The ACAC_D Model for Mutable Activity Control and Chain of Dependencies in Smart and Collaborative Systems
Tanjila Mawla, Maanak Gupta, Safwa Ameer, Ravi Sandhu

TL;DR
This paper advances activity-centric access control (ACAC) by developing formal models that handle real-time, mutable, and interdependent activities in IoT systems, ensuring secure and efficient management of complex dependencies.
Contribution
It introduces ACAC_D, a family of formal models that explicitly address activity dependencies and their chains, enhancing security modeling in dynamic IoT environments.
Findings
Formal models for activity dependencies in ACAC
Handling of mutable, interdependent activities in real-time
Performance analysis in a smart farming scenario
Abstract
With the integration of connected devices, artificial intelligence, and heterogeneous networks in IoT-driven cyber-physical systems, our society is evolving as a smart, automated, and connected community. In such dynamic and distributed environments, various operations are carried out considering different contextual factors to support the automation of collaborative devices and systems. These devices often perform long-lived operations or tasks (referred to as activities) to fulfill larger goals in the collaborative environment. These activities are usually mutable (change states) and interdependent. They can influence the execution of other activities in the ecosystem, requiring active and real-time monitoring of the entire connected environment. Recently, a vision for activity-centric access control(ACAC) was proposed to enable security modeling and enforcement from the perspective…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsService-Oriented Architecture and Web Services · Business Process Modeling and Analysis · Software System Performance and Reliability
