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2021 IEEE 15th International Conference on Anti-counterfeiting, Security, and Identification (ASID)最新文献

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Hardware Design of SHA-3 for PQC Classic McEliece PQC经典mcelece的SHA-3硬件设计
Xin Zhou, Liji Wu, Xiangmin Zhang
As the computing power of quantum computers continues to improve, the security of the mathematical problems on current-used cryptographic algorithm are facing more and more serious challenge. It is necessary to formulate the standard of post-quantum cryptographic algorithm. Classic McEliece is one of the 7 candidates entering the Round 3 of NIST PQC contest. In the decryption module of Classic McEliece, H module uses the SHA-3 algorithm. As a new generation of hash algorithm, SHA-3 algorithm uses the Keccak sponge function, which has the advantages of higher speed, higher throughput and stronger security. Keccak truly realizes the processing of input information of any length, and can also generate hash values of any length. In the future, SHA-3 will be applied to more fields, so the high-performance and flexible implementation of the SHA-3 is especially important. This paper analyzed the four SHA-3 algorithms, and integrated the four algorithm standards into one implementation for Classic McEliece. The Xilinx Zynq-7000 series FPGA is chosen as the implementation and verification platform, and the performance are compared with the algorithm implementation of Keccak official team.
随着量子计算机计算能力的不断提高,目前使用的加密算法上数学问题的安全性面临着越来越严峻的挑战。有必要制定后量子密码算法的标准。Classic McEliece是进入NIST PQC比赛第三轮的7名候选人之一。在Classic mcelece的解密模块中,H模块使用了SHA-3算法。SHA-3算法作为新一代哈希算法,采用了Keccak海绵函数,具有速度更快、吞吐量更高、安全性更强的优点。Keccak真正实现了对任意长度的输入信息的处理,也可以生成任意长度的哈希值。在未来,SHA-3将被应用到更多的领域,因此高性能和灵活的SHA-3实现就显得尤为重要。本文对四种SHA-3算法进行了分析,并将四种算法标准集成到经典mcelece的一个实现中。选择Xilinx Zynq-7000系列FPGA作为实现和验证平台,并与Keccak官方团队的算法实现进行性能比较。
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引用次数: 2
Parallel Concatenated Code Combining Polar Code and LDPC Code on AWGN Channel AWGN信道上极性码与LDPC码的并行级联码
Luyao Ma, Lijun Zhang
Both polar code and Low-Density Parity-Check (LDPC) code have been adopted in 3GPP eMBB scenario. Some scholars have proposed a serial concatenation structure combining these two codes. However, the inner code needs to add redundant bits to protect the redundant bits of the outer code in the serial concatenation. In this paper, we propose a parallel concatenation code combining polar code and LDPC code on the AWGN channel, which does not distinguish the inner code from the outer code. In the proposed concatenated structure, the BP algorithm is used to decode polar code, and the output soft information of BP decoder is logarithmically processed before LDPC decoding. According to the simulation results, compared with the serial concatenated code with the same code rate and code length, the parallel concatenated code has better BER(Bit-Error-Rate) performance.
在3GPP eMBB场景中,采用了极码和LDPC (Low-Density Parity-Check)码。有学者提出了将这两种编码组合在一起的串行连接结构。但是,内部代码需要添加冗余位来保护串行连接中外部代码的冗余位。本文在AWGN信道上提出了一种不区分内码和外码的极性码和LDPC码的并行级联码。在该串接结构中,采用BP算法对极码进行解码,并在LDPC解码前对BP解码器输出的软信息进行对数处理。仿真结果表明,与相同码率和码长的串行级联码相比,并行级联码具有更好的误码率性能。
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引用次数: 0
Energy-Efficient Deep Neural Networks Implementation on a Scalable Heterogeneous FPGA Cluster 基于可扩展异构FPGA集群的节能深度神经网络实现
Yanbu Hu, C. Shao, Huiyun Li
In recent years, with the rapid development of DNN, the algorithm complexity in a series of fields such as computer vision and natural language processing is increasing rapidly. FPGA-based DNN accelerators have demonstrated superior flexibility and performance, with higher energy efficiency compared to high-performance devices such as GPU. However, the computing resources of a single FPGA are limited and it is difficult to flexibly meet the requirements of high throughput and high energy efficiency of different computing scales. Therefore, this paper proposes a DNN implementation method based on the scalable heterogeneous FPGA cluster to adapt to different tasks and achieve high throughput and energy efficiency. Firstly, the method divides a single enormous task into multiple modules and running each module on different FPGA as the pipeline structure between multiple boards. Secondly, a task deployment method based on dichotomy is proposed to maximize the balance of task execution time of different pipeline stages to improve throughput and energy efficiency. Thirdly, optimize DNN computing module according to the relationship between computing power and bandwidth, and improve energy efficiency by reducing waste of ineffective resources and improving resource utilization. The experiment results on Alexnet and VGG-16 demonstrate that we use Zynq 7035 cluster can at most achieves ×25.23 energy efficiency of optimized AMD AIO processor. Compared with previous works of single FPGA and FPGA cluster, the energy efficiency is improved by 59.5% and 18.8%, respectively.
