Full-spectrum LED light sources on the market
Comparison of technologies
Comparison of spectral compositions
Spectrasol
Sun – white curve
Balanced spectral composition closest to natural sunlight
Low emission of harmful blue light energy (harmful blue light range 415-455 nm)
Reduces damage to retinal cells. Protects eyesight.
Balanced cyan energy (pro-cognitive melanopic range 460-500 nm)
Supports the circadian system, regulates the body for activity during the day and regeneration at night.
Strong deep red energy (photobiomodulation range ~ 670 nm)
Compensates for harmful blue light and protects retinal cells.
Competitive solution 1
Sun â white curve, SPECTRASOL â yellow curve
Extremely strong emission of harmful blue light energy.
High risk of retinal damage with prolonged use
Negligible representation in the red range and absence of photobiomodulatory deep red energy
Absence of regenerative potential
Competitive solution 2
Sun â white curve, SPECTRASOL â yellow curve
Strong emission of harmful blue light energy with excess in the violet range.
High risk of retinal damage with prolonged use
Low representation in the red range and absence of photobiomodulatory deep red energy
Absence of regenerative potential
Competitive solution 3
Sun â white curve, SPECTRASOL â yellow curve
Emission of harmful blue light energy.
Risk of retinal damage with prolonged use
Low representation in the red range and absence of photobiomodulatory deep red energy
Absence of regenerative potential
Comparison of the effects of different led sources on the retinal Cells of the eye
Laboratory research by the European scientific and research center for
biomedicine and biotechnology BIOCEV.
biomedicine and biotechnology BIOCEV.
The graph shows how the number of living retinal cells changes over time when illuminated by different types of LEDs.
Laboratory research results
Only Spectrasol restored eye cells damaged by harmful blue light (HBL).
The deep red component (~670 nm) promotes the regeneration of retinal cells
Short wavelengths of blue light affect the loss of retinal cells in the eye
This is due to the negative effect of short blue wavelengths (~415-455 nm) on oxidative stress in retinal cells.
For more information and results of independent studies visit: spectrasol.eu/study/
