Electro-Optic Devices - Photonics On Crystals (POC)

Electro-optic devices by Photonics On Crystals (POC) leverage advanced Pockels effect technology for high-performance light modulation in precision applications, ensuring reliability and superior performance.

POC Capabilities and Features

Photonics On Crystals (POC) stands out with its state-of-the-art production facilities and in-depth expertise in electro-optic technologies. Our capabilities include:

  • Precision engineering of crystals with high-damage thresholds.
  • Custom fabrication of devices to meet specific operational requirements.
  • Comprehensive metrology and quality assurance ensuring top-tier performance.
  • Robust R&D partnerships driving innovations in electro-optic solutions.

Our commitment to excellence ensures reliable devices that cater to advanced laser and optical system needs.

Optomechanical engineering

Basic Working Principles

Electro-optic devices utilize the Pockels effect, where an external electric field induces a proportional refractive index change in an electro-optic crystal, such as BBO or KD*P. This change alters the crystal’s optical axis and subsequently modulates the polarized light phase. Friedrich Pockels first discovered this effect in 1893, illustrating that phase retardation depends on the crystal’s refractive index properties and the applied voltage. Electro-optic crystals operate as variable phase delay optical wave plates, enabling phase modulation from 0 to π radians. These devices’ rapid response to electric fields ensures their applicability in high-frequency systems.

Electro-Optic Devices

Devices Offered by POC

  • BBO Pockels Cells
    High-damage-threshold and non-hygroscopic, BBO cells are ideal for high-power Q-switching, regenerative amplification, and ultrafast laser systems.

  • KD*P Pockels Cells
    KD*P cells offer high modulation frequencies and low insertion losses, catering to systems requiring reliable performance under high voltages.

  • Phase Modulators
    These devices provide precise control over phase delays, ensuring seamless integration in applications such as laser stabilization and optical communication.

Electro-Optic Devices

Applications of Electro-Optic Devices

Electro-optic devices find extensive use in high-power laser systems, pulse modulation, and optical signal processing. They play a crucial role in:

  • Laser Q-Switching: Efficiently modulates laser output pulses in ultrafast systems.
  • Pulse Picking and Regenerative Amplification: Ensures high-frequency signal separation for advanced laser operations.
  • Optical Communication: Supports phase modulation for data transmission across optical networks.
  • Scientific Research: Integral in precision experiments requiring high-speed light modulation.
Applications of Electro-Optic Devices