Literature DB >> 33253901

Efficacy in myopia control.

Noel A Brennan1, Youssef M Toubouti2, Xu Cheng2, Mark A Bullimore3.   

Abstract

There is rapidly expanding interest in interventions to slow myopia progression in children and teenagers, with the intent of reducing risk of myopia-associated complications later in life. Despite many publications dedicated to the topic, little attention has been devoted to understanding 'efficacy' in myopia control and its application. Treatment effect has been expressed in multiple ways, making comparison between therapies and prognosis for an individual patient difficult. Available efficacy data are generally limited to two to three years making long-term treatment effect uncertain. From an evidence-based perspective, efficacy projection should be conservative and not extend beyond that which has been empirically established. Using this principle, review of the literature, data from our own clinical studies, assessment of demonstrated myopia control treatments and allowance for the limitations and context of available data, we arrive at the following important interpretations: (i) axial elongation is the preferred endpoint for assessing myopic progression; (ii) there is insufficient evidence to suggest that faster progressors, or younger myopes, derive greater benefit from treatment; (iii) the initial rate of reduction of axial elongation by myopia control treatments is not sustained; (iv) consequently, using percentage reduction in progression as an index to describe treatment effect can be very misleading and (v) cumulative absolute reduction in axial elongation (CARE) emerges as a preferred efficacy metric; (vi) maximum CARE that has been measured for existing myopia control treatments is 0.44 mm (which equates to about 1 D); (vii) there is no apparent superior method of treatment, although commonly prescribed therapies such as 0.01% atropine and progressive addition spectacles lenses have not consistently provided clinically important effects; (viii) while different treatments have shown divergent efficacy in the first year, they have shown only small differences after this; (ix) rebound should be assumed until proven otherwise; (x) an illusion of inflated efficacy is created by measurement error in refraction, sample bias in only treating 'measured' fast progressors and regression to the mean; (xi) decision to treat should be based on age of onset (or refraction at a given age), not past progression; (xii) the decreased risk of complications later in life provided by even modest reductions in progression suggest treatment is advised for all young myopes and, because of limitations of available interventions, should be aggressive.
Copyright © 2020 The Authors. Published by Elsevier Ltd.. All rights reserved.

Entities:  

Keywords:  Axial length; Children; Efficacy; Myopia; Myopia control; Retinal disease

Mesh:

Substances:

Year:  2020        PMID: 33253901     DOI: 10.1016/j.preteyeres.2020.100923

Source DB:  PubMed          Journal:  Prog Retin Eye Res        ISSN: 1350-9462            Impact factor:   21.198


  29 in total

1.  Short-term effect of 0.01% atropine sulphate eye gel on myopia progression in children.

Authors:  Shi-Yin Pan; Yang-Zheng Wang; Jun Li; Xue-Hui Zhang; Jin Wang; Xiu-Ping Zhu; Xiang-Hua Xiao; Jun-Tian Liu
Journal:  Int J Ophthalmol       Date:  2022-07-18       Impact factor: 1.645

2.  Studies on the interactions of retinal dopamine with choroidal thickness in the chicken.

Authors:  Ute Mathis; Marita Feldkaemper; Hong Liu; Frank Schaeffel
Journal:  Graefes Arch Clin Exp Ophthalmol       Date:  2022-10-04       Impact factor: 3.535

3.  Effect of 0.01% atropine eyedrops on intraocular pressure in schoolchildren: a randomized clinical trial.

Authors:  Javaria Bukhari; Shi-Fei Wei; Shi-Ming Li; Wen-Zai An; Jia-Ling Du; Xin-Tong Liang; Jia-He Gan; Jia-Xin Tian; Wei-Ling Bai; Zhi-Ning Cai; Lei Yin; Ning-Li Wang
Journal:  Int J Ophthalmol       Date:  2022-09-18       Impact factor: 1.645

4.  Biometric and refractive changes following the monocular application of peripheral myopic defocus using a novel augmented-reality optical system in adults.

Authors:  Ryo Kubota; Nabin R Joshi; Tara J Fitzgerald; Inna Samandarova; Maksud Oliva; Arkady Selenow; Amitava Gupta; Steven Ali; G Lynn Mitchell; Robert Chun; Kenneth J Ciuffreda
Journal:  Sci Rep       Date:  2022-07-13       Impact factor: 4.996

5.  Reduction of Myopic Progression Using a Multifocal Soft Contact Lens: A Retrospective Cohort Study.

Authors:  Jeffrey Cooper; Brett O'Connor; Thomas Aller; Sally M Dillehay; Katherine Weibel; Douglas Benoit
Journal:  Clin Ophthalmol       Date:  2022-07-04

6.  The Limited Value of Prior Change in Predicting Future Progression of Juvenile-onset Myopia.

Authors:  Donald O Mutti; Loraine T Sinnott; Noel A Brennan; Xu Cheng; Karla Zadnik
Journal:  Optom Vis Sci       Date:  2022-02-25       Impact factor: 2.106

7.  Axial length targets for myopia control.

Authors:  Paul Chamberlain; Percy Lazon de la Jara; Baskar Arumugam; Mark A Bullimore
Journal:  Ophthalmic Physiol Opt       Date:  2021-05-05       Impact factor: 3.117

8.  Amber light treatment produces hyperopia in tree shrews.

Authors:  Safal Khanal; Thomas T Norton; Timothy J Gawne
Journal:  Ophthalmic Physiol Opt       Date:  2021-08-11       Impact factor: 3.992

9.  The Role of Back Optic Zone Diameter in Myopia Control with Orthokeratology Lenses.

Authors:  Jaume Pauné; Silvia Fonts; Lina Rodríguez; Antonio Queirós
Journal:  J Clin Med       Date:  2021-01-18       Impact factor: 4.241

10.  Corneal Penetration of Low-Dose Atropine Eye Drops.

Authors:  Henning Austermann; Frank Schaeffel; Ute Mathis; Verena Hund; Frank Mußhoff; Focke Ziemssen; Sven Schnichels
Journal:  J Clin Med       Date:  2021-02-04       Impact factor: 4.241

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