Literature DB >> 34858685

Visually guided chick ocular length and structural thickness variations assessed by swept-source optical coherence tomography.

Feng Yan1,2, Chen Wang1,2, Jayla A Wilson1, Michael O'Connell1, Sam Ton1, Noah Davidson1, Mourren Sibichan1, Kari Chambers1, Ahmed Ahmed1, Jody Summers3,4, Qinggong Tang1,5.   

Abstract

Chicks are an excellent model for studying myopia. To study the change of the ocular structures in chicks, ultrasound is mostly used. However, it suffers from limited spatial resolution. In this study, we investigated the axial length (AL) and the thickness of different ocular structures in chicks' eye undergoing visually induced changes using a swept-source optical coherence tomography (SS-OCT) system in vivo. Two groups of chicks wore a translucent plastic goggle (n = 6) over the right eye to induce form-deprivation myopia. Following 12 days of form deprivation, goggles were removed in one group of chicks (n = 3), and they were allowed to experience 5 days of unrestricted vision (recovery). Goggles remained in place for a total of 17 days for the remaining 3 chicks. A separate group of 3 chicks were untreated and served as normal control. Ocular dimensions were measured in control, myopic, and recovered eyes using an SS-OCT system. We found myopic chick eyes had significantly thicker AL, lens thickness (LT), anterior chamber depth (ACD), and vitreous chamber depth (VCD), but significantly thinner retina thickness (RT) and choroid thickness (ChT) compared to the control eyes. Following 5 days of recovery, the cornea thickness (CT), retina pigment epithelium thickness (RPET), and ChT were significantly thicker, while the ACD and LT became significantly thinner compared to that of myopic eyes. SS-OCT can serve as a promising tool to provide measurements of the entire ocular structures, for evaluating the change of thickness and depth of different ocular structures in chicks in vivo. The change of AL in the myopic and recovered chick eyes can be attributed to the thickness alterations of different ocular structures. Altogether, this work demonstrated the feasibility of SS-OCT in chick myopic research and exhibited new insights into the changes of ocular structures in chicks experiencing myopia after unrestricted vision recovery.
© 2021 Optical Society of America under the terms of the OSA Open Access Publishing Agreement.

Entities:  

Year:  2021        PMID: 34858685      PMCID: PMC8606122          DOI: 10.1364/BOE.433333

Source DB:  PubMed          Journal:  Biomed Opt Express        ISSN: 2156-7085            Impact factor:   3.732


  101 in total

1.  The refractive development of untreated eyes of rhesus monkeys varies according to the treatment received by their fellow eyes.

Authors:  D V Bradley; A Fernandes; R G Boothe
Journal:  Vision Res       Date:  1999-05       Impact factor: 1.886

2.  Deep-learning-aided forward optical coherence tomography endoscope for percutaneous nephrostomy guidance.

Authors:  Chen Wang; Paul Calle; Nu Bao Tran Ton; Zuyuan Zhang; Feng Yan; Anthony M Donaldson; Nathan A Bradley; Zhongxin Yu; Kar-Ming Fung; Chongle Pan; Qinggong Tang
Journal:  Biomed Opt Express       Date:  2021-03-29       Impact factor: 3.732

3.  Novel method using 3-dimensional segmentation in spectral domain-optical coherence tomography imaging in the chick reveals defocus-induced regional and time-sensitive asymmetries in the choroidal thickness.

Authors:  Diane R Nava; Bhavna Antony; L I Zhang; Michael D Abràmoff; Christine F Wildsoet
Journal:  Vis Neurosci       Date:  2016-01       Impact factor: 3.241

4.  Refractive error and ocular biometry in Jordanian adults.

Authors:  Edward A H Mallen; Yazan Gammoh; Muawyah Al-Bdour; Fouad N Sayegh
Journal:  Ophthalmic Physiol Opt       Date:  2005-07       Impact factor: 3.117

5.  Optic nerve head analyser and Heidelberg retina tomograph: accuracy and reproducibility of topographic measurements in a model eye and in volunteers.

Authors:  P Janknecht; J Funk
Journal:  Br J Ophthalmol       Date:  1994-10       Impact factor: 4.638

6.  Blocking PirB up-regulates spines and functional synapses to unlock visual cortical plasticity and facilitate recovery from amblyopia.

Authors:  David N Bochner; Richard W Sapp; Jaimie D Adelson; Siyu Zhang; Hanmi Lee; Maja Djurisic; Josh Syken; Yang Dan; Carla J Shatz
Journal:  Sci Transl Med       Date:  2014-10-15       Impact factor: 17.956

7.  A detailed paraxial schematic eye for the White Leghorn chick.

Authors:  Natalia V Avila; Sally A McFadden
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2010-07-28       Impact factor: 1.836

8.  Moving the retina: choroidal modulation of refractive state.

Authors:  J Wallman; C Wildsoet; A Xu; M D Gottlieb; D L Nickla; L Marran; W Krebs; A M Christensen
Journal:  Vision Res       Date:  1995-01       Impact factor: 1.886

9.  Adaptive-weighted bilateral filtering and other pre-processing techniques for optical coherence tomography.

Authors:  N Anantrasirichai; Lindsay Nicholson; James E Morgan; Irina Erchova; Katie Mortlock; Rachel V North; Julie Albon; Alin Achim
Journal:  Comput Med Imaging Graph       Date:  2014-06-24       Impact factor: 4.790

10.  Characterization and quantification of necrotic tissues and morphology in multicellular ovarian cancer tumor spheroids using optical coherence tomography.

Authors:  Feng Yan; Gokhan Gunay; Trisha I Valerio; Chen Wang; Jayla A Wilson; Majood S Haddad; Maegan Watson; Michael O Connell; Noah Davidson; Kar-Ming Fung; Handan Acar; Qinggong Tang
Journal:  Biomed Opt Express       Date:  2021-05-13       Impact factor: 3.732

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