Enabling Secure Boot Functionality by Using Physical Unclonable Functions

Kai-Uwe Müller, Robin Ulrich, Alexander Stanitzki, R. Kokozinski
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引用次数: 6

Abstract

A firmware encryption for embedded devices can prevent the firmware from being read out to clone the device to a counterfeited one or to steal the intellectual property of the software developer. Also the integrity is ensured to hinder an attacker from manipulating the firmware to a malicious one. In this work, a cryptographic concept to implement a Secure Boot functionality using the intrinsic properties of a specific hardware device is shown. After describing the Physical Unclonable Function and the cipher used for the implementation, the key generation algorithm is explained. Further, the function of the crypto-module inside the system architecture and the secure boot sequence are described.
通过使用物理不可克隆功能启用安全启动功能
嵌入式设备的固件加密可以防止固件被读出以克隆设备为假冒设备或窃取软件开发人员的知识产权。此外,完整性确保阻止攻击者操纵固件到恶意的一个。在这项工作中,展示了使用特定硬件设备的固有属性实现安全启动功能的加密概念。在描述了物理不可克隆函数和实现所用的密码后,对密钥生成算法进行了说明。此外,还介绍了加密模块在系统架构中的功能和安全启动顺序。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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