This paper examines the dramatic visual fingerprints left by a wide variety of popular network attack tools in order to better understand the specific methodologies used by attackers as well as the identifiable characteristics of the tools themselves. The techniques used are entirely passive in nature and virtually undetectable by the attackers. While much work has been done on active and passive operating systems detection, little has been done on fingerprinting the specific tools used by attackers. This research explores the application of several visualization techniques and their usefulness toward identification of attack tools, without the typical automated intrusion detection system's signatures and statistical anomalies. These visualizations were tested using a wide range of popular network security tools and the results show that in many cases, the specific tool can be identified and provides intuition that many classes of zero-day attacks can be rapidly detected and analyzed using similar techniques.
The massive amount of alarm data generated from intrusion detection systems is cumbersome for network system administrators to analyze. Often, important details are overlooked and it is difficult to get an overall picture of what is occurring in the network by manually traversing textual alarm logs. We have designed a novel visualization to address this problem by showing alarm activity within a network. Alarm data is presented in an overview where system administrators can get a general sense of network activity and easily detect anomalies. They then have the option of zooming and drilling down for details. The information is presented with local network IP (Internet Protocol) addresses plotted over multiple yaxes to represent the location of alarms. Time on the x-axis is used to show the pattern of the alarms and variations in color encode the severity and amount of alarms. Based on our system administrator requirements study, this graphical layout addresses what system administrators need to see, is faster and easier than analyzing text logs, and uses visualization techniques to effectively scale and display the data. With this design, we have built a tool that effectively uses operational alarm log data generated on the Georgia Tech campus network. The motivation and background of our design is presented along with examples that illustrate its usefulness.
Abstract-As the trend of successful network attacks continue to rise, better forms of intrusion detection and prevention are needed. This paper addresses network traffic visualization techniques that aid an administrator in recognizing attacks in real time. Our approach improves upon current techniques that lack effectiveness due to an overemphasis on flow, nodes, or assumed familiarity with the attack tool, causing either late reaction or missed detection. A port-based overview of network activity produces a improved representation for detecting and responding to malicious activity. We have found that presenting an overview using stacked histograms of aggregate port activity, combined with the ability to drill-down for finer details allows small, yet important details to be noticed and investigated without being obscured by large, usual traffic. Due to the amount of traffic as well as the range of possible port numbers and IP addresses, scaling techniques are necessary to help provide this overview. We provide graphs with examples of forensic findings. Finally, we describe our future plans for using live traffic in addition to our forensic visualization techniques.
The massive amount of alarm data generated from intrusion detection systems is cumbersome for network system administrators to analyze. Often, important details are overlooked and it is difficult to get an overall picture of what is occurring in the network by manually traversing textual alarm logs. We have designed a novel visualization to address this problem by showing alarm activity within a network. Alarm data is presented in an overview where system administrators can get a general sense of network activity and easily detect anomalies. They then have the option of zooming and drilling down for details. The information is presented with local network IP (Internet Protocol) addresses plotted over multiple yaxes to represent the location of alarms. Time on the x-axis is used to show the pattern of the alarms and variations in color encode the severity and amount of alarms. Based on our system administrator requirements study, this graphical layout addresses what system administrators need to see, is faster and easier than analyzing text logs, and uses visualization techniques to effectively scale and display the data. With this design, we have built a tool that effectively uses operational alarm log data generated on the Georgia Tech campus network. The motivation and background of our design is presented along with examples that illustrate its usefulness.
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