Title :
Paralysis free fast learning: smart neural nets
Author :
Dahanayake, B.W. ; Upton, A.R.M.
Author_Institution :
Dept. of Med., McMaster Univ., Hamilton, Ont., Canada
Abstract :
We introduce fast learning fully connected feedforward smart neural nets by avoiding the use of sigmoid nonlinear function driven conventional neurons. We achieve this by introducing what we call the “smart neurons”. The smart neurons together with the linear ADALINEs are used to construct the fast learning smart neural nets. The smart neurons alone are used to form the hidden layers of the smart neural net. The output layer of the smart neural net is constructed by using the linear ADALINEs alone. Like the conventional neural nets, the smart neural nets can be trained using the regular innovation backpropagation algorithm. We compare the performance of the smart neural nets against the conventional neural nets. It is shown that the smart neural nets learn extremely faster than the conventional neural nets. Unlike the conventional neural nets, the smart neural nets proposed here can learn without ever becoming paralysed. The smart neural nets also behave well during the learning. In addition, we show that much more efficient and fast learning neural nets can be built by avoiding the conventional neurons altogether
Keywords :
backpropagation; feedforward neural nets; intelligent networks; backpropagation; fast learning; feedforward smart neural nets; linear ADALINE; smart neurons; Artificial neural networks; Backpropagation; Biological neural networks; Education; Feedforward neural networks; Feeds; Nervous system; Neural networks; Neurons; Technological innovation;
Conference_Titel :
Fuzzy Systems, 1995. International Joint Conference of the Fourth IEEE International Conference on Fuzzy Systems and The Second International Fuzzy Engineering Symposium., Proceedings of 1995 IEEE Int
Conference_Location :
Yokohama
Print_ISBN :
0-7803-2461-7
DOI :
10.1109/FUZZY.1995.409881