Laser Cavity

① Dimension: L≤380mm, W≤380mm,H≤380mm (tolerance ±0.1)
② Long through hole diameter D=φ5mm-φ30mm (tolerance ±0.1)
③ Working surface parallel: S1∥S2≤10"
④ Working surface accuracy: better than λ/8
⑤ Working area defect: better than 40/20
⑥ Material: ULE, zerdour,fused silica
Note: The specific indicators are not limited to the above scope, and can be customized according to user's needs.
Application:Laser
Product Description

Precision Laser Cavities for Quantum Computing, Spectroscopy & Photonics

When your research demands ultra-stable laser cavities with sub-micron precision, our solutions deliver unmatched performance. Designed for quantum computing, ultrafast spectroscopy, and photonics R&D, our Laser Cavity systems combine cutting-edge engineering with flexible customization to meet your exact experimental needs. Whether you’re stabilizing qubits or pushing the limits of spectral resolution, we provide the reliability and technical collaboration your work deserves.

Technical Specifications & Customization

Core Parameters

  • Dimensions: Up to 380mm x 380mm x 380mm (±0.1mm tolerance)
  • Materials: ULE, Zerodur, or fused silica for thermal stability
  • Surface Accuracy: Better than λ/8, with parallelism ≤10 arcseconds
  • Hole Diameter: φ5mm–φ30mm (±0.1mm)

Tailored to Your Needs

  • Adjust cavity length, mirror coatings, or resonance modes for multi-wavelength experiments.
  • Integrate nonlinear crystals or modulators for frequency-doubling setups.
  • Choose from standard designs or co-develop a fully customized system with our engineers.

Download Spec Sheets: Access detailed CAD files and interferometry reports.

Parameters

Specification Value
Dimensions L≤380mm, W≤380mm, H≤380mm (tolerance ±0.1)
Long through hole diameter D=φ5mm-φ30mm (tolerance ±0.1)
Working surface parallel S1∥S2≤10"
Working surface accuracy Better than λ/8
Working area defect Better than 40/20
Materials ULE, Zerodur, Fused Silica

Note: Custom specifications available upon request.

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Applications Driving Discovery

  • Quantum Computing: Achieve sub-MHz linewidths and finesse >100,000 for qubit control and entanglement studies, leveraging ultra-stable cavities with <0.15nm surface roughness to minimize photon scattering—critical for maintaining quantum coherence. These precision components reduce decoherence risks, enabling longer qubit interactions essential for complex quantum algorithms, while their low absorption coatings preserve signal integrity in delicate quantum states, supporting breakthroughs in cryptography and molecular modeling.​
  • Ultrafast Spectroscopy: Minimize thermal drift with ultra-low expansion materials, ensuring consistent results over 5+ years, as their <3.0×10⁻⁶/K expansion coefficient resists temperature-induced wavelength shifts. This stability is vital for tracking rapid molecular dynamics, where even nanoscale changes in optical alignment would distort spectral data. Paired with high-reflectivity coatings (420nm–3000nm), they deliver reliable photon flux, enhancing detection sensitivity in studies of chemical reactions and biological processes.​
  • Photonics R&D: Modular designs allow rapid reconfiguration—swap mirror mounts or test new coatings in hours, not weeks, accelerating prototyping cycles for next-gen lasers and sensors. With 6 substrate options and customizable coatings, researchers can iterate on cavity designs, optimizing for specific wavelengths or environmental conditions, while Class 100 cleanroom fabrication ensures contamination-free performance, reducing experimental variables in cutting-edge photonics innovations.​
  • Case Study: MIT’s Quantum Lab reduced mode-hopping issues by 60% using our actively stabilized cavities, which combined sub-MHz linewidths with thermal resilience (-200°C to 300°C) to maintain stable laser output. This improvement enabled longer qubit coherence times, streamlining data collection in entanglement experiments and accelerating progress toward scalable quantum computing systems, validating the components’ role in high-impact research.

Trusted Support for Complex Challenges

Pre- to Post-Purchase Assistance

  • Installation & Calibration: On-site alignment support for seamless integration.
  • Lifetime Monitoring: Remote diagnostics and recalibration alerts via our cloud platform.
  • 24/7 Urgent Support: Chat live with engineers for real-time troubleshooting.

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Certifications You Can Rely On

  • ISO 9001 & ISO 13485 certified manufacturing
  • RoHS/REACH compliance for EU projects
  • IEC 60825 laser safety validation
  • NIST-traceable calibration reports

Every cavity undergoes 200+ hours of thermal cycling and vibration testing.

What Researchers Say

“Switching to their Laser Cavity cut our alignment time by half. The customizable coatings were a game-changer.”— Dr. Elena Torres, Photonics Lab, ETH Zurich

Global Delivery, Scalable Solutions

  • Fast-Track Orders: Receive pre-configured units in 3 weeks.
  • Bulk Pricing: Save 15% on orders of 10+ units.
  • DDP Shipping: No hidden fees—we handle customs clearance.

FAQ

1. Can I adjust the cavity length post-purchase?

Yes! Our modular designs allow length adjustments via interchangeable spacers.

2. How do you mitigate thermal drift?

We use ULE/Zerodur materials with CTE <1×10⁻⁸/K and optional active feedback systems.

3. What’s the maximum Q-factor achievable?

Up to 2×10⁶ in vacuum-ready configurations—ideal for quantum optics.

4. Do you provide alignment protocols?

Yes. Receive step-by-step guides + video tutorials tailored to your setup.

5. Are your coatings suitable for 1064nm lasers?

Absolutely. Our HR coatings achieve <10 ppm losses at NIR wavelengths.

Precision starts here. Let’s build your Laser Cavity solution today.

Ready to Optimize Your Setup?

Request a Custom Quote or Schedule a Demo about Laser Cavity

Lead Time: 6–8 weeks for custom designs | Response Time: <24 hours

Email: xachaona@163.com

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