2001
DOI: 10.1002/acs.629
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A unified adaptive oculomotor control model

Abstract: In order to understand mechanisms of oculomotor control systems, an oculomotor model based on eye's anatomical structure and physiological mechanism is developed. In this model, various types of eye movements are considered, and two learning systems, one based on adaptive characteristics of #occulus and the other on vestibular nuclei's are developed. The role of neural paths from ocular muscle stretch receptors into #occulus, which were thought to not contribute in eye movement, is discussed in detail from the… Show more

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Cited by 28 publications
(11 citation statements)
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“…Reference 12 extended the work of Ref. 11 to a binocular control model that integrates smooth pursuit, saccade, VOR and OptoKinetic Response (OKR). However, all these methods did not take vergence eye movements into consideration, therefore the binocular aspect is not fully explored.…”
Section: Related Workmentioning
confidence: 99%
“…Reference 12 extended the work of Ref. 11 to a binocular control model that integrates smooth pursuit, saccade, VOR and OptoKinetic Response (OKR). However, all these methods did not take vergence eye movements into consideration, therefore the binocular aspect is not fully explored.…”
Section: Related Workmentioning
confidence: 99%
“…Second all the transfer functions in the oculomotor system model are considered as linear [8] [9]. Third, the time delays caused by the image processing in the visual cortex, the signal transmission in nerves and others are neglected [9].…”
Section: Modeling For Oculomotor Control Systemmentioning
confidence: 99%
“…K e =1deg/spikess-1, T e =0.24s. The part between vestibular nucleus and oculomotor nucleus or abducent nucleus can be viewed as an incomplete neural integrator [4], therefore the transfer function from vestibular nucleus to medial rectus and lateral rectus could be expressed as the sum of an incomplete neural integrator and a direct path which can be expressed as (3):…”
Section: B Establishment Of Transfer Function For Eye Motion Controlmentioning
confidence: 99%