Literature DB >> 26345485

Does early exercise attenuate muscle atrophy or bone loss after spinal cord injury?

M G Panisset1, M P Galea1, D El-Ansary2.   

Abstract

OBJECTIVES: To systematically identify and assess the evidence on the efficacy of exercise initiated early after traumatic spinal cord injury (SCI).
METHODS: A comprehensive search (Any-2014) of eleven databases identified studies evaluating exercise interventions initiated within 12 weeks after SCI on muscle and bone loss in paralyzed limbs and comparing with standard care or immobilization. Two reviewers assessed methodological quality. One reviewer extracted data and critiqued results according to the Spinal Cord Injury Rehabilitation Evidence body of evidence framework.
RESULTS: A total of 2811 titles were screened. Eleven studies were included: five randomized controlled trials, four cohort studies and two within-subject control studies. All provided level II evidence with a moderate risk of bias. Two studies found significant positive effects of high-load FES-resisted stance on physiological measures of muscle. Three reported positive effects of 3 months of Functional Electrical Stimulation (FES) on muscle size. Two studies found positive effects of 6-month body-weight supported treadmill training or FES on trabecular bone using pQCT.
CONCLUSION: We found consistent evidence of positive effects of early exercise on muscle, possibly related to load intensity of the protocol. However, the heterogeneity of interventions and outcomes makes this determination speculative. Evidence for the effectiveness of early exercise on bone is scant and confined to measures of trabecular bone mineral density via pQCT. Transparent reporting of methods and variability of data, combined with standardization of valid and sensitive measures of muscle atrophy and bone loss, could facilitate future meta-analysis on this topic.

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Year:  2015        PMID: 26345485     DOI: 10.1038/sc.2015.150

Source DB:  PubMed          Journal:  Spinal Cord        ISSN: 1362-4393            Impact factor:   2.772


  44 in total

1.  Influence of complete spinal cord injury on skeletal muscle cross-sectional area within the first 6 months of injury.

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2.  Rapid and extensive arterial adaptations after spinal cord injury.

Authors:  Patricia C de Groot; Michiel W Bleeker; Dirk H van Kuppevelt; Luc H van der Woude; Maria T Hopman
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3.  Reliability of the PEDro scale for rating quality of randomized controlled trials.

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Review 4.  Spinal cord injury: a systematic review of current treatment options.

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Review 5.  Guidelines for the conduct of clinical trials for spinal cord injury as developed by the ICCP panel: clinical trial design.

Authors:  D Lammertse; M H Tuszynski; J D Steeves; A Curt; J W Fawcett; C Rask; J F Ditunno; M G Fehlings; J D Guest; P H Ellaway; N Kleitman; A R Blight; B H Dobkin; R Grossman; H Katoh; A Privat; M Kalichman
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6.  The feasibility of creating a checklist for the assessment of the methodological quality both of randomised and non-randomised studies of health care interventions.

Authors:  S H Downs; N Black
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7.  Low-frequency H-reflex depression in trained human soleus after spinal cord injury.

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8.  Effects of electrical stimulation leg training during the acute phase of spinal cord injury: a pilot study.

Authors:  R M Crameri; A R Weston; S Rutkowski; J W Middleton; G M Davis; J R Sutton
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Review 9.  Exercise recommendations for individuals with spinal cord injury.

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10.  Synergistic effects of BDNF and rehabilitative training on recovery after cervical spinal cord injury.

Authors:  N Weishaupt; S Li; A Di Pardo; S Sipione; K Fouad
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  17 in total

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2.  Spasticity and preservation of skeletal muscle mass in people with spinal cord injury.

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3.  Lessons learned from the pilot study of an orthostatic hypotension intervention in the subacute phase following spinal cord injury.

Authors:  Bastien Moineau; Andrea Brown; Louise Brisbois; Vera Zivanovic; Masae Miyatani; Naaz Kapadia; Jane T C Hsieh; Milos R Popovic
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4.  Bedside quantification of fat-free mass in acute spinal cord injury using bioelectrical impedance analysis: a psychometric study.

Authors:  Maya G Panisset; Kate Desneves; Leigh C Ward; Jillian Rafferty; Helena Rodi; Geoff Roff; Doa El-Ansary; Mary P Galea
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5.  Anthropometric and biomechanical characteristics of body segments in persons with spinal cord injury.

Authors:  Y Fang; L R Morse; N Nguyen; N G Tsantes; K L Troy
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6.  Locomotor training with adjuvant testosterone preserves cancellous bone and promotes muscle plasticity in male rats after severe spinal cord injury.

Authors:  Joshua F Yarrow; Hui Jean Kok; Ean G Phillips; Christine F Conover; Jimmy Lee; Taylor E Bassett; Kinley H Buckley; Michael C Reynolds; Russell D Wnek; Dana M Otzel; Cong Chen; Jessica M Jiron; Zachary A Graham; Christopher Cardozo; Krista Vandenborne; Prodip K Bose; Jose Ignacio Aguirre; Stephen E Borst; Fan Ye
Journal:  J Neurosci Res       Date:  2019-12-04       Impact factor: 4.164

Review 7.  Role of physiotherapy in the mobilization of patients with spinal cord injury undergoing human embryonic stem cells transplantation.

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8.  Early electrical field stimulation prevents the loss of spinal cord anterior horn motoneurons and muscle atrophy following spinal cord injury.

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9.  Effective robotic assistive pattern of treadmill training for spinal cord injury in a rat model.

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10.  Quantitative ultrasound imaging of intrinsic hand muscles after traumatic cervical spinal cord injury.

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Journal:  Spinal Cord       Date:  2021-06-25       Impact factor: 2.772

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