The spectral curve of this lens technology is an extrapolation of our Red High Contrast filter science with a new modified curve to balance an orange spike and suppression of green in a high light values. The technology is great for situations where there is filtered light through clouds or white light. The lens incorporates PILLA ZEISS ChromaShift Infra Red and our proprietary background neutralizer technology. This lens science works extremely well on orange and pink targets.
New nose saddle.
The new ICE technology from Pilla delivers lenses from Zeiss that benefit from cutting edge engineering of coating science. A multi-layer coating application that improves a significant number of technical must haves in producing the best lenses available for the athlete. The lenses benefit from principals that deploy the best of Hydrophobics and a proprietary Hydrophilic technology on the backside of the lens. The ICE nomenclature delivers a technology that makes the lens surfaces very slippery- Hence the name “ICE”… this solution does not allow water to properly adhere to the lens surface. This slippery performance reduces fogging on the backside while also making the lens extremely easy to clean repelling oils and water. Pilla ICE coatings also feature color enhancing abilities to amplify infused color pigments in the lens making the color filters more robust. The exclusive and proprietary spectral enhancements in each formulation are tuned to a specific wavelength. A turbo charging effect of our IR based platform making color extremely vivid and also allows for a level of specificity in color targets. We can pin point color lift (like our CMX or HC lenses science) and color fade for example in our neutralizing lens science. This composite of these technical coating solutions accelerates color lifting performance, reduces fogging, while making the lens very easy to clean. In additional to these coating solutions on all 2023 ICE Lenses, Pilla applies the highest performance Anti-Reflective to minimize any distortion created by reflecting light and splintering of light on the lens surfaces.
