Method for correcting dot product error of variable resistance device array
A resistance device and variable technology, applied in the direction of instruments, electrical digital data processing, special data processing applications, etc., can solve the problems of limited ability to modify output deviation, compensation effect not meeting the requirements, increasing system complexity, etc., to achieve Improve the accuracy rate, reduce learning costs, and fast convergence
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Embodiment 1
[0025] In real hardware, the effective conductance matrix and effective resistance matrix of the memristor array can be calculated by measuring the actual output of the memristor array. In this case, the method for correcting the point product error of the variable resistance device array described in the present invention, its flow is as follows figure 2 shown, including the following steps:
[0026] Step 1: Determine the operational parameters of the memristor array
[0027] Put the target conductance matrix G to be written target Converted to the target resistance matrix R target , where G target is the conductance matrix specified in advance, and R target Each element in G is related to G target The elements satisfy the reciprocal relationship. For a memristor array input voltage vector V in and the output current vector I out , the operation result of the memristor should satisfy the relation V in ·G target = I out . To initialize and read the memristor array...
Embodiment 2
[0046] The memristor array circuit can also be simulated by software simulation, and the effective conductance / resistance matrix of the memristor array can be solved without actually measuring the current output to know the current output vector. In this case, in the method for correcting the dot product error of the memristor array described in the present invention, in addition to specifically calculating the effective conductance matrix G of the memristor array effective and the effective resistance matrix R effective Except that the method is different from Example 1, other steps are the same as Example 1. The concrete implementation method of step 2 comprises the following steps:
[0047] Step 2.1: When the circuit needs to consider the line resistance, model the memristor array circuit and establish the circuit equations of the array. A typical array circuit diagram is attached figure 1 As shown, there are a total of R in the figure 11 , R 12 ,...,R NN Total N 2 M...
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