Bioactive glass and autogenous bone as bone graft substitutes in benign bone tumors

2008 ◽  
Vol 90B (1) ◽  
pp. 131-136 ◽  
Author(s):  
Nina C. Lindfors ◽  
Jouni T. Heikkilä ◽  
Ilona Koski ◽  
Kimmo Mattila ◽  
Allan J. Aho
Orthopedics ◽  
2004 ◽  
Vol 27 (1) ◽  
pp. 141-144 ◽  
Author(s):  
Steven Gitelis ◽  
Walter Virkus ◽  
David Anderson ◽  
Patricia Piasecki ◽  
Ting Kuo Yao

QJM ◽  
2020 ◽  
Vol 113 (Supplement_1) ◽  
Author(s):  
M A Mostafa ◽  
S I Azmy ◽  
K S Helmy

Abstract Background and Introduction Extended curettage is the commonest mode of treatment of cavitary benign bone tumors. If a tumor is very large and threatening to involve the joint, complete excision with joint reconstruction may be necessary. Cure rates of 90–95% have been achieved using curettage as the sole mode of treatment in benign bony lesions. However this treatment is not devoid of controversy and many authors recommend that bone defect after curettage of benign bone tumors should be filled with bone grafts or bone substitutes. Aim of the Work To compare clinical and radiological outcomes, when possible after using of synthetic bone substitutes and bone grafts in surgical treatment of cavitary benign bone tumors. Materials and Methods This systematic literature review has included 22 studies and consisting of 4 steps which are a systematic search of the literature (PubMed, SCOPUS, Cochrane Library), selection of studies , recording of study characteristics and extraction of data based on clinical outcomes and their comparisons between different surgical groups. Results This systematic review has included 1071 patients of which 742 were treated using different types of bone substitutes, while the remaining 329 were treated using bone grafts (allografts or autografts). Comparing between both groups we have found that the difference in the graft incorporation time between both groups was statistically insignificant which was 6.65 months in group A and 7.01 months in group B with P value = 0.355(NS). The difference in the postoperative fracture rate as well was statistically insignificant; 1.9% in group A and 3.9% in group B with P value = 0.294(NS). However, there was a significant difference in the postoperative infection rate between group A (2.1%) and group B (12.8%) with P value = 0.01(S) and in the recurrence rate as well, which was 10% for group A and 4.3% for group B with P value = 0.002(HS). Conclusion Synthetic bone graft substitutes have evolved in response to the downsides of autograft and allograft. No level I studies regarding their use in the treatment of bone tumors have been performed. This study indicates that all of the bone substitutes are safe and may be as effective as other bone graft options and with no limitation in their source for filling the large defects. Prospective randomized clinical trials in the treatment of bone tumors comparing bone graft substitutes versus other grafts (autograft and allograft) are necessary to properly delineate the real indications for bone grafting and to demonstrate the graft’s efficacy in this regard.


1998 ◽  
Vol 47 (3) ◽  
pp. 1037-1041
Author(s):  
Osamu Inoue ◽  
Hideyuki Sakamoto ◽  
Naoyuki Matsuda ◽  
Hiroki Maehara ◽  
Kunio Ibaraki

2019 ◽  
Vol 48 ◽  
Author(s):  
Mauricio Andrés Tinajero ARONI ◽  
Paulo Firmino da COSTA NETO ◽  
Guilherme José Pimentel Lopes de OLIVEIRA ◽  
Rosemary Adriana Chiérici MARCANTONIO ◽  
Elcio MARCANTONIO JUNIOR

Abstract Introduction The use of bone substitutes in grafting procedures as an alternative of the use of autogenous bone graft has been indicated, however, the direct comparison between these biomaterials has been little explored. Objective To evaluate the effect of different osteoconductive bone substitutes on the bone repair in critical-sized defects (CSDs) in rat calvaria. Material and method One CSD with an 8 mm diameter was made in each of the 40 rats used in this study. The animals were randomly allocated into 5 groups (n=8), according to the type of bone substitute used to fill the CSD: COA (Coagulum); AUT (autogenous bone); DBB (deproteinized bovine bone graft); HA/TCP (biphasic ceramic composed of hydroxyapatite and β-phosphate tricalcium); and TCP (β-phosphate tricalcium). A microtomographic analysis was performed to evaluate the remaining defect linear length (DLL) of the CSD and the volume of the mineralized tissues (MT) within the CSD at 3, 7, 15 and 30 days after the surgical procedure. In addition, a histometric analysis was performed to evaluate the composition of the repaired bone tissue (% Bone and % Biomaterial) at the 30-day period. Result It was shown that the COA had the lowest DLL and MT within the CSD. In addition, the COA presented the highest % of bone in CSD. The DBB had a higher MT and a higher % of bone substitute particles in the CSD than the AUT and TCP groups. The DBB and AUT groups presented higher % of bone in the CSD than the TCP group. Conclusion The use of the DBB promoted a better pattern of bone volume gain and formation compared to TCP and HA / TCP but was biologically inferior to the AUT.


2007 ◽  
Vol 96 (3) ◽  
pp. 243-251 ◽  
Author(s):  
P. Keränen ◽  
A. Itälä ◽  
J. Koort ◽  
I. Kohonen ◽  
M. Dalstra ◽  
...  

Background and Aims: Ceramic bone graft substitutes have a potential to be used as replacement of allogeneic bone grafting and, under optimal distribution of particle size, they may even provide mechanical support. The current study examined the efficacy of bioactive glass granules as an extender of autogenous bone grafting in a segmental bone replacement model of the canine femur. Material and Method: A 16 mm long segment of the femur shaft was bilaterally replaced with an intercalary titanium implant in eight animals. The implant had cementless grooved proximal and distal stems. In one leg, the peri-implant space was packed with composite graft consisting of a mixture of bioactive glass granules and autogenous bone graft in proportion of 50:50. In the opposite leg, the peri-implant space was treated with autogenous bone graft alone. After surgery, unlimited functional loading was allowed. The outcome was evaluated at three months. Results: Eight out of sixteen autografted implants and seven out of sixteen composite-grafted implants were radiographically incorporated and clinically stable at three months. In the paired comparison, the proximal components of composite-grafted implants showed lower maximum load under torsional testing (p=0.068), less new bone in the longitudinal grooves of the stems (p=0.036) and lower affinity of new bone to implant surface (p=0.046). The distal components of the two sides showed a similar trend for less new bone in the grooves and lower bone affinity of new bone in the distal composite-grafted components. Conclusions: The current study suggests that supplementation of periprosthetic bone graft with bioactive ceramic particles may not help to promote healing of cementless implants under high dynamic loading conditions.


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