Traffic Classification (NTC) in IoT is a crucial step for optimizing network performance, enhancing security, and improving user experience. Different methods are introduced for NTC, but recently Machine Learning solutions have received high attention in this field, however, Traditional Machine Learning (ML) methods struggle with the complexity and heterogeneity of IoT traffic, as well as the limited resources of IoT devices. Deep learning shows promise but is computationally intensive for resource-constrained IoT devices. Knowledge distillation is a solution to help ML by compressing complex models into smaller ones suitable for IoT devices. In this paper, we examine the use of knowledge distillation for IoT traffic classification. Through experiments, we show that the student model achieves a balance between accuracy and efficiency. It exhibits similar accuracy to the larger teacher model while maintaining a smaller size. This makes it a suitable alternative for resource-constrained scenarios like mobile or IoT traffic classification. We find that the knowledge distillation technique effectively transfers knowledge from the teacher model to the student model, even with reduced training data. The results also demonstrate the robustness of the approach, as the student model performs well even with the removal of certain classes. Additionally, we highlight the trade-off between model capacity and computational cost, suggesting that increasing model size beyond a certain point may not be beneficial. The findings emphasize the value of soft labels in training student models with limited data resources.