Your Network May Need to Be Rewritten: Network Adversarial Based on High-Dimensional Function Graph Decomposition

TL;DR

This paper introduces a novel network adversarial method using different activation functions and high-dimensional function graph decomposition to improve training efficiency and accuracy in neural networks.

Contribution

It is the first to utilize different activation functions adversarially and proposes HD-FGD for decomposing complex functions, enhancing neural network performance.

Findings

Improved training efficiency over traditional methods

Enhanced predictive accuracy with the proposed approach

Effective replacement of standard activation functions

Abstract

In the past, research on a single low dimensional activation function in networks has led to internal covariate shift and gradient deviation problems. A relatively small research area is how to use function combinations to provide property completion for a single activation function application. We propose a network adversarial method to address the aforementioned challenges. This is the first method to use different activation functions in a network. Based on the existing activation functions in the current network, an adversarial function with opposite derivative image properties is constructed, and the two are alternately used as activation functions for different network layers. For complex situations, we propose a method of high-dimensional function graph decomposition(HD-FGD), which divides it into different parts and then passes through a linear layer. After integrating the inverse of the partial derivatives of each decomposed term, we obtain its adversarial function by referring to the computational rules of the decomposition process. The use of network adversarial methods or the use of HD-FGD alone can effectively replace the traditional MLP+activation function mode. Through the above methods, we have achieved a substantial improvement over standard activation functions regarding both training efficiency and predictive accuracy. The article addresses the adversarial issues associated with several prevalent activation functions, presenting alternatives that can be seamlessly integrated into existing models without any adverse effects. We will release the code as open source after the conference review process is completed.