Secure Authentication Schemes for Vehicular Adhoc Networks: A Survey

Vehicular Adhoc Network (VANET) is based on the principles of Mobile Adhoc NETwork (MANET) where vehicles are considered as nodes and secure communication is established to provide a safe driving experience. Due to its unique characteristics, it has various issues and challenges. These issues can be resolved by ensuring security requirements like authentication, privacy preservation, message integrity, non-repudiation, linkability, availability etc. Authentication plays a vital role since it is the first step to establish secure communication in the vehicular network. It also distinguishes malicious vehicles from legitimate vehicles. Different authentication schemes have been proposed to establish secure vehicular communications. A survey of the existing authentication schemes is given in this paper. At first, the existing authentication schemes are broadly classified based on message signing and verification methods. Then, each category is clearly explained with its sub-categories. At last, the existing schemes in each category are compared based on security requirements, security attacks and performance parameters.

     

Phase congruency features for palm-print verification

The existing palm-print verification schemes have demonstrated good verification performance when identity claims have to be verified based on palm-print images of adequate quality (e.g. acquired in controlled illumination conditions, free from distortions caused by the pressure applied to the surface of the scanner etc.). However, most of these schemes struggle with their verification performance when features have to be extracted from palm-print images of a poorer quality. In this study the authors present a novel palm-print feature extraction approach which deals with the presented problem by employing the two-dimensional phase congruency model for line-feature extraction. The proposed approach first computes a set of phase congruency features from a palm-print image and subsequently performs linear discriminant analysis on the computed features to represent them in a more compact manner. The approach was tested on two contrasting databases, namely, on the FE-LUKS and on the PolyU database. Encouraging results were achieved on both databases.     

Heterogeneous signcryption with proxy re-encryption and its application in EHR systems

Electronic health record (EHR) systems provide the platform that enables digital documentation of patients health information. Practically, EHR systems aid in delivering quality medical healthcare and limiting medical errors. However, EHR systems are associated with known technical and security challenges such as interoperability, confidentiality, authentication, auditability, and access control. To overcome these challenges, we first propose a new heterogeneous signcryption with proxy re-encryption (HSC-PRE) scheme. Secondly, via an example design, we demonstrate how our scheme can be utilized to achieve a secure, interoperable, auditable and accessible EHR system using blockchain technology. The blockchain technology is required to assure interoperability and auditability while the HSC-PRE assures confidentiality, authentication and access control. Via comprehensive security analysis (in random oracle model (ROM)), we affirm that the HSC-PRE scheme is secure. Besides, it shows up efficient against other recent related schemes.

     

A secure n-secret based client authentication protocol for 802.11 WLANs

Authentication has strong impact on the overall security model of every information system. Various authentication techniques are available for restricting the access of unauthorized users to the enterprise scale networks. IEEE 802.1X defines a secure and reliable authentication framework for 802.11 WLANs, where Extensible Authentication Protocol (EAP) provides the base to this architecture. EAP is a generic architectural framework which supports extensibility by incorporating the new and improved authentication schemes, which are based on different types of credentials. Currently there exist a number of EAP and Non-EAP methods with varying level of security and complexity. In this work, we have designed a new n-secret based authentication scheme referred here as Personal Dialogue Based Authentication, for the client authentication to the network. It is a Transport Layer Security (TLS) protected authentication protocol, which will be executed inside the secure TLS tunnel for providing the privacy and credential security to the wireless client. The developed authentication protocol has a reasonable set of features like; strong security, user privacy, simplicity and extensibility. For the formal analysis of the protocol we have used SPAN–AVISAP model checker on Ubuntu platform for validating the realization of the specified security goals. The experimental results obtained by simulation performed with the Automated Validation of Internet Security Protocols and Applications (AVISPA) tool shows that our protocol is efficient and secured.

