通过可信感测和细胞编码密码确保医疗诊断的安全性

Tuan Le, Gabriel Salles-Loustau, L. Najafizadeh, M. Javanmard, S. Zonouz
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引用次数: 4

摘要

值得信赖和可用的医疗保健不仅需要有效的疾病诊断程序来确保提供快速和准确的结果,还需要轻量级的用户隐私保护功能,用于资源有限的医疗传感设备。在本文中,我们介绍了MedSen,一种便携式,廉价和安全的基于智能手机的生物ker1检测传感器,为用户提供易于使用的实时疾病诊断功能,而无需亲自临床就诊。为了在不牺牲诊断准确性、安全性和时间要求的情况下最大限度地降低部署成本和尺寸,MedSen可以作为用户智能手机的加密狗,并利用智能手机的计算能力进行实时数据处理。从安全的角度来看,MedSen引入了一个新的硬件级可信传感框架,内置在传感器中,在数据采集点加密与患者血液样本中细胞计数相关的测量模拟信号。为了保护用户隐私,MedSen的传感器内加密方案在将用户的私人信息发送出去进行基于云的医疗诊断分析之前,将其隐藏起来。分析结果被发送回Med-Sen进行解密和用户通知。此外,MedSen引入细胞编码密码,无需显式的屏幕密码输入,即可向云服务器验证用户身份。每个用户的密码由具有不同介电特性的预定数量的合成磁珠组成。MedSen将密码珠与用户的血液混合,然后提交数据进行诊断分析。云服务器根据带有血液样本的珠子的统计数据和特征对用户进行身份验证,并将用户的身份与加密的分析结果联系起来。我们已经通过生物传感器制造和智能手机应用程序(Android)实现了MedSen的真实工作原型。我们的研究结果表明,MedSen可以根据细胞编码密码对不同的用户进行可靠的分类,准确率很高。MedSen内置的模拟信号加密系统考虑到智能手机和云服务器可能不可信,从而保证了用户的隐私(奇怪但诚实)。MedSen对疾病诊断的端到端时间要求平均约为0.2秒。
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Secure Point-of-Care Medical Diagnostics via Trusted Sensing and Cyto-Coded Passwords
Trustworthy and usable healthcare requires not only effective disease diagnostic procedures to ensure delivery of rapid and accurate outcomes, but also lightweight user privacy-preserving capabilities for resource-limited medical sensing devices. In this paper, we present MedSen, a portable, inexpensive and secure smartphone-based biomarker1 detection sensor to provide users with easy-to-use real-time disease diagnostic capabilities without the need for in-person clinical visits. To minimize the deployment cost and size without sacrificing the diagnostic accuracy, security and time requirement, MedSen operates as a dongle to the user's smartphone and leverages the smartphone's computational capabilities for its real-time data processing. From the security viewpoint, MedSen introduces a new hardware-level trusted sensing framework, built in the sensor, to encrypt measured analog signals related to cell counting in the patient's blood sample, at the data acquisition point. To protect the user privacy, MedSen's in-sensor encryption scheme conceals the user's private information before sending them out for cloud-based medical diagnostics analysis. The analysis outcomes are sent back to Med-Sen for decryption and user notifications. Additionally, MedSen introduces cyto-coded passwords to authenticate the user to the cloud server without the need for explicit screen password entry. Each user's password constitutes a predetermined number of synthetic beads with different dielectric characteristics. MedSen mixes the password beads with the user's blood before submitting the data for diagnostics analysis. The cloud server authenticates the user based on the statistics and characteristics of the beads with the blood sample, and links the user's identity to the encrypted analysis outcomes. We have implemented a real-world working prototype of MedSen through bio-sensor fabrication and smartphone app (Android) implementations. Our results show that MedSen can reliably classify different users based on their cyto-coded passwords with high accuracy. MedSen's built-in analog signal encryption guarantees the user's privacy by considering the smartphone and cloud server possibly untrusted (curious but honest). MedSen's end-to-end time requirement for disease diagnostics is approximately 0.2 seconds on average.
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