Thomas T Norton
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Explore the profile of Thomas T Norton including associated specialties, affiliations and a list of published articles.
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54
Citations
2000
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Recent Articles
11.
Sajdak B, Salmon A, Cava J, Allen K, Freling S, Ramamirtham R, et al.
Exp Eye Res
. 2019 Jun;
185:107683.
PMID: 31158381
Tree shrews are small mammals with excellent vision and are closely related to primates. They have been used extensively as a model for studying refractive development, myopia, and central visual...
12.
El Hamdaoui M, Gann D, Norton T, Grytz R
Exp Eye Res
. 2018 Dec;
180:250-259.
PMID: 30593786
We describe an analysis strategy to obtain ultrasonography-matched axial dimensions of small animal eyes using the LenStar biometer. The LenStar optical low-coherence reflectometer is an attractive device for animal research...
13.
Gawne T, Ward A, Norton T
Optom Vis Sci
. 2018 Sep;
95(10):911-920.
PMID: 30179995
Significance: In spectrally broad-band light, an emmetropization mechanism in post-natal eyes uses visual cues to modulate the growth of the eye to achieve and maintain near emmetropia. When we restricted...
14.
Hou W, Norton T, Hyman L, Gwiazda J
Eye Contact Lens
. 2018 Jun;
44(4):248-259.
PMID: 29923883
Objectives: Describe axial elongation using 14-year longitudinal data in a large, ethnically diverse group of myopic children, estimate age and axial length (AL) at stabilization, and evaluate associations between the...
15.
Ward A, Norton T, Huisingh C, Gawne T
Vision Res
. 2018 Apr;
146-147:9-17.
PMID: 29655781
During postnatal refractive development, an emmetropization mechanism uses refractive error to modulate the growth rate of the eye. Hyperopia (image focused behind the retina) produces what has been described as...
16.
He L, Frost M, Siegwart Jr J, Norton T
Exp Eye Res
. 2018 Jan;
168:77-88.
PMID: 29329973
Hyperopic refractive error is detected by retinal neurons, which generate GO signals through a direct emmetropization signaling cascade: retinal pigment epithelium (RPE) into choroid and then into sclera, thereby increasing...
17.
Gawne T, Ward A, Norton T
Vision Res
. 2017 Aug;
140:55-65.
PMID: 28801261
In infant tree shrews, exposure to narrow-band long-wavelength (red) light, that stimulates long-wavelength sensitive cones almost exclusively, slows axial elongation and produces hyperopia. We asked if red light produces hyperopia...
18.
Marsh-Tootle W, Harb E, Hou W, Zhang Q, Anderson H, Weise K, et al.
Invest Ophthalmol Vis Sci
. 2017 Jun;
58(7):3158-3171.
PMID: 28654981
Purpose: The purpose of this article is to evaluate optic nerve head (ONH) characteristics in an ethnically diverse cohort of young U.S. adults. Methods: In this study, 409 myopes and...
19.
Ward A, Siegwart J, Frost M, Norton T
Vis Neurosci
. 2017 Mar;
34:E003.
PMID: 28304244
We examined the effect of intravitreal injections of D1-like and D2-like dopamine receptor agonists and antagonists and D4 receptor drugs on form-deprivation myopia (FDM) in tree shrews, mammals closely related...
20.
Gawne T, Siegwart Jr J, Ward A, Norton T
Exp Eye Res
. 2016 Dec;
155:75-84.
PMID: 27979713
Shortly after birth, the eyes of most animals (including humans) are hyperopic because the short axial length places the retina in front of the focal plane. During postnatal development, an...