BS2000-16000 Beamsplitter

3. Applications

Beamsplitters appear in numerous optical devices, for example:

• Raman Spectrometers: They separate Rayleigh scattering from Raman signals effectively.
• Michelson Interferometers, Confocal Microscopes: These employ them for dividing and merging optical paths.

4. Materials and Structure

Standard base materials feature optical glass, fused silica, calcium fluoride, and zinc selenide, picked to suit the working wavelength and output standards. The film layer generally includes stacked dielectric films or combined metal-dielectric layers, crafted to deliver targeted splitting results. Additionally, some beamsplitters incorporate joined or air-spaced designs to enhance efficiency or fit particular settings.

5. Usage and Environmental Considerations

1. Incident Angle: Maintaining the planned range of entry angles proves essential, because it helps prevent shifts in the splitting ratio and transmission effectiveness.
2. Temperature Effects: Shifts in temperature might change the film’s refractive index and depth, thereby possibly leading to changes in splitting traits.
3. Cleaning and Maintenance: Prevent buildup from oils and particles; rather, employ dedicated cleaning items and fluids to avoid harming the film.
4. Storage Environment: Keep it in a dry space without corrosive gases, and moreover, seal it against dampness for prolonged periods.

6. Customization and Services

We deliver adapted beamsplitter choices aligned with client specifications, such as:

• Defined splitting ratios and wavelength bands
• Polarization management and non-polarized arrangements
• Assorted measurements, outlines, and connection matches
• Coatings resistant to high-power lasers
• Assistance with design reviews, sample delivery, and testing for performance

Under our guiding principle of “Integrity, Technology, and Customer First,” we pledge to supply durable, trustworthy beamsplitter goods and skilled optical guidance to customers across the globe.