The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis
Introduction: Evaluation of sagittal balance parameters is a standard assessment before spine surgery. However, these parameters can change during walking. We aimed to describe the behavior of spino-pelvic parameters during walking in healthy subjects. Material and methods: Analyses were performed i...
Main Authors: | , , , , , , , , , |
---|---|
Format: | Article |
Language: | English |
Published: |
Elsevier
2023-04-01
|
Series: | World Neurosurgery: X |
Subjects: | |
Online Access: | http://www.sciencedirect.com/science/article/pii/S2590139723000145 |
_version_ | 1797850245309136896 |
---|---|
author | M. Miscusi A. Di Bartolomeo A. Scafa L. Ricciardi V. Chiarella M. Giugliano S.F. Castiglia T. Varrecchia M. Serrao A. Raco |
author_facet | M. Miscusi A. Di Bartolomeo A. Scafa L. Ricciardi V. Chiarella M. Giugliano S.F. Castiglia T. Varrecchia M. Serrao A. Raco |
author_sort | M. Miscusi |
collection | DOAJ |
description | Introduction: Evaluation of sagittal balance parameters is a standard assessment before spine surgery. However, these parameters can change during walking. We aimed to describe the behavior of spino-pelvic parameters during walking in healthy subjects. Material and methods: Analyses were performed in 60 healthy subjects. Static spinal sagittal balance parameters were assessed. We performed gait analysis and we used SMART-DX 500® to analyze parameters aimed at defining dynamic sagittal balance, including pelvic tilt angle (PTA), sagittal trunk shift (STS), and trunk angle (TA). We considered rotational and obliquity movements of the pelvis, flexo-extension movements of the hip, trunk, and knees. Analyses were performed in a standing posture and during walking. Results: PTA-cycle, PTA-stance, PTA-swing, STS-cycle, STS-stance, and STS-swing showed good-to-excellent internal reliability (ICC = 0.867; ICC = 0.700; ICC = 0.817, respectively). The parameters with the lowest variability were radiographic PI (CV = 16.53%), PTA-stance (CV = 9.55%), and PTA-swing (CV = 17.22%). PT was directly related to PTA-cycle (r = 0.534, p = .027). PI was inversely correlated with trunk flexo-extension range of motion (r = −0.654, p = .004) and dynamic PT (r = −0.489, p = .047). LL and SS were directly related to knee flexo-extension (r = 0.505, p = .039; r = 0.493, p = .045, respectively). SVA was correlated with the trunk obliquity in dynamics (r = 0.529, p = .029). PTA-cycle was directly related to trunk obliquity (r = 0.538, p = .049). STS and TA in the three phases of step were related to the kinematic parameters of the pelvis. TA was related to flexo-extension of the hip and knee. Conclusions: Variations of dynamic spino-pelvic parameters occur during walking and modify sagittal balance from a static to a dynamic condition. |
first_indexed | 2024-04-09T18:58:21Z |
format | Article |
id | doaj.art-975d2d6a9f8a4d5fb251add83caafba9 |
institution | Directory Open Access Journal |
issn | 2590-1397 |
language | English |
last_indexed | 2024-04-09T18:58:21Z |
publishDate | 2023-04-01 |
publisher | Elsevier |
record_format | Article |
series | World Neurosurgery: X |
spelling | doaj.art-975d2d6a9f8a4d5fb251add83caafba92023-04-09T05:49:55ZengElsevierWorld Neurosurgery: X2590-13972023-04-0118100165The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysisM. Miscusi0A. Di Bartolomeo1A. Scafa2L. Ricciardi3V. Chiarella4M. Giugliano5S.F. Castiglia6T. Varrecchia7M. Serrao8A. Raco9Department of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyDepartment of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, Italy; Corresponding author.Department of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyDepartment of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyDepartment of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyDepartment of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyDepartment of Medico-Surgical Sciences and Biotechnologies, University of Rome Sapienza, 04100, Latina, ItalyDepartment of Occupational and Environmental Medicine, Epidemiology and Hygiene, INAIL, Monte Porzio Catone, 00078, Rome, ItalyDepartment of Medico-Surgical Sciences and Biotechnologies, University of Rome Sapienza, 04100, Latina, ItalyDepartment of NESMOS, Sapienza, University of Rome Sapienza, 000168, Rome, ItalyIntroduction: Evaluation of sagittal balance parameters is a standard assessment before spine surgery. However, these parameters can change during walking. We aimed to describe the behavior of spino-pelvic parameters during walking in healthy subjects. Material and methods: Analyses were performed in 60 healthy subjects. Static spinal sagittal balance parameters were assessed. We performed gait analysis and we used SMART-DX 500® to analyze parameters aimed at defining dynamic sagittal balance, including pelvic tilt angle (PTA), sagittal trunk shift (STS), and trunk angle (TA). We considered rotational and obliquity movements of the pelvis, flexo-extension movements of the hip, trunk, and knees. Analyses were performed in a standing posture and during walking. Results: PTA-cycle, PTA-stance, PTA-swing, STS-cycle, STS-stance, and STS-swing showed good-to-excellent internal reliability (ICC = 0.867; ICC = 0.700; ICC = 0.817, respectively). The parameters with the lowest variability were radiographic PI (CV = 16.53%), PTA-stance (CV = 9.55%), and PTA-swing (CV = 17.22%). PT was directly related to PTA-cycle (r = 0.534, p = .027). PI was inversely correlated with trunk flexo-extension range of motion (r = −0.654, p = .004) and dynamic PT (r = −0.489, p = .047). LL and SS were directly related to knee flexo-extension (r = 0.505, p = .039; r = 0.493, p = .045, respectively). SVA was correlated with the trunk obliquity in dynamics (r = 0.529, p = .029). PTA-cycle was directly related to trunk obliquity (r = 0.538, p = .049). STS and TA in the three phases of step were related to the kinematic parameters of the pelvis. TA was related to flexo-extension of the hip and knee. Conclusions: Variations of dynamic spino-pelvic parameters occur during walking and modify sagittal balance from a static to a dynamic condition.http://www.sciencedirect.com/science/article/pii/S2590139723000145Dynamic sagittal balanceSpino-pelvic parametersGait analysis |
spellingShingle | M. Miscusi A. Di Bartolomeo A. Scafa L. Ricciardi V. Chiarella M. Giugliano S.F. Castiglia T. Varrecchia M. Serrao A. Raco The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis World Neurosurgery: X Dynamic sagittal balance Spino-pelvic parameters Gait analysis |
title | The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis |
title_full | The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis |
title_fullStr | The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis |
title_full_unstemmed | The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis |
title_short | The dynamic sagittal balance: Definition of dynamic spino-pelvic parameters using a method based on gait analysis |
title_sort | dynamic sagittal balance definition of dynamic spino pelvic parameters using a method based on gait analysis |
topic | Dynamic sagittal balance Spino-pelvic parameters Gait analysis |
url | http://www.sciencedirect.com/science/article/pii/S2590139723000145 |
work_keys_str_mv | AT mmiscusi thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT adibartolomeo thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT ascafa thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT lricciardi thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT vchiarella thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT mgiugliano thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT sfcastiglia thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT tvarrecchia thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT mserrao thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT araco thedynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT mmiscusi dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT adibartolomeo dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT ascafa dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT lricciardi dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT vchiarella dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT mgiugliano dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT sfcastiglia dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT tvarrecchia dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT mserrao dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis AT araco dynamicsagittalbalancedefinitionofdynamicspinopelvicparametersusingamethodbasedongaitanalysis |