Filter Manufacturing Technology
Everix's manufacturing platform is based on thermal drawing of a scaled-up multi-layer block (a preform) down to a substrate-free ultra-thin optical filter. This process is similar to how optical fibers are thermally drawn from a fiber preform and demonstrates scaling economics significantly better than the traditional coating-based methods of manufacturing optical filters. While we currently use this technology for small- to medium-size optical filters,
Patents
With Innovation at the core of Everix, we hold a total of 36 patents (16 issued) globally on its innovative processes, equipment, products and devices, and key applications.
Why Everix Technology?
Everix' thermally drawn ultra-thin optical filters are best suited for applications where compact form factor, non-traditional geometries, angular shift reduction, light weight, and economic scaling are critical.
Compact & Complex Forms
for optical devices with limited space, or for the most innovative optical designs benefitting from non-traditional filter geometries.
Enhanced
Signal-to-Noise Ratio
for optical devices where every micron of gap between a source of light and a sensor means reduced signal or increased noise.
Conformal to Free-Form Optics
for retrofitting simple or complex optical filter designs to any non-flat optical surface that challenges traditional coating methods.
Light Weight
for devices that can benefit from reduced substrate weight or a replacement of filter-coated glass components with plastic optics.
Compensated Angular Shift
for optical devices that can benefit from an interference filter in a curved geometry to compensate for (and even completely eliminate) the undesired spectral shift of thin-film interference filters.
Application & Technical Notes
The unique product features offered by Everix' thermally-drawn optical filters bring to life new application areas, filter application modalities, and technical benefits beyond traditional possibilities. You can find below the application and technical notes that our team has prepared for you and your team.
Product Specifications
Part Number | Filter Type | Specifications | Curve (PDF) | Data file (CSV) |
|---|---|---|---|---|
003-063-1 | Longpass | Cut-on WL = 875 nm ± 2%, OD4 Blocking width = 736-845 nm, D = 12.5 ± 0.15mm, CA > 90%, Thickness <0.3 mm | Open | Download |
003-064-1 | Longpass | Cut-on WL = 925 nm ± 2%, OD4 Blocking width = 778-893 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-065-1 | Longpass | Cut-on WL = 950 nm ± 2%, OD4 Blocking width = 799-917 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-066-1 | Longpass | Cut-on WL = 975 nm ± 2%, OD4 Blocking width = 820-941 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-067-1 | Longpass | Cut-on WL = 1000 nm ± 2%, OD4 Blocking width = 842-965 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-068-1 | Longpass | Cut-on WL = 1025 nm ± 2%, OD4 Blocking width = 863-989 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-069-1 | Longpass | Cut-on WL = 1050 nm ± 2%, OD4 Blocking width = 884-1014 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-070-1 | Longpass | Cut-on WL = 1075 nm ± 2%, OD4 Blocking width = 905-1038 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-071-1 | Longpass | Cut-on WL = 1100 nm ± 2%, OD4 Blocking width = 926-1062 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-072-1 | Longpass | Cut-on WL = 1150 nm ± 2%, OD4 Blocking width = 968-1110 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-073-1 | Longpass | Cut-on WL = 1200 nm ± 2%, OD4 Blocking width = 1010-1158 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
003-074-1 | Longpass | Cut-on WL = 1250 nm ± 2%, OD4 Blocking width = 1052-1207 nm, D = 12.5 ± 0.15mm, CA > 90% | Open | Download |
Frequently Asked Questions
A new tool in the optics toolbox sparks numerous new questions and ideas!
Please contact us to brainstorm if you don't find the answer to your questions here.