Fiber Coupled PPLN Waveguide Device for Quautum Optics
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Ships from:
China
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Sold by:
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On FindLight:
since 2020
Description
The CSRayzer Fiber-Coupled PPLN Waveguide Device is a high-performance frequency conversion module engineered for efficient second harmonic generation (SHG) applications. Utilizing periodically poled lithium niobate (PPLN) waveguide technology, it significantly enhances nonlinear optical conversion efficiency compared to bulk PPLN crystals. Designed with a robust, compact fiber-coupled package, it ensures long-term stability and ease of integration into optical systems.
This device accepts PM1550 fiber input at 1560 nm and converts it to 780 nm via SHG with high conversion efficiency, delivering output power up to 2 W. It supports both fiber-coupled output and free-space configurations, making it suitable for a range of high-precision photonic applications. Advanced packaging techniques allow the device to handle pump powers up to 5 W while maintaining excellent thermal stability and polarization extinction ratio (≥18 dB).
Integrated with a TEC and 4-pin electrical interface for temperature control and monitoring, the device ensures consistent performance over a wide operating temperature range of -20°C to +70°C. Ideal for quantum optics, precision metrology, and high-resolution spectroscopy, this waveguide module delivers exceptional efficiency and reliability.
Fiber Coupled PPLN Waveguide Device for Quautum Optics
Specifications |
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Coupling Platform Modules: | Six-axis alignment system, Planar waveguide carrier, Vision module, UV curing module, Pressure sensing system, Stereo microscope module, Extinction ration tester, Software |
Extinction Ratio Wavelength Range: | 780 – 1560 nm |
Extinction Ratio Measurement Range: | 1 – 50 dB |
Pump Input Fiber Type: | PM1550 |
Electrical Interface: | |
Output Fiber Type: | PM780HP |
Pump Input Power @1560nm: | 5 W |
Output Power @780nm: | 2 W |
Electrical Interface: | 4Pin |
Working Temperature: | -20 to 70 ℃ |
Polarization Extinction Ratio: | ≥18 dB |
TEC Current: | 1.6 A |
NTC Impedance @25℃: | 10 kΩ |
Operating Temperature Range: | -20 to +70 °C |
Storage Temperature Range: | 15 to 30 °C |
Features
- High Conversion Efficiency: PPLN waveguide structure enables superior SHG efficiency
- Compact Fiber-Coupled Package: Integrated fiber input and output for simplified system integration
- High Output Power: Delivers up to 2 W at 780 nm with 5 W pump input
- Thermal Control: Integrated TEC and NTC sensor for stable operation
- Polarization Maintaining Design: Ensures stable output with ≥18 dB PER
- Wide Operating Temperature: Performs reliably from -20°C to +70°C
- Custom Output Options: Supports fiber or free-space output configurations
Applications
- Quantum Optics: Efficient frequency doubling for quantum communication systems
- High-Resolution Spectroscopy: Narrow linewidth output for precise optical analysis
- Laser Seeding and Pumping: Ideal for wavelength conversion in laser setups
- Optical Metrology: Stable output for interferometry and precision measurement
- Biomedical Imaging: Supports nonlinear optical techniques such as SHG microscopy
Frequently Asked Questions
The PPLN waveguide structure offers significantly higher nonlinear optical conversion efficiency due to tight optical confinement. This allows for more efficient second harmonic generation (SHG) at lower pump powers compared to bulk PPLN crystals.
Yes, this device supports both fiber output (PM780HP) and free-space output configurations. The desired output type can be specified at the time of ordering, depending on system requirements.
The device is designed to handle pump powers up to 5 W at 1560 nm. Exceeding this value may impact performance or damage the waveguide structure, so it is important to adhere to this specification.
The module includes a built-in Thermoelectric Cooler (TEC) and NTC sensor with a 4-pin electrical interface for active temperature control. This ensures stable operation across the full working temperature range of -20°C to +70°C.
This device is ideal for quantum optics, spectroscopy, metrology, laser seeding, and biomedical imaging applications where efficient, stable, and narrow-linewidth wavelength conversion is critical.