HCFNN: High-order coverage function neural network for image classification
作者:
Highlights:
• A more flexible HCF neuron model for DNNs is introduced; it constructs geometries in an n-dimensional space by changing weights and hyper-parameters and thus, possesses higher variability and plasticity. Furthermore, the approximation theorem and proof for arbitrary continuous infinite functions are presented, and the fitting ability of the HCF neuron 95 model is demonstrated.
• HCFNN architecture based on the HCF neuron is proposed; it is used to mine specific feature representations and achieve adaptive parameter learning. Next, a novel adaptive optimization method for weights and hyper-parameters is proposed to achieve effective network learning. The 100 learned network model has better expression and learning ability with fewer neurons.
• We conduct experiments on nine datasets in several domains, including the two-spirals problem, natural object recognition, face recognition, and person re-ID. Experimental results show that the proposed method has better 105 learning performance and generalization ability than the commonly used M-P and RBF neural networks. In addition, our method can improve the performance of various image recognition tasks and acquire good generalization.
摘要
•A more flexible HCF neuron model for DNNs is introduced; it constructs geometries in an n-dimensional space by changing weights and hyper-parameters and thus, possesses higher variability and plasticity. Furthermore, the approximation theorem and proof for arbitrary continuous infinite functions are presented, and the fitting ability of the HCF neuron 95 model is demonstrated.•HCFNN architecture based on the HCF neuron is proposed; it is used to mine specific feature representations and achieve adaptive parameter learning. Next, a novel adaptive optimization method for weights and hyper-parameters is proposed to achieve effective network learning. The 100 learned network model has better expression and learning ability with fewer neurons.•We conduct experiments on nine datasets in several domains, including the two-spirals problem, natural object recognition, face recognition, and person re-ID. Experimental results show that the proposed method has better 105 learning performance and generalization ability than the commonly used M-P and RBF neural networks. In addition, our method can improve the performance of various image recognition tasks and acquire good generalization.
论文关键词:DNNs,Neuron modeling,Heuristic algorithm,Back propagation,Computer vision
论文评审过程:Received 22 December 2021, Revised 19 June 2022, Accepted 22 June 2022, Available online 24 June 2022, Version of Record 2 July 2022.
论文官网地址:https://doi.org/10.1016/j.patcog.2022.108873