Smart Grid Security by Embedding Cryptography Hardware Chip

Niraj Kumar, V. M. Mishra, Adesh Kumar
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引用次数: 1

Abstract

Modern electric grids are innovative enough to incorporate high-speed sensing, distributed resources, and control, smart grids, and other cutting-edge metering technology. The smart grid faces a number of issues, including cybersecurity. The fact that communications are so crucial to the process of the smart grid makes cyber security a top priority. The research work focuses on the solution of grid security by integrating the embedded hardware chip into the communication infrastructure. The real-time chip integration with the newest cryptographic algorithm in the system addresses the hardware security challenges in smart grids. A distribution system for the smart grid that integrates technology can use cryptographic-based encryption and decryption technique. The objective of the research work is to design the cryptographic advanced encryption standard (AES) algorithm hardware chip for a smart grid in Xilinx 14.7 software and simulate the functionality of the embedded chip design with cryptographic encryption and decryption for ensuring secured data communication in a smart grid. The novelty of the work is that the design and simulation of the embedded chip of the secured data communication support 128 -bit data size with the key size alternating from 8-bit to 256-bit. The functional test cases have verified the grid data with a maximum frequency of 395.00 MHz.
嵌入加密硬件芯片的智能电网安全
现代电网具有足够的创新性,可以整合高速传感、分布式资源和控制、智能电网以及其他尖端计量技术。智能电网面临包括网络安全在内的一系列问题。通信对智能电网的建设至关重要,这使得网络安全成为重中之重。研究重点是将嵌入式硬件芯片集成到通信基础设施中,解决电网安全问题。该系统采用最新的加密算法与实时芯片集成,解决了智能电网的硬件安全难题。集成技术的智能电网配电系统可以采用基于密码学的加解密技术。研究工作的目的是在Xilinx 14.7软件中设计用于智能电网的加密高级加密标准(AES)算法硬件芯片,并模拟具有加密加解密功能的嵌入式芯片设计,以确保智能电网中数据通信的安全。该工作的新颖之处在于安全数据通信的嵌入式芯片的设计和仿真支持128位数据大小,密钥大小在8位和256位之间交替。功能测试用例验证了最大频率为395.00 MHz的网格数据。
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