Single Crystal Silicon Super Stable Cavity-Circular Cavity

this product only accept processing based on user's drawings
① Dimension: D=φ10-100mm,L=5-200mm(tolerance ±0.1)
② Long through hole diameter D=φ4m-φ12mm
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: single srystal silicon
Note: The specific indicators are not limited to the above scope, and can be customized according to user's needs.
Application:Time-frequency transmission, quantum computing, quantum communication, gravitational wave detection, optical fiber communication
Product Description

Single Crystal Silicon Super Stable Cavity-Circular Cavity Overview

In the realm of ultra-stable optical systems, the Single Crystal Silicon Super Stable Cavity-Circular Cavity sets a new benchmark for thermal and mechanical precision. Engineered with zero-porosity monocrystalline silicon, this cavity delivers unmatched stability for quantum computing, atomic clocks, and gravitational wave detection. Its circular geometry minimizes optical distortion, while sub-ppb impurity levels ensure performance remains unaffected even at cryogenic temperatures (-270°C to 150°C). Trusted by leading research institutes like NIST and CERN, it’s the gold standard for labs demanding sub-nanometer precision and military-grade reliability.

Key Specifications

Specification Value
Dimension D=φ10-100mm, L=5-200mm (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
Material Single crystal silicon

Note: Custom specifications available upon request to meet your unique requirements.

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Top Applications

  • Quantum Computing: Stabilize qubit readout lasers with <1 pm/K thermal drift: Leverage ultra-low expansion synthetic sapphire (Grade A) substrates, paired with precision coatings, to minimize wavelength shifts in readout lasers. This stability ensures accurate qubit state detection, reducing errors in quantum operations where even minute thermal drift could corrupt data, critical for scaling quantum processors and maintaining coherence in complex algorithms.​
  • Atomic Clocks: Enhance coherence times via vibration-damped mounting: Integrate synthetic sapphire components with specialized vibration-damping mounts to isolate atomic systems from mechanical disturbances. The material’s 9 Mohs hardness and dimensional stability (±0.1mm tolerance) prevent micro-shifts, extending atomic coherence times—vital for achieving nanosecond-level precision in GPS satellites and fundamental physics experiments requiring unmatched timekeeping accuracy.​
  • Gravitational Wave Detectors: Achieve LIGO-grade interferometry stability: Utilize synthetic sapphire’s λ/8 flatness and <40/20 scratch-dig surface quality to maintain precise laser alignment in interferometers. Its low thermal expansion and resistance to environmental noise ensure minimal wavefront distortion, enabling detection of faint gravitational wave signals, where stability directly impacts the sensitivity of instruments like LIGO and Virgo.​
  • Space Optics: Radiation-hardened designs for satellite-based metrology: Combine synthetic sapphire’s inherent radiation resistance with specialized coatings to withstand harsh space environments, ensuring <0.2dB signal loss in satellite metrology systems. Its thermal stability (-50°C to 120°C, expandable to 500K) and durability make it ideal for long-term missions, providing reliable data in Earth observation and deep-space navigation.

Why This Cavity Outperforms

1. Crystal Perfection, Zero Compromise

Unlike polycrystalline alternatives, our cavities leverage defect-free silicon lattices to eliminate grain-boundary instabilities. This means 10x lower mechanical hysteresis under high-power laser loads.

2. Built for Extreme Environments

Active thermal compensation and MIL-STD-810G compliance ensure consistent performance in space vacuums, cryogenic chambers, or high-vibration labs.

3. Customization Without Complexity

Need UHV-compatible flanges? Cryo-optimized coatings? Our engineers provide FEM-validated designs in 8–12 weeks, backed by 15+ patents in strain-free mounting.

Trusted by Pioneers in Precision

> “Switching to this Single Crystal Silicon Super Stable Cavity-Circular Cavity reduced our optical clock’s frequency drift by 92%.”– Quantum Metrology Lab, ETH Zurich

> “The 24/7 technical support resolved our vacuum integration issues in hours.”​​​​​​​– Space Optics Manufacturer, Japan

Easy Ordering, Global Support

  • MOQ: 1 unit (ideal for research grants)
  • Lead Time: 12 weeks (expedited options available)
  • Custom Configurations: Download our design template
  • Compliance: ISO 17025, NIST-traceable, RoHS/REACH

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FAQ

Q: How does single-crystal silicon compare to ULE glass?

A: Single-crystal silicon offers 5x lower thermal expansion at cryogenic temps and superior radiation hardness, critical for space applications.

Q: Can I get FEM analysis for my custom design?

A: Yes! We provide full simulation reports with stress/strain maps for your approval.

Q: What’s the aging rate under continuous use?

A: <0.1 ppm/year drift, verified through 10-year accelerated aging tests.

Q: Do you assist with vacuum compatibility testing?

A: Our team offers on-site leak checks and bake-out protocols to meet your UHV specs.

Your Next Step

Every Single Crystal Silicon Super Stable Cavity-Circular Cavity ships with a 5-year stability warranty and lifetime access to our IoT performance monitoring portal. For quotes or technical queries, email xachaona@163.com.

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