Institute of Applied Physics of the Russian Academy of Sciences, Nizhny Novgorod, 603950, Russia.
Sci Rep. 2023 Mar 10;13(1):3997. doi: 10.1038/s41598-023-31110-z.
In this work, inspired by cognitive neuroscience experiments, we propose recurrent spiking neural networks trained to perform multiple target tasks. These models are designed by considering neurocognitive activity as computational processes through dynamics. Trained by input-output examples, these spiking neural networks are reverse engineered to find the dynamic mechanisms that are fundamental to their performance. We show that considering multitasking and spiking within one system provides insightful ideas on the principles of neural computation.
在这项工作中,受认知神经科学实验的启发,我们提出了经过训练可以执行多个目标任务的递归尖峰神经网络。这些模型是通过动态将神经认知活动视为计算过程来设计的。通过输入输出示例进行训练,这些尖峰神经网络被反向工程,以找到对其性能至关重要的动态机制。我们表明,在一个系统中同时考虑多任务和尖峰可以为神经计算的原理提供有见地的思路。