Spinal Cord Injuries Clinical Trial
Official title:
Respiratory Muscle Training to Improve Functional Capacity and Prevent Respiratory Complications in Adults With Spinal Cord Injury
The purpose of this study is to investigate the effectiveness of a programme based on inspiratory and expiratory muscle training to improve respiratory muscle strength, functional capacity and avoid pulmonary complications in adults with cervical or high dorsal spinal cord injury (C5-D5) in acute phase.
Status | Recruiting |
Enrollment | 112 |
Est. completion date | December 30, 2023 |
Est. primary completion date | December 30, 2023 |
Accepts healthy volunteers | No |
Gender | All |
Age group | 18 Years and older |
Eligibility | Inclusion Criteria: - People diagnosed with spinal cord injury. - Over 18 years of age. - Time of evolution less than 6 months and at least 4 weeks after the date of injury. - Level of lesion between C5 and D5 and degree of involvement A or B. In case of involvement A with partial preservation zone this should not include abdominal musculature according to the international standardised classification of the American Spinal Injury Association. Exclusion Criteria: - People with chest trauma. - Mechanically ventilated. - Pregnant women. - Any medical or psychiatric condition that could affect the ability to complete the study. - Carrying a tracheostomy tube that does not tolerate occlusion. - People who can not sit upright. |
Country | Name | City | State |
---|---|---|---|
Spain | Sara Reina Gutiérrez | Toledo |
Lead Sponsor | Collaborator |
---|---|
University of Castilla-La Mancha | Hospital Nacional de Parapléjicos de Toledo |
Spain,
Type | Measure | Description | Time frame | Safety issue |
---|---|---|---|---|
Primary | Change in maximal expiratory pressure | The measurement of maximum static respiratory pressures will consist of performing maximum forced inspiration and expiration manoeuvres against an occluded airway in order to measure the pressure generated in the mouth, using a manometer or a pressure transducer, since, with the glottis open, the pressure in the mouth must be equal to the alveolar pressure. | Change after 6 weeks of intervention compared to baseline | |
Primary | Change in maximal inspiratory pressure | The measurement of maximum static respiratory pressures will consist of performing maximum forced inspiration and expiration manoeuvres against an occluded airway in order to measure the pressure generated in the mouth, using a manometer or a pressure transducer, since, with the glottis open, the pressure in the mouth must be equal to the alveolar pressure. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in forced vital capacity (FVC) | Using a spirometer, with the mouthpiece tightly sealed around the lips, the participant is asked, from the residual volume, to perform a rapid but unforced maximal inspiratory manoeuvre. With an apnoea of less than one second at total lung capacity, the participant is asked to exhale maximally, rapidly and forcibly, until the lungs are completely empty. At this point, the participant is strongly encouraged to start the manoeuvre abruptly and to prolong the exhalation long enough to reach RV. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in coughing capacity | Measurement of cough capacity will be performed by determining peak cough flow using a peak expiratory flow meter (Mini Wright flow meter; Clement Clarke International Ltd., Essex, UK). | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in elbow flexion strength | In all subjects, the maximum load they can move in one repetition (1RM) in both limbs will be assessed for elbow flexion with Microfet4 dynamometer; Hoggan Health Industries, West Jordan, Utah. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in shoulder flexion strength | In all subjects, the maximum load they can move in one repetition (1RM) in both limbs will be assessed for shoulder flexion with Microfet4 dynamometer; Hoggan Health Industries, West Jordan, Utah. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in number of people with respiratory complications | Respiratory complications will be assessed by consulting the medical history. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in health-related quality of life assessed by Short-Form 36 questionnaire. | Health-related quality of life will be measured with the Short-Form 36 questionnaire, with values ranging from 0 to 100 (higher scores mean better health-related quality of life). | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in forced expiratory volume in the first second (FEV1) | Using a spirometer, with the mouthpiece tightly sealed around the lips, the participant is asked, from the residual volume, to perform a rapid but unforced maximal inspiratory manoeuvre. With an apnoea of less than one second at total lung capacity, the participant is asked to exhale maximally, rapidly and forcibly, until the lungs are completely empty. At this point, the participant is strongly encouraged to start the manoeuvre abruptly and to prolong the exhalation long enough to reach RV. | Change after 6 weeks of intervention compared to baseline | |
Secondary | Change in cardiorespiratory fitness | Cardiorespiratory fitness will be measured using the 6-minute wheelchair propulsion test (adapted from Bass A et al. 2020). This is a validated test to measure cardiorespiratory fitness through a submaximal exercise test where the patient performs a 25-metre figure-eight run for 6 minutes and the distance covered in that time is recorded. | Change after 6 weeks of intervention compared to baseline |
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