A Provably Secure IBE Transformation Model for PKC Using Conformable Chebyshev Chaotic Maps under Human-Centered IoT Environments

Meshram, Chandrashekhar; Imoize, Agbotiname Lucky; Aljaedi, Amer; Alharbi, Adel R.; Jamal, Sajjad Shaukat; Barve, Sharad Kumar

doi:10.3390/s21217227

Cited by 4 publications

(3 citation statements)

References 74 publications

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“…To address the flaws inherent in the traditional schemes, Zheng [11] proposed signcryption, which combines encryption and signature in a single stage. The scheme is built on the public key infrastructure (PKI) [2]. However, the procedure has certain drawbacks, such as certificate distribution, storage, and production issues.…”

Section: Introductionmentioning

confidence: 99%

CGST: Provably Secure Lightweight Certificateless Group Signcryption Technique Based on Fractional Chaotic Maps

Meshram¹,

Imoize

Jamal

et al. 2022

IEEE Access

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In recent years, there has been a lot of research interest in analysing chaotic constructions and their associated cryptographic structures. Compared with the essential combination of encryption and signature, the signcryption scheme has a more realistic solution for achieving message confidentiality and authentication simultaneously. However, the security of such schemes is questionable when deployed in modern safety-critical systems, especially as billions of sensitive user information is transmitted over open communication channels. To address this limitation, a lightweight, provably secure certificateless technique that uses Fractional Chaotic Maps (FCM) for group-oriented signcryption (CGST) is presented. The main feature of the CGST-FCM technique is that any group signcrypter may encrypt data/information with the group manager (GM) and have it sent to the verifier. They can verify the legitimacy of the signcrypted information/data using the public conditions of the group, but they cannot link it to the conforming signcrypter. In this scenario, valid signcrypted information/data cannot be produced by the GM or any signcrypter in that category alone. The GM is allowed to reveal the identity of the signcrypter when there is a legal conflict to restrict repudiation of the signature. The CGST-FCM technique is found to be protected from the indistinguishably chosen ciphertext attack (IND-CCA). The computationally difficult problem has been used to build unlinkability, traceability, robust security, and unforgeability. The security investigation of the presented CGST-FCM technique shows commendable consistency and very high efficiency when used in real-time security applications.

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Section: Introductionmentioning

confidence: 99%

CGST: Provably Secure Lightweight Certificateless Group Signcryption Technique Based on Fractional Chaotic Maps

Meshram¹,

Imoize

Jamal

et al. 2022

IEEE Access

Self Cite

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“…However, With the growing use of Chebyshev chaotic in designing lightweight asymmetric cryptographic schemes, there are other related issues that require attention, such as cryptographic models designed for existing public key cryptography (PKC) infrastructures that may need to be modified. Meshram et al [21] proposed a robust and secure identity-based encryption transformation model for PKC using CCM.…”

Section: Related Workmentioning

confidence: 99%

A Secure Anonymous Identity-Based Virtual-Space Agreement Method for Crowds-Based Anonymous Communicate Scheme

Lin,

Wang,

Shang

et al. 2023

IET Information Security

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Anonymous data exchange is in great demand in many situations, especially in remote control systems, in which a stable, secure, and secret data channel must be established between the controlling and controlled parties to distribute control commands and return data. In the previous work, we built a two-level Virtual-Space anonymous communication scheme based on the Crowds System for performing secret data exchange in remote control systems. However, as an essential part of security and anonymity, participating nodes’ identity declaration and session key agreement phases were not well designed. In this paper, we redesign the identity agreement and declaration process and design an identity-based Virtual-Space agreement method using the extended Chebyshev Chaotic Maps. In this approach, we transform the identity declaration process into a multilevel Virtual-Space agreement problem, where a series of security-progressive Virtual-Space addresses are negotiated between the controller and the controlled nodes. The protocol can handle the case where there are multiple controllers in the system, and the negotiated Virtual-Space depends on the identity of the controller and the controlled node, so different controllers do not affect each other. The designed protocol is verified on Freenet, and we conclude this paper with a detailed security analysis of the method to prove that the method satisfies forward security.

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“…However, several drawbacks have been associated with two-factor SIP authentication schemes [21,22]; it is not unlikely that they are vulnerable to smart card loss attacks [12]. Three-factor SIP authentication schemes combine passwords, smart cards, and biometrics, which reinforces the security architecture of the schemes, making them suitable for applications in human-centered IoT environments [23][24][25]. These schemes have been used in medical decision support systems, smart homes, learning systems, and more [26,27].…”

Section: Introductionmentioning

confidence: 99%

An Efficient Fractional Chebyshev Chaotic Map-Based Three-Factor Session Initiation Protocol for the Human-Centered IoT Architecture

Meshram¹,

Lee

Bahkali

et al. 2023

Mathematics

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One of the most frequently used signaling techniques for initiating, sustaining, and dismissing sessions on the internet is a session initiation protocol (SIP). Currently, SIPs are gaining widespread applications in the human-centered Internet of Things (HC-IoT) domain. In HC-IoT environments, sensitive user data are transmitted over open communication channels that require secure authentication to protect sensitive user information from unlawful exploitation. In order to provide robust authentication for critical user data, SIP-based authentication mechanisms have been proposed; however, these authentication schemes have not provided perfect authentication and effective security for users. Additionally, the existing schemes are computationally intensive and cost-prohibitive in design and implementation. In order to address this problem, especially in the human-centered IoT context, this work introduces a provably secure, lightweight, three-factor SIP-based scheme to tackle the shortcomings of traditional schemes. The presented scheme is based on an extended fractional Chebyshev chaotic map. A formal security verification of the session key in the real-or-random (ROR) model is conducted to evaluate the projected scheme. The investigation results indicate that the new scheme is SIP compatible and achieves secure mutual authentication with robust security features compared to the existing schemes. Therefore, the proposed SIP-enabled scheme can be deployed in the human-centered Internet of Things to secure critical user information.

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A Provably Secure IBE Transformation Model for PKC Using Conformable Chebyshev Chaotic Maps under Human-Centered IoT Environments

Cited by 4 publications

References 74 publications

CGST: Provably Secure Lightweight Certificateless Group Signcryption Technique Based on Fractional Chaotic Maps

CGST: Provably Secure Lightweight Certificateless Group Signcryption Technique Based on Fractional Chaotic Maps

A Secure Anonymous Identity-Based Virtual-Space Agreement Method for Crowds-Based Anonymous Communicate Scheme

An Efficient Fractional Chebyshev Chaotic Map-Based Three-Factor Session Initiation Protocol for the Human-Centered IoT Architecture

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