利用OBIC测量方法降低激光故障注入运动的复杂性

Falk Schellenberg, Markus Finkeldey, Bastian Richter, Maximilian Schapers, N. Gerhardt, M. Hofmann, C. Paar
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引用次数: 14

摘要

激光故障注入(LFI)是诱导故障的最强大的方法之一,因为它允许只针对特定区域到单个晶体管。与引入时钟故障等非侵入性方法相比,其缺点是大大增加了搜索空间。对包括尺寸在内的所有参数进行详尽的搜索以获得正确的时间、强度或长度可能是不可行的。现有的解决方案要么不能直接用于故障定位,要么需要额外的设备准备和使用昂贵的设备。该方法利用测量光束感应电流(OBIC)作为成像技术来寻找像触发器一样的目标区域,从而大大减少了搜索空间。这种测量可以用现有的激光扫描显微镜或装备良好的LFI设置。针对Atmel ATXMega微控制器的高级加密标准(AES)硬件加速器提供了实验结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On the Complexity Reduction of Laser Fault Injection Campaigns Using OBIC Measurements
Laser Fault Injection (LFI) is one of the most powerful methods of inducing a fault as it allows targeting only specific areas down to single transistors. The downside compared to non-invasive methods like introducing clock glitches is the largely increased search space. An exhaustive search through all parameters including dimensions for correct timing, intensity, or length might not be not feasible. Existing solutions to this problem are either not directly applicable to the fault location or require additional device preparation and access to expensive equipment. Our method utilizes measuring the Optical Beam Induced Current (OBIC) as imaging technique to find target areas like flip-flops and thus, reducing the search space drastically. This measurement is possible with existing laser scanning microscopes or well-equipped LFI setups. We provide experimental results targeting the Advanced Encryption Standard (AES) hardware accelerator of an Atmel ATXMega microcontroller.
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