从神经科学中学习如何让AI在变化环境中快速适应。
What Neuroscience Can Teach AI About Learning in Continuously Changing Environments
- 借鉴动物快速行为调整机制,设计持续学习算法
- 实现类似生物的突发性神经活动转变,提升适应速度
- 适合研究自适应机器人与在线交互AI的学者
现代AI模型如大语言模型通常在海量数据上一次性训练,之后参数固定,训练成本高、过程缓慢,需数十亿次重复。相比之下,动物能持续适应环境中的不断变化,尤其在社会互动中,行为策略与奖励结果频繁变动。其计算过程常表现为行为的快速转变和神经群体活动的突然跃迁。这类能力对现实世界中的AI系统至关重要,如机器人、自动驾驶或在线交互式智能体。本文探讨神经科学能否为AI提供启示,整合了人工智能中持续学习与上下文学习的研究,以及动物在规则、奖励概率或结果变化任务中的学习机制。提出具体方向,说明神经科学如何推动当前AI发展,并反向促进神经科学,共同推进神经人工智能(NeuroAI)领域的发展。
原文摘要 · Abstract (English)
Modern AI models, such as large language models, are usually trained once on a huge corpus of data, potentially fine-tuned for a specific task, and then deployed with fixed parameters. Their training is costly, slow, and gradual, requiring billions of repetitions. In stark contrast, animals continuously adapt to the ever-changing contingencies in their environments. This is particularly important for social species, where behavioral policies and reward outcomes may frequently change in interaction with peers. The underlying computational processes are often marked by rapid shifts in an animal's behaviour and rather sudden transitions in neuronal population activity. Such computational capacities are of growing importance for AI systems operating in the real world, like those guiding robots or autonomous vehicles, or for agentic AI interacting with humans online. Can AI learn from neuroscience? This Perspective explores this question, integrating the literature on continual and in-context learning in AI with the neuroscience of learning on behavioral tasks with shifting rules, reward probabilities, or outcomes. We will outline an agenda for how specifically insights from neuroscience may inform current developments in AI in this area, and - vice versa - what neuroscience may learn from AI, contributing to the evolving field of NeuroAI.
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