Product Descriptions:
| Characteristics: | Optical Glass Coated Teleprompter Beam Splitter Mirror |
| Type: | Beam splitter |
| Wavelength: | Full spectral band reflection |
| Peak Transmittance(%) : | 50% |
| Split Ratio (T/R) | 70/30, 65/35, 60/40 (T% / R%) |
| Surface Quality | 60/40 scratch-dig |
| Dimension(mm): | Specified** |
| Thickness(mm): | 0.2 ~ 2.0 mm |
| Substrate: | BK7 / K9 / Optical Grade Low-Iron Ultra-Clear Glass |
| color | Translucent Silver |
| Coating Technology | Front surface: Multi-layer Dielectric Coating Back surface: Multi-layer Anti-Reflective (AR) Coating |
| Remark： Spectral range:200-1100nm *Customized capability: 380-2500nm, stock for 10nm intervals. **Common for 86x86mm, 80x80mm, other can customized, max. 300x300mm *** Thickness available: 0.21、0.3、0.55、0.7、1.0、1.1、1.5、1.8、2.0、3.0mm…etc | |
What is A Optical Glass Coated Teleprompter Beam Splitter Mirror?
An Optical Glass Coated Teleprompter Beam Splitter Mirror is a precision-engineered optical component designed specifically for teleprompter systems. It allows a speaker to read scrolling text while maintaining direct eye contact with the camera lens, creating a natural and engaging connection with the audience.
What is typical application for Optical Glass Coated Teleprompter Beam Splitter Mirrors?
What is key parameter when choose for Optical Glass Coated Teleprompter Beam Splitter Mirrors?
When selecting a optical glass coated teleprompter beam splitter mirrors, the optical split ratio (T/R) will be one of the most critical parameter, determining the balance between text brightness and camera exposure. Secondly, Coating Quality & Ghosting Elimination, the coating distinguishes professional beam splitters from ordinary glass. Third, glass substrate material. Forth, thickness. Thickness directly impacts ghosting control and physical fit. Fifth, size and shape. Sixth, spectral flatness. Seventh, polarization compatibility, etc.
Shenzhen Hengda Liyuan Optoelectronics introduced advanced optical technology that apply depositing nanomaterials through ion-assisted evaporation onto a multilayer hard film in a high vacuum environment which coating layer is firm and has good tightness, and small bandwidth drift.
