Polarization Beam Combiner/Splitter (GK-IPBC/IPBS Series)
description1
Specifications
Parameter |
Unit |
Single Stage Dual stage |
Center Wavelength (λc) |
nm |
1310, 1480, 1550 |
Operating Wavelength Range |
nm |
λc ± 20 |
Typ. Insertion loss |
dB |
0.45 0.55 |
Max. Insertion loss |
dB |
0.7 0.8 |
Min. Isolation |
dB |
20 42 |
Min. Extinction Ratio (for splitter only) |
dB |
20 20 |
Min. Return Loss |
dB |
50 |
Directivity |
dB |
50 |
Max. Optical Power (continuous wave) |
mW |
300 |
Fiber Type |
- |
PM Panda Fiber for Ports 1 & 2, SMF-28 or PM Panda Fiber for Port 3 |
Max. Tensile Load |
N |
5 |
Operating Temperature |
℃ |
- 5 to + 70 |
Storage Temperature |
℃ |
- 40 to + 85 |
¹IL is 0.3 dB higher, RL is 5 dB lower, and ER is 2 dB lower for each connector added. Connector key is aligned to slow axis. | ||
Package Dimensions
product description
The GKER Photonics Polarization Beam Combiner/Splitter (GK-PBC/PBS Series) is a compact, high-performance optical component designed to either combine or split light based on polarization. It is specifically engineered to merge two orthogonal polarization signals into a single output fiber, which is particularly valuable in applications such as EDFA (Erbium-Doped Fiber Amplifiers) or Raman Amplifiers, where combining the output of two pump lasers into one fiber significantly enhances power output.
This versatile device can also function as a beam splitter, separating incoming light into two polarization components. The Polarization Beam Combiner/Splitter is built with precision to ensure minimal insertion loss, high extinction ratio, and excellent return loss, making it ideal for use in high-power optical systems.
The device is available in various configurations, including different operating wavelengths, fiber types, and connector options, allowing for seamless integration into existing optical networks. With its robust design and reliable performance across a broad temperature range, the GK-PBC/PBS Series is an essential component for optimizing optical signal management in advanced photonic systems.


