Anonymity preserving and round effective three-party authentication key exchange protocol based on chaotic maps

Pak, Kyongsok; Pak, Song-Ho; Ho, Cholman; Myong-Suk, Pak; Hwang, Choljin

doi:10.1371/journal.pone.0213976

Cited by 8 publications

(11 citation statements)

References 59 publications

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“…In the past, several user authentication schemes have been proposed for the support of system efficiencies such as communication, computation, and storage. Specifically, in sensor technologies, the specific area of key agreement (KA) schemes [61][62][63][64][65][66][67][68] has often been chosen, though they are not suitable to provide better energy utilization and environment adaptability. In [69], the KA scheme is generally classified into traditional, physiological value, secret-key generation, and hybrid-key that tries to provide a secret session-key to authorize the data transmission between the real-time entities.…”

Section: Discussionmentioning

confidence: 99%

Secure-user sign-in authentication for IoT-based eHealth systems

Deebak

Al‐Turjman²

2021

Complex Intell. Syst.

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Sustainable Computing has advanced the technological evolution of the Internet and information-based communication technology. It is nowadays emerging in the form of the Cloud of Medical Things (CoMT) to develop smart healthcare systems. The academic community has lately made great strides for the development of security for the CoMT based application systems, such as e-healthcare systems, industrial automation systems, military surveillance systems, and so on. To the architecture of CoMT based Smart Environment, Chebyshev Chaotic-Map based single-user sign-in (S-USI) is found as a significant security-control mechanism. To ensure the fidelity, the S-USI assigns a unary-token to the legal users to access the various services, provided by a service provider over an IP-enabled distributed networks. Numerous authentication mechanisms have been presented for the cloud-based distributed networks. However, most of the schemes are still persuasible to security threats, such as user-anonymity, privileged-insider, mutual authentication, and replay type of attacks. This paper applies a sensor/sensor-tag based smart healthcare environment that uses S-USI to provide security and privacy. To strengthen the authentication process, a robust secure based S-USI mechanism and a well-formed coexistence protocol proof for pervasive services in the cloud are proposed. Using the formal security analysis, the prominence of the proposed strategies is proven to show the security efficiency of proposed S-USI. From the formal verification, the comparison results demonstrate that the proposed S-USI consumes less computation overhead; and thus it can be more suitable for the telecare medical information systems.

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Section: Discussionmentioning

confidence: 99%

Secure-user sign-in authentication for IoT-based eHealth systems

Deebak

Al‐Turjman²

2021

Complex Intell. Syst.

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“…Islam et al [30] protocol takes 0.00 s parseTime, communication steps 5, search time 0.66 s, depth plies 6, and the visited nodes 16. Pak et al [31] protocol consume parse time 0.00 s, communication steps 5, search time 8.94 s, depth plies 6 and visited nodes number 1690. After simulation, the proposed 3PAKE protocol offers parseTime 0.00 s, searchTime 0.12 s, depth of 4 plies, visited nodes 10, and communication steps 2 that shows all parameters are reduced from the existing protocols, therefore our suggested 3PAKE protocol provides very little computation complexity along with reduced search time for the client's authentication over the server S a .…”

Section: Performance Evaluationmentioning

confidence: 99%

A Secure Three-Party Authenticated Key Exchange Protocol for Social Networks

Sinha¹,

Anand²,

Alharithi³

et al. 2022

Computers, Materials &Amp; Continua

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The 3PAKE (Three-Party Authenticated Key Exchange) protocol is a valuable cryptographic method that offers safe communication and permits two diverse parties to consent to a new safe meeting code using the trusted server. There have been explored numerous 3PAKE protocols earlier to create a protected meeting code between users employing the trusted server. However, existing modified 3PAKE protocols have numerous drawbacks and are incapable to provide desired secrecy against diverse attacks such as manin-the-middle, brute-force attacks, and many others in social networks. In this article, the authors proposed an improved as well as safe 3PAKE protocol based on the hash function and the symmetric encryption for the social networks. The authors utilized a well-acknowledged AVISPA tool to provide security verification of the proposed 3PAKE technique, and findings show that our proposed protocol is safer in opposition to active as well as passive attacks namely the brute-force, man-in-the-middle, parallel attack, and many more. Furthermore, compared to other similar schemes, the proposed protocol is built with a reduced computing cost as our proposed protocol consumes less time in execution and offers high secrecy in the social networks with improved accuracy. As a result, this verified scheme is more efficient as well as feasible for implementation in the social networks in comparison to previous security protocols. Although multifarious authors carried out extensive research on 3PAKE protocols to offer safe communication, still there are vital opportunities to explore and implement novel improved protocols for higher safety in the social networks and mobile commerce environment in the future in opposition to diverse active as well as passive attacks.

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“…Then, a translator (HLPSL2IF) translates the HLPSL code into an intermediate format (IF). Then, the IF of the code will be verified through four different embedded verification tools: The On-the-Fly-Model-Checker (OFMC) [21], CL-Constraint-Logic-based model-checker (ATSE) [22], SAT-based Model-Checker (SATMC) [23], and Tree Automata based on automatic approximations (TA4SP) [24]. These embedded tools, check the security claims of the said IF code of an algorithm for two types of attack, i.e.…”

Section: Basics Of Avispamentioning

confidence: 99%

A Lightweight and Secured Certificate-Based Proxy Signcryption (CB-PS) Scheme for E-Prescription Systems

et al. 2020

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Electronic prescription (E-prescription) is an emerging technology that allows health practitioners (doctors, physicians, pharmacists, or nurses) to electronically transmit prescriptions to pharmacies. E-prescription systems allow doctors to avoid traditional medical practices in which prescriptions are sent manually in handwritten form. Additionally, in cases in which a patient may not be able to collect the medication in person due to physical disabilities, the medications can be delivered to the patient's home directly. Furthermore, payments can also be made online (e.g., using credit cards or bank transfers). However, these distinctive features require a series of guidelines for the successful deployment of the E-prescription system due to stringent legal requirements and privacy regulations. Two major security requirements i.e. confidentiality and authentication need to be addressed. In general, the solution to ensuring confidentiality and authentication lies in the combination of both the encryption and digital signature functions in a single logic step called signcryption. Therefore, in this paper, we present a lightweight and provable secured certificate-based proxy signcryption (CB-PS) scheme for e-prescription systems. The formal security verification uses the Automated Validation of Internet Security Protocols and Applications (AVISPA) tool along with informal security analysis, which authenticates that the proposed CB-PS scheme can potentially be implemented in resource-constrained low-computing electronic devices in E-prescription systems.

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Anonymity preserving and round effective three-party authentication key exchange protocol based on chaotic maps

Cited by 8 publications

References 59 publications

Secure-user sign-in authentication for IoT-based eHealth systems

Secure-user sign-in authentication for IoT-based eHealth systems

A Secure Three-Party Authenticated Key Exchange Protocol for Social Networks

A Lightweight and Secured Certificate-Based Proxy Signcryption (CB-PS) Scheme for E-Prescription Systems

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