A brain-to-sonar electronic interface to bypass peripheral auditory system in rats

A. Fiorillo, S. Pullano, M. Menniti, R. Citraro, G. Sarro, E. Russo
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引用次数: 4

Abstract

Hearing loss is one of the most common neural impairments and is usually due to damage to peripheral structures. The insertion of a specific electronic interface along the auditory pathway, bypassing the area of peripheral damage, can at least partially reactivate the auditory faculty. Herein, a rat brain stimulation technique based on an ultrasound system is presented. The complete system consists of two polyvinylidene-fluoride transducers and an electronic interface, which processes ultrasounds in the air mimicking what happens in the cochlea, simulating action potentials spontaneously generated by the hair cells and then sending them to the brain. The cortical response is closely connected to environmental characteristics carried out by the external stimuli presented to the inferior colliculus, bypassing the sense organ.
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绕过大鼠外周听觉系统的脑-声纳电子接口
听力损失是最常见的神经损伤之一,通常是由于周围结构的损伤。沿着听觉通路插入一个特定的电子接口,绕过外围损伤区域,至少可以部分地重新激活听觉。本文介绍了一种基于超声系统的大鼠脑刺激技术。完整的系统由两个聚偏氟乙烯换能器和一个电子接口组成,它处理空气中的超声波,模拟耳蜗中发生的情况,模拟毛细胞自发产生的动作电位,然后将它们发送到大脑。这种皮层反应与外界刺激绕过感觉器官进入下丘所产生的环境特征密切相关。
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