A spectroscope is a lens that allows part of the light to pass through and part of it to achieve the spectroscopic effect. A special film is coated on the surface so that the incident light can be reflected half and transmitted half, thus dividing a beam of light into a reflected beam and a transmitted beam, forming two beams of light. The spectroscope reflects part of the incident light energy, absorbs a relatively small amount, and transmits the rest of the energy. The spectroscope has a distinct neutral color characteristic. The spectroscope is made of multi-layer dielectric film vacuum evaporation, without the problem of metal film absorption, and the total ratio of penetration and reflection is close to 100.


Model: 50:50 beam splitter
Specifications: Customized
Material: Optical glass

Product features

Special imported optical substrate
High-precision spectroscopic medium coating
No ghosting, no ghosting, high finish
Clear imaging, no black spots, no stray light

Main Features

50:50 beam splitter1 50:50 beam splitter250:50 beam splitter350:50 beam splitter4

General parameters

Commonly used splitting ratios (T: transmittance R: reflectivity)
T:R=50%:50%T:R=60%:40%T:R=70%:30%T:R=80%:20%
T:R=90%:10%T:R=95%:5%T:R=98%:2%R:T=99%:1%
R:T=98%:2%R:T=95%:5%R:T=90%:10%R:T=80%:20%
R:T=70%:30%R:T=60%:40%
Spectral band (the band in which the light source works)
470nm spectrophotometry (light source: blue LED light source)532nm spectrophotometry (light source: green laser module feedback mirror)
650nm spectrophotometry (light source: red LED pump light source)850nm spectrophotometry (light source: 850nm infrared laser pumping)
380~760nm spectroscopy (light source: all visible light sources)

Transmittance wavelength characteristics (reference data)

50:50 beam splitter Transmittance wavelength characteristics

Applications

Interferometry::Creates two coherent beams for applications like the Michelson or Mach-Zehnder interferometers.

Laser Systems::Splits laser beams for diagnostics, beam sampling, or combining multiple paths.

Optical Imaging::Directs light to cameras, detectors, or other optical instruments for simultaneous observation.

Quantum Optics::Used in experiments involving photon entanglement and quantum computing.