Privacy-Preserving Single-Sign-on With Fine-Grained Access Control for IoT Devices

IoT-based sharing economy is a win-win business model, where a transferor owns idle IoT devices and transfers the right to use a device to a user for a fee. Considering usage of multiple devices and privacy preservation, anonymous single-sign-on (ASSO) is a feasible solution for authentication. ASSO allows a user to access multiple devices with one token issued by the transferor and prevents the transferor from identifying the user. We also observe that in the scenario of IoT-based sharing economy, the token should (i) support attributes since a device should be available only to users with specific attributes (e.g., age) and (ii) avoid incurring significant communication/computation overhead as IoT devices are resource-constrained. In this paper, we proposed PILOT, a privacy-preserving single-sign-on with fine-grained access control for IoT devices. When a user attempts to access a device, he/she requests a token from the transferor. The token is actually a blind signature that cannot be tracked, and contains the user’s attributes which facilitate fine-grained access control on the device. Besides, the token consists of only four group elements and verification of the token involves only several exponentiation operations. This renders PILOT superior in terms of communication/computation overhead and suitable for IoT devices.

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Publication Details

Journal
IEEE Transactions on Mobile Computing
Published
2024-10-28
DOI
https://doi.org/10.1109/tmc.2024.3486719
Citations
1
Primary Topic
Cryptography and Data Security
Type
article
Field-Weighted Citation Impact
0.35
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article

Privacy-Preserving Single-Sign-on With Fine-Grained Access Control for IoT Devices

Changsong Jiang, Zhao Zhang, Man Ho Au, Chunxiang Xu
1 citations
IEEE Transactions on Mobile Computing
Cryptography and Data Security
0.35
article

Privacy-Preserving Single-Sign-on With Fine-Grained Access Control for IoT Devices

Changsong Jiang, Zhao Zhang, Man Ho Au, Chunxiang Xu
article en
1 citations

Abstract

IoT-based sharing economy is a win-win business model, where a transferor owns idle IoT devices and transfers the right to use a device to a user for a fee. Considering usage of multiple devices and privacy preservation, anonymous single-sign-on (ASSO) is a feasible solution for authentication. ASSO allows a user to access multiple devices with one token issued by the transferor and prevents the transferor from identifying the user. We also observe that in the scenario of IoT-based sharing economy, the token should (i) support attributes since a device should be available only to users with specific attributes (e.g., age) and (ii) avoid incurring significant communication/computation overhead as IoT devices are resource-constrained. In this paper, we proposed PILOT, a privacy-preserving single-sign-on with fine-grained access control for IoT devices. When a user attempts to access a device, he/she requests a token from the transferor. The token is actually a blind signature that cannot be tracked, and contains the user’s attributes which facilitate fine-grained access control on the device. Besides, the token consists of only four group elements and verification of the token involves only several exponentiation operations. This renders PILOT superior in terms of communication/computation overhead and suitable for IoT devices.

IEEE Transactions on Mobile ComputingVol. 24(3)
Hong Kong Polytechnic University (HK), University of Electronic Science and Technology of China (CN)
Openalex Percentile: Top 32%
Cryptography and Data Security
0.35
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