Clinical use of scaffold-technology to manage extensive bone defects

Introduction Practical application of regenerative medicine to restore structural and functional properties of damaged tissues and organs using bioactive implants could solve complex problems in contemporary traumatology and orthopedics. Objective To improve treatment results in posttraumatic diaphy...

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Main Authors: Evgeniy V. Kryukov, Leonid K. Brizhan', Vladimir V. Khominets, Denis V. Davydov, Yuri V. Chirva, Viktor I. Sevastianov, Nadezhda V. Perova, Mikhail I. Babich
Format: Article
Language:English
Published: Russian Ilizarov Scientific Center for Restorative Traumatology and Orthopaedics 2019-01-01
Series:Гений oртопедии
Subjects:
Online Access:http://ilizarov-journal.com/files/2019_1_08.pdf
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spelling doaj-b1f7e727059948c1975f3b00ba3cf89d2020-11-25T02:14:49ZengRussian Ilizarov Scientific Center for Restorative Traumatology and OrthopaedicsГений oртопедии1028-44272542-131X2019-01-01251495710.18019/1028-4427-2019-25-1-49-57Clinical use of scaffold-technology to manage extensive bone defectsEvgeniy V. Kryukov0Leonid K. Brizhan'1Vladimir V. Khominets2Denis V. Davydov3Yuri V. Chirva4Viktor I. Sevastianov5Nadezhda V. Perova6Mikhail I. Babich7N.N. Burdenko Main Military Clinical Hospital, Moscow, Russian FederationN.N. Burdenko Main Military Clinical Hospital, Moscow, Russian FederationKirov Military Medical Academy, Saint Petersburg, Russian FederationN.N. Burdenko Main Military Clinical Hospital, Moscow, Russian FederationN.N. Burdenko Main Military Clinical Hospital, Moscow, Russian FederationFederal Science Center of Transplantology and Artificial Organs named after V.I. Shumakov, Moscow, Russian FederationInstitute of Biomedical Research and Technologies, Moscow, Russian FederationN.N. Burdenko Main Military Clinical Hospital, Moscow, Russian FederationIntroduction Practical application of regenerative medicine to restore structural and functional properties of damaged tissues and organs using bioactive implants could solve complex problems in contemporary traumatology and orthopedics. Objective To improve treatment results in posttraumatic diaphyseal defects of lower extremities. Material and Methods Treatment outcomes of 19 patients with posttraumatic bone defects of the femur and tibia that averaged of 8.8 ± 3.5 cm were studied. In the main group (9 patients), osteosynthesis of fragments was performed sequentially, first with external fixation and then with intramedullary nailing. Bone defect was bridged by a combination of a biomimetic tissue with a spongy autograft from the iliac wing. In the control group (10 patients), the Ilizarov method of non-free bone plasty was used. Results The results were studied after follow-up of two years. Bone defects were covered in all patients of both groups. However, in the main group, the physiological load on the limb was possible, on average, 7.6 months after surgery, which required 61 % less operations as compared to the control group. Also, the rate of complications was 29.2 % lower in the main group. When assessing the functional results using the LEFS questionnaire, the patients of the main group experienced some minor difficulties in performing physical activities, and patients in the control group experienced moderate difficulties (average score 70.3 and 50.4, respectively). Conclusion The combination of biomimetic tissue with a spongy autograft from the iliac wing under the conditions of stable functional osteosynthesis enables to manage extensive defects of the femur and tibia and improve the functional outcomes.http://ilizarov-journal.com/files/2019_1_08.pdfbone defecttissue engineeringscaffoldregenerative medicinenon-free bone plastyosteoregeneration
collection DOAJ
language English
format Article
sources DOAJ
author Evgeniy V. Kryukov
Leonid K. Brizhan'
Vladimir V. Khominets
Denis V. Davydov
Yuri V. Chirva
Viktor I. Sevastianov
Nadezhda V. Perova
Mikhail I. Babich
spellingShingle Evgeniy V. Kryukov
Leonid K. Brizhan'
Vladimir V. Khominets
Denis V. Davydov
Yuri V. Chirva
Viktor I. Sevastianov
Nadezhda V. Perova
Mikhail I. Babich
Clinical use of scaffold-technology to manage extensive bone defects
Гений oртопедии
bone defect
tissue engineering
scaffold
regenerative medicine
non-free bone plasty
osteoregeneration
author_facet Evgeniy V. Kryukov
Leonid K. Brizhan'
Vladimir V. Khominets
Denis V. Davydov
Yuri V. Chirva
Viktor I. Sevastianov
Nadezhda V. Perova
Mikhail I. Babich
author_sort Evgeniy V. Kryukov
title Clinical use of scaffold-technology to manage extensive bone defects
title_short Clinical use of scaffold-technology to manage extensive bone defects
title_full Clinical use of scaffold-technology to manage extensive bone defects
title_fullStr Clinical use of scaffold-technology to manage extensive bone defects
title_full_unstemmed Clinical use of scaffold-technology to manage extensive bone defects
title_sort clinical use of scaffold-technology to manage extensive bone defects
publisher Russian Ilizarov Scientific Center for Restorative Traumatology and Orthopaedics
series Гений oртопедии
issn 1028-4427
2542-131X
publishDate 2019-01-01
description Introduction Practical application of regenerative medicine to restore structural and functional properties of damaged tissues and organs using bioactive implants could solve complex problems in contemporary traumatology and orthopedics. Objective To improve treatment results in posttraumatic diaphyseal defects of lower extremities. Material and Methods Treatment outcomes of 19 patients with posttraumatic bone defects of the femur and tibia that averaged of 8.8 ± 3.5 cm were studied. In the main group (9 patients), osteosynthesis of fragments was performed sequentially, first with external fixation and then with intramedullary nailing. Bone defect was bridged by a combination of a biomimetic tissue with a spongy autograft from the iliac wing. In the control group (10 patients), the Ilizarov method of non-free bone plasty was used. Results The results were studied after follow-up of two years. Bone defects were covered in all patients of both groups. However, in the main group, the physiological load on the limb was possible, on average, 7.6 months after surgery, which required 61 % less operations as compared to the control group. Also, the rate of complications was 29.2 % lower in the main group. When assessing the functional results using the LEFS questionnaire, the patients of the main group experienced some minor difficulties in performing physical activities, and patients in the control group experienced moderate difficulties (average score 70.3 and 50.4, respectively). Conclusion The combination of biomimetic tissue with a spongy autograft from the iliac wing under the conditions of stable functional osteosynthesis enables to manage extensive defects of the femur and tibia and improve the functional outcomes.
topic bone defect
tissue engineering
scaffold
regenerative medicine
non-free bone plasty
osteoregeneration
url http://ilizarov-journal.com/files/2019_1_08.pdf
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