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Main Author: Kim, Song-Kyoo
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2606.00481
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author Kim, Song-Kyoo
author_facet Kim, Song-Kyoo
contents This research presents a novel stochastic framework for proactive cybersecurity defense timing under a single attack scenario. The approach models the defense process as a continuous observation mechanism in which the defense instant and the subsequent observation slot follow independent exponential distributions. Laplace-Carson transforms combined with first-excess theory yield the joint detection function that brackets the attack moment. Marginalization under Markovian Poisson arrivals then produces the probability density of the defense moment and conditional expectations of pre-attack and post-attack observation times. These closed-form results enable quantitative assessment of defense timing sensitivity to threat intensity and support precise calibration of observation parameters for low-latency proactive measures. Major contributions include the explicit derivation of marginal distributions and expected values, visualization of defense moment density, and the bridging of stochastic duel methodology with practical cybersecurity applications.
format Preprint
id arxiv_https___arxiv_org_abs_2606_00481
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Stochastic Analysis of Cybersecurity Defense Strategies Under Single Attack Scenario
Kim, Song-Kyoo
Cryptography and Security
Systems and Control
Probability
Applications
60C55, 60K10, 90B15, 90B50, 91A35, 91A55, 93A30
This research presents a novel stochastic framework for proactive cybersecurity defense timing under a single attack scenario. The approach models the defense process as a continuous observation mechanism in which the defense instant and the subsequent observation slot follow independent exponential distributions. Laplace-Carson transforms combined with first-excess theory yield the joint detection function that brackets the attack moment. Marginalization under Markovian Poisson arrivals then produces the probability density of the defense moment and conditional expectations of pre-attack and post-attack observation times. These closed-form results enable quantitative assessment of defense timing sensitivity to threat intensity and support precise calibration of observation parameters for low-latency proactive measures. Major contributions include the explicit derivation of marginal distributions and expected values, visualization of defense moment density, and the bridging of stochastic duel methodology with practical cybersecurity applications.
title Stochastic Analysis of Cybersecurity Defense Strategies Under Single Attack Scenario
topic Cryptography and Security
Systems and Control
Probability
Applications
60C55, 60K10, 90B15, 90B50, 91A35, 91A55, 93A30
url https://arxiv.org/abs/2606.00481