Adetomiwa A. Dosunmu, Peter Olusoji Ogundele
Advanced Persistent Threats (APTs) pose significant risks to enterprise digital infrastructures due to their stealth, persistence, and sophisticated attack techniques. This study presents a conceptual framework for implementing deception-based defense architectures designed to disrupt and neutralize APT operations. The proposed model integrates decoy systems, honeytokens, adaptive network traps, and automated threat intelligence to mislead, delay, and analyze attackers while minimizing operational disruption. Through simulated enterprise environments and multi-stage attack scenarios, the framework demonstrates measurable improvements in threat detection, attack containment, and incident response efficiency. The findings indicate that integrating deception mechanisms into enterprise cybersecurity strategies provides a proactive layer of defense, complementing traditional security measures while reducing exposure to high-impact attacks. The study contributes to the development of scalable, adaptive, and intelligence-driven defense architectures capable of addressing contemporary cyber threat landscapes.
@article{5a9758ee-0947-4e2f-8bf7-b59e36afb3df,
title={Deception Based Defense Architectures for Disrupting Advanced Persistent Threat Operations },
author={Adetomiwa A. Dosunmu and Peter Olusoji Ogundele},
year={2025},
language={en}
}TY - JOUR TI - Deception Based Defense Architectures for Disrupting Advanced Persistent Threat Operations AU - Adetomiwa A. Dosunmu AU - Peter Olusoji Ogundele PY - 2025 LA - en ER -
Introduction Concerns over air pollution and the environmental problem of acid rain have made governments all over the world tighten their regulations
Roger Rumbu check
Huan Li, Elsayed Oraby, Jacques Eksteen
Waste printed circuit boards (WPCBs) are a complicated and valuable fraction of electric and electronic waste. The recycling of them is critical to av
Roger Rumbu
TohoKu University
This article reports the development of a hybrid polymeric solid electrolyte designed to enhance the safety and performance of lithium-ion batteries (
PNAS Nexus
This article reports the design and characterization of a high-performance, truly solid polymer electrolyte for lithium-based batteries, addressing lo