A prospective evaluation of cellular bone matrix for posterolateral lumbar fusion

Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. To assess the safety and efficacy...

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Published inClinical neurology and neurosurgery Vol. 249; p. 108683
Main Authors Dhaliwal, Joravar, Weinberg, Joshua H., Ritchey, Nathan, Akhter, Asad, Gibbs, David, Gruber, Maxwell, Ghaith, Abdul Karim, Khalsa, Siri S., Xu, David, Grossbach, Andrew, Viljoen, Stephanus
Format Journal Article
LanguageEnglish
Published Netherlands Elsevier B.V 01.02.2025
Elsevier Limited
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Online AccessGet full text
ISSN0303-8467
1872-6968
1872-6968
DOI10.1016/j.clineuro.2024.108683

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Abstract Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. To assess the safety and efficacy of ViviGenRCellular Bone Matrix in comparison to autograft bone in PLF. We performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months. There was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change. ViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter. •Cadaveric cellular allografts represent an alternative graft material that avoids autograft limitations.•Vivigen cellular bone matrix fusion rate was non-inferior to that of allograft.•Cellular bone matrix allografts may represent a safe, noninferior alternative to autograft without associated donor cite morbidity.
AbstractList Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. To assess the safety and efficacy of ViviGenRCellular Bone Matrix in comparison to autograft bone in PLF. We performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months. There was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change. ViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter. •Cadaveric cellular allografts represent an alternative graft material that avoids autograft limitations.•Vivigen cellular bone matrix fusion rate was non-inferior to that of allograft.•Cellular bone matrix allografts may represent a safe, noninferior alternative to autograft without associated donor cite morbidity.
Introduction Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. Objective To assess the safety and efficacy of ViviGen R Cellular Bone Matrix in comparison to autograft bone in PLF. Methods We performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months. Results There was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change. Conclusion ViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter.
AbstractIntroductionAutograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. ObjectiveTo assess the safety and efficacy of ViviGenRCellular Bone Matrix in comparison to autograft bone in PLF. MethodsWe performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months. ResultsThere was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change. ConclusionViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter.
Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations.INTRODUCTIONAutograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations.To assess the safety and efficacy of ViviGenRCellular Bone Matrix in comparison to autograft bone in PLF.OBJECTIVETo assess the safety and efficacy of ViviGenRCellular Bone Matrix in comparison to autograft bone in PLF.We performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months.METHODSWe performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months.There was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change.RESULTSThere was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change.ViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter.CONCLUSIONViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter.
Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity. Cadaveric cellular allografts represent an alternative source of graft material that avoids these limitations. To assess the safety and efficacy of ViviGen Cellular Bone Matrix in comparison to autograft bone in PLF. We performed a prospective study of 20 subjects who underwent PLF including 55 segmental levels. Each patient received ViviGen over the decorticated posterolateral gutter on one side an autograft bone on the other side. Fusion grading was assigned by a blinded independent neuroradiologist using a CT-based modified Lenke radiographic classification at 12 months. There was a nonsignificant increase in surgical levels showing grade A fusion for ViviGen as compared to autograft bone (62 % vs. 44 %, p = 0.056). There was a nonsignificant decrease for Vivigen compared to autograft bone in grade B (16.4 % vs 25.5 %, p = 0.241) and fusion failure (21.8 % vs 30.9 %, p = 0.279). 69 % of subjects had significant improvement in back pain numeric rating and Oswestry scores. 73 % of patients had improvement in their leg pain scores. There were no significant changes in lumbar lordosis (p = 0.611) or mean segmental lordosis (p = 0.417). At 12 months, 35 % of all levels had a > 2-degree change on flexion versus extension views while 21 % of all levels had a > 3-degree change. ViviGen cellular bone matrix demonstrates its theoretical bone-generative properties by showing non-inferiority relative to autograft with regards to fusion rates and similarity regarding patient reported outcome measures. Cellular bone matrix agents may represent a safe and noninferior alternative to autograft bone while circumventing potential drawbacks of the latter.
ArticleNumber 108683
Author Ritchey, Nathan
Akhter, Asad
Weinberg, Joshua H.
Gruber, Maxwell
Dhaliwal, Joravar
Xu, David
Grossbach, Andrew
Gibbs, David
Ghaith, Abdul Karim
Khalsa, Siri S.
Viljoen, Stephanus
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  givenname: Joshua H.
  surname: Weinberg
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  organization: Department of Neurosurgery, The Ohio State University Wexner Medical Center, Columbus, OH, USA
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  givenname: Abdul Karim
  orcidid: 0000-0002-9600-609X
  surname: Ghaith
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– sequence: 10
  givenname: Andrew
  surname: Grossbach
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  givenname: Stephanus
  surname: Viljoen
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  email: stephanus.viljoen@osumc.edu
  organization: Department of Neurosurgery, The Ohio State University Wexner Medical Center, Columbus, OH, USA
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Keywords Posterolateral fusion
Arthrodesis
Allograft
Cellular bone matrix
Language English
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elsevier_clinicalkey_doi_10_1016_j_clineuro_2024_108683
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PublicationTitle Clinical neurology and neurosurgery
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SSID ssj0003368
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Snippet Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site morbidity....
AbstractIntroductionAutograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor...
Introduction Autograft bone is the gold standard graft used in posterolateral lumbar intertransverse fusion (PLF) but can be limited by supply and donor site...
SourceID proquest
pubmed
crossref
elsevier
SourceType Aggregation Database
Index Database
Publisher
StartPage 108683
SubjectTerms Adult
Aged
Allograft
Allografts
Arthrodesis
Autografts
Back surgery
Bone grafts
Bone matrix
Bone Matrix - transplantation
Bone Transplantation - methods
Cadavers
Cellular bone matrix
Female
Humans
Lumbar Vertebrae - diagnostic imaging
Lumbar Vertebrae - surgery
Male
Medical imaging
Middle Aged
Morbidity
Neurology
Neurosurgery
Pain
Patients
Posterolateral fusion
Prospective Studies
Skin & tissue grafts
Spinal Fusion - methods
Spinal stenosis
Stem cells
Success
Transplantation, Autologous - methods
Treatment Outcome
X-rays
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Title A prospective evaluation of cellular bone matrix for posterolateral lumbar fusion
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