PhD Forum: A System Identification Approach to Monitoring Network Traffic Security
Quentin Mayo, Renée C. Bryce, Ram Dantu
Abstract
Quentin Mayo, Renée C. Bryce, Ram Dantu
Abstract
Network security is a growing area of interest for cyber systems, especially given the increasing number of attacks on companies each year. Though there are a vast amount of tools already available, System Identification (SI) complements intrusion detection systems to help manage network traffic stability. SI is the science of building mathematical models of dynamic systems. This paper introduces the use of SI for modeling network traffic and utilizes a linear time invariant model to analyze performance of real connections and attack instances. We generated several ARX models where each represented a different threat state in the network. We utilized the KDD CUP 1999's DARPA dataset to analyze the performance when dealing with different attacks. Results show that the average model fit was 84.14% when determining if the system was experiencing normal traffic. This value is promising because it shows how well the system is able to determine a network state in a given time when fed input.
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Network security is a growing area of interest for cyber systems, especially given the increasing number of attacks on companies each year. Though there are a vast amount of tools already available, System Identification (SI) complements intrusion detection systems to help manage network traffic stability. SI is the science of building mathematical models of dynamic systems. This paper introduces the use of SI for modeling network traffic and utilizes a linear time invariant model to analyze performance of real connections and attack instances. We generated several ARX models where each represented a different threat state in the network. We utilized the KDD CUP 1999's DARPA dataset to analyze the performance when dealing with different attacks. Results show that the average model fit was 84.14% when determining if the system was experiencing normal traffic. This value is promising because it shows how well the system is able to determine a network state in a given time when fed input.
Key concepts: Computer science, Identification (biology), Intrusion detection system, Network security, State (computer science), Data mining, Traffic generation model, Stability (learning theory)