     

Efficient Privacy-Preserving Anonymous Authentication Protocol for Vehicular Ad-Hoc Networks

Vehicular ad-hoc network (VANET) has been considered as one of the most promising wireless sensor technologies, which could enhance driving convenience and traffic efficiency through real-time information interaction. Nevertheless, emerging security issues (e.g., confidentiality, integrity, identity privacy, message authentication) will hinder the widespread deployment of VANETs. To address these issues, in this paper, we propose an efficient privacy-preserving anonymous authentication protocol for VANETs. We first design an identity-based signature algorithm, and exploit it with an account information of a vehicle to propose our anonymous authentication protocol. The protocol enables each vehicle to anonymously send an authenticated message to nearby roadside units (RSUs) in a confidential way, and efficiently check the feedback information from nearby RSUs. Simultaneously, the protocol achieves key-exchange functionality, which could produce a session key for later secure communication between vehicles and RSUs. Finally, we give the security analysis of the proposed protocol and conduct a comprehensive performance evaluation, the results demonstrate its feasibility in the secure deployment of VANETs.

     

On the Security of “Secure and Lightweight Authentication with Key Agreement for Smart Wearable Systems”

Over the years, the performance of devices used to gather sensitive medical information about individuals has increased substantially. These include implanted devices in the body, placed on or around the body, creating a Wireless body area network. Security and privacy have been a greater concern over a period of time due to the sensitive nature of the data collected and transmitted by the network. It has been noticed that various techniques have been applied to secure the data and provide privacy in WBANs but with a tradeoff of execution overhead. Although the latest available anonymous authentication schemes provide privacy and security but due to the limited computation capacity of WBAN devices, these schemes show greater time cost for authentication and consume more processing time. We review two latest anonymous authentication schemes for the WBAN environment in terms of computation cost. These two schemes provide anonymous authentication and use encryption to secure the data and ensure privacy. Then we analyze a recent lightweight authentication scheme proposed for wearable devices which provides anonymity and privacy along with security with very low computation cost. This scheme uses hash functions in order to obtain authentication and anonymity and doesn’t use encryption in the authentication process. This scheme is not proposed for the WBAN environment, but it can be applied on the WBAN environment with necessary variations. The comparison of these available schemes shows clearly that the computation cost is considerably decreased by applying the latest authentication scheme in the WBAN environment. We propose a new authentication scheme for the WBAN environment based on the light-weight scheme proposed for wearable devices. The detailed analysis shows that our proposed scheme minimizes the computation cost and maintains the privacy and security along with anonymous authentication.

     

Attacks on and Countermeasures for Two RFID Protocols

Radio Frequency Identification (RFID) technology is expected to play a key role in the Internet of Things (IoT) and has applications in a wide variety of domains ranging from automation to healthcare systems. Therefore, the security and privacy of RFID communication is critical. In this paper, we analyze two recent RFID protocols proposed by researchers. Specifically we show that the ownership transfer protocol proposed by Wang et al., is vulnerable to tracing attacks while the mutual authentication protocol proposed by Cho et al. is vulnerable to key disclosure and backward traceable attacks. We propose secure improvements to these protocols to address the vulnerabilities, and improve the scalability of these schemes making them suitable for large-scale deployments.

     

Secure anonymous authentication scheme without verification table for mobile satellite communication systems

An authentication scheme is one of the most basic and important security mechanisms for satellite communication systems because it prevents illegal access by an adversary. Lee et al. recently proposed an efficient authentication scheme for mobile satellite communication systems. However, we observed that this authentication scheme is vulnerable to a denial of service (DoS) attack and does not offer perfect forward secrecy. Therefore, we propose a novel secure authentication scheme without verification table for mobile satellite communication systems. The proposed scheme can simultaneously withstand DoS attacks and support user anonymity and user unlinkability. In addition, the proposed scheme is based on the elliptic curve cryptosystem, has low client‐side and server‐side computation costs, and achieves perfect forward secrecy. Copyright © 2013 John Wiley & Sons, Ltd.     

A certificateless signcryption with proxy re-encryption for practical access control in cloud-based reliable smart grid

Cloud computing has proven to be applicable in smart grid systems with the help of the cloud-based Internet of things (IoT) technology. In this concept, IoT is deployed as a front-end enabling the acquisition of smart grid-related data and its outsourcing to the cloud for data storage purposes. It is obvious that data storage is a pertinent service in cloud computing. However, its wide adoption is hindered by the concern of having a secure access to data without a breach on confidentiality and authentication. To address this problem, we propose a novel data access control scheme that simultaneously accomplishes confidentiality and authentication for cloud-based smart grid systems. Our scheme can enable the storing of encrypted smart grid-related data in the cloud. When a user prefers to access the data, the data owner issues a delegation command to the cloud for data re-encryption. The cloud is unable to acquire any plaintext information on the data. Only authorized users are capable of decrypting the data. Moreover, the integrity and authentication of data can only be verified by the authorized user. We obtain the data access control scheme by proposing a pairing free certificateless signcryption with proxy re-encryption (CLS-PRE) scheme. We prove that our CLS-PRE scheme has indistinguishability against adaptive chosen ciphertext attack under the gap Diffie–Hellman problem and existential unforgeability against adaptive chosen message attack under elliptic curve discrete logarithm problem in the random oracle model.

