Prism CVD Diamond Optics Extreme Performance

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January 05, 2026
Category Connection: Optical CVD Diamond
Brief: Join us for a close-up look at this solution and see it in action. In this video, we explore the exceptional performance of Prism CVD Diamond Optics, showcasing their superior light transmission, crystalline structure, and applications in laser systems, imaging, and precision instruments. Discover how these optical-grade single crystal diamonds enhance reliability and performance in extreme environments.
Related Product Features:
  • Optical-grade CVD single crystal diamond with superior light transmission and premium crystalline structure.
  • Functions reliably in extreme temperatures ranging from -200°C to 850°C.
  • Enables miniaturization, being 50% smaller than conventional optical components.
  • Provides 40 dB higher signal-to-noise ratio compared to sapphire alternatives.
  • Features high thermal conductivity of 1900-2200 W/(m*K) at 300 K.
  • Offers broadband wavelength transmission with minimal IR scatter.
  • Ideal for high-power, large-area applications due to extreme hardness and chemical inertness.
  • Polished surface finish with Ra<2nm and laser-cut edges for precision.
FAQs:
  • What are the key applications for Prism CVD Diamond Optics?
    Prism CVD Diamond Optics are used in laser systems (resonators, output windows), imaging and sensing (telescopes, spectrometers), precision instruments (interferometer mirrors, beam splitters), medical technology (endoscopes, microscopes), communication (fiber optic couplers), industrial equipment (laser etching, Raman spectrometers), and astronomy observation instruments.
  • How does the thermal performance of CVD diamond optics compare to other materials?
    CVD diamond optics operate effectively from -200°C to 850°C and offer high thermal conductivity of 1900-2200 W/(m*K) at 300 K, providing superior stability and reliability in extreme environments compared to alternatives like sapphire.
  • What advantages do Prism CVD Diamonds offer for signal clarity and component size?
    They provide a 40 dB higher signal-to-noise ratio than sapphire alternatives and enable miniaturization, being 50% smaller than conventional optical components, which enhances performance and allows for compact, lightweight designs in advanced optical systems.