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Intrusion Detection Systems using Adaptive Regression
Splines
52. Srinivas Mukkamala,
Andrew H. Sung, Ajith Abraham, Vitorino Ramos, Intrusion Detection
Systems using Adaptive Regression Splines, in Enterprise Informations
Systems VI, Seruca, I.; Cordeiro, J.; Hammoudi, S.;
Filipe, J.
(Eds.), ISBN 1-4020-3674-4, Spinger-Verlag,
2005.

Figure - Multivariate Adaptative
Regression Splines (MARS) data estimation using splines and knots
(actual data on the rigth).
PDF
file: paper
(394 Kb)
Abstract: Past few years have witnessed a
growing recognition of soft computing technologies for the construction
of intelligent and reliable intrusion detection systems. Due to
increasing incidents of cyber attacks, building effective intrusion
detection systems (IDSs) are essential for protecting information
systems security, and yet it remains an elusive goal and a great
challenge. In this paper, we report a performance analysis between
Multivariate Adaptive Regression Splines (MARS), neural networks and
support vector machines. The MARS procedure builds flexible regression
models by fitting separate splines to distinct intervals of the
predictor variables. A brief comparison of different neural network
learning algorithms is also given.
Keywords: Network security, Intrusion Detection, Adaptive
Regression Splines, Neural Networks, Support Vector Machines.
Cited
by:
º
He,
Junbing Long, Dongyang Chen, Chuan, "An Improved Ant-based
Classifier for Intrusion Detection", in ICNC 07, Third Int. conf. on
Natural Computation, IEEE Press, pp. 819-823, Vol. 4, ISBN:
978-0-7695-2875-5, Aug. 2007.
º
Wen-Fu Shih, "An Adaptive Anomaly Detection Method Based on Incremental
Hidden Markov Model and Windows Native API", Master's Thesis,
University of Taiwan, Sept. 2007.
º Yun
Wang, Inyoung Kim, Gaston Mbateng and Shih-Yieh Ho, "A Latent class
Modeling approach to Detect Network Intrusion", in Computer
Communications Journal, Volume 30, Issue 1, pp. 93-100, 15 Dec. 2006.
º Tich
Phuoc
Tran; Jan, T., "Boosted Modified Probabilistic Neural Network (BMPNN)
for Network Intrusion Detection", in International Joint Conference on
Neural Networks - IJCNN 06, pp. 2354-2361, IEEE Press, 2006.
º A. Lazarevic, V. Kumar, J.
Srivastava, "Intrusion Detection: A Survey", in Managing Cyber Threats
- Issues, Approaches, and Challenges, Massive Computing Series, Vol. 5,
Part I, pp. 19-78, Springer, June 2006.
º Morteza Amini, Rasool Jalilia
and Hamid Reza Shahriaria, "RT-UNNID: A practical solution to real-time
Network-based Intrusion Detection using Unsupervised Neural Networks",
in Computers & Security Journal, Vol. 25, Issue 6 , pp. 459-468,
2006.
º
º Srilatha Chebrolu, Ajith
Abraham, Johnson P. Thomasa, "Feature Deduction and Ensemble Design of
Intrusion Detection Systems", in Computers & Security Journal,
Elsevier, 2005.
º Yuehui Chen, A. Abraham and Bo
Yang, "Hybrid Flexible Neural Tree Based Intrusion Detection Systems",
in IJIS - International Journal of Information Systems, 2005.
º Ajith Abraham and Johnson
Thomas, "Distributed Intrusion Detection Systems: A Computational
Intelligence Approach", in Applications of Information Systems to
Homeland Security and Defense, Editors: Hussein A. Abbass and Daryl
Essam, Idea Group Publishing, USA, 2005.
º Sandhya Peddabachigari, Ajith
Abraham, Crina Grosan and Johnson Thomas, "Modeling Intrusion Detection
System Using Hybrid Intelligent Systems", Journal of Network and
Computer Applications, Elsevier Science, 2005.
º INGENIO Org - Final Report,
Montevideo, Uruguay, July 2005 ( in http://www.ingenio.org.uy/ doc/
InformeFinal-06-07-2005.pdf).
º Konrad Rieck, "Maschinelles
Lernen in hostbasierten Intrusion-Detection- Systemen" (in German),
DIPLOMVORTRAG, Freie Universit at Berlin, Fachbereich Mathematik und
Informatik, Institut fur Informatik, 13-7, 2004.
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