Increasing Mitochondrial Respiration as a Novel Mechanism for Cognitive Augmentation
Increasing Mitochondrial Respiration as a Novel Mechanism for Cognitive Augmentation
The purpose of this study is to investigate the effects of increasing brain energy on cognition. The hypothesis is that by using a special kind of light, in combination with a nutritional supplement, it may be possible to increase energy production in the brain, which may lead to improvements in cognition.
The Gonzalez-Lima Laboratory at the University of Texas at Austin is recruiting participants for a research study. The study examines whether a combined treatment can improve cognitive function. The treatment includes transcranial photobiomodulation (tPBM), a form of light therapy applied to the forehead, along with a dietary supplement. The treatment targets an enzyme called cytochrome-c-oxidase, which plays a key role in how the mitochondria inside brain cells use oxygen to produce energy. As people age, this process often becomes less efficient, contributing to cognitive decline seen in normal aging and in neurodegenerative diseases. The hypothesis is that improving mitochondrial function and cytochrome-c-oxidase activity will boost neuronal energy production and reduce oxidative stress, ultimately enhancing cognitive performance. Previous studies from the Gonzalez-Lima Lab found that applying tPBM to the prefrontal cortex improves brain metabolic activity and enhances cognitive functions such as attention, memory, and executive function. The dietary supplement provides an alternative energy source derived from ketones, which mitochondria can use for oxygen metabolism. This may help bypass the impaired glucose metabolism often seen in aging brains, potentially leading to further cognitive improvements. This study will investigate the cognitive effects of this combined treatment in adults ages 18 to 85. During the first visit to the lab, participants will complete informed consent, health questionnaires, and cognitive assessments, and wear sensors on the head which monitor brain activity. They will also be trained to use a headset device which uses light-emitting diodes (LEDs) to deliver light to the forehead. They will be given daily supplements and instructed on how to maintain a daily log for at-home treatments. Then, for the next two months, participants will complete the daily protocol at home. Weekly check-ins will monitor progress throughout this period. After two months, participants will return to repeat the assessments from the first visit and return their study materials. Participants will receive $200 upon completing the study, and parking expenses will be reimbursed for each visit. Briefly, one aim will be to map the relationship between baseline prefrontal functional connectivity and dimensional performance in cognitive control and affective processing. Another aim will be to evaluate mechanistic efficacy of chronic tPBM in engaging prefrontal circuits and restoring task-based behavioral performance. A final aim is to model the longitudinal relationship between prefrontal circuit health and real-world sleep, circadian stability, and neuroendocrine regulation. By focusing on target-driven biobehavioral mechanisms, this study aims to identify novel therapeutic targets and establish scalable biomarker pipelines.
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