View clinical trials related to Thoracic Outlet Syndrome.
Filter by:Whiplash injuries following car accident are common, it has been reported to affect 83% of individuals injured in traffic collisions (Yadla S, 2007). The condition is caused by a rapid acceleration followed immediately by a rapid deceleration of the neck and head. The annual North American incidence rate is estimated to be 600 per 100,000 people (Holm LW, 2008). The condition is costly for society and disabling/painful for the patients. Depending on the collision type, the biomechanics of muscles will be affected differently and consequently the clinical presentation will vary. T-bone type of car collisions (when the front of one vehicle strikes the side of another) may induce thoracic outlet syndrome (TOS) following compression on the nerve and artery bundle by the scalene muscles (lateral stabilizers of the neck). An appropriate and detailed examination of the patient is necessary to identify the cause of the resulting pain and disability. Once a functional thoracic outlet syndrome is identified the proposal is to treat this with botulinum toxin.
The aim of this work is to propose two new questionnaires (TULIP and MASC) which are simple to complete by the patient, quick to analyze and can be calculated directly by the physician, adapted to the general population, whether during an initial evaluation or for follow-up. The TULIP questionnaire aims to characterize the symptoms suggestive of Thoracic Outlet Syndrome (TOS). The MASC questionnaire aims to assess the functional maintenance of TOS in a simpler way (fewer questions) than the Disability of the Arm, Shoulder and Hand (DASH) questionnaire and in a lateralized way.
Quality of life evaluation after thoracic outlet surgery with Quick-DASH and SF-36 forms
Record the ENMG data carried out systematically in patients treated by rehabilitation for thoracic outlet syndrome in order to assess their characteristics and judge the relevance of these data in the context of the diagnosis and their possible modifications following the rehabilitation treatment.
Thoracic outlet syndrome (TOS) denotes the collection of symptoms which may arise from compression of the neurovascular structures in the region of the brachial plexus. TOS has historically been a clinical enigma, with lack of consensus regarding its diagnosis limiting the validity of any research into it. Literature and local audit both note significant patient morbidity and redundant use of secondary care clinics and investigations in sufferers. The last decade has seen the creation of a consortium of leaders in the field and development of the CORE-TOS diagnostic tool. This tool has 5 subsets of clinical diagnostic criteria (CDC). Positivity in 4 or more suggests a diagnosis of TOS. The current study seeks to specifically examine whether physiotherapy clinicians - both in primary and secondary care - can consistently identify cases of TOS using the CORE-TOS tool and refer them appropriately to an extended scope physiotherapist (ESP) specialising in the condition. Specific education will be provided to relevant physiotherapists who will be asked to note all relevant CDC in any suspected cases thereafter referred to the ESP in an out-patient physiotherapy department setting. These referrals will follow the standard local pathway to physiotherapy and no clinical testing manoeuvres out with the current scope of physiotherapy will be applied. The patients' case notes will thereafter be retrospectively examined, and the inter-rater reliability of the CDC recorded by the both the referring physiotherapist on their referral and the researcher at initial review. This will analysed using intraclass correlation coefficient, SEM and Bland and Altman's agreement tests, coupled with descriptive analysis.
Rationale: Postoperative pain management after transaxillary thoracic outlet decompression surgery (TATOD) is difficult. In a retrospective case-control trial, we found evidence that a PECS II block is able to reduce pain and morphine consumption. This may ultimately lead to less morphine induced side-effects and improved patient satisfaction. However, the risk of bias in retrospective research is high. To determine the effect of PECS II in TATOD, a randomized controlled double blinded trial could offer more valuable scientific evidence. Our hypothesis is that a PECS II block will reduce pain, opioid use and opioid induced side-effects in patients undergoing transaxillary TOD (TATOD). Objective: The aim of the study is to determine the effect of a PECS II block on postoperative pain and opioid use in patients undergoing TATOD. The secondary objective is to determine the effect of a PECS II block on opioid induced side effects such as postoperative nausea and vomitus and the quality of recovery Study design: Single centre randomized controlled double blinded trial Study population: All patients with Neurogenic Thoracic Outlet Syndrome (NTOS) selected for TATOD by the TOS multidisciplinary workgroup and based on the specifications in 2016 SVS reporting standards. Intervention: The study group will receive a PECS II block with 40 ml ropivacaine 5 mg/ml. The control group will receive a PECS II block with 40 ml NaCL 0.9%. Main study parameters/endpoints: Primary outcome parameters are postoperative pain using the Numeric Rated Scale (NRS) score assessed at rest and when moving and postoperative morphine-equivalent consumption. Secondary outcome parameters are postoperative Nausea and Vomitus (PONV) and Quality of Recovery questionnaire (QoR-15). Nature and extent of the burden and risks associated with participation, benefit and group relatedness: All patients will undergo ultrasound guided injection, after induction of anaesthesia. The administration of the injection does not invoke any extra physical discom-fort. Possible complications include hematoma and pneumothorax, however, the risk is very low (<1%)[1]. In the intervention group, we expect less pain, a reduced need for pain medica-tion and less postoperative nausea and vomitus. We do not expect an altered postoperative course in the control group. Patients will be asked to fill out a questionnaire. Extra blood sam-ples, site visits, physical examinations or other test will not be done in this study.
Thoracic outlet syndrome (TOS) may complicate the activities of sporty subjects that participate in sports that involves upper extremities activities, such as baseball, tennis, swimming, rowing, volleyball, rugby football, and weightlifting. Disability and postintervention recovery related to TOS treatment and possible surgery may have a significant impact in the overall performance abilities of athletes. This study aims to detect the early predisposition of athletes to TOS onset, by means of computational fluid dynamics (CFD) analysis of thoracic outlet region.
Transversal recording and analysis of investigations performed in patients referred for suspected thoracic outlet syndrome (TOS)
The thoracic outlet syndrome is a rare but debilitating pathology, responsible for upper limb pain. Its frequency is probably underestimated because of diagnostic difficulties. This syndrome encompasses several entities including compressions of neurological, venous or arterial origin. In addition to pain, the majority of patients report fatigability and loss of strength in the upper limbs. However, the quantification of this loss of strength and fatigability has hardly been studied. In addition, the rehabilitation treatment is the first-line treatment of this pathology. It most often includes a muscle building phase. In this project, we would like to evaluate the proximal and distal force of patients presenting a thoracic outlet syndrome by comparing them to a population free from any pathology in the upper limbs. This evaluation would involve an isokinetic strength analysis of shoulder rotators at the proximal level, using an isokinetic dynamometer. At the distal level, the evaluation would be done using force clamps.Similarly, performing a 6-minute walk test will assess whether there is a difference between patients and controls, which may also impact endurance in addition to the pathology. In a second step, we will also be able to evaluate the effects of the reeducation on the strength and the muscular fatigability of the patients presenting a thoracic outlet syndrome.
Alpha 2 macroglobulin (A2M) is a plasma protein that acts as a molecular trap for inflammatory factors such as tumor necrosis factor (TNF). After plasma is enriched for A2M, it may be injected for treating chronic inflammation. Plasma enriched for A2M may be considered as a possible injectable agent to counteract inflammation that may occur with a cervicobrachial pain syndrome. This study reports on an experiencing using A2M to treat cervicobrachial syndrome which was predominant for either musculotendinous or neuralgic features.