Investigate the effects of exercise training on the cardiopulmonary function and exercise capacity in diabetes mellitus with heart failure.
This research intends to explore the effects of exercise training on the cardiopulmonary function and exercise tolerance of heart failure patients with diabetes mellitus. In addition to the impaired cardiac function, the clinical manifestations of patients with heart failure also shown the inefficiency of pulmonary function, peripheral vascular function, and musculoskeletal system. Due to low exercise tolerance, functional activities and quality of life are impaired. With the high hospitalization rate and high mortality rate, the clinical treatment of heart failure is challenging. At present, exercise has been listed in the guidelines for the treatment of heart failure, and is recommended that patients with heart failure should take regular aerobic exercise training to maintain functional activity and reduce symptoms. Past studies have also suggested that exercise training can help reduce the risk factors of cardiovascular disease and improve part of the cardiovascular function. Furthermore, exercise can improve the quality of life and reduce the hospitalization rate. Although diabetes is a common comorbidity of heart failure, and is a poor prognostic factor that increases the overall risk of heart failure and cardiovascular death, there are few studies in the past to further explore the benefits of exercise training for diabetes with heart failure, although current studies have confirmed that regular exercise can effectively control diabetes. However, the cardiopulmonary function and exercise tolerance of exercise training for diabetes with heart failure still need to be clarified. Therefore, this study aims to investigated the effect of cardiopulmonary function and exercise tolerance in patients with heart failure. The study participants were divided into two groups: usual care group and exercise group. Exercise training involved last for twelve weeks, and then follow up until the sixth week after exercise training. The results of the study are expected to be applied to clinical heart failure rehabilitation. It is expected that through active cardiopulmonary rehabilitation combined with precise and personalized exercise prescriptions, it will prevent deterioration of heart failure and may help improve the clinical practice of heart failure.
Study Type
INTERVENTIONAL
Allocation
RANDOMIZED
Purpose
SUPPORTIVE_CARE
Masking
NONE
Enrollment
80
The Muti-model exercise intervention include aerobic exercise training by ergometer or treadmill, resistance exercise by using elastic band and flexibility exercise by active stretch. The total training program takes for 60 minutes, 2-3 times per week for 3 months.
The participants will be provided by educational program about heart failure self-care and home-based exercise approach.
National Cheng Kung University
Tainan, Taiwan
RECRUITINGNT-proBNP
N-terminal pro-brain natriuretic peptide
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
NT-proBNP
N-terminal pro-brain natriuretic peptide
Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
NT-proBNP
N-terminal pro-brain natriuretic peptide
Time frame: Change from baseline (0 week) to follow up (24 weeks)
Oxygen consumption (VO2)
Oxygen consumption examined by cardiopulmonary exercise test
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
Oxygen consumption (VO2)
Oxygen consumption examined by cardiopulmonary exercise test
Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
Oxygen consumption (VO2)
Oxygen consumption examined by cardiopulmonary exercise test
Time frame: Change from baseline (0 week) to follow up (24 weeks)
Quality of life score (Minnesota Living With Heart Failure Questionnaire)
Heart Failure Questionnaire
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
Quality of life score (Minnesota Living With Heart Failure Questionnaire)
Heart Failure Questionnaire
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Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
Quality of life score (Minnesota Living With Heart Failure Questionnaire)
Heart Failure Questionnaire
Time frame: Change from baseline (0 week) to follow up (24 weeks)
FEV1/FVC
Pulmonary function test
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
FEV1/FVC
Pulmonary function test
Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
FEV1/FVC
Pulmonary function test
Time frame: Change from baseline (0 week) to follow up (24 weeks)
MIP (maximal inspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
MIP (maximal inspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
MIP (maximal inspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to follow up (24 weeks)
MEP (maximal exspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to mid-intervention (6 weeks)
MEP (maximal exspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to post-intervention (12 weeks)
MEP (maximal exspiratory pressure)
Inspiratory muscle function assessed by pressure meter
Time frame: Change from baseline (0 week) to follow up (24 weeks)