Rapid tissue engineering of biomimetic human corneal limbal crypts with 3D niche architecture

被引:56
作者
Levis, Hannah J. [1 ]
Massie, Isobel [1 ]
Dziasko, Marc A. [1 ]
Kaasi, Andreas [2 ]
Daniels, Julie T. [1 ]
机构
[1] UCL Inst Ophthalmol, Dept Ocular Biol & Therapeut, London EC1V 9EL, England
[2] TAP Biosyst, Royston SG8 5WY, Herts, England
基金
英国工程与自然科学研究理事会;
关键词
Cornea; Collagen; Biomimetic material; Bioengineered limbal crypt; Limbal stem cell niche; Ophthalmology; PLASTIC COMPRESSED COLLAGEN; EPITHELIAL STEM-CELLS; MICROENVIRONMENTS; IDENTIFICATION; MATRICES; CULTURE;
D O I
10.1016/j.biomaterials.2013.08.002
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
Limbal epithelial stem cells are responsible for the maintenance of the human corneal epithelium and these cells reside in a specialised stem cell niche. They are located at the base of limbal crypts, in a physically protected microenvironment in close proximity to a variety of neighbouring niche cells. Design and recreation of elements of various stem cell niches have allowed researchers to simplify aspects of these complex microenvironments for further study in vitro. We have developed a method to rapidly and reproducibly create bioengineered limbal crypts (BLCs) in a collagen construct using a simple one-step method. Liquid is removed from collagen hydrogels using hydrophilic porous absorbers (HPAs) that have custom moulded micro-ridges on the base. The resulting topography on the surface of the thin collagen constructs resembles the dimensions of the stromal crypts of the human limbus. Human limbal epithelial cells seeded onto the surface of the constructs populate these BLCs and form numerous layers with a high proportion of the cells lining the crypts expressing putative stem cell marker, p63 alpha. The HPAs are produced using a moulding process that is flexible and can be adapted depending on the requirements of the end user. Creation of defined topographical features using this process could be applicable to numerous tissue-engineering applications where varied 3-dimensional niche architectures are required. (C) 2013 Elsevier Ltd. All rights reserved.
引用
收藏
页码:8860 / 8868
页数:9
相关论文
共 50 条
  • [41] 3D ingrowth of bovine articular chondrocytes in biodegradable cryogel scaffolds for cartilage tissue engineering
    Bolgen, N.
    Yang, Y.
    Korkusuz, P.
    Guzel, E.
    El Haj, A. J.
    Piskin, E.
    JOURNAL OF TISSUE ENGINEERING AND REGENERATIVE MEDICINE, 2011, 5 (10) : 770 - 779
  • [42] ADVANCEMENTS IN THE USE OF CERAMIC NANOPARTICLES IN 3D PRINTED TISSUE ENGINEERING
    Hao, Huinan
    CERAMICS-SILIKATY, 2024, 68 (01) : 96 - 115
  • [43] Fabrication of Piezoelectric Electrospun Termite Nest-like 3D Scaffolds for Tissue Engineering
    Muenwacha, Thanapon
    Weeranantanapan, Oratai
    Chudapongse, Nuannoi
    Diaz Sanchez, Francisco Javier
    Maensiri, Santi
    Radacsi, Norbert
    Nuansing, Wiwat
    MATERIALS, 2021, 14 (24)
  • [44] 3D modeling of keloid scars in vitro by cell and tissue engineering
    Suttho, Dutsadee
    Mankhetkorn, Samlee
    Binda, Delphine
    Pazart, Lionel
    Humbert, Philippe
    Rolin, Gwenael
    ARCHIVES OF DERMATOLOGICAL RESEARCH, 2017, 309 (01) : 55 - 62
  • [45] Optimization of 3D Synthetic Scaffolds for Neuronal Tissue Engineering Applications
    Galindo, Josue M.
    San-Millan, Ms. Irene
    Castillo-Sarmiento, Carlos A.
    Ballesteros-Yanez, Inmaculada
    Vazquez, Ester
    Merino, Sonia
    Herrero, M. Antonia
    CHEMISTRY-A EUROPEAN JOURNAL, 2024, 30 (01)
  • [46] Plasma Polymer and Biomolecule Modification of 3D Scaffolds for Tissue Engineering
    Robinson, David E.
    Al-Bataineh, Sameer A.
    Farrugia, Brooke L.
    Michelmore, Andrew
    Cowin, Allison J.
    Dargaville, Tim R.
    Short, Robert D.
    Smith, Louise E.
    Whittle, Jason D.
    PLASMA PROCESSES AND POLYMERS, 2016, 13 (07) : 678 - 689
  • [47] PRIMARY CORNEAL CELL CULTURES ON 3D PEPTIDE HYDROGEL / ELASTOMER MEMBRANE SCAFFOLDS AS CORNEAL TISSUE SUBSTITUTES
    Sahin, Sevilay Burcu
    Demir, Ebru
    Asadipakdel, Kamal
    Cetinel, Sibel
    TISSUE ENGINEERING PART A, 2022, 28 : S542 - S542
  • [48] Controlling the 3D architecture of Self-Lifting Auto-generated Tissue Equivalents (SLATEs) for optimized corneal graft composition and stability
    Gouveia, Ricardo M.
    Gonzalez-Andrades, Elena
    Cardona, Juan C.
    Gonzalez-Gallardo, Carmen
    Ionescu, Ana M.
    Garzon, Ingrid
    Alaminos, Miguel
    Gonzalez-Andrades, Miguel
    Connon, Che J.
    BIOMATERIALS, 2017, 121 : 205 - 219
  • [49] Controlling human corneal stromal stem cell contraction to mediate rapid cell and matrix organization of real architecture for 3-dimensional tissue equivalents
    Mukhey, Dev
    Phillips, James B.
    Daniels, Julie T.
    Kureshi, Alvena K.
    ACTA BIOMATERIALIA, 2018, 67 : 229 - 237
  • [50] 3D Printing: Applications in Tissue Engineering, Medical Devices, and Drug Delivery
    Kalyan, B. G. Pavan
    Kumar, Lalit
    AAPS PHARMSCITECH, 2022, 23 (04)