| Literature DB >> 28316986 |
Zhenzhen Qiu1, Kai Zheng2, Haoxiang Zhang3, Ji Feng4, Lizhi Wang5, Hao Zhou6.
Abstract
Chronic renal failure is a severe clinical problem which has some significant socioeconomic impact worldwide and hemodialysis is an important way to maintain patients' health state, but it seems difficult to get better in short time. Considering these, the aim in our research is to update and evaluate the effects of exercise on the health of patients with chronic renal failure. The databases were used to search for the relevant studies in English or Chinese. And the association between physical exercise and health state of patients with chronic renal failure has been investigated. Random-effect model was used to compare the physical function and capacity in exercise and control groups. Exercise is helpful in ameliorating the situation of blood pressure in patients with renal failure and significantly reduces VO2 in patients with renal failure. The results of subgroup analyses show that, in the age >50, physical activity can significantly reduce blood pressure in patients with renal failure. The activity program containing warm-up, strength, and aerobic exercises has benefits in blood pressure among sick people and improves their maximal oxygen consumption level. These can help patients in physical function and aerobic capacity and may give them further benefits.Entities:
Mesh:
Year: 2017 PMID: 28316986 PMCID: PMC5337868 DOI: 10.1155/2017/7191826
Source DB: PubMed Journal: Biomed Res Int Impact factor: 3.411
Figure 1Flow diagram of the study selection.
Characteristics of RCT studies included in the meta-analysis.
| Study | Year | Country | Period | Groups | Sampling Size | Age | Renal Failure Confirmation | Matching |
|---|---|---|---|---|---|---|---|---|
| Molsted et al. | 2004 | Denmark | 1991–2000 | Exercise | 11 | 59 | Medical records | Age, sex |
| Control | 9 | 48 | ||||||
| Henrique et al. | 2010 | Brazil | 2003–2005 | Exercise | 7 | 47.6 | Pathologically confirmed | Age |
| Control | 7 | 42.5 | ||||||
| Greenwood et al. | 2015 | UK | 2010–2012 | Exercise | 8 | 53.8 | Medical records | Age, sex |
| Control | 10 | 53.3 | ||||||
| Svarstad et al. | 2002 | Norway | 1998–2000 | Exercise | 7 | 50 | Medical records | Age |
| Control | 8 | 31 | ||||||
| Messonnier et al. | 2012 | France | 2008–2010 | Exercise | 11 | 26.4 | Pathologically confirmed | Age, sex |
| Control | 11 | 25.3 | ||||||
| McMahon et al. | 1999 | Australia | 1996–1998 | Exercise | 5 | 58 | Pathologically confirmed | Age, income |
| Control | 9 | 34 | ||||||
| Cupisti et al. | 2004 | Italy | 1995–2002 | Exercise | 28 | 46 | Medical records | Age, sex |
| Control | 28 | 43 | ||||||
| Cho and Sohng | 2014 | Korea | 2000–2012 | Exercise | 23 | 60.8 | Pathologically confirmed | Age, sex |
| Control | 23 | 57.7 | ||||||
| Li et al. | 2012 | China | 1995–2011 | Exercise | 25 | 24.24 | Medical records | Age |
| Control | 25 | 22.12 |
Figure 2A forest plot for blood pressure of patients with chronic renal failure.
Figure 3A forest plot for maximal oxygen consumption of patients with chronic renal failure.
Figure 4A forest plot for the subgroup analyses of blood pressure in patients with chronic renal failure based on their age.
Figure 5A forest plot for the subgroup analyses of maximal oxygen consumption in patients with chronic renal failure based on their age.
Figure 6A forest plot of the subgroup analyses of blood pressure in patients with chronic renal failure for sensitivity test.
Figure 7A funnel plot for blood pressure and maximal oxygen consumption in patients with chronic renal failure.