Sep 2026· IEEE Transactions on Mobile Computing· Vol 25, pp. 14564-14579· 0 citations· 42 references
Computer Science
Abstract
The rise of edge-cloud computing has accelerated data sharing among mobile users. To resist malicious senders within organizations from leaking sensitive data, access control encryption (ACE) schemes have been employed to secure data flows, in which each sender obtains an encryption key according to the access control policy to encrypt the data, and a sanitizer (i.e., the edge node) inspects all shared data between the sender and receiver. Although attribute-based ACE schemes have been put forward to support fine-grained data sharing, they lack temporal constraints on write control, which is crucial in mobile data sharing scenarios, and have high sanitization overhead at the edge node. In addition, they only provide selective security and are therefore vulnerable to adaptive adversaries. To this end, we propose TSFlow, a time-aware secure flow control framework in mobile edge-cloud that regulates which senders can transmit data to which receivers during the authorized time interval, preventing malicious sending by expired senders. At its core is TA-ACE, a time-aware attribute-based ACE that issues each sender an encryption key tied to an expressive access structure and a time interval. Encrypted data can be sanitized at the edge only if it is well-formed with a valid encryption key and encrypted within the time interval, and any legitimate receiver satisfying the access structure can decrypt the sanitized ciphertext. We formally prove that TA-ACE satisfies the adaptive no-read and no-write rules, and demonstrate the reasonable efficiency of TSFlow through experiments for secure flow control in mobile edge-cloud.
The proposed ePoFSC scheme integrates pre-auditing and caching mechanisms for requester trapdoors before online access requests, enabling constant-time operations for request generation, request verification, and request header construction independent of requester attribute scale.
A privacy-preserving, secure data-sharing framework tailored for edge-cloud collaborative architectures that minimizes the computational overhead on the terminal side while safeguarding user privacy, and effectively reduces the overhead associated with user joining and revocation within the same group.
Qi-Kun Zhang, Zheng Cai, Jinbo Feng et al.· Journal of King Saud Univers...· 0 citations
As intelligent home services increasingly adopt IoT-Edge-Cloud architectures, protecting personal data during third-party data sharing has become an important challenge. This paper presents a Service-Aware Trust Chain framework that applies Privacy-Enhancing Technologies (PETs) according to data sensitivity. To support...
Jihwan Lee, Myoung Sun Oh, Minyoung Park et al.· International Conference on...· 0 citations
The growing demand for large models in industrial Internet necessitates secure sharing of cloud-stored training data. However, existing Ciphertext-Policy Attribute-Based Encryption schemes suffer from low efficiency and insufficient accuracy in tracing key-leaking users. We propose a traceable secure data sharing schem...
Shaojian Zhang, Jun Ye· 2026 5th International Confe...· 0 citations
This study proposes a novel approach to secure cloud data access control called the Robust Mechanism for Secure Cloud Data Access Control (SC-DAC), which combines advanced cryptographic techniques such as Ciphertext-Policy Attribute-Based Encryption (CP-ABE) and Hybrid Public Key Encryption.
Haqi Khalid, S. Hashim, Mohammed Abdul Majeed· PeerJ Computer Science· 1 citation
The framework converts security and privacy requirements into enforceable routing, cryptographic, access-control, isolation, auditing, and lifecycle policies, enabling reproducible security-performance co-optimization for distributed IoT.
Jing Su, Zi-Lin Guo· ICST Transactions on Scalabl...· 0 citations
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