TITLE: The estimation of training accuracy for two-layer neural networks on random datasets without training 

ABSTRACT: Although the neural network (NN) technique plays an important role in machine
learning, understanding the mechanism of NN models and the transparency of deep
learning still require more basic research. In this study we propose a novel
theory based on space partitioning to estimate the approximate training
accuracy for two-layer neural networks on random datasets without training.
There appear to be no other studies that have proposed a method to estimate
training accuracy without using input data or trained models. Our method
estimates the training accuracy for two-layer fully-connected neural networks
on two-class random datasets using only three arguments: the dimensionality of
inputs (d), the number of inputs (N), and the number of neurons in the hidden
layer (L). We have verified our method using real training accuracies in our
experiments. The results indicate that the method will work for any dimension,
and the proposed theory could extend also to estimate deeper NN models. This
study may provide a starting point for a new way for researchers to make
progress on the difficult problem of understanding deep learning.
Although the neural network (NN) technique plays an important role in machine
learning, understanding the mechanism of NN models and the transparency of deep
learning still require more basic research. In this study we propose a novel
theory based on space partitioning to estimate the approximate training
accuracy for two-layer neural networks on random datasets without training.
There appear to be no other studies that have proposed a method to estimate
training accuracy without using input data or trained models. Our method
estimates the training accuracy for two-layer fully-connected neural networks
on two-class random datasets using only three arguments: the dimensionality of
inputs (d), the number of inputs (N), and the number of neurons in the hidden
layer (L). We have verified our method using real training accuracies in our
experiments. The results indicate that the method will work for any dimension,
and the proposed theory could extend also to estimate deeper NN models. This
study may provide a starting point for a new way for researchers to make
progress on the difficult problem of understanding deep learning.
The estimation of training accuracy for two-layer neural networks on random datasets without training
http://arxiv.org/abs/2010.13380v1