Decision-Making Method for Estimating Malware Risk Index

Most recent cyberattacks have employed new and diverse malware. Various static and dynamic analysis methods are being introduced to detect and defend against these attacks. The malware that is detected by these methods includes advanced present threat (APT) attacks, which allow additional interventi...

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Bibliographic Details
Main Author: Dohoon Kim
Format: Article
Language:English
Published: MDPI AG 2019-11-01
Series:Applied Sciences
Subjects:
apt
mri
ci
Online Access:https://www.mdpi.com/2076-3417/9/22/4943
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spelling doaj-14d305ac1b84440cbbe54d33f8ec5e902020-11-25T01:33:25ZengMDPI AGApplied Sciences2076-34172019-11-01922494310.3390/app9224943app9224943Decision-Making Method for Estimating Malware Risk IndexDohoon Kim0Department of Computer Science, Kyonggi University, Kyonggido 16227, KoreaMost recent cyberattacks have employed new and diverse malware. Various static and dynamic analysis methods are being introduced to detect and defend against these attacks. The malware that is detected by these methods includes advanced present threat (APT) attacks, which allow additional intervention by attackers. Such malware presents a variety of threats (DNS, C&C, Malicious IP, etc.) This threat information used to defend against variants of malicious attacks. However, the intelligence that is detected in this manner is used in the blocking policies of information-security systems. Consequently, it is difficult for staff who perform Computer Emergence Response Team security control to determine the extent to which cyberattacks such as malware are a potential threat. Additionally, it is difficult to use this intelligence to establish long-term defense strategies for specific APT attacks or implement intelligent internal security systems. Therefore, a decision-making model that identifies threat sources and malicious activities (MAs) that occur during the static and dynamic analysis of various types of collected malware and performs machine learning based on a quantitative analysis of these threat sources and activities is proposed herein. This model estimates malware risk indices (MRIs) in detail using an analytic hierarchy process to analyze malware and the probabilities of MAs. The analysis results were significant, as the consistency index of the estimated MRI values for 51300 types of malware, which were collected during a specific control period, was maintained at <0.051.https://www.mdpi.com/2076-3417/9/22/4943malwarerisk analysisaptrisk indexsecond-order markov processmrici
collection DOAJ
language English
format Article
sources DOAJ
author Dohoon Kim
spellingShingle Dohoon Kim
Decision-Making Method for Estimating Malware Risk Index
Applied Sciences
malware
risk analysis
apt
risk index
second-order markov process
mri
ci
author_facet Dohoon Kim
author_sort Dohoon Kim
title Decision-Making Method for Estimating Malware Risk Index
title_short Decision-Making Method for Estimating Malware Risk Index
title_full Decision-Making Method for Estimating Malware Risk Index
title_fullStr Decision-Making Method for Estimating Malware Risk Index
title_full_unstemmed Decision-Making Method for Estimating Malware Risk Index
title_sort decision-making method for estimating malware risk index
publisher MDPI AG
series Applied Sciences
issn 2076-3417
publishDate 2019-11-01
description Most recent cyberattacks have employed new and diverse malware. Various static and dynamic analysis methods are being introduced to detect and defend against these attacks. The malware that is detected by these methods includes advanced present threat (APT) attacks, which allow additional intervention by attackers. Such malware presents a variety of threats (DNS, C&C, Malicious IP, etc.) This threat information used to defend against variants of malicious attacks. However, the intelligence that is detected in this manner is used in the blocking policies of information-security systems. Consequently, it is difficult for staff who perform Computer Emergence Response Team security control to determine the extent to which cyberattacks such as malware are a potential threat. Additionally, it is difficult to use this intelligence to establish long-term defense strategies for specific APT attacks or implement intelligent internal security systems. Therefore, a decision-making model that identifies threat sources and malicious activities (MAs) that occur during the static and dynamic analysis of various types of collected malware and performs machine learning based on a quantitative analysis of these threat sources and activities is proposed herein. This model estimates malware risk indices (MRIs) in detail using an analytic hierarchy process to analyze malware and the probabilities of MAs. The analysis results were significant, as the consistency index of the estimated MRI values for 51300 types of malware, which were collected during a specific control period, was maintained at <0.051.
topic malware
risk analysis
apt
risk index
second-order markov process
mri
ci
url https://www.mdpi.com/2076-3417/9/22/4943
work_keys_str_mv AT dohoonkim decisionmakingmethodforestimatingmalwareriskindex
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