Endothelial cells enhance the in vivo bone-forming ability of osteogenic cell sheets

被引:35
|
作者
Pirraco, Rogerio P. [1 ,2 ,3 ]
Iwata, Takanori [1 ]
Yoshida, Toshiyuki [1 ]
Marques, Alexandra P. [2 ,3 ]
Yamato, Masayuki [1 ]
Reis, Rui L. [2 ,3 ]
Okano, Teruo [1 ]
机构
[1] Tokyo Womens Med Univ, Inst Adv Biomed Engn & Sci, Tokyo 1628666, Japan
[2] Univ Minho, Headquarters European Inst Excellence Tissue Engn, Res Grp Biomat Biodegradables & Biomimet 3Bs, Taipas, Guimaraes, Portugal
[3] ICVS 3Bs PT Govt Associate Lab, Braga, Portugal
关键词
bone tissue engineering; cell sheets; endothelial cells; osteoblasts; vascularization; HEMATOPOIETIC STEM-CELLS; TISSUE; SCAFFOLDS; TRANSPLANTATION; COLLAGEN; MATRIX; LIVER;
D O I
10.1038/labinvest.2014.55
中图分类号
R-3 [医学研究方法]; R3 [基础医学];
学科分类号
1001 ;
摘要
Addressing the problem of vascularization is of vital importance when engineering three-dimensional (3D) tissues. Endothelial cells are increasingly used in tissue-engineered constructs to obtain prevascularization and to enhance in vivo neovascularization. Rat bone marrow stromal cells were cultured in thermoresponsive dishes under osteogenic conditions with human umbilical vein endothelial cells (HUVECs) to obtain honnotypic or heterotypic cell sheets (CSs). Cells were retrieved as sheets from the dishes after incubation at 20 degrees C. Monoculture osteogenic CSs were stacked on top of homotypic or heterotypic CSs, and subcutaneously implanted in the dorsal flap of nude mice for 7 days. The implants showed mineralized tissue formation under both conditions. Transplanted osteogenic cells were found at the new tissue site, demonstrating CS bone-inductive effect. Perfused vessels, positive for human CD31, confirmed the contribution of HUVECs for the neovascularization of coculture CS constructs. Furthermore, calcium quantification and expression of osteocalcin and osterix genes were higher for the CS constructs, with HUVECs demonstrating the more robust osteogenic potential of these constructs. This work demonstrates the potential of using endothelial cells, combined with osteogenic CSs, to increase the in vivo vascularization of CS-based 3D constructs for bone tissue engineering purposes.
引用
收藏
页码:663 / 673
页数:11
相关论文
共 50 条
  • [21] Mimicking the nanofeatures of bone increases bone-forming cell adhesion and proliferation
    Palin, E
    Liu, HN
    Webster, TJ
    NANOTECHNOLOGY, 2005, 16 (09) : 1828 - 1835
  • [22] Matrix-mediated retention of in vitro osteogenic differentiation potential and in vivo bone-forming capacity by human adult bone marrow-derived mesenchymal stem cells during ex vivo expansion
    Mauney, Joshua R.
    Kirker-Head, Carl
    Abrahamson, Lauren
    Gronowicz, Gloria
    Volloch, Vladimir
    Kaplan, David L.
    JOURNAL OF BIOMEDICAL MATERIALS RESEARCH PART A, 2006, 79A (03) : 464 - 475
  • [23] Bioactive silica-based nanoparticles stimulate bone-forming osteoblasts, suppress bone-resorbing osteoclasts, and enhance bone mineral density in vivo
    Beck, George R., Jr.
    Ha, Shin-Woo
    Camalier, Corinne E.
    Yamaguchi, Masayoshi
    Li, Yan
    Lee, Jin-Kyu
    Weitzmann, M. Neale
    NANOMEDICINE-NANOTECHNOLOGY BIOLOGY AND MEDICINE, 2012, 8 (06) : 793 - 803
  • [24] Characterization of an advanced viable bone allograft with preserved native bone-forming cells
    Elena Gianulis
    Bradley Wetzell
    Danielle Scheunemann
    Patrick Gazzolo
    Payal Sohoni
    Mark A. Moore
    Jingsong Chen
    Cell and Tissue Banking, 2023, 24 : 417 - 434
  • [25] A new option for bone regeneration: a rapid methodology for cellularization of allograft with human bone marrow stromal cells with in vivo bone-forming potential
    da Rocha, Leonardo Rosa
    Dias, Rhayra Braga
    Cury Fernandes, Marco Bernardo
    Prinz, Rafael
    Eirado, Thiago Penna
    Costa, Isabela de Souza
    Monteiro, Mauricio J.
    Ribeiro da Silva, Cristiane Evelise
    dos Santos, Claudio Teodoro
    Fogagnolo, Fabricio
    INJURY-INTERNATIONAL JOURNAL OF THE CARE OF THE INJURED, 2023, 54
  • [26] Development and characterization of osteogenic cell sheets in an in vivo model
    Pirraco, R. P.
    Yamato, M.
    Marques, A. P.
    Reis, R. L.
    Okano, T.
    TISSUE ENGINEERING PART A, 2008, 14 (05) : 720 - 720
  • [27] Cell-secreted matrices perpetuate the bone-forming phenotype of differentiated mesenchymal stem cells
    Hoch, Allison I.
    Mittal, Vaishali
    Mitra, Debika
    Vollmer, Nina
    Zikry, Christopher A.
    Leach, J. Kent
    BIOMATERIALS, 2016, 74 : 178 - 187
  • [28] Determining Bone-forming Ability and Frequency of Skeletal Stem Cells by Kidney Capsule Transplantation and Limiting Dilution Assay
    Uchida, Hitoshi
    Maruyama, Takamitsu
    Hsu, Wei
    BIO-PROTOCOL, 2023, 13 (06):
  • [29] The phenotypic switch from chondrocytes to bone-forming cells involves asymmetric cell division and apoptosis
    Roach, HI
    Erenpreisa, J
    CONNECTIVE TISSUE RESEARCH, 1996, 35 (1-4) : 85 - 91
  • [30] Osteogenic capacity of diluted platelet-rich plasma in ectopic bone-forming model: Benefits for bone regeneration
    Vukelic-Nikolic, Marija D.
    Najman, Stevo J.
    Vasiljevic, Perica J.
    Jevtovic-Stoimenov, Tatjana M.
    Cvetkovic, Vladimir J.
    Andrejev, Milica N.
    Mitic, Zarko J.
    JOURNAL OF CRANIO-MAXILLOFACIAL SURGERY, 2018, 46 (11) : 1911 - 1918