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Zeng, Y., Zhang, T.L. and Xu, B. (2014) Neural Pathway Prediction Based on Multi-Neuron Spike Train Data. Proceedings of the 23rd Annual Computational Neuroscience Meeting (CNS 2014), Québec City, 26-31 July 2014, 6.

has been cited by the following article:

  • TITLE: Biological Neural Network Structure and Spike Activity Prediction Based on Multi-Neuron Spike Train Data

    AUTHORS: Tielin Zhang, Yi Zeng, Bo Xu

    KEYWORDS: Neural Network Structure Prediction, Spike Prediction, Time-Order Strategy, Co-Occurrence Strategy, Spreading Activation

    JOURNAL NAME: International Journal of Intelligence Science, Vol.5 No.2, January 30, 2015

    ABSTRACT: The micro-scale neural network structure for the brain is essential for the investigation on the brain and mind. Most of the previous studies typically acquired the neural network structure through brain slicing and reconstruction via nanoscale imaging. Nevertheless, this method still cannot scale well, and the observation on the neural activities based on the reconstructed neural network is not possible. Neuron activities are based on the neural network of the brain. In this paper, we propose that multi-neuron spike train data can be used as an alternative source to predict the neural network structure. And two concrete strategies for neural network structure prediction based on such kind of data are introduced, namely, the time-ordered strategy and the spike co-occurrence strategy. The proposed methods can even be applied to in vivo studies since it only requires neural spike activities. Based on the predicted neural network structure and the spreading activation theory, we propose a spike prediction method. For neural network structure reconstruction, the experimental results reveal a significantly improved accuracy compared to previous network reconstruction strategies, such as Cross-correlation, Pearson, and the Spearman method. Experiments on the spikes prediction results show that the proposed spreading activation based strategy is potentially effective for predicting neural spikes in the biological neural network. The predictions on the neural network structure and the neuron activities serve as foundations for large scale brain simulation and explorations of human intelligence.