Whole body vibration exercise training for fibromyalgia

被引:29
|
作者
Bidonde, Julia [1 ]
Busch, Angela J. [2 ]
van der Spuy, Ina [2 ]
Tupper, Susan [3 ]
Kim, Soo Y. [2 ]
Boden, Catherine [4 ]
机构
[1] Norwegian Inst Publ Hlth, POB 4404 Nydalen, N-0403 Oslo, Norway
[2] Univ Saskatchewan, Sch Phys Therapy, Saskatoon, SK, Canada
[3] Saskatoon Hlth Reg, Saskatoon, SK, Canada
[4] Univ Saskatchewan, Univ Lib, Leslie & Irene Dube Hlth Sci Lib, Saskatoon, SK, Canada
关键词
RANDOMIZED CONTROLLED-TRIAL; QUALITY-OF-LIFE; STYLE PHYSICAL-ACTIVITY; COGNITIVE-BEHAVIORAL THERAPY; WATER DECREASES PAIN; POOL-BASED EXERCISE; SKIN BLOOD-FLOW; FACTOR-I LEVELS; AEROBIC EXERCISE; FUNCTIONAL-CAPACITY;
D O I
10.1002/14651858.CD011755.pub2
中图分类号
R5 [内科学];
学科分类号
1002 ; 100201 ;
摘要
Background Exercise training is commonly recommended for adults with fibromyalgia. We defined whole body vibration (WBV) exercise as use of a vertical or rotary oscillating platform as an exercise stimulus while the individual engages in sustained static positioning or dynamic movements. The individual stands on the platform, and oscillations result in vibrations transmitted to the subject through the legs. This review is one of a series of reviews that replaces the first review published in 2002. Objectives To evaluate benefits and harms of WBV exercise training in adults with fibromyalgia. Search methods We searched the Cochrane Library, MEDLINE, Embase, CINAHL, PEDro, Thesis and Dissertation Abstracts, AMED, WHOICTRP, and ClinicalTrials. gov up to December 2016, unrestricted by language, to identify potentially relevant trials. Selection criteria We included randomized controlled trials (RCTs) in adults with the diagnosis of fibromyalgia based on published criteria including a WBV intervention versus control or another intervention. Major outcomes were health-related quality of life (HRQL), pain intensity, stiffness, fatigue, physical function, withdrawals, and adverse events. Data collection and analysis Two review authors independently selected trials for inclusion, extracted data, performed risk of bias assessments, and assessed the quality of evidence for major outcomes using the GRADE approach. We used a 15% threshold for calculation of clinically relevant differences. Main results We included four studies involving 150 middle-aged female participants from one country. Two studies had two treatment arms (71 participants) that compared WBV plus mixed exercise plus relaxation versus mixed exercise plus relaxation and placebo WBV versus control, and WBV plus mixed exercise versus mixed exercise and control; two studies had three treatment arms (79 participants) that compared WBV plus mixed exercise versus control and mixed relaxation placebo WBV. We judged the overall risk of bias as low for selection (random sequence generation), detection (objectively measured outcomes), attrition, and other biases; as unclear for selection bias (allocation concealment); and as high for performance, detection (self-report outcomes), and selective reporting biases. The WBV versus control comparison reported on three major outcomes assessed at 12 weeks post intervention based on the Fibromyalgia Impact Questionnaire (FIQ) (0 to 100 scale, lower score is better). Results for HRQL in the control group at end of treatment (59.13) showed a mean difference (MD) of -3.73 (95% confidence interval [CI] -10.81 to 3.35) for absolute HRQL, or improvement of 4% (11% better to 3% worse) and relative improvement of 6.7% (19.6% better to 6.1% worse). Results for withdrawals indicate that 14 per 100 and 10 per 100 in the intervention and control groups, respectively, withdrew from the intervention (RR 1.43, 95% CI 0.27 to 7.67; absolute change 4%, 95% CI 16% fewer to 24% more; relative change 43% more, 95% CI 73% fewer to 667% more). The only adverse event reported was acute pain in the legs, for which one participant dropped out of the program. We judged the quality of evidence for all outcomes as very low. This study did not measure pain intensity, fatigue, stiffness, or physical function. No outcomes in this comparison met the 15% threshold for clinical relevance. The WBV plus mixed exercise (aerobic, strength, flexibility, and relaxation) versus control study (N = 21) evaluated symptoms at six weeks post intervention using the FIQ. Results for HRQL at end of treatment (59.64) showed an MD of -16.02 (95% CI -31.57 to -0.47) for absolute HRQL, with improvement of 16% (0.5% to 32%) and relative change in HRQL of 24% (0.7% to 47%). Data showed a pain intensity MD of -28.22 (95% CI -43.26 to -13.18) for an absolute difference of 28% (13% to 43%) and a relative change of 39% improvement (18% to 60%); as well as a fatigue MD of -33 (95% CI -49 to -16) for an absolute difference of 33% (16% to 49%) and relative difference of 47% (95% CI 23% to 60%); and a stiffness MD of -26.27 (95% CI -42.96 to -9.58) for an absolute difference of 26% (10% to 43%) and a relative difference of 36.5% (23% to 60%). All-cause withdrawals occurred in 8 per 100 and 33 per 100 withdrawals in the intervention and control groups, respectively (two studies, N = 46; RR 0.25, 95% CI 0.06 to 1.12) for an absolute risk difference of 24% (3% to 51%). One participant exhibited a mild anxiety attack at the first session of WBV. No studies in this comparison reported on physical function. Several outcomes (based on the findings of one study) in this comparison met the 15% threshold for clinical relevance: HRQL, pain intensity, fatigue, and stiffness, which improved by 16%, 39%, 46%, and 36%, respectively. We found evidence of very low quality for all outcomes. The WBV plus mixed exercise versus other exercise provided very lowquality evidence for all outcomes. Investigators evaluated outcomes on a 0 to 100 scale (lower score is better) for pain intensity (one study, N = 23; MD -16.36, 95% CI -29.49 to -3.23), HRQL (two studies, N = 49; MD -6.67, 95% CI -14.65 to 1.31), fatigue (one study, N = 23; MD -14.41, 95% CI -29.47 to 0.65), stiffness (one study, N = 23; MD -12.72, 95% CI -26.90 to 1.46), and all-cause withdrawal (three studies, N = 77; RR 0.72, 95% CI -0.17 to 3.11). Adverse events reported for the three studies included one anxiety attack at the first session of WBV and one dropout from the comparison group ("other exercise group") due to an injury that was not related to the program. No studies reported on physical function. Authors' conclusions Whether WBV or WBV in addition to mixed exercise is superior to control or another intervention for women with fibromyalgia remains uncertain. The quality of evidence is very low owing to imprecision (few study participants and wide confidence intervals) and issues related to risk of bias. These trials did not measure major outcomes such as pain intensity, stiffness, fatigue, and physical function. Overall, studies were few and were very small, which prevented meaningful estimates of harms and definitive conclusions about WBV safety.
