Mangesh Islampurkar, Kishanprasad G. Gunale, Sunil Somani, Nikhil Bagade
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引用次数: 0
摘要
在电子电路中,故障的存在会导致不希望的或意想不到的结果。电路中许多节点的输出由于一个节点的故障而改变。因此,有必要检测特定故障节点中存在的故障的性质。为了检测数字电路中存在的故障,有必要使用数学建模来理解逻辑行为。建模成功后,提取参数,生成数据库。数学模型采用Hebbian人工神经网络算法[1][2]。生成的数据库用于故障检测系统查找被屏蔽故障和多故障。故障检测系统对测试电路中存在的故障进行监测,找出故障的来源和性质[3][4]。单个卡死故障生成的数据库用于查找故障电路中存在的多个故障。本文采用修正吠陀乘法[5][4]方法对所提出的系统进行优化利用。在这个建议的设计中,使用了{N x N}位输入和{N}位输出的乘法器,由于这降低了设备利用率,这是设计的预期结果。本系统采用ISE Design Suite设计,在Spartan-6 FPGA上实现[6][7]。
Multiple Stuck At Fault Diagnosis System For Digital Circuit On FPGA Using Vedic Multiplier and ANN
In an electronics circuit, the presence of a Fault leads to undesired or unexpected results. The output of many nodes on the circuit is changed due to the presence of the Fault at one node. So, it is necessary to detect the nature of the Fault present in a particular faulty node. To detect the fault present in the digital circuit, it is necessary to understand logical behavior using mathematical modeling. After the successful modeling, parameters are extracted, and the database is generated. The mathematical model uses Hebbian Artificial Neural Network algorithms [1] [2]. The database generated is used by the fault detection system to find the masked and multiple faults. A fault detection system monitors the faults present in the test circuit and finds the origin and nature of the Fault [3] [4]. The database generated for single stuck-at faults is used to find the multiple faults present in the faulty circuit. In this paper, Modified Vedic Multiplication [5] [4] method is used to optimize the utilization of the proposed system. In this proposed design multiplier of {N x N} bit input and {N} bit output is used, due to which device utilization is decreased, which is the expected outcome from the design. This system is designed using ISE Design Suite and implemented on Spartan-6 FPGA [6] [7].