Operant Conditioning Neuromorphic Circuit With Addictiveness and Time Memory for Automatic Learning

Gang Dou;Wenhai Guo;Lingtong Kong;Junwei Sun;Mei Guo;Shiping Wen
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Abstract

Most operant conditioning circuits predominantly focus on simple feedback process, few studies consider the intricacies of feedback outcomes and the uncertainty of feedback time. This paper proposes a neuromorphic circuit based on operant conditioning with addictiveness and time memory for automatic learning. The circuit is mainly composed of hunger output module, neuron module, excitement output module, memristor-based decision module, and memory and feedback generation module. In the circuit, the process of output excitement and addiction in stochastic feedback is achieved. The memory of interval between the two rewards is formed. The circuit can adapt to complex scenarios with these functions. In addition, hunger and satiety are introduced to realize the interaction between biological behavior and exploration desire, which enables the circuit to continuously reshape its memories and actions. The process of operant conditioning theory for automatic learning is accomplished. The study of operant conditioning can serve as a reference for more intelligent brain-inspired neural systems.
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具有自动学习成瘾性和时间记忆的操作条件反射神经形态电路
大多数操作性条件反射电路主要关注简单的反馈过程,很少有研究考虑反馈结果的复杂性和反馈时间的不确定性。本文提出了一种基于操作性条件反射的神经形态电路,具有成瘾性和时间记忆功能,可用于自动学习。该电路主要由饥饿输出模块、神经元模块、兴奋输出模块、基于忆阻器的决策模块以及记忆和反馈生成模块组成。在电路中,实现了随机反馈中的兴奋和上瘾输出过程。两个奖励之间的时间间隔形成记忆。通过这些功能,电路可以适应复杂的场景。此外,还引入了饥饿感和饱腹感,实现了生物行为与探索欲望之间的相互作用,从而使电路能够不断重塑其记忆和行动。完成了操作性条件反射理论的自动学习过程。操作性条件反射的研究可以为更智能的大脑启发神经系统提供参考。
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