A Lightweight Cross-domain Mutual Authentication Scheme in V2G Networks

doi:10.3969/j.issn.1671-1122.2022.03.003

Abstract

Abstract:

Considering the problem of identity privacy leakage during charging and discharging between vehicles and grids, this paper proposes a cross-domain identity authentication scheme for vehicles in V2G. In this paper, elliptic curve encryption(ECC) algorithm and elliptic curve digital signature algorithm(ECDSA) are used to ensure the privacy of data and the authenticity of identities among grid servers, and use the blockchain to host the server public key certificate. For the authentication between the charging pile and the grid server, the faster symmetric encryption algorithm(AES) and message authentication code(MAC) are used to ensure the privacy and authenticity of the data. The scheme also uses the physical unclonable technology PUF lightweight and anti-physical attack characteristics to achieve the practicability and effectiveness of the scheme. Finally, compared with other schemes and experimental simulations, this scheme has better security, integrity, light weight and efficiency.

Key words: V2G, cross-domain authentication, hierarchical model, blockchain, PUF

CLC Number:

TP309

SHI Runhua, WANG Shuhao, LI Kunchang. A Lightweight Cross-domain Mutual Authentication Scheme in V2G Networks[J]. Netinfo Security, 2022, 22(3): 20-28.

Figures/Tables 8

References 26

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符号	含义	符号	含义
EV_A	A域车辆	$P{{K}_{G{{S}_{B}}}},S{{K}_{G{{S}_{B}}}}$	GS_B的公私钥对
CS_B	B域充电桩	$P{{K}_{G{{S}_{A}}}},S{{K}_{G{{S}_{A}}}}$	GS_A的公私钥对
GS_A	A域服务器	$h,{{H}_{1}}$	哈希函数
GS_B	B域服务器	psw	用户密码
PKG	密钥生成中心	β	用户指纹
(C, R)	PUF产生的挑战响应对	\|\|	连接操作符
MAC	消息认证码	$\oplus $	异或操作符
${{k}_{C{{S}_{B}}\_G{{S}_{B}}}}$	B域服务器和充电桩的会话密钥	SM	用户登录智能卡
$Block\_D{{C}_{G{{S}_{B}}}}$	GS_B在区块链上的数字身份	N_U, N_I	随机数
$Block\_D{{C}_{G{{S}_{A}}}}$	GS_A在区块链上的数字身份	$MA{{C}_{{{k}_{C{{S}_{B}}\_G{{S}_{B}}}}}}$	CS_B和GS_B间的消息认证码
$P{{K}_{PKG}},S{{K}_{PKG}}$	PKG的公私钥对	$Ms{{g}_{P\_Q}}$	实体P到Q的消息

方案	本文方案	文献[18] 方案	文献[22] 方案	文献[23] 方案
跨域认证	√	×	×	√
抵抗物理攻击	√	√	√	√
分布式证书存储	√	×	√	√
分层认证	√	×	×	×

操作	时间/ms
$AES\_encry$	$0.48\times {{10}^{-2}}$
$AES\_decry$	$0.30\times {{10}^{-2}}$
$MAC\_encry$	$0.48\times {{10}^{-2}}$
$MAC\_decry$	$0.30\times {{10}^{-2}}$
$SHA256\_encry$	$0.32$
$ECC\_encry$	$0.$21
$ECC\_decry$	$0.14$
$ECDSA\_encry$	$2.81$
$ECC\_decry$	$5.41$