| Availability: | |
|---|---|
| Quantity: | |
| PDF Export | |
Product Description
| Parameter | Unit | Value |
|---|---|---|
| Center Wavelength | nm | 1064, 1030, 980, 780 or Specified |
| Operating Wavelength Range | nm | ±5 |
| Typical Extinction Ratio (@23°C) | % | 95 |
| Typical Isolation (@23°C) | dB | 30 |
| Minimum Isolation (@23°C) | dB | 26 |
| Typical Insertion Loss (@23°C) | dB | 0.15 |
| Maximum Insertion Loss (@23°C) | dB | 0.3 |
| Minimum Return Loss (Input/Output) | dB | 50 |
| Maximum Average Power | W | 5, 10, 20 or Specified |
| Beam Diameter | mm | ≤2.0 (Aperture 5.2mm); ≤5.0 (Aperture 5.5mm) |
| Package Dimensions | mm | 58×28×26 (Aperture 5.2mm); 84×28×26 (Aperture 5.5mm) |
| Operating Temperature | °C | +10~+50 |
| Storage Temperature | °C | 0~+60 |
100W High-Power Tolerance: Supports up to 100W continuous-wave power + 10kW peak pulses (5ns), catering to high-power MOPA fiber lasers and amplifiers (a capability rarely offered by entry-level free-space isolators).
Ultra-Low Insertion Loss: 0.15dB typical loss (max 0.3dB) — 70% lower than standard free-space isolators, minimizing signal attenuation in high-gain systems.
Broad Wavelength Coverage: 780-1080nm range (780/980/1030/1064nm) eliminates the need for multiple single-wavelength isolators in multi-band setups.
Dual Aperture Options: 5.2mm (≤2.0mm beam) and 5.5mm (≤5.0mm beam) apertures to fit diverse free-space beam sizes.
High Extinction Ratio: 95% typical extinction ratio ensures near-complete suppression of reverse light interference.
Robust TGG Stability: TGG crystal core maintains consistent performance across +10~+50°C operating temperatures, suitable for industrial environments.
Pump Fiber Amplifiers: Protects high-gain amplifiers from reverse pump light in free-space coupling setups.
MOPA Fiber Lasers: Ensures stable output for high-power pulsed laser systems used in industrial processing.
Fiber Lasers: Shields laser diodes from back-reflection damage in free-space beam delivery systems.
Optical Test Instruments: Maintains measurement accuracy in high-power component validation labs.