LGCVApr 8, 2020

Dendrite Net: A White-Box Module for Classification, Regression, and System Identification

arXiv:2004.03955v691 citationsHas Code
Originality Highly original
AI Analysis

This presents a new basic algorithm for machine learning with potential applications in engineering and deep learning, though it appears incremental as a novel method building on existing paradigms.

The paper introduces Dendrite Net (DD), a white-box machine learning algorithm that tackles classification, regression, and system identification by simulating biological dendrite computations. Results show DD achieves better generalization than neuron-based networks, with higher testing accuracy on MNIST and FASHION-MNIST datasets and faster computation in MATLAB and PyTorch.

The simulation of biological dendrite computations is vital for the development of artificial intelligence (AI). This paper presents a basic machine learning algorithm, named Dendrite Net or DD, just like Support Vector Machine (SVM) or Multilayer Perceptron (MLP). DD's main concept is that the algorithm can recognize this class after learning, if the output's logical expression contains the corresponding class's logical relationship among inputs (and$\backslash$or$\backslash$not). Experiments and main results: DD, a white-box machine learning algorithm, showed excellent system identification performance for the black-box system. Secondly, it was verified by nine real-world applications that DD brought better generalization capability relative to MLP architecture that imitated neurons' cell body (Cell body Net) for regression. Thirdly, by MNIST and FASHION-MNIST datasets, it was verified that DD showed higher testing accuracy under greater training loss than Cell body Net for classification. The number of modules can effectively adjust DD's logical expression capacity, which avoids over-fitting and makes it easy to get a model with outstanding generalization capability. Finally, repeated experiments in MATLAB and PyTorch (Python) demonstrated that DD was faster than Cell body Net both in epoch and forward-propagation. The main contribution of this paper is the basic machine learning algorithm (DD) with a white-box attribute, controllable precision for better generalization capability, and lower computational complexity. Not only can DD be used for generalized engineering, but DD has vast development potential as a module for deep learning. DD code is available at GitHub: https://github.com/liugang1234567/Gang-neuron .

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