Optical power distribution
Polarization Beam Splitter / Combiner: Coupling ratio and uniformity set the power delivered to each branch, while excess loss determines total source headroom.
| Part No. | Size (mm) | Application |
|---|---|---|
| PBS-RS | 15x30x2 | For red laser combing |
| PBS-RR | ￠ 15 x 2 | |
| PBS-BS | 15x15x2 | For blue laser combing |
| PBS-BR | ￠ 15 x 2 | |
| PBS-GS | 15x15x2 | For green laser combing |
| PBS-GR | ￠ 15 x 2 |
Application context
Why this design is used
Application fit depends on the ordered configuration; catalog values are separated from fields that still require confirmation.
Fiber sensing and monitoring
Polarization Beam Splitter / Combiner: A defined tap ratio extracts a measurement channel without disturbing the main path beyond its allowed insertion-loss budget.
Engineering reference
Specify Polarization Beam Splitter / Combiner from the interfaces inward
Polarization Beam Splitter / Combiner is a configurable fiber coupler, splitter or combiner in the Laser components and accessories family. The final part number should be released only after the optical, mechanical, electrical and environmental fields below are matched to the intended instrument.
A fiber coupler redistributes guided optical power between ports. Coupling ratio is only one part of the design: excess loss, uniformity, directivity, fiber mode and polarization behavior determine whether the component preserves the experiment’s optical budget.
Selection guidance describes the engineering fields that must be checked. It does not assign an option-dependent value that is absent from the catalog record.
Configuration fields to confirm
- Operating wavelength
- State the nominal wavelength and bandwidth over which the coupling ratio must hold.
- Port configuration
- Define 1×2, 2×2 or other topology and identify common, tap and output ports.
- Coupling ratio
- Specify nominal split, allowed uniformity and whether the requirement is wavelength dependent.
- Fiber type
- Match SM, PM, MM or double-clad fiber, including core, NA and mode-field diameter where relevant.
- Optical budget
- Confirm excess loss, insertion loss, return loss, directivity and maximum optical power.
- Packaging
- Choose connector polish, pigtail length, jacket, package size and environmental qualification.
Qualification sequence
- 1Define the measurement objective and the performance limit that Polarization Beam Splitter / Combiner must satisfy.
- 2Freeze wavelength, mechanical, fiber and electrical interfaces before selecting option codes.
- 3Check loss, noise, heat, motion or vibration contributions in the complete system budget.
- 4Confirm the final drawing, pinout, environmental suffix and acceptance test with the quotation.
Technical FAQ
Configuration questions for Polarization Beam Splitter / Combiner
What must be specified before ordering Polarization Beam Splitter / Combiner?
Confirm operating wavelength, port configuration, coupling ratio, fiber type, optical budget, and packaging. These fields are coupled, so the final part number should be checked against the complete instrument rather than selected from the model name alone.
How should Polarization Beam Splitter / Combiner be integrated into the system?
A fiber coupler redistributes guided optical power between ports. Coupling ratio is only one part of the design: excess loss, uniformity, directivity, fiber mode and polarization behavior determine whether the component preserves the experiment’s optical budget. Freeze the optical, mechanical and electrical interfaces before releasing the surrounding assembly.
Which documentation should be approved for Polarization Beam Splitter / Combiner?
Approve the configuration-specific specification, mechanical drawing, connector or pinout definition, environmental suffix and acceptance-test limits supplied with the quotation. Any field absent from the local record remains a confirmation item, not an assumed capability.