EAAI Journal 2026 Journal Article
Numerical spiking neural membrane systems with dendritic spines for diagnosis of infectious spondylitis on Magnetic Resonance Images
- Hongyan Zhang
- Qiang Zhang
- Jin Wang
- Xiang Yu
- Yang Li
- Xiyu Liu
- Jie Xue
As a branch of the third-generation neural network, the spiking neural membrane system has strong parallelism and low energy consumption. It has achieved success in pattern recognition, combinatorial optimization, power system control and robotics. However, traditional systems rely only on neuron rules for signal processing and transmission, and lack long-term memory. Long-term memory is an important function for biological neurons to achieve learning behavior. To address this limitation, we propose an innovative numerical spiking neural membrane system with dendritic spines, which enables neurons to retain and amplify important information. The system contains four neuron populations for identifying, memorizing, enhancing, and evaluating local salient features, respectively, and can be flexibly integrated into complex integrated membrane systems. In this study, a novel integrated membrane system is designed, which can extract key details from magnetic resonance images (MRI) using neurons, and enhance the salient features using neurons with dendritic spines, so as to improve the accuracy and efficiency of spondylitis diagnosis. The experimental results show that the system outperforms the current state-of-the-art deep learning network and four traditional classifiers in distinguishing tuberculous spondylitis from brucellar spondylitis, highlighting its potential in practical clinical applications.