View clinical trials related to Fatigue.
Filter by:This study aims at examining the influence of both physically and cognitively induced fatigue on trunk motor control on the one hand and brain activity related to movement preparation on the other hand, in healthy adult subjects. Furthermore, a comparison between the effects of both types of fatigue will be made. For this purpose a motor control task will be performed and compared before and after 3 specific interventions: i.e. a control intervention, a physical task and a cognitive task. Muscle and brain activity will be measured during each motor control task. It is hypothesised that motor control will not be altered after a control task, i.e. seated rest for 45 minutes. With regards to the physical fatigue condition, it is expected that trunk muscles will contract earlier after this task than before due to altered motor control. Cognitive fatigue is hypothesised to have similar underlying processes as physical fatigue, thus a similar earlier muscle contraction is also expected after cognitive fatigue. Lastly, as both types of fatigue are expected to induce a similar effect on motor control no significant differences between cognitive and physical fatigue are hypothesised. However, it is possible that the magnitude of this effect differs between types of fatigue, i.e. that 1 of both types has a bigger effect on motor control than the other. With regards to brain activity in preparation of a motor control task similar hypotheses are formulated: no effect of the control task on brain activity, earlier and possibly increased brain activity after both fatiguing tasks, and no differences between both types of fatigue besides a possible difference in magnitude of effect.
This placebo cross-over trial aims to study the effect of the oral intake of an essential amino-acid 5-OH tryptophan, the precursor of serotonin, on the fatigue scores in IBD patients in deep clinical and biological remission.
Post-exertional malaise was modeled by having Chronic Fatigue Syndrome (CFS) and sedentary control subjects perform submaximal exercise on 2 consecutive days with objective changes in brain function measured by magnetic resonance imaging (MRI) during cognitive tests before and after the 2 exercise sessions.
The goal of this research project is to evaluate if our well-researched behavior medicine treatment model for chronic pain, based on Acceptance and Commitment Therapy, is safe and effective in increasing quality of life and functioning also in Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS). To date there are no effective treatments for ME/CFS as the ethology and pathophysiology are unknown, while levels of functioning and quality of life as well as secondary effects such as depressive and anxiety symptoms indicate a highly affected patient population. As such, there is a need for behavior medicine approaches that aim to alleviate suffering and promote increases in quality of life for these patients. The aim of the present study is to do a preliminary evaluation of the safety, acceptability and efficacy of an ACT-based treatment protocol for ME/CFS. An additional aim is to explore potential mediators of change for the effect of treatment on disability.
Patients with a history of mild traumatic brain injury (mTBI) or post acute sequelae of SARS-CoV-2 (PASC) and abnormal growth hormone secretion, as measured by glucagon stimulation test, will be treated with replacement growth hormone therapy for a period of 6 months (mTBI) or 9 months (PASC). Testing of cognition, exercise, fatigue, brain activation and morphology, body composition and measurements of quality of life will be performed before and after the treatment period. Fecal sampling for characterization of the GI microbiome will occur monthly over the treatment period. Control subjects will be enrolled and will provide fecal samples monthly for 6 months. GI microbiomes will be compared between mTBI patients, PASC patients and controls at baseline as well as over the treatment period.
Cancer-related fatigue (CRF) is the most common and distressing symptom associated with tumor or cancer treatment that breast cancer survivors (BCS) experience.The investigators previously found the laser moxibustion was potentially efficacious for CRF; however, more rigorously designed study is needed to confirm its benefit. The primary aim of this study is to determine the efficacy of 10.6µm infrared laser moxibustion and its long-term effects on CRF. Secondary aims are to evaluate the effect of infrared laser moxibustion on co-existing symptoms such as among BCS experiencing CRF.
The purpose of this study is to assess whether a brief cognitive behavioural intervention for post-stroke fatigue leads to clinically relevant improvements in fatigue after 6 months.
This study is a sub-study to the large pragmatic Target Temperature Management 2 Trial (TTM2-trial, ClinicalTrials.gov Identifier: NCT02908308), assessing effectiveness of controlled hypothermia after out-of-hospital cardiac arrest (OHCA). This study is designed to provide detailed information on cognition after OHCA and its relationship to associated factors as emotional function, fatigue, and sleep. A secondary aim is to utilize this information to validate a neurocognitive screening battery used 6 months after OHCA in the TTM2-trial. Approximately 7 and 24 months after OHCA, survivors at selected TTM2 study sites will perform a standardized neuropsychological assessment including performance-based tests of cognition and questionnaires of behavioral and emotional function, fatigue, and insomnia. At 1:1 ratio, a control group of myocardial infarction (MI) patients but no occurrence of cardiac arrest will be recruited and perform the same test battery. Group differences at 7 and 24 months will be analyzed per cognitive domain (verbal, visual/constructive, short-term working memory, episodic memory, processing speed, executive functions). Results of the OHCA survivors on the TTM2 neurocognitive screening battery will be compared with neuropsychological test results at 7 months time.
This study will begin to fill a knowledge gap by determine whether changes in kynurenine metabolism occur following Resistance Training (RT) and relate to reductions in inflammation and improved behavioral and physical function as this may identify potential targets for interventions to promote cancer recovery.
Delayed onset muscle soreness (DOMS) can be identified as the muscular pain that occurs due to intense use of skeletal muscle through exercise or other activities performed intense enough or long enough to cause minor damage(Cheung et al., 2003). DOMS usually begins to show symptoms 24 hours post-activity, becomes most intense 48-72 hours post-activity and can sometimes last up to 5-10 days in ordinary cases(Cheung et al., 2003; Dutto and Braun 2004). Typical less severe cases still can cause an individual to alter proper movement mechanics - this alteration in mechanics can lead to the further injuring of the involved or compensating skeletal muscle tissues and the associated joints and skeletal structures. DOMS-related muscular pain can lead to functional deficits and altered movement mechanics that can lead to a greater risk of further injury or sources of pain. The body does this by trying to avoid the initial source of pain by adopting some form of compensation (such as a limp when walking) which may help reduce pain at the initial source but lead to another source of pain or risk injury at another joint or limb. DOMS is a common complaint of many runners from novice to expert and due to the increased forces in running, a compensatory pattern in walking is exaggerated in running and can affect the compensating structures to an even greater extent, further increasing the risk of injury. Biofreeze®, a topical analgesic, is used to block the pain signal from the affected structures to the brain when applied to muscles experiencing delayed onset muscle soreness. Blocking the pain signal from DOMS should allow an individual to restore their natural movement mechanics. The purpose of this study is to assess the interaction between Biofreeze® and delayed onset muscle soreness and how it affects movement mechanics and muscle function. Hypothesis: The application of a topical analgesic (Biofreeze®) on muscles experiencing delayed onset muscle soreness (DOMS) will increase force production and return running biomechanics to pre-DOMS values.