Mimicking associative learning of rats via a neuromorphic robot in open field maze using spatial cell models

TL;DR

This paper demonstrates how neuromorphic robots can emulate associative learning in rodents to improve autonomous navigation in open field mazes, using biologically inspired spatial cell models for real-time learning.

Contribution

It introduces a novel approach to enable neuromorphic robots to perform online associative learning for spatial tasks by mimicking rodent spatial cognition mechanisms.

Findings

Successful implementation of spatial cell models in neuromorphic robots

Robots demonstrated improved navigation through associative learning

Real-time adaptation in dynamic environments achieved

Abstract

Data-driven Artificial Intelligence (AI) approaches have exhibited remarkable prowess across various cognitive tasks using extensive training data. However, the reliance on large datasets and neural networks presents challenges such as highpower consumption and limited adaptability, particularly in SWaP-constrained applications like planetary exploration. To address these issues, we propose enhancing the autonomous capabilities of intelligent robots by emulating the associative learning observed in animals. Associative learning enables animals to adapt to their environment by memorizing concurrent events. By replicating this mechanism, neuromorphic robots can navigate dynamic environments autonomously, learning from interactions to optimize performance. This paper explores the emulation of associative learning in rodents using neuromorphic robots within open-field maze environments, leveraging insights from spatial cells such as place and grid cells. By integrating these models, we aim to enable online associative learning for spatial tasks in real-time scenarios, bridging the gap between biological spatial cognition and robotics for advancements in autonomous systems.