ATP Production and Mitochondria Function

• 630 nm LED (with 850 nm) Boosts ATP and Mitochondrial Potential in Muscle Cells
  
  In a study on mouse muscle cells, treatment with 630 nm red LED light (combined with near-infrared) increased energy production (ATP) up to 3.5 times and improved mitochondrial health (membrane potential) peaking 3–6 hours later, helping cells generate more power efficiently.

• 630 nm LED Enhances ATP Synthesis and Mitochondrial Function in Heart Cells
  
  Researchers found that shining 630 nm red LED light on heart muscle cells ramped up ATP production by activating key enzymes, raised mitochondrial energy levels and structure, and handled stress better without harm, potentially aiding heart health.

• 620–630 nm LED Improves Mitochondrial Activity in Sperm Cells
  
  Exposing donkey sperm to 620–630 nm red LED light boosted mitochondrial membrane potential, enzyme activity, and oxygen use—which supports ATP creation—with the best results depending on exposure time, suggesting benefits for cellular energy.

• 630–1000 nm LED Arrays Stimulate Mitochondrial Energy Production
  
  Using LED lights in the 630–1000 nm range on cells activated mitochondrial enzymes and genes involved in energy making, leading to higher ATP levels and better cell function, useful for healing wounds and eye issues.
  

HeroSeries panels and face masks use 630nm red light

• 810 nm LED Boosts Mitochondrial Redox and ATP Production In Vivo
  
  In a study on human forearms, 810 nm LED light significantly increased oxidized cytochrome c oxidase and oxygenated hemoglobin, enhancing mitochondrial redox activity and potentially increasing ATP through improved oxidative phosphorylation, as a safer alternative to lasers.

• 810 nm LED Enhances Oxidative Phosphorylation in Neuroblastoma Cells
  
  Long-term treatment with 810 nm LED on IMR-32 cells dose-dependently boosted oxidative phosphorylation at RNA, protein, and functional levels, formed more network-like mitochondria, and improved cellular resistance, supporting greater ATP production and mitochondrial health.

• 810 nm PBM Increases ATP in Cortical Nerve Terminals
  
  Photobiomodulation at 810 nm showed a power-dependent increase in ATP production in cortical nerve terminals by modulating mitochondrial function, supporting better energy release and neurotransmitter activity without damage.
  

All HeroSeries panels use 810nm NIR light

• 850 nm LED Increases Mitochondrial Potential and ATP in Muscle Cells
  
  In a lab study on mouse muscle cells, a device with 850 nm near-infrared LEDs (and some red) shone for 90 seconds boosted the cells' energy factories (mitochondria) and ATP levels, peaking at 3–6 hours after treatment, which could help muscles work better and recover faster.

• 850 nm LED Affects Mitochondrial Respiration in Bone Cells
  
  Treating bone-building cells with 850 nm LEDs (part of a multi-wavelength setup) for short daily sessions over days changed how mitochondria breathe oxygen—at higher doses, it ramped up max respiration, hinting at more ATP energy, and activated genes for stronger bones.

• 850 nm LED Improves Systemic Mitochondrial Function and ATP
  
  Exposing people to an 850 nm LED panel for 15 minutes improved vision by penetrating the body and boosting mitochondrial activity and ATP production, even when light didn’t hit the eyes directly, suggesting whole-body benefits like better energy in aging cells.

• Near-Infrared LED (Including 850 nm) Stimulates ATP in Skin and Eye Cells
  
  A review explains how near-infrared light around 850 nm, often from LEDs, targets mitochondria in skin and retina to increase ATP energy, promote cell growth and collagen, and possibly regenerate tissue by tweaking enzyme activity and reducing stress molecules.
  

HeroSeries panels, HeroBelt and HeroHat use 850nm NIR light