Efficient and Strong Symmetric Password Authenticated Key Exchange With Identity Privacy for IoT

Lian, Huanhuan; Yang, Yafang; Zhao, Yunlei

doi:10.1109/jiot.2022.3219524

Cited by 7 publications

(2 citation statements)

References 42 publications

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“…The scheme provides forward/backward privacy and avoids node capture and server takeoff attacks. Lian et al [13] suited the traditional password-authenticated key exchange (PAKE) method to the IoT, with limited computing capability allowing two parties with a shared password to establish a session key. Their proposed protocol requires only three exponentiations per party while ensuring that the transmitted record and password file will not reveal the identity information.…”

Section: Key Distribution Using Lightweight Encryption Methodsmentioning

confidence: 99%

Advanced Lightweight Encryption Key Management Algorithms for IoT Networks

Domb

2024

Biometrics and Cryptography

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An Internet of Things (IoT) Network is a collection of sensors interconnected through a network that process and exchange data. IoT networks need sufficient resources to cope with the growing security challenges. In most cases, cryptography is implemented by symmetric and asymmetric encryption methods to cope with these security issues. Symmetric cryptography requires transmitting an encryption key to the receiver to decrypt the received encrypted messages. Consequently, secured key distribution techniques are the core for providing security and establishing a secured connection among objects. Encryption keys are frequently changed through key distribution mechanisms. Encrypted key exchange is a protocol that allows two parties who share the same key to communicate over an insecure network. This chapter outlines the challenges and core requirements for a robust key distribution mechanism, beginning with evaluating existing solutions and then detailing three innovative, efficient, and lightweight methods that balance the security level, network performance, and low processing overhead impact.

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Section: Key Distribution Using Lightweight Encryption Methodsmentioning

confidence: 99%

Advanced Lightweight Encryption Key Management Algorithms for IoT Networks

Domb

2024

Biometrics and Cryptography

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“…However, the communication overhead of this protocol is relatively high. Lian et al [26] proposed an authentication protocol for IoT devices that employs power-efficient operations to minimize computational overhead. Nevertheless, the computational overhead of this protocol remains elevated and is not suitable for resource-constrained scenarios comparing to other schemes.…”

Section: Related Workmentioning

confidence: 99%

Designing Anonymous Signature-Based Identity Authentication Scheme for Ocean Multilevel Transmission

Ye,

Cao,

Xie

2024

IEEE Internet Things J.

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With the rapid development of exploration in the ocean, identity authentication technologies have been applied in marine data transfer environments to address the challenges of security and privacy. However, sending data directly to the target server is often challenging during the process of offshore data transmission. Therefore, relay nodes are utilized to assist the data transmission. To guarantee data security in this situation, a multilevel data transmission identity authentication protocol (AIAS-oceanMT) is introduced in this paper, which is tailored for the complex network conditions in the marine environment. Based on elliptical curve and digital signature technologies, two stages of authentication as identity authentication and data authentication are offered. During data processing, only XOR operations, hash computations, and Elliptic Curve Cryptography (ECC) operations are used, also, efficiency and security are effectively balanced. The security of our protocol is supported by a Real-or-Random (ROR) Model. Furthermore, lower communication and computational overheads is demonstrated from our protocol in comparative analyses on security feature with other protocols, which is confirmed by the simulate experiment.

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CPAKE: An Identity-Binding Password Authenticated Key Exchange from Quasi-cyclic Codes

Jana,

Dutta

2024

Lecture Notes in Computer Science

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Efficient and Strong Symmetric Password Authenticated Key Exchange With Identity Privacy for IoT

Cited by 7 publications

References 42 publications

Advanced Lightweight Encryption Key Management Algorithms for IoT Networks

Advanced Lightweight Encryption Key Management Algorithms for IoT Networks

Designing Anonymous Signature-Based Identity Authentication Scheme for Ocean Multilevel Transmission

CPAKE: An Identity-Binding Password Authenticated Key Exchange from Quasi-cyclic Codes

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