The Project of Jiangsu Province Graduate Research and Practical Innovation Program(KYCX25_0620);Supported by Science and Technology Program of XPCC(2025AB070;2025AB068)
Airborne network intrusion detection may face the dual challenges of scarce abnormal samples and unbalanced data distribution. Traditional methods are difficult to simultaneously guarantee detection accuracy and generalization ability. Therefore
combined with the data augmentation method of multi-view contrastive sparse autoencoder (MCSAE)
a joint optimization method with improved hierarchical sampling ensemble learning was proposed. Firstly
for the problem of missing abnormal samples
a MCSAE was designed. Through multi-view data augmentation and contrastive learning strategies
a more discriminative latent representation was learned under the framework of sparse autoencoder
and the quality of abnormal sample generation was optimized by the re-input contrast mechanism
effectively alleviating the model deviation caused by data sparsity. Secondly
for the problem of class imbalance
an improved hierarchical sampling strategy was proposed. On the basis of traditional hierarchical sampling
a global feature retention mechanism was introduced to avoid the distortion of the majority class distribution caused by local sampling
ensuring that the classifier can learn the complete statistical characteristics of the data. Finally
combined with F1 score adaptive weighted ensemble learning
diverse base classifiers such as random forest and LSTM were integrated to dynamically adjust the model weights
further improving the detection ability for minority class attacks. The experimental results show that
compared with the existing methods on the airborne network dataset
the proposed method has a 5.2% increase in recall rate and a 3.7% increase in F1 score. This provides a reliable solution for intrusion detection in complex network environments.
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references
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