View clinical trials related to Immobilization.
Filter by:The purpose of this study is to compare the safety and efficacy, defined as improved range of motion and functional outcome scores, of early elbow motion in the early (immediately post-op) and late postoperative periods (2 week post-op).
Inactivity and bedrest during hospitalisation have numerous negative consequences, and it is especially important that older patients are mobile during hospitalisation. In this study the investigators aimed to identify whether the introduction of formal education of clinical staff and a Mobilisation Initiative could increase mobilisation of patients in a geriatric and a medical ward. Furthermore, the investigators wanted to explore patients' and health care staffs' view on facilitators and barriers for mobilisation during hospitalisation
A simulation-based randomized controlled trial was designed with the objective to assess the time needed to achieve spinal stabilization using a scoop stretcher compared to a vacuum mattress.
This study is an observational cross-sectional study. Post-operative patients need an immobilization period for a certain period of time after surgery. Kinetic chain changes due to immobilization can affect the symmetry of the core muscle. Therefore, in this study, core muscle asymmetry (CMA) is measured using a whole body tilt device for inpatients who have undergone arthroscopic shoulder surgery. We would like to make a clinical suggestion for post-operative rehabilitation by identifying the characteristics of CMA according to the left or right site.
Introduction This study will evaluate the effect on glucose, lipid and bone metabolism following conservative orthopaedic procedures in patients who suffered from acute Achilles tendon rupture. The sedentary rehabilitation period following these procedures may impact negatively upon glucose, lipid and bone metabolic pathways whereas the more physically active rehabilitation period instituted 8 weeks after the injury is hypothesized to impose positive metabolic effects. The study is addition to the on-going clinical trial, Non-operative Treatment of Acute Achilles Tendon Rupture: Early Controlled Mobilization Compared With Immobilization, ClinicalTrials.gov Identifier: NCT02015364. Perspective This study will establish whether the well-known effects on glucose, lipid and bone metabolism of a sedentary lifestyle can be observed already following 8 weeks of almost total abstain from physical activity in non-diabetic individuals, who suffered an acute Achilles tendon rupture. Thereby, we will add knowledge to the previous findings following strict bed-rest in healthy individuals on glucose and lipid metabolism and bone turnover. In a clinical perspective it is important to examine the extent to which individuals deteriorate in various metabolic pathways to better understand the pathophysiology behind these defects both in healthy individuals and in patients, who undergo bed rest or an equal reduction in physical activity as part of their rehabilitation. Study design The present study includes 50 cases, who are examined early following injury (< 2 weeks) (baseline), 8 weeks (6 - 10 weeks) after injury and 52 weeks (40 - 64 weeks) after injury, respectively. Oral glucose tolerance test (OGTT) with ingestion of 75 g of glucose during a maximum of 3 min from baseline (0 min). Plasma for glucose, insulin, C-peptide, NEFA will be drawn. The individual will bring in morning spot urine for measurement of suPAR, creatinine, albumin and orosomucoid. The individual will have drawn blood for measurement of HbA1c, total cholesterol, LDL cholesterol, HDL cholesterol, triglyceride, Na, K, creatinine, HgB, CRP, leukocytes, ALAT, alkaline phosphatase, Ca++, D vitamin, TSH, albumine and amylase. Also blood for BTM and plasma suPAR, IL6, TNFa and hsCRP will be drawn. Finally blood for lipid density profiling and lipid particle size will be drawn DXA of hip and lumbar spine including abdominal visceral and subcutaneous fat is done on a Hologic Discovery scanner.
In the present study, the effects of 5 days of lower limb immobilization with or without daily neuromuscular electrical stimulation on muscle mass and muscle fiber characteristics will be determined.
It is essential that anaesthetists successfully perform orotracheal intubation in scenarios in which intubation is potentially more difficult, such as where the neck is immobilized. The Airtraq® Laryngoscope and the CMAC are new intubating devices. They are designed to provide a view of the glottis without alignment of the oral, pharyngeal and tracheal axes. These devices may be especially effective in situations where intubation of the trachea is potentially difficult. The efficacy of these devices in comparison to the traditional Macintosh laryngoscope in situations where the cervical spine is immobilized is not known. The investigators aim to compare the performances of the Airtraq® Laryngoscope and the CMAC to that of the Macintosh laryngoscope, the gold standard device, in patients in which the cervical spine has been immobilized by means of a Manual in-line stabilization of the spine. Hypothesis: The primary hypothesis is that, in the hands of experienced anaesthetists, time to intubation would be shorter using the indirect laryngoscopes, than using the Macintosh laryngoscope in simulated difficult laryngoscopy.
In the present study, the effects of 3 weeks of unloading on muscle mass and muscle fiber characteristics will be determined. In addition, the effects of 6 weeks of recovery will be assessed.
The goal of this proposal is two-fold: (1) to further develop and validate a technology, magnetic resonance elastography (MRE), for quantitatively imaging mechanical properties and tension distribution in muscle and (2) to apply the technique for in vivo evaluation of patients with four common, and clinically significant muscle disorders (spasticity, disuse atrophy, myofascial pain and a metabolic myopathy). These studies will employ a magnetic resonance imaging sequence with synchronous motion-sensitizing gradients to map propagating shear waves in the muscle. The technique will assess the mechanical properties of the muscle and its tension distribution. Specifically, the study can be divided into three specific aims. Aim 1: Optimize MRE methods of acquisition and analysis for the assessment of muscle, including electromechanical drivers, data acquisition techniques, and methods for image analysis. Advanced techniques for very rapid MRE assessment of muscle will continue to be developed. Aim 2: Validate the MRE assessment of muscle properties and tension with phantom, ex-vivo muscle, and Finite Element Modeling (FEM) techniques. Finite Element Analysis will be performed by using both phantom and bovine muscles to better correlate MRE wave-length findings as function of muscle properties, tension and fiber architecture. Aim 3: Study In Vivo Normal and Abnormal Muscle. The MRE technique will be applied in vivo to provide elastographic images of abnormal muscle with known disorders. The patient groups chosen for study are each important in their own right, and furnish unique information across the spectrum of muscular disease and dysfunction. Groups to be studied include individuals with new onset of spasticity following an ischemic, hemispheric stroke, disuse atrophy as a result of immobilization, metabolic (hyperthyroid) myopathy and myofascial pain for trigger point identification. The overall hypothesis of this work is that will bring benefits to both basic research and clinical care.