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POLARISATION
Polarised Lenses
Light can bounce and reflect off a myriad of 
surfaces, such as water, snow and the road. 
Polarising technology removes the glare and 
the stress it causes to your eyes.
The lenses block virtually 99.99% of UVA/ 
UVB rays, protection that goes well beyond 
government and commercial standards.
Non Polarised
Polarised
WAVELENGTHS & UV LIGHT
We receive wavelengths through two organs; we see light through our eyes and we capture sound through our ears. From radio waves to 
gamma rays, wavelengths gradually constrict, causing their frequency to increase and making them consume more and more energy. 
Hence, waves gradually increase in intensity and therefore are more dangerous for the eyes.
The sun emits three types of light waves and without the correct eye protection each in its own way can seriously affect the eye.
•	
Ultraviolet Light Rays: 5% of the sun’s energy reaches the earth in 
this form. UV rays (invisible “tanning” rays) can cause serious damage 
to the unprotected eye including the development of cataracts and 
corneal blistering.
•	
Infrared Light Rays: 50% of the sun’s energy reaches the earth as 
heat or infrared. Some IR rays will be absorbed by the cornea creating 
a drying effect – an issue of importance to contact lens wearers.
•	
Visible Light Rays: 45% of the sun’s energy reaches the earth in what 
the eye perceives as colour. Blue Light waves are the most difficult to 
see. When the unprotected eye strains to focus on it, all other colours 
can be distorted. After two to three hours in bright sunlight, eyes can 
have trouble adjusting to night vision.
The human eye is not able to identify the various elements of a ray - it only sees the results, which are a function of the different wavelengths and their 
respective light intensity. The human eye can only see wavelengths within the “visible spectrum” (between 380 and 780 nanometres).
10
Gamma
X rays
UV 
IR
Micro Waves 
Television
Radio
Radar
10 -13 NM
380 NM
780 NM
Complete Specrum
Visible Specrum
Invisible Specrum - U.V.
Visible Specrum
Invisible Specrum - Infrared - I.R.
U.V.C.
U.V.B.
U.V.A.
INDIGO PURPLE BLUE
GREEN YELLOWORANGE
RED
NEAR INFRARED
MIDDLE INFRARED
100 NM
280 NM
315 NM
380 NM
480 NM
500 NM
570 NM
600 NM
650 NM
780 NM
1400 NM
2000 NM
Radiation Types
Organs Affected
Lens Lesions
Consequences on Sight
•	 UVC 100nm to 280nm
•	 Cornea
•	 Lesions of the Cornea
•	 Conjunctivitis / Partial Blindness
•	 UVB 280nm to 315nm
•	 Cornea & Lens
•	 Premature Aging of the Lens
•	 Cataract / Conjunctivitis / Partial Blindness
•	 UVA 315nm to 380nm
•	 Cornea & Lens
•	 Degeneration of the Retina Photoreceivers
•	 Cataract / Conjunctivitis / Partial Blindness
•	 Blue light 380nm to 780nm
•	 Retina
•	 Photo Traumatism in the Case of Intense Glare
•	 Partial or Total Blindness
•	 Visible light 380nm to 780nm
•	 Retina
•	 Macular Degeneration
•	 Visual Complaints / Uneven Perception
•	 Near IR 780nm to 1400nm
•	 Lens & Retina
•	 Lens Opacification
•	 Pigmentary Retinitis / Cataract / Blindness
•	 Middle IR 1400nm to 2000nm
•	 Lens
•	 Cataract / Partial Blindness
CONSEQUENCES OF VISIBLE, U.V. & I.R. 
RADIATION ON THE EYE
Material Courtesy of Bollé Safety
EYE SAFETY INFORMATION
PPE - EYE PROTECTION

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