With the rapid expansion of university network scale and the diversified development of user services, abnormal traffic detection has become a core issue to ensure the security of university information systems. Existing abnormal detection methods not only exhibit poor adaptability to dynamic traffic changes in campus networks but also have a high false positive rate when dealing with low-frequency abnormal traffic. To address the above problems, this study proposes a dynamic detection model based on improved Deep Reinforcement Learning (DRL). First, a traffic feature attention mechanism is introduced to enhance the ability to extract key abnormal features; second, the reward function of the DRL agent is optimized to achieve a balance between detection accuracy and real-time performance. Experimental results based on public datasets and actual campus network traffic data of universities show that the proposed model achieves an average detection accuracy of 98.7%, and the false positive rate is reduced by 12.3% compared with the standard DRL model, which verifies its effectiveness in abnormal traffic detection of campus networks.
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