Polarized Continuous-Wave 1064 nm High-Power Laser Module
| Origin | Shanghai |
|---|---|
| Manufacturer Type | Distributor |
| Origin Category | Domestic |
| Model | YC-LP01 |
| Output Power | 50–80 W |
| Wavelength | 1064 nm |
| Polarization Ratio | 100:1 |
| Beam Diameter (1/e²) | 3 mm |
| Operation Mode | CW |
| MTBF | ≥10,000 hours |
| Thermal Lens Effect | Low |
| Wall-Plug Efficiency | High |
| Package Dimensions | Compact OEM Housing |
Overview
The Polarized Continuous-Wave 1064 nm High-Power Laser Module (Model YC-LP01) is an industrial-grade solid-state laser source engineered for demanding applications requiring stable, linearly polarized, diffraction-limited output at the fundamental Nd:YAG wavelength. Based on diode-pumped Nd:YVO₄ or Nd:YAG crystal architecture with intracavity polarization control, this module delivers continuous-wave radiation with minimal thermal lensing—achieved through optimized thermal management design and low-absorption optical coatings. Its 100:1 polarization extinction ratio ensures high-fidelity polarization purity essential for nonlinear optical processes such as second-harmonic generation (SHG), optical parametric oscillation (OPO), and electro-optic modulation. Designed for integration into OEM systems, the module complies with IEC 60825-1:2014 Class 4 laser safety requirements and features built-in interlock circuitry, temperature monitoring, and TTL/analog power control interfaces.
Key Features
- Stable linearly polarized CW output at 1064 nm with polarization extinction ratio ≥100:1 (measured at beam center, 1/e² intensity profile)
- Output power range of 50–80 W, factory-calibrated and thermally stabilized across ambient temperatures from 15 °C to 35 °C
- Low thermal lens effect enabled by monolithic cavity design, water-cooled baseplate, and high-conductivity heat-sink integration
- Compact OEM housing (typical dimensions: 120 × 80 × 45 mm) with standardized mechanical mounting interface and SMA905 or QBH fiber-coupling options (optional)
- High wall-plug efficiency (>18%) and low standby power consumption (<5 W), reducing operational energy load in 24/7 industrial environments
- Long operational lifetime exceeding 10,000 hours (MTBF) under nominal drive conditions, validated per Telcordia GR-468-CORE reliability testing protocols
- Integrated digital monitoring via RS232/RS485 or USB-C interface: real-time reporting of diode current, crystal temperature, output power, and fault status
Sample Compatibility & Compliance
This laser module is compatible with standard optical tables, kinematic mounts, and automated alignment stages used in R&D laboratories and production lines. It supports direct free-space coupling into nonlinear crystals (e.g., KTP, LBO, BBO) and serves as a robust seed source for MOPA fiber amplifier systems. The module conforms to ISO 11146-1:2019 for beam parameter measurement methodology and meets electromagnetic compatibility requirements per EN 61326-1:2013 (industrial environment). All units undergo full burn-in (≥48 h at rated power) and pass 100% power stability verification (RMS fluctuation <±0.75% over 8 h, measured with calibrated photodiode and data acquisition system). Safety compliance includes embedded key switch, emergency stop input, and dual-channel hardware interlock per IEC 61508 SIL2 functional safety guidelines.
Software & Data Management
The module ships with cross-platform configuration software (Windows/macOS/Linux) supporting remote power ramping, temperature setpoint adjustment, and diagnostic logging. All operational parameters—including timestamped power drift, thermal transient response, and interlock event history—are stored in CSV-compliant files with optional encryption. Audit trails comply with FDA 21 CFR Part 11 requirements when deployed in regulated manufacturing environments (e.g., medical device laser processing or pharmaceutical analytical instrumentation). Firmware updates are delivered via signed binary packages with SHA-256 hash verification. Optional SDK (C/C++, Python, LabVIEW) enables integration into custom QC/QA workflows and automated test systems compliant with ISO/IEC 17025 calibration traceability frameworks.
Applications
- Nonlinear frequency conversion: SHG to 532 nm, THG to 355 nm, and OPO pumping in spectroscopy and ultrafast pulse generation systems
- Polarization-sensitive metrology: ellipsometry, stress-induced birefringence mapping, and Mueller matrix characterization of optical components
- Industrial material processing: precision welding of copper and aluminum alloys where polarization control improves melt pool stability
- Medical laser systems: pump source for tunable mid-IR lasers used in dermatology and minimally invasive surgery
- Scientific research: cold atom trapping (MOTs), optical lattice experiments, and quantum optics setups requiring high polarization fidelity and long-term amplitude stability
- Seed source for high-energy ns/ps pulsed amplifiers in LIBS, laser-induced breakdown spectroscopy, and remote sensing platforms
FAQ
What is the typical beam divergence and M² factor for this module?
Beam divergence is ≤1.5 mrad (full angle), and M² is ≤1.3, measured per ISO 11146-2:2019 using scanning slit profiler.
Is fiber coupling available as a standard option?
Yes—QBH and SMA905 fiber-coupled variants are available with NA 0.15, core diameters of 100 µm or 200 µm, and polarization-maintaining (PM) delivery fibers (optional).
Does the module support analog modulation?
Yes—0–5 V analog input enables linear power modulation up to 10 kHz bandwidth; modulation depth is ≥95% with ≤1% harmonic distortion.
Can this laser be integrated into a cleanroom-compatible process tool?
Yes—the housing is sealed to IP54, uses non-outgassing materials (per ASTM E595), and operates without oil-based cooling media—compatible with ISO Class 5 cleanroom environments.
What documentation is provided for regulatory submissions?
Includes EU Declaration of Conformity, RoHS/REACH certificates, full test reports (power stability, beam quality, safety), and traceable calibration certificates accredited to ISO/IEC 17025.

