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鱼类视网膜和视顶盖中的事件相关电位。

Event-related potentials in the retina and optic tectum of fish.

作者信息

Bullock T H, Hofmann M H, Nahm F K, New J G, Prechtl J C

机构信息

Neurobiology Unit, Scripps Institution of Oceanography, San Diego, California.

出版信息

J Neurophysiol. 1990 Sep;64(3):903-14. doi: 10.1152/jn.1990.64.3.903.

DOI:10.1152/jn.1990.64.3.903
PMID:2230933
Abstract
  1. Compound field potentials were recorded with up to 18 microelectrodes in comb, brush, or spear arrays on and in the optic tectum and with suction electrodes from the distal stump of the cut optic nerve and from the optic nerve head in the opened eye in elasmobranchs and teleosts. Diffuse light flashes of different durations and submaximal intensities were delivered in trains with regular or irregular interstimulus intervals (ISI). 2. Event-related potentials (ERPs) are visible in single trials and begin at 50-200 ms after an "oddball" flash, especially one that is slightly weaker, briefer, or delayed by as little as 6% of ISI, compared with the more frequent stimulus. ERPs to the opposite condition are not of the same form or size. 3. One or more stimuli were omitted from a train or the train terminated after various conditioning times. Deflections occur beyond the expected visual-evoked potentials (VEPs) to the last flash and are called omitted-stimulus potentials (OSPs). They occur on schedule--approximately 100 ms after the next flash would be due--almost independent of intensity, duration, or conditioning time. They are considered to be ERPs without any necessary implication or denial of a temporally specific expectation. 4. Three components of OSP occur alone or in combination: an initial fast peak, a slow wave, and an oscillatory spindle up to ls or more in duration. This resembles the OFF response to steady light. 5. All these components are already present in the retina with optic nerve cut. 6. The same mean ISI with a high proportion of jitter gives OSPs with only slightly longer latencies and smaller amplitudes; the OSP acts as though the retina makes an integrated prediction of ISI, intensity, and duration. 7. During a conditioning train the equilibrium between excitation and inhibition after each flash changes according to frequency, intensity, duration, and conditioning time; the VEP reflects this in a shape unique to the ISI; inhibition increases rapidly after each flash and then decays slowly according to the recent mean ISI. This allows rebound disinhibition after missing, weak, or delayed flashes (OSP or ERP) or causes an altered VEP after a longer or stronger oddball. 8. It seems unlikely that the OSP or oddball ERP in fish tectum is equivalent to mammalian ERPs under the same regime or signals higher cognitive events, because they are already present in the retina, require flash frequencies greater than 1 Hz, and grow with frequency up to and beyond flicker fusion.(ABSTRACT TRUNCATED AT 400 WORDS)
摘要
  1. 在软骨鱼和硬骨鱼中,使用多达18个微电极以梳状、刷状或矛状阵列记录视顶盖内外的复合场电位,并用吸力电极从切断的视神经远端残端以及开放眼中的视神经乳头记录。以规则或不规则的刺激间隔(ISI),发送不同持续时间和次最大强度的漫射光闪光序列。2. 事件相关电位(ERP)在单次试验中可见,在“异常球”闪光后50 - 200毫秒开始,特别是与更频繁的刺激相比,强度稍弱、持续时间更短或延迟仅6%的ISI的闪光。与相反条件下的ERP形式和大小不同。3. 从序列中省略一个或多个刺激,或者在不同的条件时间后终止序列。在预期的对最后一次闪光的视觉诱发电位(VEP)之后会出现偏转,称为省略刺激电位(OSP)。它们按计划出现——大约在下一次闪光预期出现后100毫秒——几乎与强度、持续时间或条件时间无关。它们被认为是ERP,没有任何必要暗示或否定时间上特定的预期。4. OSP的三个成分单独或组合出现:一个初始快速峰值、一个慢波和一个持续时间长达1秒或更长的振荡纺锤波。这类似于对稳定光的OFF反应。5. 在切断视神经的情况下,所有这些成分在视网膜中已经存在。6. 具有高比例抖动的相同平均ISI产生的OSP潜伏期仅略长且幅度较小;OSP的行为就好像视网膜对ISI、强度和持续时间进行了综合预测。7. 在条件序列期间,每次闪光后兴奋与抑制之间的平衡根据频率、强度、持续时间和条件时间而变化;VEP以ISI特有的形状反映这一点;每次闪光后抑制迅速增加,然后根据最近的平均ISI缓慢衰减。这允许在错过、微弱或延迟的闪光(OSP或ERP)后出现反弹去抑制,或者在更长或更强的异常球后导致VEP改变。8. 在相同条件下,鱼类视顶盖中的OSP或异常球ERP似乎不太可能等同于哺乳动物的ERP,也不太可能是更高认知事件的信号,因为它们已经存在于视网膜中,需要闪光频率大于1赫兹,并且随着频率增加直至闪烁融合而增强。(摘要截断于400字)

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