Repairing Critical-Sized Rat Calvarial Defects with a Periosteal Cell-Seeded Small Intestinal Submucosal Layer

Background: Small intestinal submucosa was evaluated as a bioscaffold candidate for periosteum-derived osteoblasts, and its suitability as a bone replacement material for cranial defects was investigated. Methods: In the in vitro phase, osteoblasts were expanded in osteogenic medium and were then seeded onto small intestinal submucosa. To confirm osteoblast phenotype, they were tested for alkaline phosphatase, collagen type 1, and calcium expression. In the in vivo phase, calvarial critical-sized defects were created in 35 rats. The defects were either left untreated for surgical control (group 1), treated with small intestinal submucosa alone (group 2), treated with an osteoblast-embedded construct (group 3), or treated with an autogenous bone graft (group 4). The results were evaluated 12 weeks after surgery with radiopacity measurements and with stereologic analysis. Results: Periosteal cells grew successfully in vitro. The percentage radiopaque area at the defect was measured to be 42, 74, 76, and 89 percent for groups 1, 2, 3, and 4, respectively. The pixel intensity of the same site was 36.4, 48.1, 47.5, and 54.5 for the same groups, respectively. Tissue-engineered constructs did not achieve enough bone formation and calcification to be effective as autogenous bone grafts and were not superior to the small intestinal submucosa alone. However, both small intestinal submucosa and cell-seeded small intestinal submucosa showed significantly more bone formation compared with the untreated group. Conclusions: Although it was demonstrated that the small intestinal submucosa itself has osteogenic properties, it was not significantly increased by adding periosteum-derived osteoblasts to it. The osteogenic properties of small intestinal submucosa are promising, and its role as a scaffold should be investigated further.

[1]  S. Badylak,et al.  Glycosaminoglycan content of small intestinal submucosa: a bioscaffold for tissue replacement. , 1996, Tissue engineering.

[2]  Q. Shang,et al.  Tissue-Engineered Bone Repair of Sheep Cranial Defects with Autologous Bone Marrow Stromal Cells , 2001, The Journal of craniofacial surgery.

[3]  H. Gundersen Stereology of arbitrary particles * , 1986, Journal of microscopy.

[4]  Dietmar W Hutmacher,et al.  Periosteal cells in bone tissue engineering. , 2003, Tissue engineering.

[5]  K. Harii,et al.  Osteogenic potential of cultured periosteal cells in a distracted bone gap in rabbits. , 1998, Journal of Surgical Research.

[6]  S. Badylak,et al.  The use of xenogeneic small intestinal submucosa as a biomaterial for Achilles tendon repair in a dog model. , 1995, Journal of biomedical materials research.

[7]  J. Vacanti,et al.  The science of tissue engineering. , 2000, The Orthopedic clinics of North America.

[8]  V. Goldberg,et al.  In vivo osteochondrogenic potential of cultured cells derived from the periosteum. , 1990, Clinical orthopaedics and related research.

[9]  J. Ryaby,et al.  Tissue Engineered Bone Repair of Calvarial Defects Using Cultured Periosteal Cells , 1998, Plastic and reconstructive surgery.

[10]  Jason A Burdick,et al.  An initial investigation of photocurable three-dimensional lactic acid based scaffolds in a critical-sized cranial defect. , 2003, Biomaterials.

[11]  Rick Cowan,et al.  Bladder regeneration with cell-seeded small intestinal submucosa. , 2004, Tissue engineering.

[12]  T. Kikuchi,et al.  Osteogenic capacity of cultured human periosteal cells. , 1988, Acta orthopaedica Scandinavica.

[13]  S. Bruder,et al.  In vitro differentiation of bone and hypertrophic cartilage from periosteal-derived cells. , 1991, Experimental cell research.

[14]  S. Badylak,et al.  Formation of a SIS–Cartilage Composite Graft in Vitro and Its Use in the Repair of Articular Cartilage Defects , 1998 .

[15]  H. Ohgushi,et al.  Osteoblastic phenotype expression on the surface of hydroxyapatite ceramics. , 1997, Journal of biomedical materials research.

