Abstract

The fifth-generation (5G) mobile communication technology has already deployed commercially and become a global research focus. The new features of 5G include unlimited information exchange, a large variety of connections with independent energy, and diversified high transmission rate services. Collective synergy of services is expected to change the way of life and future generations and introduce new converged services to the ICT industry. Different application services have to meet differentiated security demands. From the perspective of security, in order to support the multiservice of 5G services, it is necessary to consider the new security mechanism driven by the service. Based on 5G massive data stream, the 5G system can provide customized real-world services for potential users and reduce the user experience gap in different scenarios. However, 3GPP Extensible Authentication Protocol (EAP), which is the present entity authentication mechanism for the 5G service layer, is only an individual authentication architecture and unable to fulfill the flexible security objectives of differentiated services. In this paper, we present a new hierarchical identity management framework as well as an adaptable and composable three-factor authentication and session key agreement protocol for different applications in 5G multiservice systems. Finally, we propose an authorization process by combining with the proposed three-factor authentication mechanism and Service-Based Architecture (SBA) proposed by the 3GPP committee. The proposed mechanism can concurrently provide diverse identity authentication schemes corresponding to four different security levels by easily splitting or assembling three-factor authentication protocol blocks. The proposed scheme can be simultaneously applied to a variety of applications to improve the efficiency and quality of service and reduce the complexity of the whole 5G multiservice system, instead of designing or adopting several different authentication protocols. The performance evaluation results indicate that the proposed scheme can guarantee the multiple security of the system with ideal efficiency.

Highlights

  • At present, the global 5th generation mobile communication technology (5G) commercial development has begun to take shape and been recognized as main supporting technologies of mobile networks

  • The global 5th generation mobile communication technology (5G) commercial development has begun to take shape and been recognized as main supporting technologies of mobile networks. It has become the focus of global mobile communication research and technology competition

  • Due to its powerful bandwidth and service capability, a significant number of new applications are introduced into the 5G network platform, such as augmented reality, multimedia video business, mobile industrial internet, autonomous driving, and mobile electronic health services

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Summary

Introduction

The global 5th generation mobile communication technology (5G) commercial development has begun to take shape and been recognized as main supporting technologies of mobile networks. Compared with the conference version [6], which barely proposed a conceptual classified mutual authentication scheme without high efficiency, formal security analysis, or detailed performance evaluation in the 5G multiservice system, we optimize the multifactor authentication scheme and provide key agreement and service authorization protocol in new design. An anonymous authenticated key agreement mechanism is proposed to ensure the secure connection and authentication for IoT devices and will not disclose user privacy Both of the schemes in [7, 8] employ the complex public key cryptosystem to design the related protocol and only achieve the single authentication method, which is not fit for 5G multiservice systems. Li et al [17] pointed out that the scheme [16] is vulnerable to masquerade attacks

Preliminary
System and Security Model
Protocol Verification
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