Hamstring Contractures
Conditions
Keywords
Hamstring Muscle, Hamstring Shortness, Hamstring Stiffness, Myofascial Release Technique, Respiratory Functions, Respiratory Muscle Strength, Respiratory Muscle Endurance
Brief summary
The aim of this study was to investigate the effect of myofascial release technique on rib cage mobility, respiratory function, respiratory muscle strength and endurance in patients with hamstring muscle shortness.
Detailed description
Hamstring flexibility is important to maintain activities such as walking and running in daily life. Hamstring muscle shortness, commonly seen in the community, is a risk factor for many musculoskeletal pathologies. Clinical observations have shown that the shortness of the Hamstring muscle causes spinal malalignment. This deterioration of the spine alignment may adversely affect the rib cage expansion. Moreover, considering that the optimal length of the muscles provides optimal contraction, it was found that the spinal malalignment adversely affected the effective contraction of the diaphragm by changing the position of diaphragm. A different view is that, because the fascia functions as a single tissue surrounding the entire body, a restriction in the hamstring muscle can also cause a restriction in distal muscles such as diaphragm through the fascia. There are many treatment methods used to increase the flexibility of the hamstring muscle. One of these methods is the myofascial release technique. In this technique, which targets both muscle and fascia, applying light and prolonged pressure provides the myo-fascial complex to reach its optimal length, resulting in the optimal function of the muscle. In our best knowledge, no study has evaluated the effect of myofascial release technique on respiratory parameters in patients with hamstring muscle shortness.
Interventions
Myofascial release technique will bi applied bottom of the feet, back of the legs and hamstrings in both extremities. The practitioner will decide how long she should stay in a region according to the feeling of releasing in the tissue. The technique will be applied to a region at least 3 times.
Sham-ultrasound will be applied to back of legs and thighs in both extremities without pressure and all parameters of the ultrasound device except the timer will be closed.
Sponsors
Study design
Eligibility
Inclusion criteria
* more than 15 degrees knee flexion angle during popliteal angle test, * no generalized joint laxity according to Beighton Criteria, and * no musculoskeletal problems of lower extremities.
Exclusion criteria
* history of lower extremity and/or axial skeletal fracture; * recent muscle, tendon injury in lower extremity; * history of lumbal disc herniation, arthritic and/or inflammatory disease; * obesity, diabetes and/or metabolic syndrome; * history of surgery in the last month, * using muscle relaxant medication in the last month; * received manual therapy in the last month
Design outcomes
Primary
| Measure | Time frame | Description |
|---|---|---|
| Change from baseline Forced Vital Capacity (FVC) at 60 minutes | 60 minutes | Respiratory Function Test |
| Change from baseline Forced Expiratory Volume in 1 second (FEV1) at 60 minutes | 60 minutes | Respiratory Function Test |
| Change from baseline FEV1/FVC at 60 minutes | 60 minutes | Respiratory Function Test |
| Change from baseline Peak Expiratory Flow (PEF) at 60 minutes | 60 minutes | Respiratory Function Test |
| Change from baseline Forced expiratory flow over the middle one half of the FVC (FEF25-75%) at 60 minutes | 60 minutes | Respiratory Function Test |
| Change from baseline maximum inspiratory pressure (MIP) at 60 minutes | 60 minutes | Respiratory Muscle Strength Test |
| Change from baseline maximum expiratory pressure (MEP) at 60 minutes | 60 minutes | Respiratory Muscle Strength Test |
| Change from baseline constant inspiratory threshold load test at 60 minutes | 60 minutes | Respiratory Muscle Endurance Test |
Secondary
| Measure | Time frame | Description |
|---|---|---|
| Change from baseline axillary region chest circumference measurement during inspiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline subcostal region chest expansion test at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline axillary region chest circumference measurement during expiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline xiphoid region chest circumference measurement during inspiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline xiphoid region chest circumference measurement during expiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline subcostal region chest circumference measurement during inspiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline subcostal region chest circumference measurement during expiration at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline axillary region chest expansion test at 60 minutes | 60 minutes | Chest Circumference Measurement |
| Change from baseline xiphoid region chest expansion test at 60 minutes | 60 minutes | Chest Circumference Measurement |
Countries
Turkey (Türkiye)