Skip to content

Trust Under Siege: Label Spoofing Attacks Against Machine Learning for Android Malware Detection

Mar 2025 · IEEE Transactions on Information Forensics and Security · Vol 21, pp. 3575-3587 · 5 citations · 59 references
Computer Science

TL;DR

Concerns are raised about the trustworthiness of ML training processes based on AV annotations and it is argued that further investigation is needed to develop more reliable labeling strategies.

Abstract

Machine Learning (ML) malware detectors rely heavily on crowd-sourced AntiVirus (AV) labels, with platforms like VirusTotal serving as trusted sources of malware annotations. But what if attackers could manipulate these labels to classify benign software as malicious? We introduce label spoofing attacks, a new threat that contaminates crowd-sourced datasets by embedding minimal and undetectable malicious patterns into benign samples. These patterns coerce AV engines into misclassifying legitimate files as harmful, enabling poisoning attacks against ML-based malware classifiers trained on those data. We demonstrate this scenario by developing AndroVenom, a methodology for polluting realistic data sources and launching subsequent poisoning attacks against ML malware detectors. Experiments show that not only are state-of-the-art feature extractors unable to filter such injections, but various ML models experience Denial-of-Service (DoS) with as little as 1% poisoned samples. Additionally, attackers can flip decisions for specific unaltered benign samples by modifying only 0.015% of the training data, threatening their reputation and market share, while evading anomaly detectors operating on the training data. We conclude by raising concerns about the trustworthiness of ML training processes based on AV annotations and argue that further investigation is needed to develop more reliable labeling strategies.

Read PDF

Similar papers

Preprint Sep 2026

Weaponizing Ground Truth: Data Poisoning Attacks by Exploiting Boundary Misalignment Between Antivirus Software and Learning-Based Detectors

Machine-learning (ML)-based malware detectors are commonly trained using labels obtained from antivirus (AV) engines and aggregation services (e.g., VirusTotal). This practice assumes AV-generated labels provide reliable supervision. However, small byte-level modifications can substantially alter AV verdicts while leav...

Jie-Shuai Yang, Zhi Wang, Yan Jia et al. · 0 citations
Preprint Sep 2026

RAMP: Reversing Adversarial Perturbations to Strengthen Clean-Label Backdoor Attacks against Malware Detectors

RAMP is proposed, an attack enhancement method that uses a genetic algorithm to optimize reversed adversarial perturbations under black-box access and then injects them through functionality-preserving binary manipulations, which substantially improves attack effectiveness over trigger-only baselines.

Jin-Wen Xin, Dong-Ni Zhang, Chen-Yang Wang et al. · 0 citations
Open access Sep 2026

Generating adversarial malware using GANs to evade robust detectors

Malicious software is one of the most significant challenges in computer security. Continuous efforts to detect malicious software have evolved significantly since the advent of computing. With the rise of artificial intelligence, novel detection methodologies have emerged. This study investigates the application of ge...

Kirollos Magdy Luka, Tamer Abdelkader, K. Naik · 0 citations
Conference Aug 2026

FAME: From Adversarial Feature Vectors to Malware Evasion via SMT

Internet of Things (IoT) malware detection remains a challenging task due to the severe resource constraints of IoT devices, which require lightweight yet effective security solutions. SIMBIoTA-ML addresses this challenge by leveraging machine learning (ML) classifiers operating on TLSH-based static features for effici...

Endre Glocker, J. Sándor, Roland Nagy · 0 citations
#machine learning Review Sep 2026

Identifying Security Platform Product Abuse with Machine Learning

This work provides the first study of such a whole-system defense, especially with respect to a deployed and operational capability, and shows an increase in product abuse coverage, a 30% reduction in monthly alerts, and adaptability to changes in malicious actors'behavior.

Shaefer Drew, Michael Brautbar, Paul Knight et al. · 0 citations

Related blog posts

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.