[16]  J O Hollinger,et al.  The critical size defect as an experimental model for craniomandibulofacial nonunions. , 1986, Clinical orthopaedics and related research.

[17]  J. Vacanti,et al.  Experimental Use of Fibrin Glue to Induce Site-Directed Osteogenesis from Cultured Periosteal Cells , 2000, Plastic and reconstructive surgery.

[18]  H. Wertheim,et al.  Healing response to various forms of human demineralized bone matrix in athymic rat cranial defects. , 1998, Journal of oral and maxillofacial surgery : official journal of the American Association of Oral and Maxillofacial Surgeons.

[19]  V. Hasırcı,et al.  Fundamentals of tissue engineering: carrier materials and an application. , 2002, Technology and health care : official journal of the European Society for Engineering and Medicine.

[20]  S. Badylak,et al.  Characterization of Fibronectin Derived from Porcine Small Intestinal Submucosa , 1998 .

[21]  N. Perelman,et al.  Collagen‐targeted BMP3 fusion proteins arrayed on collagen matrices or porous ceramics impregnated with Type I collagen enhance osteogenesis in a rat cranial defect model , 2002, Journal of orthopaedic research : official publication of the Orthopaedic Research Society.

[22]  H. Tesluk,et al.  The Effects of Insulin-like Growth Factor-1 on Critical-Size Calvarial Defects in Sprague—Dawley Rats , 1993, Annals of plastic surgery.

[23]  S. Bruder,et al.  Tissue engineering of bone. Cell based strategies. , 1999, Clinical orthopaedics and related research.

[24]  H. Kodama,et al.  Establishment of human osteoblastic cells derived from periosteum in culture , 2007, In Vitro Cellular & Developmental Biology.

[25]  I. Jackson,et al.  Evaluation of 45S5 Bioactive Glass Combined as a Bone Substitute in the Reconstruction of Critical Size Calvarial Defects in Rabbits , 2005, The Journal of craniofacial surgery.

[26]  S. Badylak,et al.  Identification of extractable growth factors from small intestinal submucosa , 1997, Journal of cellular biochemistry.

[27]  J. Jansen,et al.  Tissue Engineering of Bone , 1997 .

[28]  I. Asahina,et al.  Effective Bone Engineering with Periosteum-derived Cells , 2007, Journal of dental research.

[29]  J. Paul Robinson,et al.  Small Intestinal Submucosa: A Tissue-Derived Extracellular Matrix That Promotes Tissue-Specific Growth and Differentiation of Cells in Vitro , 1998 .

[30]  K. Hassell,et al.  Access to medicines: cost as an influence on the views and behaviour of patients. , 2002, Health & social care in the community.

[31]  S. Badylak,et al.  Enhanced bone regeneration using porcine small intestinal submucosa. , 1999, Journal of investigative surgery : the official journal of the Academy of Surgical Research.

[32]  S. Badylak,et al.  Naturally occurring extracellular matrix as a scaffold for musculoskeletal repair. , 1999, Clinical orthopaedics and related research.

[33]  S. Badylak,et al.  Endothelial cell adherence to small intestinal submucosa: an acellular bioscaffold. , 1999, Biomaterials.

[34]  J. Persing,et al.  Repair of critical size rat calvarial defects using extracellular matrix protein gels. , 1995, Journal of neurosurgery.

[35]  M. Turgut,et al.  Effects of Constant Lightness, Darkness and Parachlorophenylalanine Treatment on Tail Regeneration in the Lizard Ophisops elegans macrodactylus: Macroscopic, Biochemical and Histological Changes , 2006, Anatomia, histologia, embryologia.

[36]  D. Moore,et al.  Preformed grafts of porcine small intestine submucosa (SIS) for bridging segmental bone defects. , 2004, Journal of biomedical materials research. Part A.

[37]  S. Kadiyala,et al.  Culture-expanded, bone marrow-derived mesenchymal stem cells can regenerate a critical-sized segmental bone defect , 1997 .