[1]汪思瑶,梁双凤,郭玉娟,等.基于多光谱屈光地形图的儿童青少年视网膜周边离焦研究[J].眼科新进展,2024,44(5):396-400.[doi:10.13389/j.cnki.rao.2024.0077]
 WANG Siyao,LIANG Shuangfeng,GUO Yujuan,et al.Peripheral retinal defocus in adolescents based on multispectral refraction topography[J].Recent Advances in Ophthalmology,2024,44(5):396-400.[doi:10.13389/j.cnki.rao.2024.0077]
点击复制

基于多光谱屈光地形图的儿童青少年视网膜周边离焦研究/HTML
分享到:

《眼科新进展》[ISSN:1003-5141/CN:41-1105/R]

卷:
44卷
期数:
2024年5期
页码:
396-400
栏目:
应用研究
出版日期:
2024-04-30

文章信息/Info

Title:
Peripheral retinal defocus in adolescents based on multispectral refraction topography
作者:
汪思瑶梁双凤郭玉娟李羽周跃华
610075 四川省成都市,成都中医药大学眼科学院(汪思瑶,梁双凤,郭玉娟,李羽,周跃华);100062 北京市,北京茗视光眼科(汪思瑶,梁双凤,郭玉娟,李羽,周跃华);610084 四川省成都市,成都中医大银海眼科医院(汪思瑶,梁双凤,郭玉娟,李羽,周跃华)
Author(s):
WANG Siyao123LIANG Shuangfeng123GUO Yujuan123LI Yu123ZHOU Yuehua123
1.Eye School of Chengdu University of Traditional Chinese Medicine,Chengdu 610075,Sichuan Province,China
2.Beijing Ming Vision Ophthalmology Hospital,Beijing 100062,China
3.Ineye Hospital of Chengdu University of TCM,Chengdu 610084,Sichuan Province,China
关键词:
多光谱屈光地形图视网膜离焦近视儿童青少年
Keywords:
multispectral refraction topography retinal defocus myopia adolescent
分类号:
R778.1
DOI:
10.13389/j.cnki.rao.2024.0077
文献标志码:
A
摘要:
目的 探究视网膜周边离焦与儿童青少年近视的关系。
方法 纳入2022年10月至2023年4月在成都中医大银海眼科医院就诊的8~15岁儿童青少年192例(192眼,均取右眼),根据等效球镜度(SE)分为正视组、低度近视组和中度近视组,每组各64例(64眼)。散瞳验光,并以SE记录;IOL Master 900检测生物学参数,包括眼轴长度(AL)、中央角膜厚度(CCT)、晶状体厚度(LT)、角膜曲率值[水平角膜曲率值(K1)和垂直角膜曲率值(K2)];采用多光谱屈光地形图测量视网膜离焦量,正值为远视性离焦,负值为近视性离焦。以黄斑中心凹为圆心,视网膜总离焦记录为TRDV;环形区域分为0°~10°、>10°~20°、>20°~30°、>30°~40°、>40°~53°,分别记录为RDV-0°~10°、RDV-10°~20°、RDV-20°~30°、RDV-30°~40°、RDV-40°~53°;象限区域分为上侧、下侧、颞侧、鼻侧,分别记录为RDV-S、RDV-I、RDV-T、RDV-N。通过单因素方差分析和非参数检验分析不同范围离焦量的差异;Spearman和Pearson相关性分析SE、AL与离焦量的关系。
结果 正视组、低度近视组和中度近视组受检者的RDV-20°~30°、RDV-30°~40°、RDV-40°~53°均为远视性离焦。三组受检者TRDV、RDV-10°~20°、RDV-20°~30°、RDV-30°~40°、RDV-40°~53°、RDV-S、RDV-T、RDV-N相比,差异均有统计学意义(均为P<0.05)。TRDV、RDV-20°~30°、RDV-30°~40°、RDV-40°~53°、RDV-S、RDV-T、RDV-N与SE均呈负相关,与AL均呈正相关(均为P<0.05);RDV-0°~10°、RDV-I与SE、AL均不相关(均为P>0.05);RDV-10°~20°与AL呈正相关(P=0.012),与SE不相关(P=0.233)。
结论 视网膜周边远视性离焦随着偏心度和近视程度增大而增大。视网膜离焦具有不对称性。周边(10°~53°)、上侧、鼻侧、颞侧视网膜离焦可能与近视进展密切相关。
Abstract:
Objective To explore the association between peripheral retinal defocus and myopia in adolescents.
Methods This study encompassed 192 adolescents (192 right eyes), aged between eight and fifteen years, who sought treatment at Ineye Hospital of Chengdu University of TCM from October 2022 to April 2023. Based on the spherical equivalent (SE), the patients were divided into three groups: Emmetropia (E), low myopia (LM), and moderate myopia (MM), with each group comprising 64 patients (64 right eyes). After mydriatic refraction, the SE values were documented. Ocular biological parameters, including axial length (AL), central corneal thickness (CCT), lens thickness (LT), and keratometry values (K1, K2), were obtained using IOL Master 900. Multispectral refraction topography was employed to measure the retinal defocus: positive values indicated hyperopic defocus, while negative ones represented myopic defocus. With the macular fovea as the center, the total retinal defocus value was recorded as TRDV. The ring partition (eccentricity) was divided into 0°- 10°、>10°-20°、>20°-30°、>30°-40°、>40°-53° ,which was recorded as RDV-0°-10°, RDV-10°-20°, RDV-20°-30°, RDV-30°-40°, and RDV-40°-53°, respectively; the quadrants were recorded as RDV-Superior (RDV-S), RDV-Inferior (RDV-I), RDV-Temporal (RDV-T) and RDV-Nasal (RDV-N), respectively. The variance of RDV across different ranges was analyzed using One-Way ANOVA and non-parametric tests. The associations between SE, AL and RDV were examined using Spearman and Pearson correlation analyses.
Results The RDV-20°-30°, RDV-30°-40°and RDV-40°-53°of Groups E, LM and MM all exhibited hyperopic defocus. Statistically significant differences were identified in TRDV, RDV-10°-20°, RDV-20°-30°, RDV-30°-40°, RDV-40°-53°, RDV-S, RDV-T and RDV-N among the three groups (all P<0.05). TRDV, RDV-20°-30°, RDV-30°-40°, RDV-40°-53°, RDV-S, RDV-T, and RDV-N were found to be negatively correlated with SE while positively correlated with AL (all P<0.05). RDV-0°-10° and RDV-I were uncorrelated with both SE and AL (all P>0.05); RDV-10°-20° was positively correlated with AL (P=0.012) while uncorrelated with SE (P=0.233).
Conclusion Peripheral retinal hyperopic defocus tends to advance with escalating eccentricity and myopia. Peripheral retinal defocus is asymmetrical. Peripheral (10°-53°), superior, nasal and temporal retinal defocus may be closely related to the development of myopia.