     

Continuous User Authentication System: A Risk Analysis Based Approach

With the expansion of smart device users, the security mechanism of these devices in terms of user authentication has been advanced a lot. These mechanisms consist of a pattern based authentication, biometric based authentication, etc. For security purpose whenever a user fails to authenticate themselves, these devices get locked. But as these devices consist of numerous applications (document creator, pdf viewer, e-banking, Social networking app, etc.), locking of the whole devices prevents the user from using any of the applications. Since the variety of applications provided by the devices have different security needs, we feel it is better to have application level security rather than device level. Here, in this paper, we have proposed a behavioral biometric based user authentication mechanism for application level security. First, we have performed a risk assessment of different applications. Then for complete protection, static multi-modal (keystroke and mouse dynamics) authentication at the start of an interactive session, and a continuous keystroke authentication during this session is performed. An analysis of the proposed authentication mechanism has been conducted on the basis of false acceptance rate (FAR), false rejection rate (FRR) and equal error rate (EER). The static multi-modal authentication achieved a FAR of 0.89%, FRR of 1.2% and EER of 1.04% using J48 classification algorithm. Whereas the continuous keystroke authentication has been analyzed by the time (no. of keystrokes pressed) taken to capture an intruder.

     

Authentication-based Access Control and Data Exchanging Mechanism of IoT Devices in Fog Computing Environment

The emergence of fog computing has witnessed a big role in initiating secure communication amongst users. Fog computing poses the ability to perform analysis, processing, and storage for a set of Internet of Things (IoT) devices. Several IoT solutions are devised by utilizing the fog nodes to alleviate IoT devices from complex computation and heavy processing. This paper proposes an authentication scheme using fog nodes to manage IoT devices by providing security without considering a trusted third party. The proposed authentication scheme employed the benefits of fog node deployment. The authentication scheme using fog node offers reliable verification between the data owners and the requester without depending on the third party users. The proposed authentication scheme using fog nodes effectively solved the problems of a single point of failure in the storage system and offers many benefits by increasing the throughput and reducing the cost. The proposed scheme considers several entities, like end-users, IoT devices, fog nodes, and smart contracts, which help to administrate the authentication using access policies. The proposed authentication scheme using fog node provided superior results than other methods with minimal memory value of 4009.083 KB, minimal time of 76.915 s, and maximal Packet delivery ratio (PDR) of 76.

     

Energy Efficient Multi-hop Cooperative Transmission Protocol for Large Scale Mobile Ad hoc Networks

A great advancement has been made in intelligent transportation system and communication technologies in order to exchange secure information between automobiles, facilities provider have led an frame over road network. The intelligent transportation system provides an efficient traffic system for drivers, so that there must be less risk to users. In order to design a secure communication protocol among V & V and V & I is a challenging problem. In order to reduce the chance of attacks and increase privacy level, crypto graphic tools provides the feasible solution. In this paper, we proposed pseudonym changing strategy with mix zones (1) Anonymous authentication: the message should be authenticated by issuer due to mix zone and cryptographic tools secure message without any attack. (2) Privacy: Communication contents are confidential due to encrypted messages during communications also improving the scalability through address configuration scheme to reduce computational cost. (3) Efficiency: low storage requirements, The velocity and distance factors may also consider secure measurement, message delivery, overhead and coverage,packet delivery rate, reduce latency and overhead not only by computation cost and time but also compared our scheme, fast delivery rate, low latency and maximum coverage in order to enhance privacy against malicious attacks.

