Dell'Osso Louis F
Daroff-Dell'Osso Ocular Motility Laboratory¹, Louis Stokes Cleveland Department of Veterans Affairs Medical Center and CASE Medical School; and the Department of Neurology², Case Western Reserve University and University Hospitals Cleveland Medical Center; Cleveland, OH. ¹ Director Emeritus; ² Professor Emeritus, USA.
J Eye Mov Res. 2021 Feb 15;14(1). doi: 10.16910/jemr.14.1.3.
This note adds historical context into solving the problem of improving the speed of the step response of a low-order plant in two different types of control systems, a chemical mixing system and the human saccadic system. Two electrical engineers studied the above problem: one to understand and model how nature and evolution solved it and the other to design a control system to solve it in a man-made commercial system. David A. Robinson discovered that fast and accurate saccades were produced by a pulse-step of neural innervation applied to the extraocular plant. Leonidas M. Mantgiaris invented a method to achieve rapid and accurate chemical mixing by applying a large stimulus for a short period of time and then replacing it with the desired steady-state value (i.e., a "pulse-step" input). Thus, two humans used their brains to: 1) determine how the human brain produced human saccades; and 2) invent a control-system method to produce fast and accurate chemical mixing. That the second person came up with the same method by which his own brain was making saccades may shed light on the question of whether the human brain can fully understand itself.
本笔记为解决在两种不同类型的控制系统(化学混合系统和人类眼球扫视系统)中提高低阶对象阶跃响应速度的问题增添了历史背景。两位电气工程师研究了上述问题:一位致力于理解并建立自然和进化解决该问题的模型,另一位则设计一个控制系统以在人造商业系统中解决该问题。大卫·A·罗宾逊发现,快速且准确的眼球扫视是通过施加于眼外对象的神经支配脉冲 - 阶跃产生的。列奥尼达斯·M·曼齐亚里斯发明了一种方法,即通过在短时间内施加一个大刺激,然后用期望的稳态值(即“脉冲 - 阶跃”输入)来替代它,从而实现快速且准确的化学混合。因此,两个人运用他们的大脑去:1)确定人类大脑如何产生人类眼球扫视;以及2)发明一种控制系统方法来实现快速且准确的化学混合。第二个人想出了与他自己大脑产生眼球扫视相同的方法,这或许能为人类大脑是否能够完全理解自身这一问题提供线索。