In-memory AES Implementation for Emerging Non-Volatile Main Memory

Mimi Xie, Yawen Wu, Zhenge Jia, J. Hu
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引用次数: 1

Abstract

Non-volatile memories are very promising candidates to be employed as next-generation non-volatile main memory (NVMM), because of their advantages over traditional DRAM main memory such as non-volatility, high density, and low leakage power. However, NVMM suffers a new security vulnerability because the nature of non-volatility allows the data to be retained a long time after power is off. An attacker with physical access to the system can readily scan the main memory content and extract all valuable information from the main memory. To protect the data of the NVMM, the whole memory should be provided with a security mechanism with comparable security level to DRAM. Take mobile devices (e.g. smart phone or laptop) for example, once attackers have physical access to the NVMM will they be able to read out the sensitive information. Therefore, memory encryption is required only when the device is shut down or put into sleep/screenlock mode. One-time encryption, encrypting the whole/most part of the memory only when it is necessary, is an efficient solution in such mobile scenarios. However, one-time memory encryption approach faces two challenges: First, it should be fast enough to maintain a low vulnerability window when locked and provide instant response when unlocked. Second, it should be energy-efficient considering the limited battery life.
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新兴非易失性主存储器的内存AES实现
由于非易失性存储器具有非易失性、高密度和低泄漏功率等优点,因此是非易失性存储器非常有希望成为下一代非易失性主存储器(NVMM)。然而,NVMM面临一个新的安全漏洞,因为非易失性的性质允许在断电后很长时间保留数据。具有系统物理访问权限的攻击者可以很容易地扫描主存储器内容并从主存储器中提取所有有价值的信息。为了保护NVMM的数据,应该为整个内存提供与DRAM相当的安全级别的安全机制。以移动设备(例如智能手机或笔记本电脑)为例,一旦攻击者能够物理访问NVMM,他们就能够读取敏感信息。因此,只有当设备关闭或进入睡眠/锁屏模式时才需要内存加密。一次性加密,仅在必要时对整个/大部分内存进行加密,是此类移动场景下的高效解决方案。然而,一次性内存加密方法面临两个挑战:首先,它应该足够快,在锁定时保持低漏洞窗口,在解锁时提供即时响应。其次,考虑到有限的电池寿命,它应该是节能的。
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