基于最优特征选择和集成机器学习的Android恶意软件分类

Rejwana Islam , Moinul Islam Sayed , Sajal Saha , Mohammad Jamal Hossain , Md Abdul Masud
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引用次数: 0

摘要

市场上的大多数智能手机都运行Android操作系统。安全一直是这个平台的核心问题,因为它允许用户安装来自未知来源的应用程序。随着每天成千上万的应用程序被制作和发布,与传统的检测技术相比,使用机器学习(ML)进行恶意软件检测引起了极大的关注。尽管学术界和商界都在努力,但开发一种高效可靠的恶意软件分类方法仍然具有挑战性。因此,在过去的十年中,已经产生并提供了一些用于恶意软件分析的数据集。这些数据集可能包含静态特性,如API调用、意图和权限,也可能包含动态特性,如日志记录错误、共享内存和系统调用。当涉及到代码混淆时,动态分析更具弹性。虽然在最近的研究中已经进行了二元分类和多重分类,但后者提供了对恶意软件本质的有价值的见解。由于每种恶意软件的运作方式不同,识别其类别可能有助于预防。本研究使用著名的集成ML方法加权投票,对多分类进行动态特征分析。随机森林、k近邻、多层次感知器、决策树、支持向量机和逻辑回归等都在该集成模型中进行了研究。我们使用了一个名为CCCS-CIC-AndMal-2020的最新数据集,其中包含大量Android应用程序和恶意软件样本。经过充分研究的数据准备阶段,然后根据ML分类器的R2分数进行加权投票,即使在排除60.2%的特征后,准确率也达到95.0%,优于最近的所有研究。
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Android malware classification using optimum feature selection and ensemble machine learning

The majority of smartphones on the market run on the Android operating system. Security has been a core concern with this platform since it allows users to install apps from unknown sources. With thousands of apps being produced and launched daily, malware detection using Machine Learning (ML) has attracted significant attention compared to traditional detection techniques. Despite academic and commercial efforts, developing an efficient and reliable method for classifying malware remains challenging. As a result, several datasets for malware analysis have been generated and made available during the past ten years. These datasets may contain static features, such as API calls, intents, and permissions, or dynamic features, like logcat errors, shared memory, and system calls. Dynamic analysis is more resilient when it comes to code obfuscation. Though binary classification and multi-classification have been carried out in recent studies, the latter provides valuable insight into the nature of malware. Because each malware variant operates differently, identifying its category might help prevent it. Using the well-known ensemble ML approach called weighted voting, this study performed dynamic feature analysis for multi-classification. Random Forest, K-nearest Neighbors, Multi-Level Perceptrons, Decision Trees, Support Vector Machines, and Logistic Regression are all studied in this ensemble model. We used a recent dataset named CCCS-CIC-AndMal-2020, which contains an extensive collection of Android applications and malware samples. A well-researched data preparation phase followed by weighted voting based on R2 scores of the ML classifiers presents an accuracy of 95.0% even after excluding 60.2% features, outperforming all recent studies.

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