Statics of plant mechanics

Prog Brain Res. 2022;267(1):43-73. doi: 10.1016/bs.pbr.2021.10.003. Epub 2022 Jan 7.

Abstract

David A. Robinson took all that was known in his time about ocular anatomy, extraocular muscle force generation, and neural control of extraocular muscles, and integrated this information into a quantitative model of the static behavior of the ocular motor plant suitable for application to strabismus, the pathological misalignment of the eyes. Robinson's comprehensive mathematical descriptions of the essential details he knew to be the properties of the ocular motor plant highlighted the critical gaps in the state of knowledge that he very explicitly bridged by quantitative assumptions that later motivated focused research that ultimately revealed many missing pieces of the puzzle. Robinson suggested that it should be possible, in principle, to account (in a computational model) for all the mechanical factors and neural drives that regulate binocular alignment and strabismus, and that such modeling could assist in diagnosis and treatment of this common ophthalmic disorder.

Keywords: Eye position; Hysteresis; Length-tension-innervation; Quantitative hypothesis; Strabismus.

MeSH terms

  • Eye Movements
  • Humans
  • Oculomotor Muscles / physiology
  • Strabismus*