参考文献/References:

[1] GRZYBOWSKI A,KANCLERZ P,TSUBOTA K,LANCA C,SAW S M.A review on the epidemiology of myopia in school children worldwide[J].BMC Ophthalmol,2020,20(1):27.
[2] MORGAN I G,FRENCH A N,ASHBY R S,GUO X,DING X,HE M,et al.The epidemics of myopia:aetiology and prevention[J].Prog Retin Eye Res,2018,62:134-149.
[3] BREMOND-GIGNAC D.Myopia in children[J].Med Sci(Paris),2020,36(8/9):763-768.
[4] HAARMAN A E G,ENTHOVEN C A,TEDJA M S,VERHOEVEN V J M,KLAVER C C W.The complications of myopia:a review and meta-analysis[J].Invest Ophthalmol Vis Sci,2020,61(4):49.
[5] 相璐,姜思宇,沈玺.近视的发病机制及防控研究进展[J].眼科新进展,2021,41(5):488-494.
XIANG L,JIANG S Y,SHEN X.Research on the mechanism,prevention and control of myopia[J].Rec Adv Ophthalmol,2021,41(5):488-494.
[6] ARUMUGAM B,HUNG L F,TO C H,SANKARIDURG P.The effects of the relative strength of simultaneous competing defocus signals on emmetropization in infant Rhesus monkeys[J].Invest Ophthalmol Vis Sci,2016,57(10):3949-3960.
[7] 郭芳,魏瑞华,吴绵绵,孙笑笑,张琰.近视动物模型及发病机制的研究进展[J].眼科新进展,2018,38(5):490-496.
GUO F,WEI R H,WU M M,SUN X X,ZHANG Y.Research advances in the animal models and pathogenic mechanisms of myopia[J].Rec Adv Ophthalmol,2018,38(5):490-496.
[8] LU W C,JI R Y,DING W Z,TIAN Y Y,LONG K L,GUO Z,et al.Agreement and repeatability of central and peripheral refraction by one novel multispectral-based refractor[J].Front Med(Lausanne),2021,8:777685.
[9] 叶桂彤,曾骏文,杨晓,李周越.多光谱屈光地形图在低度屈光不正儿童中的可重复性和一致性[J].中山大学学报(医学科学版),2022,43(5):772-780.
YE G T,ZENG J W,YANG X,LI Z Y.Repeatability and agreement of multispectral refraction topography in school children with mild refractive error[J].J Sun Yat Sen Univ Med Sci,2022,43(5):772-780.
[10] LIAO Y R,YANG Z L,LI Z J,ZENG R,WANG J,ZHANG Y C,et al.A quantitative comparison of multispectral refraction topography and autorefractometer in young adults[J].Front Med,2021,8:715640.
[11] SUMMERS J A,SCHAEFFEL F,MARCOS S,WU H,TKATCHENKO A V.Functional integration of eye tissues and refractive eye development:mechanisms and pathways[J].Exp Eye Res,2021,209:108693.
[12] DELSHAD S,COLLINS M J,READ S A,VINCENT S J.The time course of the onset and recovery of axial length changes in response to imposed defocus[J].Sci Rep,2020,10(1):8322.
[13] SMITH E L 3rd,KEE C S,RAMAMIRTHAM R,QIAO-GRIDER Y,HUNG L F.Peripheral vision can influence eye growth and refractive development in infant monkeys[J].Invest Ophthalmol Vis Sci,2005,46(11):3965-3972.
[14] SMITH E L 3rd,HUNG L F,HUANG J.Relative peripheral hyperopic defocus alters central refractive development in infant monkeys[J].Vision Res,2009,49(19):2386-2392.
[15] 谢黎,李芋蓉,苏月艳,陈玲.4~12岁儿童周边视网膜离焦状态分析[J].中华眼视光学与视觉科学杂志,2023,25(2):139-145.
