View clinical trials related to Fascia.
Filter by:The presence of to is thoracolumbar (TL) mobility a significant aspect in the context of running. Most of the factors may be related to certain kinematic parameters of the lumbopelvic-hip complex during running.
In this study, it will be assessed if there are changes in ankle dorsiflexion and pressure pain after performing the myofascial induction technique in the calf.
The purpose of the study is to compare the elasticity of thoracolumbar fascia in patients with and without subacromial impingement syndrome. 30 patients diagnosed as subacromial impingement syndrome in physical medicine and rehabilitation department of Baskent University will be recruited as group 1. 30 healthy volunteers will be recruited as group 2. Visual Analogue Scale (VAS) with the aim of assessing pain severity, tape measurement for posterior capsule shortness; body lateral flexion, rotation and extensor movements and lumbar extensor shortness will be observed for correlation with thoracalumbal fascia flexibility. Lateral flexion, flexion, and extension movements will be measured using goniometry for trunk normal joint movements. The thoracolumbar fascia length test and Modify Schober test will be used for thoracolumbar fascia length.
Treatment or training of fascial tissues has moved into the focus of medical research in the last decade. In this context, the use of foam rollers or roller massagers for self-myofascial-release (SMR) techniques has become increasingly popular in health and fitness professionals. The primary objective of these techniques is to mimic manual massage or myofascial-release therapy with a self-usable tool. Recent studies suggest that SMR improves, inter alia, range of motion (ROM) without a decrease in neuromuscular performance (Cheatham et al. 2015). Concurrent effects on the muscle and especially the surrounding connective tissue network have been proposed as underlying mechanisms for these observed changes in ROM after SMR. Several authors assume a positive effect of SMR on sliding properties of different independent fascial layers. Also, changes in passive tissue stiffness is suggested. Passive stiffness is thereby characterized by passive resistance in the tissues' (muscles') functional direction, the passive resistive torque (PRT). In conclusion, for many of the proclaimed effects of SMR, such as improvements of sliding of fascial layers or decreases of passive stiffness, there is a lack of evidence in the literature. Therefore, the aim of the study is to evaluate acute effects of SMR on the viscoelastic properties of the muscles on the anterior thigh and the corresponding fascia. In a cross over design, 16 subjects receive all of the following interventions after a familiarization session: a) 2x60 seconds of SMR at the anterior thigh, b) 2x60 seconds of static stretching at the anterior thigh, c) no intervention in a balanced permutated randomization sequence. Before and directly after each intervention, outcome parameters are collected. Passive Resistive Torque is evaluated using a computerized isokinetic dynamometer. In passive mode, the lower leg is moved from full knee extension (0°) to the point of maximal knee flexion with a velocity of 5°/s. Torque and angle are recorded at 100 Hertz (Hz). Sliding of fascial layers is quantified with a frame-by-frame cross correlation algorithm of high-resolution ultrasound images (Dilley et al. 2001). First stretch sensation is quantified using the passive mode in the isokinetic dynamometer. Maximal ROM is detected using a an ultrasonographic movement analysis system in a prone position.
Recent research suggests that the skeletal muscles and the fibrous connective tissue form a body-wide network of myofascial chains. A systematic analysis of dissection studies suggests that fascia links at least a variety of muscles to myofascial chains (Wilke et al. 2015). As fascia can modify its stiffness, strain transmission along these meridians is supposable (Norton-Old et al. 2013). Tensile transmission along myofascial chains might contribute to the proper functioning of the movement system. However, despite solid evidence from in vitro studies, scarce data is available concerning the in vivo behavior of the meridians. The present study is conducted to resolve this research deficit and to elucidate whether stretching of the lower limb muscles increases neck mobility. Healthy subjects (n = 3 x 20) participate in the randomized controlled trial. One group performs three 30 s bouts of static stretching for the gastrocnemius and the hamstrings respectively. A control group remains inactive for the same time. Participants of the third group perform 6x30 s bouts of static stretching of the cervical spine in zhe sagittal plane (flexion only). Pre and post intervention as well as 5 min after the intervention, maximal cervical range of motion (ROM) in flexion/extension, lateral flexion and rotation was assessed using an ultrasonic movement analysis system.