Human corneal organoid has a limbal function that supplies epithelium to the cornea with limbal deficiency

被引:0
作者
Higa, Kazunari [1 ]
Ishiwata, Mifuyu [1 ]
Kimoto, Reona [1 ]
Hirayama, Masatoshi [3 ]
Yamaguchi, Takefumi [1 ,2 ]
Shimmura, Shigeto [3 ,4 ]
机构
[1] Ichikawa Gen Hosp, Tokyo Dent Coll, Cornea Ctr Eye Bank, 5-11-13 Sugano, Ichikawa, Chiba 2728513, Japan
[2] Ichikawa Gen Hosp, Tokyo Dent Coll, Dept Ophthalmol, 5-11-13 Sugano, Ichikawa, Chiba 2728513, Japan
[3] Keio Univ, Sch Med, Dept Ophthalmol, 35 Shinanomachi,Shinjuku Ku, Tokyo 1608582, Japan
[4] Fujita Hlth Univ, Fujita Med Innovat Ctr, Dept Clin Regenerat Med, 1-1-4 Haneda Kukou,Ota Ku, Tokyo 1440041, Japan
基金
日本学术振兴会;
关键词
Organoid; Niche; Corneal epithelial progenitor cells; Corneal limbal function; Corneal epithelial regeneration; Limbal deficiency; STEM-CELL NICHE; TENASCIN-C; AUTOGRAFT TRANSPLANTATION; LOCATION; GROWTH; DIFFERENTIATION; POPULATION; EXPRESSION; PHENOTYPE;
D O I
10.1016/j.reth.2025.03.004
中图分类号
Q813 [细胞工程];
学科分类号
摘要
Introduction: Patients with limbal dysfunction, which occurs when corneal epithelial stem cells are depleted, require the transplantation of donor corneal epithelial stem cells or donor-independent cell sources. This study aimed to establish organoids with limbal epithelial progenitor cell function from the central cornea, where stem cells do not reside in vivo. We confirmed the regenerative capacity of organoids in a rabbit limbal deficiency model. Methods: After treatment with collagenase, central corneal epithelial cells were scraped from corneal tissue and seeded onto Matrigel. For comparison, cells were collected from the limbus. The cells were cultured in Limbal Phenotype Maintenance Medium (LPMM). After 1 month, the organoids were observed in terms of number and size, immunohistochemistry, cell cycle, and colony-forming efficiency. Organoids were also transplanted into a rabbit model of limbal deficiency. Results: Although we were able to form organoids from the central cornea, the number of organoids from the cornea was small (approximately one tenth compared to the limbus) after 1-month culture. Cornea-derived organoids were similar in shape and size to limbal-derived organoids, and expressed keratin 15 and p63, which are characteristics of the limbal epithelium, as well as collagen type IV, laminin, and tenascin-C, which are limbal basement membrane components. Cornea-derived organoids also showed colony forming efficiency, slow-cycling cells, and label-retaining cells. Transplanted corneal organoids were observed in the limbus of a rabbit limbal deficiency model, and the presence of organoidderived cells extending into the host cornea was confirmed by immunohistochemistry using anti-human nuclei,-K12,-collagen type IV, and-laminin antibodies. Conclusions: Our data suggest that corneal organoids de-differentiated to gain a limbal phenotype and functionally supplied corneal epithelium in a rabbit limbal deficiency model for up to 1 month. (c) 2025 The Author(s). Published by Elsevier BV on behalf of The Japanese Society for Regenerative Medicine. This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/ licenses/by-nc-nd/4.0/).
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收藏
页码:247 / 253
页数:7
相关论文
共 43 条
[1]   For the long run: Maintaining germinal niches in the adult brain [J].
Alvarez-Buylla, A ;
Lim, DA .
NEURON, 2004, 41 (05) :683-686
[2]   A Subset of Human Limbal Epithelial Cells With Greater Nucleus-to-Cytoplasm Ratio Expressing High Levels of p63 Possesses Slow-Cycling Property [J].
Arpitha, Parthasarathy ;
Prajna, Namperumalsamy V. ;
Srinivasan, Muthiah ;
Muthukkaruppan, Veerappan .
CORNEA, 2008, 27 (10) :1164-1170
[3]   Human primary liver cancer-derived organoid cultures for disease modeling and drug screening [J].
Broutier, Laura ;
Mastrogiovanni, Gianmarco ;
Verstegen, Monique M. A. ;
Francies, Hayley E. ;
Gavarro, Lena Morrill ;
Bradshaw, Charles R. ;
Allen, George E. ;
Arnes-Benito, Robert ;
Sidorova, Olga ;
Gaspersz, Marcia P. ;
Georgakopoulos, Nikitas ;
Koo, Bon-Kyoung ;
Dietmann, Sabine ;
Davies, Susan E. ;
Praseedom, Raaj K. ;
Lieshout, Ruby ;
IJzermans, Jan N. M. ;
Wigmore, Stephen J. ;
Saeb-Parsy, Kourosh ;
Garnett, Mathew J. ;
van der Laan, Luc J. W. ;
Huch, Meritxell .
NATURE MEDICINE, 2017, 23 (12) :1424-+
[4]   EXISTENCE OF SLOW-CYCLING LIMBAL EPITHELIAL BASAL CELLS THAT CAN BE PREFERENTIALLY STIMULATED TO PROLIFERATE - IMPLICATIONS ON EPITHELIAL STEM-CELLS [J].
COTSARELIS, G ;
CHENG, SZ ;
DONG, G ;
SUN, TT ;
LAVKER, RM .
CELL, 1989, 57 (02) :201-209
[5]   Cell size correlates with phenotype and proliferative capacity in human corneal epithelial cells [J].
De Paiva, Cintia S. ;
Pflugfelder, Stephen C. ;
Li, De-Quan .
STEM CELLS, 2006, 24 (02) :368-375
[6]   ABCG2 transporter identifies a population of clonogenic human limbal epithelial cells [J].
De Paiva, CS ;
Chen, Z ;
Corrales, RM ;
Pflugfelder, SC ;
Li, DQ .
STEM CELLS, 2005, 23 (01) :63-73
[7]   THE CORNEOSCLERAL LIMBUS IN HUMAN CORNEAL EPITHELIAL WOUND-HEALING [J].
DUA, HS ;
FORRESTER, JV .
AMERICAN JOURNAL OF OPHTHALMOLOGY, 1990, 110 (06) :646-656
[8]   Disease Modeling in Stem Cell-Derived 3D Organoid Systems [J].
Dutta, Devanjali ;
Heo, Inha ;
Clevers, Hans .
TRENDS IN MOLECULAR MEDICINE, 2017, 23 (05) :393-410
[9]  
Garcion E, 2001, DEVELOPMENT, V128, P2485
[10]   Human corneal limbal organoids maintaining limbal stem cell niche function [J].
Higa, Kazunari ;
Higuchi, Junko ;
Kimoto, Reona ;
Miyashita, Hideyuki ;
Shimazaki, Jun ;
Tsubota, Kazuo ;
Shimmura, Shigeto .
STEM CELL RESEARCH, 2020, 49