While industrial environments are increasingly equipped with sensors and integrated to enterprise networks, current security strategies are generally not prepared for the growing attack surface that resides from the convergence of their IT infrastructure with the industrial systems. As a result, the organizations responsible for corporate security, the Security Operations Center (SOC), are overwhelmed with the integration of the industrial systems. To facilitate monitoring the industrial assets, digital twins represent a helpful novel concept. They are the virtual counterparts of such assets and provide valuable insights through collecting asset-centric data, analytic capabilities and simulations. Moreover, digital twins can assist enterprise security by simulating attacks and analyzing the effect on the virtual counterpart. However, the integration of digital twin security simulations into enterprise security strategies, that are mainly controlled by the SOC, is currently neglected. To close this research gap, this work develops a process-based security framework to incorporate digital twin security simulations in the SOC. In the course of this work, a use case along with a digital twin-based security simulation provides proof of concept. It is demonstrated how a man-in-the-middle attack can be performed in a simulated industry setting and how it affects the systems. Moreover, we show how the resulting system logs can support the SOC by building technical rules to implement in Security Information and Event Management (SIEM) systems.
The rapid advancements of technology related to the Internet of Things and Cyber-Physical Systems mark an ongoing industrial revolution. Digital Twins and Augmented Reality play a significant role in this technological advancement. They are highly complementary concepts enabling the representation of physical assets in the digital space (Digital Twin) and the augmentation of physical space with digital information (Augmented Reality). Throughout the last few years, research has picked up on this and explored the possibilities of combining DT and AR. However, cybersecurity scholars have not yet paid much attention to this combined-arms approach, despite its potential. Especially, concerning contemporary security challenges, such as developing cyber situational awareness and including human factors into cybersecurity, AR and DT, offer tremendous potential for improvement. In this work, we systematize existing knowledge on AR-powered DTs and shed light on why and how cybersecurity could benefit from this combination.