Mechanical stability of the in vivo lumbar spine: implications for injury and chronic low back pain.
about
An optimization-based method for prediction of lumbar spine segmental kinematics from the measurements of thorax and pelvic kinematicsNeuromuscular response to cyclic lumbar twistingEffects of posture on dynamic back loading during a cable lifting taskEffects of load and posture on the recruitment of trunk musclesDeveloping physical exposure-based back injury risk models applicable to manual handling jobs in distribution centersDetecting dynamical boundaries from kinematic data in biomechanicsSpinal cord modularity: evolution, development, and optimization and the possible relevance to low back pain in manRole of reflex dynamics in spinal stability: intrinsic muscle stiffness alone is insufficient for stabilitySpine stability: the six blind men and the elephantRationale, design, and protocol for the prevention of low back pain in the military (POLM) trial (NCT00373009)Brief psychosocial education, not core stabilization, reduced incidence of low back pain: results from the Prevention of Low Back Pain in the Military (POLM) cluster randomized trialEvidence for pleiotropic factors in genetics of the musculoskeletal systemGenetics of the musculoskeletal system: a pleiotropic approachThe influence of lumbar extensor muscle fatigue on lumbar-pelvic coordination during weightliftingCocontraction of ankle dorsiflexors and transversus abdominis function in patients with low back pain.Influence of fatigue in neuromuscular control of spinal stability.Low-back biomechanics and static stability during isometric pushing.Learning about gravity: segmental assessment of upright control as infants develop independent sitting.Musculoskeletal Modeling of the Lumbar Spine to Explore Functional Interactions between Back Muscle Loads and Intervertebral Disk MultiphysicsA theoretical model for the development of a diagnosis-based clinical decision rule for the management of patients with spinal pain.The feasibility of measuring the activation of the trunk muscles in healthy older adults during trunk stability exercises.Injury prevention, performance and return to sport: How can science help?The effects of a three-week use of lumbosacral orthoses on trunk muscle activity and on the muscular response to trunk perturbations.Reliability of ultrasound measurement of automatic activity of the abdominal muscle in participants with and without chronic low back painEffect of spinal manipulation on the development of history-dependent responsiveness of lumbar paraspinal muscle spindles in the cat.Seat Pressure Distribution Characteristics During 1 Hour Sitting in Office Workers With and Without Chronic Low Back PainInter-rater agreement, sensitivity, and specificity of the prone hip extension test and active straight leg raise test.Inter-examiner reproducibility of tests for lumbar motor control.Architectural and morphological assessment of rat abdominal wall muscles: comparison for use as a human model.Surface electromyographic analysis of core trunk and hip muscles during selected rehabilitation exercises in the side-bridge to neutral spine positionTrunk Control Ability after Minimally Invasive Lumbar Fusion Surgery during the Early Postoperative Phase.The chop and lift reconsidered: integrating neuromuscular principles into orthopedic and sports rehabilitation.Sex differences in proximal control of the knee joint.Architectural analysis of human abdominal wall muscles: implications