Osteogenic potential of murine periosteum for critical-size cranial defects

被引:3
|
作者
Ruvalcaba-Paredes, E. K. [1 ]
Hidalgo-Bastida, L. A. [5 ]
Sesman-Bernal, A. L. [4 ]
Garciadiego-Cazares, D. [2 ]
Perez-Dosal, M. R. [4 ]
Martinez-Lopez, V. [2 ]
Vargas-Sandoval, B. [3 ]
Pichardo-Bahena, R. [3 ]
Ibarra, C. [2 ]
Velasquillo, C. [1 ]
机构
[1] Inst Nacl Rehabil, Unidad Biotecnol, Mexico City, DF, Mexico
[2] Inst Nacl Rehabil, Unidad Ingn Tejidos Terapia Celular & Med Regener, Mexico City, DF, Mexico
[3] Inst Nacl Rehabil, Unidad Morfol Mol & Celular, Mexico City, DF, Mexico
[4] Inst Nacl Pediat, Cirugia Plast & Reconstruct, Mexico City, DF, Mexico
[5] Manchester Metropolitan Univ, Sch Healthcare Sci, Manchester, Lancs, England
来源
关键词
Neotissue; Regeneration; Tissue Engineering; Periosteum; Osteogenic Unit; BONE; CELLS; REGENERATION;
D O I
10.1016/j.bjoms.2016.05.001
中图分类号
R78 [口腔科学];
学科分类号
1003 ;
摘要
Tissue engineering of bone has combined bespoke scaffolds and osteoinductive factors to maintain functional osteoprogenitor cells, and the periosteum has been confirmed as a satisfactory source of osteoblasts. Suitable matrices have been identified that support cell proliferation and differentiation, including demineralised bone matrix (both compatible and osteoinductive) and acellular human dermis. We have evaluated the osteogenic potential of an osteogenic unit, developed by combining periosteum, demineralised bone matrix, and acellular human dermis, in rodents with critical-size cranial defects. Briefly, remnants from the superior maxillary periosteum were used to harvest cells, which were characterised by flow cytometry and reverse retrotranscriptase-polymerase chain reaction (RT-PCR). Cells were cultured into the osteogenic unit and assessed for viability before being implanted into 3 rodents, These were compared with the control group (n = 3) after three months. Histological analyses were made after staining with haematoxylin and eosin and Von Kossa, and immunostaining, and confirmed viable cells that stained for CD90, CD73, CD166, runt-related transcription factor, osteopontin, and collagen type I in the experimental group, while in the control group there was only connective tissue on the edges of the bone in the injury zone. We conclude that osteogenic unit constructs have the osteogenic and regenerative potential for use in engineering bone tissue. (C) 2016 The British Association of Oral and Maxillofacial Surgeons. Published by Elsevier Ltd. All rights reserved.
引用
收藏
页码:772 / 777
页数:6
相关论文
共 50 条
  • [21] Osteoformation potential of an allogenic partially demineralized bone matrix in critical-size defects in the rat calvarium
    Diallo, Ahmad Moustapha
    Rota, Solene
    Boissiere, Michel
    Bardonnet, Raphael
    Pauthe, Emmanuel
    Petite, Herve
    Benoist, Henri M.
    Bensidhoum, Morad
    Anagnostou, Fani
    MATERIALS SCIENCE & ENGINEERING C-MATERIALS FOR BIOLOGICAL APPLICATIONS, 2021, 127
  • [22] Biomaterials in critical-size bone defects: pointers for a standardized analysis
    Manzanares, M. C.
    Carvalho, P.
    Torres, O.
    Gonzalez, B.
    Fuertes, A.
    Arroyo, S.
    Echeverria, J. J.
    BIODENTAL ENGINEERING II, 2014, : 55 - 58
  • [23] Repair of critical-size cranial defects in dog with osteogenically induced bone marrow stromal cells and demineralized bone matrix
    Chai Gang
    Zhang Yan
    Liu Wei
    Cui Lei
    Cao Yilin
    TISSUE ENGINEERING, 2006, 12 (04): : 1002 - 1002
  • [24] Biological monitoring of a xenomaterial for grafting: an evaluation in critical-size calvarial defects
    Accorsi-Mendonca, Thais
    Zambuzzi, Willian Fernando
    Bramante, Clovis Monteiro
    Cestari, Tania Mari
    Taga, Rumio
    Sader, Marcia
    de Almeida Soares, Gloria Dulce
    Granjeiro, Jose Mauro
    JOURNAL OF MATERIALS SCIENCE-MATERIALS IN MEDICINE, 2011, 22 (04) : 997 - 1004
  • [25] Bone morphogenetic proteins in critical-size bone defects: what are the options?
    Schmidmaier, Gerald
    Capanna, Rodolpho
    Wildemann, Britt
    Beque, Thierry
    Lowenberg, David
    INJURY-INTERNATIONAL JOURNAL OF THE CARE OF THE INJURED, 2009, 40 : 39 - 43
  • [26] Assessment of resorbable bioactive material for grafting of critical-size cancellous defects
    Wheeler, DL
    Eschbach, EJ
    Hoellrich, RG
    Montfort, MJ
    Chamberland, DL
    JOURNAL OF ORTHOPAEDIC RESEARCH, 2000, 18 (01) : 140 - 148
  • [27] Biological monitoring of a xenomaterial for grafting: an evaluation in critical-size calvarial defects
    Thais Accorsi-Mendonça
    Willian Fernando Zambuzzi
    Clóvis Monteiro Bramante
    Tânia Mari Cestari
    Rumio Taga
    Márcia Sader
    Glória Dulce de Almeida Soares
    José Mauro Granjeiro
    Journal of Materials Science: Materials in Medicine, 2011, 22 : 997 - 1004
  • [28] New approaches in the treatment of critical-size segmental defects in long bones
    Gugala, Zbigniew
    Lindsey, Ronald W.
    Gogolewski, Sylwester
    MACROMOLECULAR SYMPOSIA, 2007, 253 : 147 - 161
  • [29] Novel Techniques and Future Perspective for Investigating Critical-Size Bone Defects
    Huang, Elijah Ejun
    Zhang, Ning
    Shen, Huaishuang
    Li, Xueping
    Maruyama, Masahiro
    Utsunomiya, Takeshi
    Gao, Qi
    Guzman, Roberto A.
    Goodman, Stuart B.
    BIOENGINEERING-BASEL, 2022, 9 (04):
  • [30] Bone healing of mandibular critical-size defects in spontaneously hypertensive rats
    Len Chin, Veronica Kei
    Shinagawa, Adriana
    Naclerio-Homem, Maria da Graca
    BRAZILIAN ORAL RESEARCH, 2013, 27 (05): : 423 - 430