Resilient Multimodal Fusion for Robust Vulnerability Exploitability Prediction Under Data Degradation

Automated assessment of software vulnerability exploitability is essential for intelligent cyber defense, yet its effectiveness is often hindered by unstable, delayed, or degraded security data. Existing models typically rely on either unstructured descriptions or structured metadata, making them fragile to information gaps. We present SecureFusion‐X, a resilient multimodal framework designed for reliable prediction under adverse data conditions. The system utilizes decision‐level fusion with two specialized branches: TextGuard‐Lite, an efficient encoder based on a distilled MiniLM model, and TabShield‐Net, a TabTransformer‐based metadata encoder. A leakage‐free training protocol simulating modality perturbations supports robustness. Evaluation on 8549 curated NVD‐aligned vulnerability records shows that SecureFusion‐X improves F 1 from 0.9766 for the structured metadata baseline to 0.9798, while reducing the Brier score from 0.0202 to 0.0182 under clean‐test conditions. Under representative data degradation with 30% missing or noisy text, SecureFusion‐X remains stable, with less than 0.1% variation in fused performance, whereas the text‐only baseline drops by 9.5% under missing‐text conditions. SecureFusion‐X provides a computationally efficient and robustness‐oriented framework for vulnerability exploitability prioritization under controlled and temporally shifted evaluation settings.

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Publication Details

Journal
Advanced Intelligent Systems
Published
2026-09-11
DOI
https://doi.org/10.1002/aisy.70544
Primary Topic
Information and Cyber Security
Type
article
Field-Weighted Citation Impact
0.00
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article

Resilient Multimodal Fusion for Robust Vulnerability Exploitability Prediction Under Data Degradation

Reza Shahbazian, Andrea Pugliese, Seyedeh Leili Mirtaheri, Mona Dolati
Advanced Intelligent Systems
Information and Cyber Security
article

Resilient Multimodal Fusion for Robust Vulnerability Exploitability Prediction Under Data Degradation

Reza Shahbazian, Andrea Pugliese, Seyedeh Leili Mirtaheri, Mona Dolati
article en

Abstract

Automated assessment of software vulnerability exploitability is essential for intelligent cyber defense, yet its effectiveness is often hindered by unstable, delayed, or degraded security data. Existing models typically rely on either unstructured descriptions or structured metadata, making them fragile to information gaps. We present SecureFusion‐X, a resilient multimodal framework designed for reliable prediction under adverse data conditions. The system utilizes decision‐level fusion with two specialized branches: TextGuard‐Lite, an efficient encoder based on a distilled MiniLM model, and TabShield‐Net, a TabTransformer‐based metadata encoder. A leakage‐free training protocol simulating modality perturbations supports robustness. Evaluation on 8549 curated NVD‐aligned vulnerability records shows that SecureFusion‐X improves F 1 from 0.9766 for the structured metadata baseline to 0.9798, while reducing the Brier score from 0.0202 to 0.0182 under clean‐test conditions. Under representative data degradation with 30% missing or noisy text, SecureFusion‐X remains stable, with less than 0.1% variation in fused performance, whereas the text‐only baseline drops by 9.5% under missing‐text conditions. SecureFusion‐X provides a computationally efficient and robustness‐oriented framework for vulnerability exploitability prioritization under controlled and temporally shifted evaluation settings.

Advanced Intelligent Systems
University of Calabria (IT), University of Palermo (IT)
Openalex Percentile: Top 3%
Information and Cyber Security
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