for mechanical functionLengthening but not shortening history of paraspinal muscle spindles in the low back alters their dynamic sensitivity.Characteristics of chronic non-specific musculoskeletal pain in children and adolescents attending a rheumatology outpatients clinic: a cross-sectional study.Diaphragm postural function analysis using magnetic resonance imaging.The clinical and biomechanical effects of fascial-muscular lengthening therapy on tight hip flexor patients with and without low back pain.Interday reliability of peak muscular power outputs on an isotonic dynamometer and assessment of active trunk control using the chop and lift tests.Interface stability influences torso muscle recruitment and spinal load during pushing tasks
P2860
Q23913716-30EB0310-4698-474B-95CE-F364FA5D814FQ23916917-9A4AE828-6774-42CA-86B4-DFEBDB0B20FEQ23921165-B2A03567-10F7-4822-998F-D51DB2D69E1EQ23921189-2F01960D-6023-46E7-B48F-AD66298552E8Q23921806-B1DB7526-23D4-4FDA-887B-B1451000C046Q28393333-6E45E4EA-5563-4BEB-88E4-318C24A99AB2Q28395121-83F4C36F-610A-4823-8399-1A761F68298BQ28395510-EA62FA4A-D9A1-44BF-983F-FD4A2801109BQ28395666-8FD85A53-6468-4DE6-AC1D-4A1E57991AF9Q28396919-9B4CDBAA-8E85-4788-A4B7-CE88850CB7E2Q28396937-1D68A596-BEA3-4B35-901F-7DD55CA701B5Q28603505-6D679647-8C04-4312-81FC-B86FD59FD9D8Q28732063-10D4DAB9-41B7-46E1-BE18-BE1BF48A6C99Q28950783-6E398C5F-50C3-4E9D-987D-3C140F900252Q30417926-3C717E9E-B847-4A59-AD55-5465AFF426CDQ30433562-7141DB01-D768-4B95-8184-31A82A0D66D2Q30445719-C011C500-A801-4BD2-8AA7-CF35C31A5DB3Q30532211-E6806E69-8DF0-4188-8B06-69BAB0469ADFQ30659937-EA0BC90A-C0D8-40F1-A6B3-3407E35CC15AQ33293414-4365C207-0AEE-4ABE-995E-EEA339BE225FQ33389605-8C128D43-FE5F-4F0D-BAB4-167D08AD8DE5Q33567957-2FAB77DA-C81A-4D1A-BF8E-6ABE2AB79FC3Q33627045-E8EF3FCE-5B1D-4369-AC3F-290B30F21939Q33644496-4C4F519E-96BD-4BED-A67B-44835F8CEBA8Q33709478-B12191F3-15B9-4EB7-9C28-4B024BAD20F0Q33735940-17198C37-EBD3-41AB-BC03-5C48CA52BB22Q33823815-4852D969-259D-4609-9A66-75DA7A67EAEDQ33911864-E017A6E4-F7EF-4D2C-9D06-3875404A5B00Q34057776-98288244-34E6-43D7-99DE-FB765FF54B82Q34064743-F6F05AFE-1B3C-43CF-9C00-CD1AC05F868EQ34136714-15C20DE0-110B-487F-A8B5-C2F92D68DECFQ34191178-5A111417-5D71-4F73-8868-4C27848E490AQ34460593-32769963-4DE7-4DEA-9BD3-D29D5735F09CQ34474821-BEAF695A-F009-49C2-93FE-C8260CB23B4AQ34502612-95B39B38-91AA-468F-9D82-37F406B2206FQ34556108-57947D39-16BE-4843-9FDB-3B4DCFB72235Q34629304-6FABB1C1-A885-4377-8A96-F691D68C98ABQ34675407-1EF25992-D195-48F7-AF10-A5BC66BD7ED4Q34760398-8A3D0B59-7023-499A-B149-A78CA1C257D0Q35121671-DF1CF78B-1CA7-4CFB-AA07-8CA72C9051C7
P2860
Mechanical stability of the in vivo lumbar spine: implications for injury and chronic low back pain.
description
1996 nî lūn-bûn
@nan
1996年の論文
@ja
1996年学术文章
@wuu
1996年学术文章
@zh
1996年学术文章
@zh-cn
1996年学术文章
@zh-hans
1996年学术文章
@zh-my
1996年学术文章
@zh-sg
1996年學術文章
@yue
1996年學術文章
@zh-hant
name
Mechanical stability of the in ...... ury and chronic low back pain.
@en
Mechanical stability of the in ...... ury and chronic low back pain.
@nl
type
label
Mechanical stability of the in ...... ury and chronic low back pain.
@en
Mechanical stability of the in ...... ury and chronic low back pain.
@nl
prefLabel
Mechanical stability of the in ...... ury and chronic low back pain.
@en
Mechanical stability of the in ...... ury and chronic low back pain.
@nl
P1476
Mechanical stability of the in ...... ury and chronic low back pain.
@en
P2093
J Cholewicki
S M McGill
P356
10.1016/0268-0033(95)00035-6
P577
1996-01-01T00:00:00Z