A Review of Signcryption Schemes Based on Hyper Elliptic Curve

Ullah, Shamsher; Li, Xiangyang; Lan, Zhang

doi:10.1109/bigcom.2017.51

Cited by 24 publications

(19 citation statements)

References 12 publications

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“…The symbols CFY, UFY, A ARA, FSY, PVY, ROM, FVTA, √ , and ⨵ indicate confidentiality, unforgeability, authen integrity, anti-replay attack, forward secrecy, public verifiability, random oracle model verification through AVISPA, satisfying the service, and does not satisfy, respectively. The is clearly shown that, our proposed CB-SN meet all the claimed security services and the s i.e., Li et al [22], Omala et al [15], Gao et al [24], Braeken et al [17], Braeken et al [19] Sche and 3 do not meet the services such as FSY and PVY, as well as FVTA or some other verificat t + 1) 2 (2) Note, ℎ points are different from elliptic curve [26]. It forms the divisors which are the formal sum of finite integers like = ∑ i i, where i ℑ and i ℎ .…”

Section: Security Performancementioning

confidence: 94%

“…Note, h points are different from elliptic curve [26]. It forms the divisors which are the formal sum of finite integers like = ∑ i i , where i ℑ t and i h .…”

Section: Hyper-elliptic Curvementioning

confidence: 99%

“…Let ( ), f( ) ℑ t [ ], and deg (ℎ( )) ⪯ ; and f( ) is a monic polynomial having deg (f( )) = 2 + 1 [25]. Therefore, h of genus ⪰ 2 over ℑ t is the set of points ( ,) ℑ t * ℑ t as shown in the Equation (1).h : 2 + ( ) = f( )Note, h points are different from elliptic curve [26]. It forms the divisors which are the formal sum of finite integers like = ∑ i i , where i ℑ t and i h .…”

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confidence: 99%

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An Energy Efficient and Formally Secured Certificate-Based Signcryption for Wireless Body Area Networks with the Internet of Things

et al. 2019

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Recently, the spectacular innovations in the fields of wireless body area networks (WBAN) and the Internet of Things (IoT) have made e-Care services rise as a promising application domain, which significantly advances the quality of the medical system, however, due to the openness of the wireless environment and privacy of people's physiological data, WBAN and IoT are prone to various cyber-a acks. There is a significant need for an efficient and highly secured cryptographic scheme that can meet the requirements of resource-constrained devices. Therefore, in this paper, we propose a certificate-based signcryption (CB-SN) scheme for the IoT-enabled WBAN. The proposed scheme is based on the concept of hyper-elliptic curve cryptography (HECC) that offers the same level of security as the elliptic curve and bilinear pairing with lower-key size. The formal security verification using the Automated Validation of the Internet Security Protocols and Applications (AVISPA) tool along with informal security analysis demonstrate that the proposed scheme is not just reducing the complexity of resource-constrained IoT devices, but proves to be secure against several well-known cryptographic a acks. Moreover, performance comparison with relevant existing schemes authenticates that the proposed scheme is far more secure and energy efficient. different algorithms separately, i.e., signature and then encryption at the same time. In 1997, Zheng was the pioneer to merge these two processes in one algorithm, called signcryption [7]. This scheme is based on the concept of old public key cryptography (PKC), which is suffering from certificate overheads, renewing, and revocation problems [8]. Shamir was the first to propose an alternate concept of PKC, called identity-based cryptography (IBC) [9]. This technique removed the limitations of PKC and used the identity in place of a certificate. Later, in 2002, Malone-Lee [10], for the first time merged the concept of IBC with the signcryption technique, namely, identity-based signcryption (IBS). The IBS includes three entities, for example, a sender (signcrypter), a receiver (unsigncrypter), and the private key generation center (PKGC), respectively. In this setup, the users (signcrypter and unsigncrypter) generate their identities and after that, send it to the PKGC. Then, the PKGC produces and delivers the private keys for all the participating users, by using the secured networks. Unfortunately, IBS suffers from the key escrow issue (KEI), because the private key is generated by the PKGC and one can easily use this key for forging the digital signature and decrypting the ciphertext [11].To eliminate the above problem in IBS, in 2008, Barbosa and Farshim [12], put forward the concept of a certificateless signcryption (CL-SC) scheme. The CL-SC mechanism almost works the same as IBS, but the main difference is that the private key is generated by the users themselves. The central authority known as a key generation center (KGC) only provides the partial private key to the users by using an ...

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Section: Security Performancementioning

confidence: 94%

“…Note, h points are different from elliptic curve [26]. It forms the divisors which are the formal sum of finite integers like = ∑ i i , where i ℑ t and i h .…”

Section: Hyper-elliptic Curvementioning

confidence: 99%

mentioning

confidence: 99%

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An Energy Efficient and Formally Secured Certificate-Based Signcryption for Wireless Body Area Networks with the Internet of Things

et al. 2019

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“…Additionally, the point cannot form a group like points. The hyper elliptic curve forms an Abelian group [15] called a Jacobian group ( ), and the order ( ( )) of the Jacobian as…”

Section: A Hyper Elliptic Curvementioning

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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“…Many efforts are made to develop lightweight cryptography algorithms along with higher security [3]. In communication systems encryption is already deployed as standard on the data link layer.…”

Section: Lightweight Cryptography Algorithmsmentioning

confidence: 99%

Towards Light Weight CryptographySchemes for Resource ConstraintDevices in IoT

Jadhav

2020

JMM

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The Internet of Things (IoT) is becoming the most relevant next Internetrelated revolution in the world of Technology. It permits millions of devices to be connected and communicate with each other. Beside ensuring reliable connectivity their security is also a great challenge. Abounding IoT devices have a minimum of storage and processing capacity and they usually need to be able to operate on limited power consumption. Security paths that depend maximum on encryption are not good for these resource constrained devices, because they are not suited for performing complicated encryption and decryption tasks quickly to be able to transmit data securely in realtime. This paper contains an overview of some of the cryptographic-based schemes related to communication and computational costs for resource constrained devices and considers some approaches towards the development of highly secure and lightweight security mechanisms for IoT devices.

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A Review of Signcryption Schemes Based on Hyper Elliptic Curve

Cited by 24 publications

References 12 publications

An Energy Efficient and Formally Secured Certificate-Based Signcryption for Wireless Body Area Networks with the Internet of Things

An Energy Efficient and Formally Secured Certificate-Based Signcryption for Wireless Body Area Networks with the Internet of Things

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

Towards Light Weight CryptographySchemes for Resource ConstraintDevices in IoT

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