The properties of UV16 make it an excellent choice for many applications, including resonance extinction and biomedical products. The following are summaries of three use cases of UV16. Below is a table describing the applications and uses of UV16 summarized in this study.
Commercial and Research Uses of UV16
| Industry | Application | UV16 Uses | Critical Properties |
| Optical modulators | Microring resonators fabricated by electron beam bleaching of chromophore doped polymers1 | Provide high-integrity bond between substrate and solution | Cure properties Low viscosity for decreased bond thickness |
| Optical modulators | Polarity-independent optical waveguides2 | Provide high-integrity bond between substrate and solution | Low viscosity for decreased bond thickness |
| Instantaneous tissue scanning | Objective Lens for a Miniature Endoscopic Confocal Microscope3 | Enable fluorescent dye imaging and bond DOE to lens with create zero-gap seal | Low refractive index for dye imaging and low viscosity for minimal wicking and shrinkage |
Used in a wide range of applications, UV16 exhibits many properties that are advantaged for both performance and handling. Its viscosity is between 250-500 cps, greatly facilitating application where thin layers are desired. Its low shrinkage (1-2%) ensures the application surface area is primarily maintained after curing. UV16 exhibits a low refractive index of 1.511, which minimizes performance loss for electronic resonance reduction products. Since this is a one component system, there is no mixing involved, and it cures rapidly upon exposure to UV light at 365 nm. The polymer exhibits very high tensile strength/modulus and electrical insulation properties, mitigating weakening from exposure to extreme heat. Finally, UV16 is a cationic type cure system, which cures tack free and is not oxygen inhibited.
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1Haishan, Sun, et al., "Microring resonators fabricated by electron beam bleaching of chromophore doped polymers." Applied Physics Letters 92, 193305, 2008.
2Sun, H. et al., "Polarization selective electro-optic polymer waveguide devices by direct electron beam writing." Optics Express vol. 16, no. 12, 8472-9, 2008.
3Ferradi, Nabil. "Objective lens for a miniature endoscopic confocal microscope." Montana State University, 2005