近年来,随着深度神经网络的快速发展,计算机视觉、自然语言处理等一系列领域的算法复杂度迅速增加。与GPU等高性能器件相比,基于fpga的DNN加速器具有更高的能效,具有优越的灵活性和性能。然而,单个FPGA的计算资源有限,难以灵活满足不同计算规模的高吞吐量和高能效要求。因此,本文提出了一种基于可扩展异构FPGA集群的深度神经网络实现方法,以适应不同的任务,实现高吞吐量和高能效。首先,该方法将单个庞大的任务划分为多个模块,并将每个模块作为多板之间的流水线结构在不同的FPGA上运行。其次,提出了一种基于二分法的任务部署方法,最大限度地平衡不同管道阶段的任务执行时间,以提高吞吐量和能源效率;第三,根据计算能力与带宽的关系对DNN计算模块进行优化,通过减少无效资源的浪费,提高资源利用率来提高能源效率。在Alexnet和VGG-16上的实验结果表明,我们使用Zynq 7035集群最多可以达到×25.23优化后的AMD AIO处理器的能效。与以往单FPGA和FPGA集群的工作相比,能效分别提高59.5%和18.8%。
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引用次数: 0
[ASID 2021 Copyright notice] [ASID 2021版权声明]
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引用次数: 0
Moving Object Detection and Marking Based on Frame Difference and Train Algorithm for Teaching Video 基于帧差和训练算法的教学视频运动目标检测与标记
Zhenyu Wang, Junping Wang, Nan Wang
Moving object detection is an important branch of video image processing technology. It is widely used in military, transportation, aviation and other fields. However, there are still gaps in the field of teaching. In this paper, moving object detection is applied to the field of teaching video. The train algorithm is designed to mark the unconnected areas. Then a moving object detection and marking system is realized to assist teachers in managing the classroom. Firstly, the system uses the frame difference method to detect the moving object. Secondly, the custom threshold is used for binarization. Then the median filter and open operation is used to denoise and morphological processing. After that, the obtained unconnected region is segmented and located by the processing of the train algorithm. Finally, the moving region greater than the threshold is marked according to the set pixels and threshold in the block. The system results show the effectiveness of the algorithm and the accuracy of moving object detection in teaching video.
运动目标检测是视频图像处理技术的一个重要分支。广泛应用于军事、交通、航空等领域。然而,在教学领域仍然存在差距。本文将运动目标检测应用于教学视频领域。列车算法用于标记未连通区域。在此基础上,实现了一个运动目标检测和标记系统,以辅助教师管理课堂。首先,采用帧差法对运动目标进行检测。其次,采用自定义阈值进行二值化。然后采用中值滤波和开放运算对图像进行去噪和形态学处理。然后,对得到的未连通区域进行分割和定位,通过训练算法进行处理。最后,根据块中设置的像素和阈值,对大于阈值的运动区域进行标记。系统结果表明了该算法的有效性和教学视频中运动目标检测的准确性。
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引用次数: 1
Secure Turbo-Polar Codes Information Transmission on Wireless Channel 无线信道上Turbo-Polar码信息的安全传输
Guang-Chong Zhu, Deyuan Chen, Can Zhang, Yongzhi Qi
Based on the structure of turbo-polar codes, a secure symmetric encryption scheme is proposed to enhance information transmission security in this paper. This scheme utilizes interleaving at information bits and puncturing at parity bits for several times in the encoder. Correspondingly, we need to do the converse interleaving and fill zeros accurately at punctured position. The way of interleaving and puncturing is controlled by the private key of symmetric encryption, making sure the security of the system. The security of Secure Turbo-Polar Codes (STPC) is analyzed at the end of this paper. Simulation results are given to shown that the performance and complexity of Turbo-Polar Codes have little change after symmetric encryption. We also investigate in depth the influence of different remaining parity bit ratios on Frame Error Rate (FER). At low Signal to Noise Rate (SNR), we find it have about 0.6dB advantage when remaining parity bit ratio is between 1/20 and 1/4.
