Polymorphic Sensor to Detect Laser Logic State Imaging Attack

Sourav Roy, Shahin Tajik, Domenic Forte
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Abstract

Laser Logic State Imaging (LLSI) is a failure analysis (FA) technique which is conducted from the chip backside. LLSI provides an unlimited number of contactless probes to observe static signals, such as security critical assets, which in the hand of an attacker poses a significant threat. Countermeasures that have been proposed so far to prevent backside optical attacks have limitations, such as additional fabrication steps, large area overhead, incompatibility with digital circuits, which makes their implementation challenging. In this paper, we propose all-digital polymorphic gate sensors for the first time in hardware security to detect LLSI attacks. Polymorphic gates change their behavior depending on environmental conditions, e.g., variations in supply voltage and temperature. Freezing the system clock and modulation of supply voltage are the main requirements of mounting an LLSI attack. With these two attack requirements in mind, we design and simulate a polymorphic gate-based sensor that behaves as a NOR gate when there is no supply voltage modulation and switches behavior between NAND gate and NOR gate in the presence of modulation. The sensor is able to detect LLSI attacks 100% of the time at room temperature even considering manufacturing variation and with a detection rate of more than98% for a temperature range of 0°C to 85°C.
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探测激光逻辑状态成像攻击的多态传感器
激光逻辑状态成像(LLSI)是一种从芯片背面进行失效分析的技术。LLSI提供无限数量的非接触式探针来观察静态信号,例如安全关键资产,这些资产在攻击者手中构成重大威胁。迄今为止提出的防止背面光学攻击的对策都有局限性,例如额外的制造步骤,大面积开销,与数字电路不兼容,这使得它们的实施具有挑战性。在本文中,我们首次在硬件安全领域提出了全数字多态门传感器来检测LLSI攻击。多态门根据环境条件改变其行为,例如,电源电压和温度的变化。冻结系统时钟和调制电源电压是安装LLSI攻击的主要要求。考虑到这两种攻击要求,我们设计并模拟了一种基于多态门的传感器,该传感器在没有电源电压调制时表现为NOR门,并且在存在调制的情况下在NAND门和NOR门之间切换行为。即使考虑到制造变化,该传感器也能够在室温下100%检测到LLSI攻击,并且在0°C至85°C的温度范围内检测率超过98%。
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