Low-effort VR Headset User Authentication Using Head-reverberated Sounds with Replay Resistance

Ruxin Wang, Long Huang, Chen Wang
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引用次数: 1

Abstract

While Virtual Reality (VR) applications are becoming increasingly common, efficiently verifying a VR device user before granting personal access is still a challenge. Existing VR authentication methods require users to enter PINs or draw graphical passwords using controllers. Though the entry is in the virtual space, it can be observed by others in proximity and is subject to critical security issues. Furthermore, the in-air hand movements or handheld controller-based authentications require active user participation and are not time-efficient. This work proposes a low-effort VR device authentication system based on the unique skull-reverberated sounds, which can be acquired when the user wears the VR device. Specifically, when the user puts on the VR device or is wearing it to log into an online account, the proposed system actively emits an ultrasonic signal to initiate the authentication session. The signal returning to the VR device’s microphone has been reverberated by the user’s head, which is unique in size, skull shape and mass. We thus extract head biometric information from the received signal for unobtrusive VR device authentication.Though active acoustic sensing has been broadly used on mobile devices, no prior work has ever successfully applied such techniques to commodity VR devices. Because VR devices are designed to provide users with virtual reality immersion, the echo sounds used for active sensing are unwanted and severely suppressed. The raw audio before this process is also not accessible without kernel/hardware modifications. Thus, our work further solves the challenge of active acoustic sensing under echo cancellation to enable deploying our system on off-the-shelf VR devices. Additionally, we show that the echo cancellation mechanism is naturally good to prevent acoustic replay attacks. The proposed system is developed based on an autoencoder and a convolutional neural network for biometric data extraction and recognition. Experiments with a standalone and a mobile phone VR headset show that our system efficiently verifies a user and is also replay-resistant.
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低努力VR耳机用户认证使用头部混响的声音与重放阻力
虽然虚拟现实(VR)应用变得越来越普遍,但在授予个人访问权限之前有效地验证VR设备用户仍然是一个挑战。现有的VR认证方法需要用户输入pin或使用控制器绘制图形密码。尽管入口位于虚拟空间中,但它可以被附近的其他人观察到,并受到关键安全问题的影响。此外,空中手部动作或基于手持控制器的身份验证需要用户积极参与,而且时间效率不高。本研究提出了一种基于独特的颅骨混响声音的低成本VR设备认证系统,该系统可以在用户佩戴VR设备时获得。具体来说,当用户戴上VR设备或佩戴它登录在线账户时,该系统会主动发出超声波信号来启动身份验证会话。返回到VR设备麦克风的信号会被用户的头部反射,用户的头部在大小、头骨形状和质量上都是独一无二的。因此,我们从接收到的信号中提取头部生物特征信息,用于不引人注目的VR设备认证。虽然主动声传感已经广泛应用于移动设备,但之前的工作从未成功地将此类技术应用于商品VR设备。由于VR设备旨在为用户提供虚拟现实沉浸感,因此用于主动感知的回声是不需要的,并且受到严重抑制。如果没有内核/硬件修改,这个过程之前的原始音频也是不可访问的。因此,我们的工作进一步解决了回声抵消下主动声传感的挑战,使我们的系统能够在现成的VR设备上部署。此外,我们表明,回声抵消机制自然是很好的防止声重放攻击。该系统基于自编码器和卷积神经网络,用于生物特征数据的提取和识别。在单机和手机VR头显上的实验表明,我们的系统可以有效地验证用户,并且可以抵抗重放。
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