Literature DB >> 30552414

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

Seungwoo Cha1, Jae-Hyun Yun1, Youho Myong1, Hyung-Ik Shin2.   

Abstract

STUDY
DESIGN: Cross-sectional
OBJECTIVE: To investigate the association between skeletal muscle mass and spasticity in people with spinal cord injury (SCI).
SETTING: Tertiary level hospital in Seoul, Korea
METHODS: Spasticity was evaluated in 69 participants with SCI using the spasticity sum score (SSS), Penn Spasm Frequency Scale (PSFS), and Spinal Cord Assessment Tool for Spastic Reflexes (SCATS). Skeletal muscle mass was measured using a dual-energy X-ray absorptiometry scanner, and skeletal muscle index was calculated by dividing skeletal muscle mass by height squared. Laboratory parameters including hemoglobin, albumin, creatinine, fasting glucose, and cholesterol were measured. Spearman's correlation analysis was performed to assess the association between the skeletal muscle mass and spasticity scales. Multiple linear regression analysis was used to present the independent association between them.
RESULTS: The participants' mean age was 41.8 years; 54 (78.3%) were male, and 46 (66.7%) were tetraplegic. Skeletal muscle index of lower extremities was significantly correlated with all spasticity scales. Spearman's correlation coefficients were 0.468, 0.467, 0.555, 0.506, and 0.474 for SSS, PSFS, SCATS clonus, SCATS flexor, and SCATS extensor with p-values < 0.001, respectively. After adjustment for age, sex, level of injury, body mass index, and serum creatinine, all spasticity scales were significantly associated with skeletal muscle index of lower extremities in multiple regression analysis. Standardized coefficients were 0.228, 0.274, 0.294, 0.210, and 0.227 for SSS, PSFS, SCATS clonus, SCATS flexor, and SCATS extensor.
CONCLUSIONS: Spasticity was significantly correlated with the skeletal muscle mass even after adjusting for possible confounders. Spasticity may need to be considered as an influencing factor in interventions such as electrical stimulation to preserve skeletal muscle mass.

Entities:  

Mesh:

Year:  2018        PMID: 30552414     DOI: 10.1038/s41393-018-0228-2

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


  34 in total

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2.  Spasticity after traumatic spinal cord injury: nature, severity, and location.

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Review 3.  The effects of exercise training on physical capacity, strength, body composition and functional performance among adults with spinal cord injury: a systematic review.

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Review 4.  Spasticity after spinal cord injury.

Authors:  M M Adams; A L Hicks
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5.  Relationship of spasticity to soft tissue body composition and the metabolic profile in persons with chronic motor complete spinal cord injury.

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7.  Bedside quantification of fat-free mass in acute spinal cord injury using bioelectrical impedance analysis: a psychometric study.

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Review 8.  Epidemiology of sarcopenia and insight into possible therapeutic targets.

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9.  Influence of complete spinal cord injury on skeletal muscle within 6 mo of injury.

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10.  Muscle atrophy is prevented in patients with acute spinal cord injury using functional electrical stimulation.

Authors:  J C Baldi; R D Jackson; R Moraille; W J Mysiw
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1.  Hellenic Spinal Cord Section of the Hellenic Society of Physical and Rehabilitation Medicine National Congress 2019, "Healthy, and long living after SCI" Proceedings. 13th-15th December 2019, Vellideio, Thessaloniki, Greece.

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Review 2.  Spinal Cord Injury as a Model of Bone-Muscle Interactions: Therapeutic Implications From in vitro and in vivo Studies.

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3.  The effects of spasticity on glucose metabolism and soft tissue body composition in patients with spinal cord injury.

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4.  Reduction in post-spinal cord injury spasticity by combination of peripheral nerve grafting and acidic fibroblast growth factor infusion in monkeys.

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