Big Data and Cognitive Computing · 2018 · 44 citations · 34 references
ComputingComputer ScienceCybersecurityComputer SecurityNetwork SecuritySecurity OperationsComputer ForensicsIncident DetectionNetwork ForensicsNetwork Traffic AnalysisSecurity Operations Center ManagementSecurity Operations ManagementComputer Network OperationsCybersecurity Incident InvestigationsFlow-based DetectionNetwork MonitoringNetwork Security MonitoringNetwork Traffic ForensicsSecurity Event AnalysisTraffic Analysis
A Security Operations Center must analyze vast network flows and correlate events, yet existing software solutions consume excessive resources, generate high false positives, and fail to detect zero‑day exploits. This paper proposes the NF3 framework to enable a next‑generation cognitive SOC that relies on intelligence‑driven methods. NF3 achieves low computational overhead by employing fully automated ensemble machine‑learning techniques for flow categorization and threat detection. The framework demonstrates accurate network traffic analysis, malware traffic demystification, and encrypted traffic identification through its ensemble ML forensics tool.
A Security Operations Center (SOC) can be defined as an organized and highly skilled team that uses advanced computer forensics tools to prevent, detect and respond to cybersecurity incidents of an organization. The fundamental aspects of an effective SOC is related to the ability to examine and analyze the vast number of data flows and to correlate several other types of events from a cybersecurity perception. The supervision and categorization of network flow is an essential process not only for the scheduling, management, and regulation of the network’s services, but also for attacks identification and for the consequent forensics’ investigations. A serious potential disadvantage of the traditional software solutions used today for computer network monitoring, and specifically for the instances of effective categorization of the encrypted or obfuscated network flow, which enforces the rebuilding of messages packets in sophisticated underlying protocols, is the requirements of computational resources. In addition, an additional significant inability of these software packages is they create high false positive rates because they are deprived of accurate predicting mechanisms. For all the reasons above, in most cases, the traditional software fails completely to recognize unidentified vulnerabilities and zero-day exploitations. This paper proposes a novel intelligence driven Network Flow Forensics Framework (NF3) which uses low utilization of computing power and resources, for the Next Generation Cognitive Computing SOC (NGC2SOC) that rely solely on advanced fully automated intelligence methods. It is an effective and accurate Ensemble Machine Learning forensics tool to Network Traffic Analysis, Demystification of Malware Traffic and Encrypted Traffic Identification.
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