XIE L,LI Y R,SU Y Y,CHEN L.Analysis of peripheral retinal defocus in children aged 4-12 years[J].Chin J Optom Ophthalmol Vis Sci,2023,25(2):139-145.
[16] ZHAO Q,DU X L,YANG Y,ZHOU Y L,ZHAO X X,SHAN X B,et al.Quantitative analysis of peripheral retinal defocus checked by multispectral refraction topography in myopia among youth[J].Chin Med J(Engl),2023,136(4):476-478.
[17] LU X L,ZHENG X Y,LIAN L H,HUANG Y T,LIN C N,XIA Y J,et al.Comparative study of relative peripheral refraction in children with different degrees of myopia[J].Front Med (Lausanne),2022,9:800653.
[18] SNG C C,LIN X Y,GAZZARD G,CHANG B,DIRANI M,CHIA A,et al.Peripheral refraction and refractive error in Singapore Chinese children[J].Invest Ophthalmol Vis Sci,2011,52(2):1181-1190.
[19] LEIGHTON R E,BRESLIN K M,RICHARDSON P,DOYLE L,MCCULLOUGH S J,SAUNDERS K J.Relative peripheral hyperopia leads to greater short-term axial length growth in White children with myopia[J].Ophthalmic Physiol Opt,2023,43(5):985-996.
[20] XI X Y,HAO J D,LIN Z H,WANG S D,YANG Z K,LAN W Z,et al.Two-dimensional peripheral refraction in adults[J].Biomed Opt Express,2023,14(5):2375-2385.
[21] ATCHISON D A,LI S M,LI H,LI S Y,LIU L R,KANG M T,et al.Relative peripheral hyperopia does not predict development and progression of myopia in children[J].Invest Ophthalmol Vis Sci,2015,56(10):6162-6170.
[22] ROTOLO M,MONTANI G,MARTIN R.Myopia onset and role of peripheral refraction[J].Clin Optom,2017,9:105-111.
[23] 陈楠,薛劲松,蔡江怀,蒋沁,陈凯,颜智鹏,等.光学离焦技术控制近视的研究进展[J].国际眼科杂志,2022,22(2):260-264.
CHEN N,XUE J S,CAI J H,JIANG Q,CHEN K,YAN Z P,et al.Slowing the progression of myopia with the optical defocus strategies[J].Int Eye Sci,2022,22(2):260-264.
[24] CHEN X H,XIONG Y,QI X Z,LIU L Q.Nasal-temporal asymmetric changes in retinal peripheral refractive error in myopic adolescents induced by overnight orthokeratology lenses [J].Front Neurol,2022,13:1006112.
[25] QI L S,YAO L,WANG X F,ZHAO J,LIU Y,WU T Y,et al.Relative peripheral refraction and its role in myopia onset in teenage students [J].Int J Ophthalmol,2022,15(7):1108-1115.
[26] LI T,CHEN Z Y,SHE M,ZHOU X D.Relative peripheral refraction in myopic children wearing orthokeratology lenses using a novel multispectral refraction topographer [J].Clin Exp Optom,2023,106(7):746-751.

相似文献/References:

[1]帅钰,于嘉,张晶,等.近视患儿配戴角膜塑形镜后的视网膜周边离焦[J].眼科新进展,2023,43(12):983.[doi:10.13389/j.cnki.rao.2023.0195]
 SHUAI Yu,YU Jia,ZHANG Jing,et al.Peripheral retinal defocus in myopic children wearing orthokeratology lenses[J].Recent Advances in Ophthalmology,2023,43(5):983.[doi:10.13389/j.cnki.rao.2023.0195]

更新日期/Last Update: 2024-05-05