Standing sagittal alignment of the whole axial skeleton with reference to the gravity line in humans

被引:115
作者
Hasegawa, Kazuhiro [1 ]
Okamoto, Masashi [1 ]
Hatsushikano, Shun [1 ]
Shimoda, Haruka [1 ]
Ono, Masatoshi [1 ]
Homma, Takao [1 ]
Watanabe, Kei [2 ]
机构
[1] Niigata Spine Surg Ctr, 2-5-22 Nishi Machi, Niigata 9500165, Japan
[2] Niigata Univ Med & Dent Hosp, Dept Orthopaed Surg, Niigata, Japan
关键词
aging; force plate measurement; gravity line; sagittal whole body alignment; standing balance; SCOLIOSIS-RESEARCH-SOCIETY-22 PATIENT QUESTIONNAIRE; SPINAL DEFORMITY; RECIPROCAL ANGULATION; RADIOGRAPHIC ANALYSIS; ADULT VOLUNTEERS; VERTEBRAL BODIES; PLANE ALIGNMENT; BALANCE; PELVIS; PARAMETERS;
D O I
10.1111/joa.12586
中图分类号
R602 [外科病理学、解剖学]; R32 [人体形态学];
学科分类号
100123 [人体微生态学]; 100210 [外科学];
摘要
Human beings stand upright with the chain of balance beginning at the feet, progressing to the lower limbs (ankles, knees, hip joints, pelvis), each of the spinal segments, and then ending at the cranium to achieve horizontal gaze and balance using minimum muscle activity. The details of the alignment and balance of the chain, however, are not clearly understood, due to the lack of information regarding the three-dimensional (3D) orientation of all bony elements in relation to the gravity line (GL). We performed a clinical study to clarify the standing sagittal alignment of whole axial skeletons in reference to the GL using the EOS slot-scanning 3D X-ray imaging system with simultaneous force plate measurement in a healthy human population. The GL was defined as a vertical line drawn through the centre of vertical pressure measured by the force plate. The present study yielded a complete set of physiological alignment measurements of the standing axial skeleton from the database of 136 healthy subjects (a mean age of 39.7 years, 20-69 years; men: 40, women: 96). The mean offset of centre of the acoustic meati from the GL was 0.0 cm. The offset of the cervical and thoracic vertebrae was posterior to the GL with the apex of thoracic kyphosis at T7, 5.0 cm posterior to the GL. The sagittal alignment changed to lordosis at the level of L2. The apex of the lumbar lordosis was L4, 0.6 cm anterior to the GL, and the centre of the base of the sacrum (CBS) was just posterior to the GL. The hip axis (HA) was 1.4 cm anterior to the GL. The knee joint was 2.4 cm posterior and the ankle joint was 4.8 cm posterior to the GL. L4-, L5- and the CBS-offset in subjects in the age decades of 40s, 50s and 60s were significantly posterior to those of subjects in their 20s. The L5- and CBS-offset in subjects in their 50s and 60s were also significantly posterior to those in subjects in their 30s. HA was never posterior to the GL. In the global alignment, there was a positive correlation between offset of C7 vertebra from the sagittal vertical axis (a vertical line drawn through the posterior superior corner of the sacrum in the sagittal plane) and age, but no correlation was detected between thecentre of the acoustic meati-GL offset and age. Cervical lordosis (CL), pelvic tilt (PT), pelvic incidence, hipextension, knee flexion and ankle dorsiflexion increased significantly with age. Our results revealed thataging induces trunk stooping, but the global alignment is compensated for by an increase in the CL, PT and knee flexion, with the main function of CL and PT to maintain a horizontal gaze in a healthy population.
引用
收藏
页码:619 / 630
页数:12
相关论文
共 44 条
[1]
[Anonymous], 2004, REV RHUM, DOI [10.1016/j.rhum.2003.09.018, DOI 10.1016/J.RHUM.2003.09.018]
[2]
The reliability and concurrent validity of the Scoliosis Research Society-22 patient questionnaire for idiopathic scoliosis [J].
Asher, M ;
Lai, SM ;
Burton, D ;
Manna, B .
SPINE, 2003, 28 (01) :63-69
[3]
SEGMENTAL ANALYSIS OF THE SAGITTAL PLANE ALIGNMENT OF THE NORMAL THORACIC AND LUMBAR SPINES AND THORACOLUMBAR JUNCTION [J].
BERNHARDT, M ;
BRIDWELL, KH .
SPINE, 1989, 14 (07) :717-721
[4]
Analysis of the sagittal balance of the spine and pelvis using shape and orientation parameters [J].
Berthonnaud, E ;
Dimnet, JS ;
Roussouly, P ;
Labelle, H .
JOURNAL OF SPINAL DISORDERS & TECHNIQUES, 2005, 18 (01) :40-47
[5]
Sagittal alignment of spine and pelvis regulated by pelvic incidence:: standard values and prediction of lordosis [J].
Boulay, C ;
Tardieu, C ;
Hecquet, J ;
Benaim, C ;
Mouilleseaux, B ;
Marty, C ;
Prat-Pradal, D ;
Legaye, J ;
Duval-Beaupère, G ;
Pélissier, J .
EUROPEAN SPINE JOURNAL, 2006, 15 (04) :415-422
[6]
Computer-generated, three-dimensional spine model from biplanar radiographs: A validity study in idiopathic scoliosis curves greater than 50 degrees [J].
Carreau J.H. ;
Bastrom T. ;
Petcharaporn M. ;
Schulte C. ;
Marks M. ;
Illés T. ;
Somoskeöy S. ;
Newton P.O. .
Spine Deformity, 2014, 2 (2) :81-88
[7]
Scoliosis Research Society-22 Results in 3052 Healthy Adolescents Aged 10 to 19 Years [J].
Daubs, Michael D. ;
Hung, Man ;
Neese, Ashley ;
Hon, Shirley D. ;
Lawrence, Brandon D. ;
Patel, Alpesh A. ;
Annis, Prokopis ;
Smith, John ;
Brodke, Darrel S. .
SPINE, 2014, 39 (10) :826-832
[8]
Diagnostic Imaging of Spinal Deformities Reducing Patients Radiation Dose With a New Slot-Scanning X-ray Imager [J].
Deschenes, Sylvain ;
Charron, Guy ;
Beaudoin, Gilles ;
Labelle, Hubert ;
Dubois, Josee ;
Miron, Marie-Claude ;
Parent, Stefan .
SPINE, 2010, 35 (09) :989-994
[9]
Recruitment of Compensatory Mechanisms in Sagittal Spinal Malalignment Is Age and Regional Deformity Dependent A Full-Standing Axis Analysis of Key Radiographical Parameters [J].
Diebo, Bassel G. ;
Ferrero, Emmanuelle ;
Lafage, Renaud ;
Challier, Vincent ;
Liabaud, Barthelemy ;
Liu, Shian ;
Vital, Jean-Marc ;
Errico, Thomas J. ;
Schwab, Frank J. ;
Lafage, Virginie .
SPINE, 2015, 40 (09) :642-649
[10]
EOS System - New Imaging 2D and 3D for Musculo-Skeletal Physiology and Pathology with low radiation dose and standing position [J].
Dubousset, J. ;
Charpak, G. ;
Dorion, I. ;
Skalli, W. ;
Lavaste, F. ;
Deguise, J. ;
Kalifa, G. ;
Ferey, S. .
E-MEMOIRES DE L ACADEMIE NATIONALE DE CHIRURGIE, 2005, 4 (04) :22-27