Product list
List of vapor deposition materials
Category |
|
Refractive index | ~ |
Shape | |
Evaporation source |
- * Please refer to the following for a list of products by shape and size.
Refractive index※1 | Product name | Main compound | Pellet※2 | Granule※3 | Evaporation source | Stress※5 | Remarks | ||
---|---|---|---|---|---|---|---|---|---|
EB | RH | ||||||||
Optical film materials | 1.33 | Chiolite | Na5Al3F14 | ○ | ○ | ○ | Mo,Ta | - | |
Optical film materials | 1.35 | Cryolite | Na3AlF6 | - | ○ | ○ | Mo,Ta | T | |
Optical film materials | 1.36 | AlF3 | AlF3 | - | ○ | × | Mo,Ta,W | T | |
Optical film materials | 1.38 | MgF2 | MgF2 | ○ | ○ | △ | Mo,Ta | T | |
Optical film materials | 1.43 | CaF2 | CaF2 | - | ○ | △ | Mo,Ta,W | T | |
Optical film materials | 1.47 | SiO2 | SiO2 | ○ | ○ | ○ | - | C | |
Optical film materials | 1.48 | BaF2 | BaF2 | - | ○ | ○ | Mo,Ta,W | - | Transparent in the infrared region |
Optical film materials | 1.48 | S4F | SiO2+Al2O3 | - | ○ | ○ | × | C | |
Optical film materials | 1.48 | S5F | SiO2+Al2O3 | ○ | ○ | ○ | × | C | |
Optical film materials | 1.52 | YF3 | YF3 | - | ○ | ○ | × | - | |
Optical film materials | 1.59 | LaF3 | LaF3 | - | ○ | × | Mo,Ta | T(Thin film)/C(Thick film) | |
Optical film materials | 1.60 | CeF3 | CeF3 | - | ○ | × | Mo,Ta,W | T | |
Optical film materials | 1.60 | NdF3 | NdF3 | - | ○ | × | Mo,Ta | - | |
Optical film materials | 1.64 | Al2O3 | Al2O3 | ○ | ○ | ○ | × | T | Stabilized by the inclusion of oxygen |
Optical film materials | 1.69 | OM-4 | ZrO2+Al2O3 | ○ | - | ○ | × | T | |
Optical film materials | 1.7-2.0 | SiO | SiO | ○ | ○ | △ | Mo,Ta | T | |
Optical film materials | 1.7-2.0 | LUMILEAD SiO | SiO | - | ○ | △ | Mo,Ta | T | Product of the low splash generation |
Optical film materials | 1.74 | MgO | MgO | - | ○ | ○ | × | C | |
Optical film materials | 1.75 | OM-6 | ZrO2+Al2O3 | ○ | - | ○ | × | T | |
Optical film materials | 1.81 | Y2O3 | Y2O3 | ○ | ○ | ○ | × | - | |
Optical film materials | 2.00 | OH-14 | La2Ti2O7 | - | ○ | ○ | × | T | |
Optical film materials | 2.00 | Nb2O5 | Nb2O5 | - | ○ | ○ | × | T/C(IAD) | |
Optical film materials | 2.00 | Degassed Nb2O5 | Nb2O5 | - | ○ | ○ | × | T/C(IAD) | Requires the inclusion of oxygen |
Optical film materials | 2.05 | OA-100 | Ta2O5 | - | ○ | ○ | × | T | Requires the inclusion of oxygen |
Optical film materials | 2.06 | HfO2 | HfO2 | ○ | ○ | ○ | × | T | Transparent in the ultraviolet region |
Optical film materials | 2.07 | ZrO2 | ZrO2 | ○ | ○ | ○ | × | T/C(200℃) | |
Optical film materials | 2.10 | ZrO2+Ta2O5 | ZrO2+Ta2O5 | ○ | - | ○ | × | - | |
Optical film materials | 2.13 | CeO2 | CeO2 | ○ | ○ | ○ | W | C | Absorbs ultraviolet rays |
Optical film materials | 2.14 | WO3 | WO3 | ○ | - | ○ | W | - | |
Optical film materials | 2.15 | OH-2 | ZrO2+TiO2 | ○ | - | ○ | × | T | |
Optical film materials | 2.16 | OH-6 | ZrO2+TiO2 | ○ | - | ○ | × | T | |
Optical film materials | 2.18 | OH-5 | ZrO2+TiO2 | ○ | - | ○ | × | T | |
Optical film materials | 2.20 | Ta2O5 | Ta2O5 | - | ○ | ○ | × | T | |
Optical film materials | 2.22 | OA-500 | Ta2O5+ZrO2 | - | ○ | ○ | × | - | |
Optical film materials | 2.24 | OA-600 | Ta2O5+TiO2 | - | ○ | ○ | × | - | |
