Published
Feb 12 2019 05:47 PM
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First published on MSDN on Apr 10, 2017
This is the continued story from Small Basic - Artificial Neuron .
Last time, I told about simple perceptron (artificial neuron) can become such as OR, AND and NAND operations. Single perceptron is able to be drawn as following graph. The horizontal axis is x1 and the vertical axis is x2. The light area means y=0 and the dark area means y=1. So, in following graph, if (x1, x2) is (1, 1) then y=1.
If setting any b, w1 and w2 parameters, single perceptron can't become XOR (exclusive or) nor EQV (equivalent). But by combining multiple perceptrons, XOR and EQV can be implemented. The graph blow is showing XOR constructed with AND, NAND and OR perceptrons.
The graph drawing program above is uploaded as RQX345-3 .
Computer logic is constructed with multilayered logical gates such as AND, OR, XOR. So, with multilayered perceptrons, we can also construct a computer. But, why perceptrons are used instead of logical gates. I'd like to talk the reason in the future blog posts.
Let's learn with Small Basic!
Authored by Nonki Takahashi
This is the continued story from Small Basic - Artificial Neuron .
Last time, I told about simple perceptron (artificial neuron) can become such as OR, AND and NAND operations. Single perceptron is able to be drawn as following graph. The horizontal axis is x1 and the vertical axis is x2. The light area means y=0 and the dark area means y=1. So, in following graph, if (x1, x2) is (1, 1) then y=1.
If setting any b, w1 and w2 parameters, single perceptron can't become XOR (exclusive or) nor EQV (equivalent). But by combining multiple perceptrons, XOR and EQV can be implemented. The graph blow is showing XOR constructed with AND, NAND and OR perceptrons.
The graph drawing program above is uploaded as RQX345-3 .
Computer logic is constructed with multilayered logical gates such as AND, OR, XOR. So, with multilayered perceptrons, we can also construct a computer. But, why perceptrons are used instead of logical gates. I'd like to talk the reason in the future blog posts.
Let's learn with Small Basic!