Why do spinal manipulation techniques take the form they do? Towards a general model of spinal manipulation

被引:17
作者
Evans, David W. [1 ]
机构
[1] British Sch Osteopathy, Res Ctr, London SE1 1JE, England
关键词
Spinal manipulation; Biomechanics; Kinematics; ZYGAPOPHYSEAL JOINT ORIENTATION; BILATERAL FACET DISLOCATIONS; OF-THE-LITERATURE; LOW-BACK-PAIN; LUMBAR SPINE; CERVICAL-SPINE; THORACOLUMBAR JUNCTION; ANTERIOR MOBILIZATION; HUMAN-SKIN; MECHANICAL FUNCTION;
D O I
10.1016/j.math.2009.03.006
中图分类号
R49 [康复医学];
学科分类号
100232 [康复医学];
摘要
For centuries, techniques used to manipulate joints in the spine have been passed down from one generation of manipulators to the next. Today, spinal manipulation is in the curious position that positive clinical effects have now been demonstrated, yet the theoretical base underpinning every aspect of its use is still underdeveloped. An important question is posed in this masterclass: why do spinal manipulation techniques take the form they do? From the available literature, two factors appear to provide an answer: 1. Action of a force upon vertebrae. Any 'direct' spinal manipulation technique requires that the patient be orientated in such a way that force is applied perpendicular to the overlying skin surface so as to act upon the vertebrae beneath. If the vertebral motion produced by 'directly' applied force is insufficient to produce the desired effect (e.g. cavitation), then force must be applied 'indirectly', often through remote body segments such as the head, thorax, abdomen, pelvis, and extremities. 2. Spinal segment morphology. A new hypothesis is presented. Spinal manipulation techniques exploit the morphology of vertebrae by inducing rotation at a spinal segment, about an axis that is always parallel to the articular surfaces of the constituent zygapophysial joints. In doing so, the articular surfaces of one zygapophysial joint appose to the point of contact, resulting in migration of the axis of rotation towards these contacting surfaces, and in turn this facilitates gapping of the other (target) zygapophysial joint. Other variations in the form of spinal manipulation techniques are likely to depend upon the personal style and individual choices of the practitioner. (C) 2009 Elsevier Ltd. All rights reserved.
引用
收藏
页码:212 / 219
页数:8
相关论文
共 79 条
[1]
BIOMECHANICAL EVALUATION OF LUMBAR SPINAL STABILITY AFTER GRADED FACETECTOMIES [J].
ABUMI, K ;
PANJABI, MM ;
KRAMER, KM ;
DURANCEAU, J ;
OXLAND, T ;
CRISCO, JJ .
SPINE, 1990, 15 (11) :1142-1147
[2]
THE MECHANICAL FUNCTION OF THE LUMBAR APOPHYSEAL JOINTS [J].
ADAMS, MA ;
HUTTON, WC .
SPINE, 1983, 8 (03) :327-330
[3]
THE RELEVANCE OF TORSION TO THE MECHANICAL DERANGEMENT OF THE LUMBAR SPINE [J].
ADAMS, MA ;
HUTTON, WC .
SPINE, 1981, 6 (03) :241-248
[4]
ACCOUNTING FOR NATURAL TENSION IN MECHANICAL TESTING OF HUMAN-SKIN [J].
ALEXANDER, H ;
COOK, TH .
JOURNAL OF INVESTIGATIVE DERMATOLOGY, 1977, 69 (03) :310-314
[5]
Anderson R., 1992, Perimetry With and Without Automation, V2nd, P3
[6]
[Anonymous], 1994, GRIEVES MODERN MANUA
[7]
Spinal manipulative therapy for low back pain - A meta-analysis of effectiveness relative to other therapies [J].
Assendelft, WJJ ;
Morton, SC ;
Yu, EI ;
Suttorp, MJ ;
Shekelle, PG .
ANNALS OF INTERNAL MEDICINE, 2003, 138 (11) :871-881
[8]
Bartol K.M., 1995, Foundations of Chiropractic Subluxation, P87
[9]
The frictional properties at the thoracic skin-fascia interface: implications in spine manipulation [J].
Bereznick, DE ;
Ross, JK ;
McGill, SM .
CLINICAL BIOMECHANICS, 2002, 17 (04) :297-303
[10]
BEREZNICK DE, 2005, THESIS U WATERLOO ON