引用
收藏
页数:95
相关论文
共 50 条
  • [31] Strength training effects of whole-body vibration?
    Nordlund, M. M.
    Thorstensson, A.
    SCANDINAVIAN JOURNAL OF MEDICINE & SCIENCE IN SPORTS, 2007, 17 (01) : 12 - 17
  • [32] Effect of a combination of whole body vibration exercise and squat training on body balance, muscle power, and walking ability in the elderly
    Osugi, Tomohiro
    Iwamoto, Jun
    Yamazaki, Michio
    Takakuwa, Masayuki
    THERAPEUTICS AND CLINICAL RISK MANAGEMENT, 2014, 10 : 131 - 138
  • [33] Whole-body vibration exercise training reduces arterial stiffness in postmenopausal women with prehypertension and hypertension
    Figueroa, Arturo
    Kalfon, Roy
    Madzima, Takudzwa A.
    Wong, Alexei
    MENOPAUSE-THE JOURNAL OF THE NORTH AMERICAN MENOPAUSE SOCIETY, 2014, 21 (02): : 131 - 136
  • [34] Whole body vibration is a safe exercise training method and induces no impaired alterations on rat plasma parameters
    Naghii, M. R.
    Ghanizadeh, G.
    Darvishi, P.
    Ebrahimpour, Y.
    Mofid, M.
    Torkaman, G.
    Asgari, A. R.
    Hedayati, M.
    ACTA PHYSIOLOGICA HUNGARICA, 2011, 98 (04) : 442 - 448
  • [35] Cross-training effect of chronic whole-body vibration exercise: a randomized controlled study
    Aydin, Tugba
    Kesiktas, Fatma Nur
    Baskent, Akin
    Karan, Ayse
    Karacan, Ilhan
    Turker, Kemal S.
    SOMATOSENSORY AND MOTOR RESEARCH, 2020, 37 (02): : 51 - 58
  • [36] Effects of whole body vibration therapy in pain, function and depression of the patients with fibromyalgia
    Alev, Alp
    Mihriban, Adali
    Bilge, Efe
    Ayca, Elyildirim
    Merve, Karabulut
    Seyma, Coskun
    Ugur, Ertem
    Adnan, Bilgic
    zeynel, Karakullukcuoglu
    Mahmut, Gunay Selim
    COMPLEMENTARY THERAPIES IN CLINICAL PRACTICE, 2017, 28 : 200 - 203
  • [37] The Influence of Posture on Transmission and Absorption of Vibration Energy in Whole Body Vibration Exercise
    Berschin, G.
    Sommer, H. -M.
    SPORTVERLETZUNG-SPORTSCHADEN, 2010, 24 (01) : 36 - 39
  • [38] The effect of a 6-week exercise programme and whole body vibration on strength and quality of life in women with fibromyalgia: a randomised study
    Sanudo, B.
    de Hoyo, M.
    Carrasco, L.
    McVeigh, J. G.
    Corral, J.
    Cabeza, R.
    Rodriguez, C.
    Oliva, A.
    CLINICAL AND EXPERIMENTAL RHEUMATOLOGY, 2010, 28 (06) : S40 - S45
  • [39] Effects of Whole Body Vibration Exercise on Body Weight and Body Composition in Young Adults
    Yoo, Jung Hoon
    Joh, Hee Kyung
    Do, Hyun Jin
    Oh, Seung Won
    Lym, Youl Lee
    Choi, Jae Kyung
    Kweon, Hyuk Jung
    Cho, Dong Yung
    KOREAN JOURNAL OF FAMILY MEDICINE, 2009, 30 (02): : 112 - 119
  • [40] Neuromuscular fatigue induced by whole-body vibration exercise
    Nicola A. Maffiuletti
    Jonas Saugy
    Marco Cardinale
    Jean-Paul Micallef
    Nicolas Place
    European Journal of Applied Physiology, 2013, 113 : 1625 - 1634