Three-dimensional intervertebral range of motion in the cervical spine: Does the method of calculation matter?
•Within-subjects, intervertebral ROM was significantly different among calculation methods.•The method of calculation can significantly affect the group mean ROM.•The differences in group mean ROM due to using different calculation methods decreased from 6.0° to 1.5° when increasing the group size f...
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Published in | Medical engineering & physics Vol. 41; pp. 109 - 115 |
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Main Authors | , |
Format | Journal Article |
Language | English |
Published |
England
Elsevier Ltd
01.03.2017
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Online Access | Get full text |
ISSN | 1350-4533 1873-4030 1873-4030 |
DOI | 10.1016/j.medengphy.2017.01.009 |
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Abstract | •Within-subjects, intervertebral ROM was significantly different among calculation methods.•The method of calculation can significantly affect the group mean ROM.•The differences in group mean ROM due to using different calculation methods decreased from 6.0° to 1.5° when increasing the group size from 5 to 25 subjects.•To analyze motions that occur primarily about the sagittal plane, the first rotation should be calculated about the axis of flexion/extension.•To analyze motions that primarily consist of rotation and/or lateral bending, the first rotation should be calculated about the axis of lateral bending.
Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and projection angles are dependent upon on which orientation vectors are projected. This study assessed the effect of calculation method on intervertebral ROM in the subaxial cervical spine (C3–C7) during in vivo dynamic, three-dimensional, functional movement. Biplane radiographs were collected at 30 images per second while 29 participants performed full ROM flexion/extension, axial rotation and lateral bending movements of their cervical spine. In vivo bone motion was tracked with sub-millimeter accuracy using a validated volumetric model-based tracking technique. Intervertebral rotations were calculated using six Cardan angle sequences and two projection angle combinations. Within-subject comparisons revealed significant differences in intervertebral ROM among calculation methods (all p<0.002). Group mean ROM differences were small, but significantly different among calculation methods (p<0.001). A resampling technique demonstrated that as group size increases, the differences between calculation methods decreases substantially. It is concluded that the method used to calculate intervertebral rotations of the sub-axial cervical spine can significantly affect within-subject and between group comparisons of intervertebral ROM. |
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AbstractList | •Within-subjects, intervertebral ROM was significantly different among calculation methods.•The method of calculation can significantly affect the group mean ROM.•The differences in group mean ROM due to using different calculation methods decreased from 6.0° to 1.5° when increasing the group size from 5 to 25 subjects.•To analyze motions that occur primarily about the sagittal plane, the first rotation should be calculated about the axis of flexion/extension.•To analyze motions that primarily consist of rotation and/or lateral bending, the first rotation should be calculated about the axis of lateral bending.
Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and projection angles are dependent upon on which orientation vectors are projected. This study assessed the effect of calculation method on intervertebral ROM in the subaxial cervical spine (C3–C7) during in vivo dynamic, three-dimensional, functional movement. Biplane radiographs were collected at 30 images per second while 29 participants performed full ROM flexion/extension, axial rotation and lateral bending movements of their cervical spine. In vivo bone motion was tracked with sub-millimeter accuracy using a validated volumetric model-based tracking technique. Intervertebral rotations were calculated using six Cardan angle sequences and two projection angle combinations. Within-subject comparisons revealed significant differences in intervertebral ROM among calculation methods (all p<0.002). Group mean ROM differences were small, but significantly different among calculation methods (p<0.001). A resampling technique demonstrated that as group size increases, the differences between calculation methods decreases substantially. It is concluded that the method used to calculate intervertebral rotations of the sub-axial cervical spine can significantly affect within-subject and between group comparisons of intervertebral ROM. Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and projection angles are dependent upon on which orientation vectors are projected. This study assessed the effect of calculation method on intervertebral ROM in the subaxial cervical spine (C3-C7) during in vivo dynamic, three-dimensional, functional movement. Biplane radiographs were collected at 30 images per second while 29 participants performed full ROM flexion/extension, axial rotation and lateral bending movements of their cervical spine. In vivo bone motion was tracked with sub-millimeter accuracy using a validated volumetric model-based tracking technique. Intervertebral rotations were calculated using six Cardan angle sequences and two projection angle combinations. Within-subject comparisons revealed significant differences in intervertebral ROM among calculation methods (all p<0.002). Group mean ROM differences were small, but significantly different among calculation methods (p<0.001). A resampling technique demonstrated that as group size increases, the differences between calculation methods decreases substantially. It is concluded that the method used to calculate intervertebral rotations of the sub-axial cervical spine can significantly affect within-subject and between group comparisons of intervertebral ROM. Highlights • Within-subjects, intervertebral ROM was significantly different among calculation methods. • The method of calculation can significantly affect the group mean ROM. • The differences in group mean ROM due to using different calculation methods decreased from 6.0° to 1.5° when increasing the group size from 5 to 25 subjects. • To analyze motions that occur primarily about the sagittal plane, the first rotation should be calculated about the axis of flexion/extension. • To analyze motions that primarily consist of rotation and/or lateral bending, the first rotation should be calculated about the axis of lateral bending. Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and projection angles are dependent upon on which orientation vectors are projected. This study assessed the effect of calculation method on intervertebral ROM in the subaxial cervical spine (C3-C7) during in vivo dynamic, three-dimensional, functional movement. Biplane radiographs were collected at 30 images per second while 29 participants performed full ROM flexion/extension, axial rotation and lateral bending movements of their cervical spine. In vivo bone motion was tracked with sub-millimeter accuracy using a validated volumetric model-based tracking technique. Intervertebral rotations were calculated using six Cardan angle sequences and two projection angle combinations. Within-subject comparisons revealed significant differences in intervertebral ROM among calculation methods (all p<0.002). Group mean ROM differences were small, but significantly different among calculation methods (p<0.001). A resampling technique demonstrated that as group size increases, the differences between calculation methods decreases substantially. It is concluded that the method used to calculate intervertebral rotations of the sub-axial cervical spine can significantly affect within-subject and between group comparisons of intervertebral ROM.Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and projection angles are dependent upon on which orientation vectors are projected. This study assessed the effect of calculation method on intervertebral ROM in the subaxial cervical spine (C3-C7) during in vivo dynamic, three-dimensional, functional movement. Biplane radiographs were collected at 30 images per second while 29 participants performed full ROM flexion/extension, axial rotation and lateral bending movements of their cervical spine. In vivo bone motion was tracked with sub-millimeter accuracy using a validated volumetric model-based tracking technique. Intervertebral rotations were calculated using six Cardan angle sequences and two projection angle combinations. Within-subject comparisons revealed significant differences in intervertebral ROM among calculation methods (all p<0.002). Group mean ROM differences were small, but significantly different among calculation methods (p<0.001). A resampling technique demonstrated that as group size increases, the differences between calculation methods decreases substantially. It is concluded that the method used to calculate intervertebral rotations of the sub-axial cervical spine can significantly affect within-subject and between group comparisons of intervertebral ROM. |
Author | Aucie, Yashar Anderst, William J |
Author_xml | – sequence: 1 givenname: William J surname: Anderst fullname: Anderst, William J email: anderst@pitt.edu organization: Department of Orthopaedic Surgery, Biodynamics Lab, University of Pittsburgh, 3820 South Water Street, Pittsburgh, PA 15203, USA – sequence: 2 givenname: Yashar orcidid: 0000-0001-8552-2200 surname: Aucie fullname: Aucie, Yashar organization: Department of Bioengineering, University of Pittsburgh, USA |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/28126422$$D View this record in MEDLINE/PubMed |
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Keywords | Projection angles Euler angles Ordered rotation Spine Cardan angles Kinematics |
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Snippet | •Within-subjects, intervertebral ROM was significantly different among calculation methods.•The method of calculation can significantly affect the group mean... Highlights • Within-subjects, intervertebral ROM was significantly different among calculation methods. • The method of calculation can significantly affect... Intervertebral range of motion (ROM) is commonly calculated using ordered rotations or projection angles. Ordered rotations are sequence-dependent, and... |
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SubjectTerms | Adult Cardan angles Cervical Vertebrae - physiology Euler angles Female Humans Kinematics Male Movement Ordered rotation Projection angles Radiology Range of Motion, Articular Spine Statistics as Topic - methods Young Adult |
Title | Three-dimensional intervertebral range of motion in the cervical spine: Does the method of calculation matter? |
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