CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security

Peter Matthew David Scully; Jingping Song; Jules Ferdinand Pagna Disso; Mark Neal

CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security

Peter Matthew David Scully, Jingping Song, Jules Ferdinand Pagna Disso, Mark Neal

Department of Computer Science

Research output: Chapter in Book/Report/Conference proceeding › Conference Proceeding (Non-Journal item)

Abstract

This paper extends the CARDINAL architecture by Kim et al. (2005) to CARDINAL-E. CARDINAL-E keeps the innate immune system behaviour at every computer on the network and relocates the adaptive immune system behaviour to higher performance computers. Two paradigmatic shifts are achieved by this modification. First is the shift from standalone to supportive, otherwise considered as architecturally static to dynamic. This leads to an additional layer of homeostasis at a network-wide level. The intended effect is to leverage unused capacity on networks of heterogeneous machines. Secondly, the change represents a subtle granular shift from “each computer has identical immune system components” to “the network (as a whole) carries all the immune system components”. This is a synthetic network-wide “body” where organs (CARDINAL’s Periphery and Lymph Node components) are finite and proportionate in quantity, and evolve their behaviour over time.

Original language	English
Title of host publication	Advances in Artificial Life, ECAL
Subtitle of host publication	Proceedings of the Twelfth European Conference on the Synthesis and Simulation of Living Systems
Editors	Pietro Liò, Orazio Miglino, Giuseppe Nicosia, Stefano Nolfi, Mario Pavone
Publisher	MIT Press
Pages	1235-1236
Publication status	Published - 2013

Keywords

Artificial Immune Systems
Network Security
Self-Organisation

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Scully, P. M. D., Song, J., Pagna Disso, J. F., & Neal, M. (2013). CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security. In P. Liò, O. Miglino, G. Nicosia, S. Nolfi, & M. Pavone (Eds.), Advances in Artificial Life, ECAL: Proceedings of the Twelfth European Conference on the Synthesis and Simulation of Living Systems (pp. 1235-1236). MIT Press.

Scully, Peter Matthew David ; Song, Jingping ; Pagna Disso, Jules Ferdinand et al. / CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security. Advances in Artificial Life, ECAL: Proceedings of the Twelfth European Conference on the Synthesis and Simulation of Living Systems. editor / Pietro Liò ; Orazio Miglino ; Giuseppe Nicosia ; Stefano Nolfi ; Mario Pavone. MIT Press, 2013. pp. 1235-1236

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title = "CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security",

abstract = "This paper extends the CARDINAL architecture by Kim et al. (2005) to CARDINAL-E. CARDINAL-E keeps the innate immune system behaviour at every computer on the network and relocates the adaptive immune system behaviour to higher performance computers. Two paradigmatic shifts are achieved by this modification. First is the shift from standalone to supportive, otherwise considered as architecturally static to dynamic. This leads to an additional layer of homeostasis at a network-wide level. The intended effect is to leverage unused capacity on networks of heterogeneous machines. Secondly, the change represents a subtle granular shift from “each computer has identical immune system components” to “the network (as a whole) carries all the immune system components”. This is a synthetic network-wide “body” where organs (CARDINAL{\textquoteright}s Periphery and Lymph Node components) are finite and proportionate in quantity, and evolve their behaviour over time.",

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author = "Scully, {Peter Matthew David} and Jingping Song and {Pagna Disso}, {Jules Ferdinand} and Mark Neal",

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CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security. / Scully, Peter Matthew David; Song, Jingping; Pagna Disso, Jules Ferdinand et al.

Advances in Artificial Life, ECAL: Proceedings of the Twelfth European Conference on the Synthesis and Simulation of Living Systems. ed. / Pietro Liò; Orazio Miglino; Giuseppe Nicosia; Stefano Nolfi; Mario Pavone. MIT Press, 2013. p. 1235-1236.

Research output: Chapter in Book/Report/Conference proceeding › Conference Proceeding (Non-Journal item)

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T1 - CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security

AU - Scully, Peter Matthew David

AU - Song, Jingping

AU - Pagna Disso, Jules Ferdinand

AU - Neal, Mark

N1 - .

PY - 2013

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N2 - This paper extends the CARDINAL architecture by Kim et al. (2005) to CARDINAL-E. CARDINAL-E keeps the innate immune system behaviour at every computer on the network and relocates the adaptive immune system behaviour to higher performance computers. Two paradigmatic shifts are achieved by this modification. First is the shift from standalone to supportive, otherwise considered as architecturally static to dynamic. This leads to an additional layer of homeostasis at a network-wide level. The intended effect is to leverage unused capacity on networks of heterogeneous machines. Secondly, the change represents a subtle granular shift from “each computer has identical immune system components” to “the network (as a whole) carries all the immune system components”. This is a synthetic network-wide “body” where organs (CARDINAL’s Periphery and Lymph Node components) are finite and proportionate in quantity, and evolve their behaviour over time.

AB - This paper extends the CARDINAL architecture by Kim et al. (2005) to CARDINAL-E. CARDINAL-E keeps the innate immune system behaviour at every computer on the network and relocates the adaptive immune system behaviour to higher performance computers. Two paradigmatic shifts are achieved by this modification. First is the shift from standalone to supportive, otherwise considered as architecturally static to dynamic. This leads to an additional layer of homeostasis at a network-wide level. The intended effect is to leverage unused capacity on networks of heterogeneous machines. Secondly, the change represents a subtle granular shift from “each computer has identical immune system components” to “the network (as a whole) carries all the immune system components”. This is a synthetic network-wide “body” where organs (CARDINAL’s Periphery and Lymph Node components) are finite and proportionate in quantity, and evolve their behaviour over time.

KW - Artificial Immune Systems

KW - Network Security

KW - Self-Organisation

UR - http://hdl.handle.net/2160/44491

M3 - Conference Proceeding (Non-Journal item)

SP - 1235

EP - 1236

BT - Advances in Artificial Life, ECAL

A2 - Liò, Pietro

A2 - Miglino, Orazio

A2 - Nicosia, Giuseppe

A2 - Nolfi, Stefano

A2 - Pavone, Mario

PB - MIT Press

ER -

CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security

Abstract

Keywords

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Self-heating architectures against malware propagation

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CARDINAL-E: AIS Extensions to CARDINAL for Decentralised Self-Organisation for Network Security

Abstract

Keywords

Permanent link

Other files and links

Fingerprint

Projects

Self-heating architectures against malware propagation

Cite this