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Unlocking neural complexity with a robotic key

机译:用机械手解锁神经的复杂性

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Complex brains evolved in order to comprehend and interact with complex environments in the real world. Despite significant progress in our understanding of perceptual representations in the brain, our understanding of how the brain carries out higher level processing remains largely superficial. This disconnect is understandable, since the direct mapping of sensory inputs to perceptual states is readily observed, while mappings between (unknown) stages of processing and intermediate neural states is not. We argue that testing theories of higher level neural processing on robots in the real world offers a clear path forward, since (1) the complexity of the neural robotic controllers can be staged as necessary, avoiding the almost intractable complexity apparent in even the simplest current living nervous systems; (2) robotic controller states are fully observable, avoiding the enormous technical challenge of recording from complete intact brains; and (3) unlike computational modelling, the real world can stand for itself when using robots, avoiding the computational intractability of simulating the world at an arbitrary level of detail. We suggest that embracing the complex and often unpredictable closed-loop interactions between robotic neuro-controllers and the physical world will bring about deeper understanding of the role of complex brain function in the high-level processing of information and the control of behaviour.
机译:为了理解现实世界中的复杂环境并与之交互,进化了复杂的大脑。尽管我们对大脑中的知觉表示的理解有了长足的进步,但是我们对大脑如何进行更高水平处理的理解仍然是肤浅的。这种分离是可以理解的,因为很容易观察到感觉输入到知觉状态的直接映射,而处理(未知)阶段和中间神经状态之间的映射却不容易。我们认为,在现实世界中对机器人进行更高级别的神经处理理论的测试提供了一条明确的前进道路,因为(1)神经机器人控制器的复杂性可以根据需要进行分级,即使在最简单的电流下也可以避免几乎难以解决的复杂性活的神经系统; (2)机器人控制器的状态是完全可观察到的,避免了从完整的大脑进行记录的巨大技术挑战; (3)与计算建模不同,现实世界在使用机器人时可以自成一体,避免了在任意细节级别上模拟世界的计算难度。我们建议,拥抱机器人神经控制器与物理世界之间复杂且通常无法预测的闭环交互作用,将使人们更加了解复杂脑功能在信息的高级处理和行为控制中的作用。

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