Red and near-infrared light interact with the mitochondria, supporting the production of ATP, the cell’s main source of energy. This process supports the body’s natural mechanisms of tissue repair and regeneration, helping recovery after injury, physical activity, and everyday physical stress.
Photobiomodulation has been studied for its effects on inflammatory processes and pain perception.
Near-infrared light may help reduce muscular, tendon, and joint discomfort while also supporting the body’s natural recovery processes and promoting tissue relaxation.
Red light is used to support the production of collagen and elastin, which are two important components of skin structure and elasticity.
It may help improve skin tone, texture, and overall appearance, including visible signs of ageing
and acne-related concerns.
Studies on photobiomodulation have explored its effects on mood, mental clarity, and cognitive function. These effects are associated with support for cerebral circulation, cellular energy production, and the modulation of neuroinflammatory processes, contributing to overall mental wellbeing.
Near-infrared light has been studied for its potential influence on the glymphatic system, which helps remove metabolic waste from the brain. Supporting this process is linked to cerebral lymphatic circulation and is being investigated in the context of long-term neurological health.
Experimental research and some clinical studies have explored photobiomodulation in relation to memory, attention, and cognitive function. Near-infrared light is being investigated for its potential effects on mechanisms associated with metabolic waste accumulation in the brain and cerebral inflammation.
Photobiomodulation is being studied for its potential role in neurogenesis, synaptic regeneration, and the activity of factors such as BDNF. These mechanisms are associated with the growth and maintenance of neural connections and have been explored in recovery following traumatic brain injury.
Photobiomodulation has been studied in relation to motor function, balance, mobility, and fine motor skills in people with Parkinson’s disease. Research is also examining the effects of near-infrared light on mitochondrial function and neuroinflammatory processes within the nervous system.
Studies on PBM have explored its effects on inflammatory processes, demyelination, and motor function. Photobiomodulation is also being investigated for its potential to support nerve recovery, muscular strength, and cellular mechanisms involved in the regeneration of nervous tissue.
Red and near-infrared light have been studied in relation to thyroid inflammation, hormonal function, and selected immune parameters. Research has also explored the effects of photobiomodulation on TPO and anti-TG antibodies, as well as mechanisms involved in immune modulation.
In these cases, photobiomodulation is being studied for its potential effects on inflammation, mitochondrial function, and immune processes. Research has also explored possible associations with energy levels, fatigue, muscle function, mood, and overall wellbeing in people with autoimmune thyroid conditions.
Studies have explored the effects of red and also near-infrared light on sleep quality, mood, and circadian rhythm.
These effects may be particularly relevant during periods of lower natural light exposure and when the body requires additional support for recovery and restoration.
Fill out our contact form and we’ll respond mindfully and promptly.
