PERSPECTIVE: Do neurons generate light to communicate and repair?
Jul 25, 2022
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Dr. Rountree, a neurological processes expert, discusses the production and purpose of biophotons in neurons. Topics include neuronal communication, light wavelengths, bio-photon emission, and the potential systemic effects of laser therapy on neural networks.
Neurons communicate through bio-photons, which emit different colors of light to convey messages similar to chemical and electrical signals, opening new possibilities for understanding neurological disorders.
Bio-photons emitted by neurons can be enhanced and reinforced through laser therapy, leading to potential treatments for addiction, depression, and anxiety, and revolutionizing treatments for neurological disorders.
Deep dives
Neurons communicate using light-based signals
Neurons communicate not only through electrical and chemical signals, but also through low-intensity bio-photons. These bio-photons are emitted by neurons and can inform neighboring neurons about their activity state or damage. Different colors of light emitted by these bio-photons carry different messages and stimuli, similar to how neurons communicate chemically and electrically. The use of light in neuronal communication is especially prominent in pathways involving dopamine, serotonin, noradrenaline, and fluorescence. This discovery opens up new possibilities for understanding neurological disorders and developing treatments that enhance and strengthen these light-based communication networks.
Role of bio-photons in laser therapy
Bio-photons have significant implications for laser therapy and photobiomodulation. Laser therapy can stimulate mitochondrial activity and improve cell function and survival by delivering light that matches the wavelength and intensity of the bio-photons naturally used by cells. The bio-photons emitted by neurons are responsive to external and internal stimuli, such as electrical stimulation or the application of neurotransmitters. The ability to enhance and reinforce these light-based communication pathways through laser therapy shows potential for treating various neurological conditions, including addiction, depression, and anxiety.
Systemic effects and future implications
The discovery of bio-photons and their role in neuronal communication also explains the systemic effects observed in laser therapy. Light applied to one area of the body can have far-reaching effects, even in deep brain regions. While more research is needed to fully understand and utilize these light-based communication networks, the findings suggest that laser therapy can strengthen and optimize neural pathways, leading to improved health and healing. Understanding the systemic effects and mechanism of action behind laser therapy could revolutionize treatments for neurological disorders and other health conditions.
Cells in the body, particularly the neurons, produce biophotons as a byproduct of their metabolism. But do these biophotons have a purpose? Join Dr. Rountree and Jay as they discuss neurological processes, and how biophotons are produced by neuron synapses, and what purpose that they may serve.
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