Muscle; Fatigue

This study examines whether exposition to hyperbaric oxygen after a road-race simulation can help competitive cyclists recover and perform better the following day. Hyperbaric oxygen, which involves breathing oxygen inside a pressurized chamber, is used as a recovery method in elite and professional sport. Its effectiveness, however, remains controversial: despite this widespread use, there is a lack of solid scientific evidence that a single HBO session after strenuous endurance exercise actually improves recovery, or that clarifies how the amount of oxygen exposure influences any benefit. The study includes healthy male road cyclists between 18 and 40 years of age who compete at the national level in Belgium. After completing a fatiguing cycling session, each participant is randomly assigned to one of four groups receiving different levels of oxygen exposure during recovery. Two groups breathe oxygen under increased pressure inside a chamber at either 2.5 or 1.4 atmospheres absolute. A third group breathes oxygen at normal pressure. The fourth group receives a sham condition that reproduces the treatment setting without active oxygen exposure. The study is double-blind, meaning that neither the participants nor the researchers assessing the outcomes know which condition each participant receives. The main goal is to determine whether a single session of post-exercise HBO improves next-day endurance performance, and whether higher oxygen exposure produces greater effects. The researchers also collect blood samples and physiological measurements to better understand how the body recovers.

This study aimed to evaluate the effects of ischemic preconditioning on lower limb explosive power and post-exercise recovery in basketball players during a 6-week post-season recovery training period. Thirty-four male collegiate basketball players were randomly assigned to either an IPC group or a placebo control group. Bilateral lower limb IPC intervention (3 cycles, each consisting of 5-minute ischemia at 220 mmHg and 5-minute reperfusion, twice per week for 6 weeks) was administered before routine basketball training sessions. Lower limb explosive power, as well as physiological, biochemical, and morphological indices, were assessed before and after the intervention.

The goal of this clinical trial is to compare two recovery methods after fatigue in young athletes. It aims to find out if tecar therapy (TECAR) or cycle ergometer exercise can improve recovery after intense physical activity and help athletes return to their normal performance more quickly. The main questions it aims to answer are: Does TECAR or cycle ergometer improve physical performance after fatigue? Do these methods reduce muscle pain and soreness after fatigue? Researchers will compare TECAR with active recovery using a cycle ergometer to see which method is more effective. Participants will: Perform a series of jumps to induce fatigue Be randomly assigned to one of the recovery methods Complete physical tests before and after fatigue Undergo simple measurements of muscle condition and pain Report their level of effort and muscle soreness

Muscle fatigue is one of the clinical symptoms in elderly people and demonstrates task dependency and muscle dependency. Muscle fatigue has been shown to negatively impact postural control, physical activity, and quality of life. However, the evidence for the influence of muscle fatigue on postural control is limited and inconsistent in elderly people. Therefore, this study aims to investigate the impacts of aging and muscle fatigue on postural control and gait performance with fatiguing exercises of upper and lower extremities.

This study aims to investigate the effects of whole-body photobiomodulation on professional soccer players during a state championship. The primary question is whether photobiomodulation improves recovery, reduces muscle fatigue, and enhances performance compared to standard training without photobiomodulation.

This study aims to examine the effects of blood flow restriction (BFR) exercises on back muscle endurance and balance in healthy young adults. BFR is a training method that involves applying controlled pressure to the limbs with a cuff while performing simple exercises. It has been shown to improve muscle strength and endurance even at low exercise loads, reducing stress on the joints. In this study, participants aged 20 to 25 years will be randomly assigned to two groups. One group will perform sit-to-stand (STS) exercises combined with BFR, while the other group will perform the same exercises without BFR. The exercise program will last 6 weeks, with 2 sessions per week. Before and after the program, participants will be assessed for: Lumbar extensor muscle endurance (using the Biering-Sørensen test) Balance performance (using a computerized balance platform) Physiological responses such as oxygen saturation, heart rate, and blood pressure The purpose of this research is to determine whether BFR exercises improve spinal muscle endurance and balance more effectively than standard sit-to-stand exercises. The results may provide new insights into the use of BFR training as a safe and practical strategy for improving posture, preventing back problems, and enhancing physical performance in young adults.

This study is a randomized, double-blind, placebo-controlled trial designed to examine the effects of pre-sleep creatine monohydrate supplementation on anaerobic performance and muscle damage markers in recreationally active females. Participants will be randomly assigned to receive either 5 grams of creatine monohydrate or a placebo 30 minutes before sleep for seven consecutive days. Anaerobic performance will be assessed using the Wingate Anaerobic Test, evaluating peak and average power output and fatigue index. Blood samples will be collected before and after the supplementation period to analyze markers of muscle damage, including creatine kinase and lactate dehydrogenase. This study aims to provide insight into the efficacy of short-term, time-specific creatine supplementation for enhancing performance and recovery.

The goal of this project is to evaluate the therapeutic potential of pioglitazone (PIO) to target underlying mechanisms that promote muscle fatigue in patients with breast cancer. This represents an off-label use of this compound, both in terms of the patient population and the clinical phenotype targeted. The central research hypothesis of this study is that daily pioglitazone will restore transcriptional downregulation of pathways within skeletal that promote fatigue.