     

智能车载自组织网络中匿名在线注册与安全认证协议

随着智能交通系统(ITS)的建立,车载自组织网络(VANETs)在提高交通安全和效率方面发挥着重要的作用。由于车载自组织网络具有开放性和脆弱性特点,容易遭受各种安全威胁与攻击,这将阻碍其广泛应用。针对当前车载自组织网络传输中数据的认证性与完整性,以及车辆身份的隐私保护需求,该文提出一种智能车载自组织网络中的匿名在线注册与安全认证协议。协议让智能车辆在公开信道以匿名的方式向交通系统可信中心(TA)在线注册。可信中心证实智能车辆的真实身份后,无需搭建安全信道,在开放网络中颁发用于安全认证的签名私钥。车辆可以匿名发送实时交通信息到附近路边基站单元(RSU),并得到有效认证与完整性检测。该协议使得可信中心可以有效追踪因发送伪造信息引起交通事故的匿名车辆。协议可以让路边基站单元同时对多个匿名车辆发送的交通信息进行批量认证。该协议做了详细的安全性分析和性能分析。性能比较结果表明,该协议在智能车辆端的计算开销以及在路边基站单元端的通信开销都具有明显优势,而且无需搭建安全信道就能够实现匿名在线注册,因此可以安全高效地部署在智能车载自组织网络环境。     

A new three-factor authentication and key agreement protocol for multi-server environment

Several password and smart-card based two-factor security remote user authentication protocols for multi-server environment have been proposed for the last two decades. Due to tamper-resistant nature of smart cards, the security parameters are stored in it and it is also a secure place to perform authentication process. However, if the smart card is lost or stolen, it is possible to extract the information stored in smart card using power analysis attack. Hence, the two factor security protocols are at risk to various attacks such as password guessing attack, impersonation attack, replay attack and so on. Therefore, to enhance the level of security, researchers have focused on three-factor (Password, Smart Card, and Biometric) security authentication scheme for multi-server environment. In existing biometric based authentication protocols, keys are generated using fuzzy extractor in which keys cannot be renewed. This property of fuzzy extractor is undesirable for revocation of smart card and re-registration process when the smart card is lost or stolen. In addition, existing biometric based schemes involve public key cryptosystem for authentication process which leads to increased computation cost and communication cost. In this paper, we propose a new multi-server authentication protocol using smart card, hash function and fuzzy embedder based biometric. We use Burrows–Abadi–Needham logic to prove the correctness of the new scheme. The security features and efficiency of the proposed scheme is compared with recent schemes and comparison results show that this scheme provides strong security with a significant efficiency.

     

Deterministic K‐means secure coverage clustering with periodic authentication for wireless sensor networks

Innovative and emerging developments in sensor networks are proven to be the backbone for real‐time applications such as satellite communications, military and border area surveillance systems, health care systems, traffic monitoring systems, seismic and underwater monitoring systems, and agriculture and habitat environment systems. Coverage and clustering techniques enable the sensor network to operate in group‐based and region‐based communication and thus save the node energy. Energy‐efficient protocols save the node energy and increase the network life cycle in a resource‐constrained sensor network. Cluster head (CH) node manages and controls the operations such as network topology, coverage area, and routing paths (multi‐paths and fault‐tolerant paths) of the network. In this paper, we present deterministic K‐means secure coverage clustering (K‐SCC) with periodic authentication. The proposed protocol uses coverage clustering technique with periodic authentication between the CH node and sensor nodes to establish the secure channel in the network. Maximum cover of K nodes is maintained in the secure coverage cluster to achieve authenticated communication between the sensor nodes in the network. The proposed K‐SCC protocol is compared with the existing protocols such as deterministic‐SCC and random‐SCC protocols. Simulation results indicate that the proposed K‐SCC protocol achieves an average of 84% coverage ratio (cluster/sensor node ratio) as compared with 62% coverage ratio in the existing SCC protocols. Simulations also indicate that the proposed K‐SCC protocol consumes 20% less energy as compared with the existing SCC protocol. Copyright © 2015 John Wiley & Sons, Ltd.     

An improved password‐based authentication scheme for session initiation protocol using smart cards without verification table

Authentication schemes have been widely deployed access control and mobility management in various communication networks. Especially, the schemes that are based on multifactor authentication such as on password and smart card come to be more practical. One of the standard authentication schemes that have been widely used for secure communication over the Internet is session initiation protocol (SIP). The original authentication scheme proposed for SIP was vulnerable to some crucial security weaknesses. To overcome the security problems, various improved authentication schemes have been developed, especially based on elliptic curve cryptography (ECC). Very recently, Zhang et al . proposed an improved authentication scheme for SIP based on ECC using smart cards to overcome the security flaws of the related protocols. Zhang et al . claimed that their protocol is secure against all known security attacks. However, this paper indicates that Zhang et al . protocol is still insecure against impersonation attack. We show that an active attacker can easily masquerade as a legal server to fool users. As a remedy, we also improve Zhang et al . protocol by imposing a little extra computation cost. Copyright © 2014 John Wiley & Sons, Ltd.     