基于turbo-polar码的结构,提出了一种安全的对称加密方案,以提高信息传输的安全性。该方案在编码器中利用多次信息位交错和奇偶位穿刺。相应地,我们需要进行反向交错,并在穿刺位置精确地填零。交错和穿刺的方式由对称加密私钥控制,保证了系统的安全性。最后对安全涡轮极码(STPC)的安全性进行了分析。仿真结果表明,对称加密后Turbo-Polar码的性能和复杂度变化不大。我们还深入研究了不同剩余奇偶校验比特比对帧错误率的影响。在低信噪比(SNR)下,当剩余奇偶校验比特比在1/20和1/4之间时,我们发现它具有约0.6dB的优势。
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引用次数: 0
Designs of 16-to-24-GHz Inductor-Capacitor Digitally-Controlled Oscillators in 40-nm CMOS 40纳米CMOS 16 ~ 24 ghz电感-电容数字控制振荡器的设计
Yanian Shao, Xuefei Bai, Zhe Yang
In this paper, two LC-DCO designs with three-stage frequency tuning circuits in 40-nm CMOS technology are presented, and the post-layout simulations are performed. The first design is a small-area cross-coupling LC-DCO suitable for low-cost applications. Its frequency range is 15.56-24.57 GHz, and the average power is 7.1 mW. When the output frequency is 24.57 GHz, the phase noise is –101.47 dBc/Hz at 1-MHz offset, and the FoM is –180.8 dBc/Hz. The second design is a low-power complementary differential LC-DCO suitable for low-power applications. Its frequency range is 15.7-23.0 GHz, and the average power is 1.76 mW. When the output frequency is 23 GHz, the phase noise is –102.12 dBc/Hz at 1-MHz offset, and the FoM is –186.9 dBc/Hz.
本文提出了两种采用40nm CMOS技术的三级频率调谐电路的LC-DCO设计,并进行了布局后仿真。第一种设计是小面积交叉耦合LC-DCO,适用于低成本应用。其频率范围为15.56-24.57 GHz,平均功率为7.1 mW。当输出频率为24.57 GHz时,偏移1mhz时相位噪声为-101.47 dBc/Hz, FoM为-180.8 dBc/Hz。第二种设计是低功耗互补差分LC-DCO,适用于低功耗应用。其频率范围为15.7-23.0 GHz,平均功率为1.76 mW。当输出频率为23ghz时,偏移1mhz时相位噪声为-102.12 dBc/Hz, FoM为-186.9 dBc/Hz。
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引用次数: 0
A Novel Active Inductor with Almost Simultaneously Constant L and Peak Q at Different Frequencies and Independent Q Tunability 一种新颖的有源电感,在不同频率下几乎同时保持恒定的L和峰值Q,并且Q可独立调谐
Yamei Xu, Wanrong Zhang, Hongyun Xie, D. Jin, W. Na, Yan Liang, Ziteng Cai
A novel Active Inductor (AI) is presented that its inductance values L and the peak values of quality factor Q can be kept almost constant at different frequencies, and the Q factor can be independently tuned with respect to the inductance value L. The external voltage tuning terminal of the positive transconductor in the feedback loop of positive and negative transconductors building block is configured to compensate for the variation of inductance with frequency. And the external voltages of two building blocks, namely the multi-regulated cascode structure circuit and RC feedback network are jointly tuned to compensate for the variation of Q value with frequency. In addition, the variable capacitance in the RC feedback network is employed to tune the Q factor without affecting the inductance value, thus the independent tuning of the Q with respect to the inductance value is realized. Based on TSMC 0.18ȝm CMOS process, the novel AI is verified by Advanced Design System (ADS). The results show that under the frequencies of 0.75GHz, 1.85GHz, 3.00GHz, 4.10GHz, the novel AI achieves the peak Q values of 999, 1003, 999 and 1001 respectively with the peak Q variation of only 0.40%. At the same time, the corresponding inductance values are 316.0nH, 310.2nH, 309.6nH and 303.1nH respectively with the inductance variation of only 4.17%. Moreover, the Q factor can be tuned from 610 to 1500 at each of the above four frequencies with negligible variation of inductance.
提出了一种新型有源电感器(AI),它的电感值L和品质因子Q的峰值在不同频率下几乎保持不变,并且Q因子可以相对于电感值L进行独立调谐。在正、负互感器构件的反馈回路中,正互感器的外电压调谐端可以补偿电感随频率的变化。并对多调节级联结构电路和RC反馈网络两部分的外部电压进行联合调谐,以补偿Q值随频率的变化。此外,利用RC反馈网络中的可变电容在不影响电感值的情况下对Q因子进行调谐,从而实现了Q相对于电感值的独立调谐。基于台积电0.18ȝm CMOS工艺,采用先进设计系统(ADS)进行了验证。结果表明:在0.75GHz、1.85GHz、3.00GHz、4.10GHz频率下,新型人工智能的峰值Q值分别为999、1003、999和1001,峰值Q值变化仅为0.40%;同时,对应的电感值分别为316.0nH、310.2nH、309.6nH和303.1nH,电感值变化仅为4.17%。此外,Q因子可以在上述四个频率中的每一个频率上从610调谐到1500,而电感的变化可以忽略不计。
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2021 IEEE 15th International Conference on Anti-counterfeiting, Security, and Identification (ASID)
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