ZEISS Single Vision lenses

Specially designed for growing children and supported by ZEISS SmartView 2.0 technology and ZEISS Dynamic AgeFit technology. ZEISS Single Vision SmartLife Young lenses are based on the dynamic visual behaviour and individual age-related vision needs of your young customers.

The best ZEISS RX lenses for children with up to 60% wider fields of view compared to ZEISS Single Vision Stock lenses.³

Available in: Plastic 1.5, Plastic 1.6, Plastic 1.67, Plastic 1.74,  Polycarb 1.59
  

Supported by ZEISS SmartView 2.0 technology, based on applied research of today’s lifestyle, visual behaviour and individual age-related visual needs. The first ZEISS Single Vision lenses optimised for both distance and near vision.

Available in: Plastic 1.5, Plastic 1.6, Plastic 1.67, Plastic 1.74, Trivex 1.53

These individualised lenses are perfectly adapted to your customers’ needs. It incorporates ZEISS SmartView 2.0 technology and ZEISS Intelligence Augmented Design technology and it’s optimised for distance and near vision. It considers the individual face measurements for the frame position.

Available in: Plastic 1.5, Plastic 1.6, Plastic 1.67, Plastic 1.74, Trivex 1.53

These all-purpose lenses incorporate ZEISS DriveSafe technology and a specialised coating to meet the vision needs of people who want to feel safer and more comfortable when driving, especially at night.

Available in: Plastic 1.5, Plastic 1.6, Plastic 1.67, Plastic 1.74

These lenses unlock the full potential of 3D vision. Powered by ZEISS DriveSafe technology, it features a specialised coating to support night-time driving. The customer’s position of wear parameters can also be individualised for better vision.

Available in: Plastic 1.5, Plastic 1.6, Plastic 1.67, Plastic 1.74

• Optimised by using only one free parameter in the lens radius.  
• Peripheral rays are more strongly refracted than rays at lens centre (spherical aberrations) resulting in optical compromise.  
• Any acceptably flat lens results in peripheral blur for the wearer.

• Optimised by using five free parameters in one meridian.  
• One aspherical surface, usually on the front, but the back surface remains a simple toric (two spheres at 90°).
• Provides optics similar to SPH, while improving on flatness.  
• When sph and cyl power increase, the same constraints result in increasing optical errors.

• Optimised using nine free parameters in two perpendicular meridians and blended in between.
• Replaces the toric back surface of an AS with two aspherical shapes perpendicular to each other (atoric).
• Improvement on an AS design, but blended area still compromises the optics.

• Point-by-point lens design optimisation using 700 free parameters for a highly complex lens surface.  
• The result is an FSV lens that is both very flat and thin and achieves excellent optics – with clear viewing from the lens centre to the periphery.