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Mitochondria clinical trials

View clinical trials related to Mitochondria.

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NCT ID: NCT06186297 Completed - Oxygen Consumption Clinical Trials

Boosting Performance: The Power of Cranberry Supplementation

Start date: March 1, 2023
Phase: N/A
Study type: Interventional

Cranberry is a fruit native to North America that is widely grown in Quebec and has been shown to have the highest antioxidant capacity among the most commonly eaten fruits. Consequently, consuming cranberries prior to exercising may help to improve exercise endurance by preventing accumulation of reactive oxygen species. For aerobic endurance, in order to maintain a certain pace for a long duration, runners need to effectively neutralize reactive oxygen species. Although it is not the only component involved in running, offsetting reactive oxygen species should improve running performance. To test this, we plan to investigate the effects, both acute and chronic, of a cranberry extract on the oxygen consumption in 18-35 year old males and females. The present research project will contribute to expand our knowledge of how cranberry extract can exert a positive effect, and thus improve aerobic performance or even every day life. This project can benefit a wide range of the population, from sedentary individuals and older adults to elite athletes by providing an all-natural supplement alternative.

NCT ID: NCT03842722 Completed - Sepsis Clinical Trials

Insufficient Oxygenation in Septic Patients

INOX-SEPSIS
Start date: February 13, 2019
Phase:
Study type: Observational

This study will describe the change of mitochondrial oxygen tension (mitoPO2) compared to traditional parameters of oxygenation and oxygen balance in the first 24 hours of septic patients admitted to the intensive care unit of an academic hospital. The mitoPO2 will be measured on prespecified measurement moments in the ICU. With each measurement moment, arterial and central venous blood gasses will be taken too.

NCT ID: NCT03723226 Completed - Hypertrophy Clinical Trials

BFR and Muscle Mitochondrial Oxidative Capacity

Start date: January 28, 2019
Phase: N/A
Study type: Interventional

Blood flow restricted (BFR) exercise has been shown to improve skeletal muscle adaptations to resistance exercise. BFR uses blood pressure cuffs (i.e., tourniquets) to reduce skeletal muscle blood flow during resistance exercise. One benefit of BFR is that skeletal muscle adaptations to resistance exercise training including muscle hypertrophy and increases in strength can be achieved at lower-loads (e.g., 25-30% 1RM), that are often comparable to more traditional resistance training loads (70-85% 1RM). However, the impact that low-load BFR resistance exercise has on muscle quality and bioenergetics is unknown. The present study will examine the impact of 6 weeks of low-load, single-leg resistance exercise training with or without personalized BFR on measures of muscle mass, strength, quality, and mitochondrial bioenergetics. The investigators will recruit and study up to 30, previously sedentary, healthy, college-aged adults (18-40 years). The investigators will measure muscle mass using Dual Energy X-Ray Absorptiometry and muscle strength and endurance using isokinetic testing. The investigators will normalize knee extensor strength to lower limb lean mass to quantify muscle quality. The investigators will also use near infrared spectroscopy (NIRS) to measure mitochondrial oxidative capacity in the vastus lateralis. Finally, the investigators will measure markers of systemic inflammation and markers of muscle damage using commercially available ELISA assays.

NCT ID: NCT00385333 Completed - Clinical trials for Diabetic Retinopathy

Metabolic Mapping to Measure Retinal Metabolism

Start date: September 29, 2006
Phase: Phase 2
Study type: Interventional

This study will test whether a new non-invasive technique can quickly and precisely measure retinal metabolism (the amount of energy retinal cells use). The retina is the part of the eye that sends information to the brain. Participants in current NEI studies who have age-related macular degeneration (AMD), diabetic retinopathy, or von Hippel-Landau disease may be eligible for this study. Healthy volunteers will participate as controls. Patients with AMD must be 60 years of age or older; those with VHL disease or diabetic retinopathy must be 18 or older. Participants undergo the tests and procedures required in the NEI study in which they previously enrolled. In addition, for the current study, they undergo metabolic mapping. For this procedure, the subject's eyes are dilated, and different amounts of low-level light are shone into the eye to see how different cells respond with changes in metabolism. Measurements are taken while the subject breathes room air and while he or she breathes medical grade oxygen for about 1 minute. The entire procedure takes about 15 minutes.