Secure Remote User Mutual Authentication Scheme with Key Agreement for Cloud Environment

Authentication schemes are widely used mechanisms to thwart unauthorized access of resources over insecure networks. Several smart card based password authentication schemes have been proposed in the literature. In this paper, we demonstrate the security limitations of a recently proposed password based authentication scheme, and show that their scheme is still vulnerable to forgery and offline password guessing attacks and it is also unable to provide user anonymity, forward secrecy and mutual authentication. With the intention of fixing the weaknesses of that scheme, we present a secure authentication scheme. We show that the proposed scheme is invulnerable to various attacks together with attacks observed in the analyzed scheme through both rigorous formal and informal security analysis. Furthermore, the security analysis using the widely-accepted Real-Or-Random (ROR) model ensures that the proposed scheme provides the session key (SK) security. Finally, we carry out the performance evaluation of the proposed scheme and other related schemes, and the result favors that the proposed scheme provides better trade-off among security and performance as compared to other existing related schemes.

     

ECC-CoAP: Elliptic Curve Cryptography Based Constraint Application Protocol for Internet of Things

Constraint Application Protocol (CoAP), an application layer based protocol, is a compressed version of HTTP protocol that is used for communication between lightweight resource constraint devices in Internet of Things (IoT) network. The CoAP protocol is generally associated with connectionless User Datagram Protocol (UDP) and works based on Representational State Transfer architecture. The CoAP is associated with Datagram Transport Layer Security (DTLS) protocol for establishing a secure session using the existing algorithms like Lightweight Establishment of Secure Session for communication between various IoT devices and remote server. However, several limitations regarding the key management, session establishment and multi-cast message communication within the DTLS layer are present in CoAP. Hence, development of an efficient protocol for secure session establishment of CoAP is required for IoT communication. Thus, to overcome the existing limitations related to key management and multicast security in CoAP, we have proposed an efficient and secure communication scheme to establish secure session key between IoT devices and remote server using lightweight elliptic curve cryptography (ECC). The proposed ECC-based CoAP is referred to as ECC-CoAP that provides a CoAP implementation for authentication in IoT network. A number of well-known cryptographic attacks are analyzed for validating the security strength of the ECC-CoAP and found that all these attacks are well defended. The performance analysis of the ECC-CoAP shows that our scheme is lightweight and secure.

     

Exploring the Impact of QR Codes in Authentication Protection: A Study Based on PMT and TPB

The fast growing usage of mobile devices to access services over telecommunication networks urges researchers to look for an efficient way to secure users’ online credentials. Rooted in online users’ fear appeals, this study measures the impact of an emerging use of technology, QR codes, on authentication protection. We contribute to the extant literature by integrating two theories—protection motivation theory and the theory of planned behavior, as well as investigating how the collaboration of computers and mobile devices enhances the protection of users’ online credentials. The results of the study additionally provide insights for IT developers for future directions in the development of authentication protection.

     

Secure and Efficient Mutual Adaptive User Authentication Scheme for Heterogeneous Wireless Sensor Networks Using Multimedia Client–Server Systems

In hierarchical wireless sensor networks (H-WSNs), adaptive user authentication scheme has attracted significantly for the purposes of mutual authentication, session key establishment and resiliency to the attacks, like impersonation, parallel-session and password guessing. Several user authentication schemes have been proposed recently; though the schemes have had many potential vulnerabilities, such as key-impersonation, user anonymity, eavesdropping and masquerade. Thus, this paper proposes secure-cum-efficient mutual adaptive user authentication (S-Cum-EMAUA) scheme for practical use in H-WSNs. The scheme of S-Cum-EMAUA) is not only resilient to the most of the potential attacks, but also provides mutual authentication, user anonymity and session-key establishment. In addition, the proposed scheme is well secured, since it has the usage of the hash-function and X-OR operation.