Optical film materials | 2.30 | ZnS | ZnS | ○ | ○ | ○ | Mo,Ta | C | |
Optical film materials | 2.30 | OS-30 | Ti3O5 | ○ | - | ○ | W | T | Requires the inclusion of oxygen |
Optical film materials | 2.31 | OS-50 | Ti3O5 | - | ○ | ○ | W | T | Requires the inclusion of oxygen |
Optical film materials | 2.33 | OS-10 | Ti4O7 | - | ○ | ○ | W | T | Requires the inclusion of oxygen |
Optical film materials | 2.33 | Ti2O3 | Ti2O3 | - | ○ | ○ | W | T | Requires the inclusion of oxygen |
Optical film materials | 2.35 | TiO | TiO | - | ○ | ○ | W | T | Requires the inclusion of oxygen |
Optical film materials | 2.35 | TiO2 | TiO2 | - | ○ | ○ | × | T | |
Metallic film materials | - | Ag | Ag | - | ○ | △ | Mo,Ta | - | |
Metallic film materials | - | Al | Al | ○ | - | △ | W | - | Mainly wire-shaped |
Metallic film materials | - | Au | Au | - | ○ | △ | W | - | |
Metallic film materials | - | Cr | Cr | - | ○ | × | W | - | |
Metallic film materials | - | Ni | Ni | - | ○ | △ | W | - | |
Water-repellent film materials Oil-repellent film materials |
1.34 | SURFCLEAR300 | Organic material | ○ | - | △ | Mo,Ta,W | - | Organic material |
Water-repellent film materials Oil-repellent film materials |
1.33 | SURFCLEAR100 | Organic material | ○ | - | △ | Mo,Ta,W | - | Organic material |
Water-repellent film materials Oil-repellent film materials |
1.35 | OF-SR | Organic material | ○ | - | △ | Mo,Ta,W | - | Organic material |
Water-repellent film materials Oil-repellent film materials |
1.33 | OR-510 | Organic material | ○ | - | △ | Mo,Ta,W | - | Organic material |
Hydrophilic film materials | 1.55 | PHILICFINE HP-1 | Ca5 (PO4)3 (OH) | - | ○ | ○ | × | - | *Please use Mo,W Hearth |
Hydrophilic film materials | 1.65 | PHILICFINE HP-2 | Ca5 (PO4)3 (OH) | - | ○ | ○ | × | - | *Please use Mo,W Hearth |
Hydrophilic film materials | 1.81 | PHILICFINE HP-3 | Ca5 (PO4)3 (OH) | - | ○ | ○ | × | - | *Please use Mo,W Hearth |
Transparent conductive film materials Antistatic film material |
1.99 | I.T.O | In2O3+SnO2 | ○ | ○ | ○ | Ta,W | C | Transparent conductive film |
Antistatic film material | 2.54 ※4 | LUMILEAD TNO | Ti3O5 | - | ○ | ○ | × | T | Antistatic performance |
Pellet-type Material
Easy-to-use, pellet-type materials of various shapes are available, allowing for choosing the one best suited to your hearth liner. Also available are pellets of high thermal shock resistance material that can tolerate the high energy from an electron gun or other energy source.
Granule-type Materials
Granule types let you add evaporation materials as needed, so they are suited for continuous evaporation. We also provide low gas granules that emit only a low level of gas, preventing adverse effects on the strength and durability of the film.
Functional Materials
Functional materials are evaporation materials, which are used to fabricate organic thin films having special functions such as water repellency, antifouling property or other non-optical properties. Unlike the conventional coating method using a solvent, it is possible to proceed to the water repellent or antifouling processing stage just after the anti-reflection coating process because the coating is done by vacuum evaporation.