High Energy (High power) Waveplates (Half-wave (HWP) & Quarter-wave (QWP) plates)
High Energy (High Power) Waveplates. Half and quarter waveplates rotate or convert polarization of high power laser beams. Various variants and custom deigns available.
Estimated Shipping Date: December 3, 2024 - December 17, 2024
* - Shopping cart pricing is based on the most recent pricing and it is NOT ORDERING, but requesting an official quotation which should typically reach You within 1-2 business days.
- Variants
- Applications
- Types
- Construction
High Energy Waveplates for various UV-VIS-NIR-IR applications: from laser engraving to medical procedures
Based on working wavelength Alien Photonics high energy (high power) waveplates can be grouped in ultraviolet, visible light and near infrared and multi-wavelength (cross-region) groups.
Ultraviolet (UV) High Energy (High Power) Waveplates
Wavelength | Typical application |
---|---|
266 nm | Micromachining, photolithography |
343 nm | Laser marking, biomedical imaging |
355 nm | Laser engraving, medical procedures |
Visible light (VIS) High Energy (High Power) Waveplates
Wavelength | Typical application |
---|---|
400 nm | Fluorescence excitation, photopolymerization |
515 nm | Material processing, green light displays |
532 nm | Laser marking, surgery, holography |
633 nm | Holography, interferometry, spectroscopy |
Near infrared (NIR) High Energy (High Power) Waveplates
Wavelength | Typical application |
---|---|
780 nm | Atomic cooling and trapping, spectroscopy |
800 nm | Femtosecond laser applications, Ti:sapphire lasers |
980 nm | Pump lasers for fiber amplifiers, material processing |
1030 nm | Cutting, welding, and marking for industrial applications |
1064 nm | Nd:YAG lasers for cutting, welding, medical treatments |
1310 nm | Telecommunications, optical coherence tomography (OCT) |
1550 nm | Telecommunications, LIDAR, eye-safe laser applications |
Cross-region (multi wavelength) High Energy (High Power) Waveplates
Wavelength | Typical application |
---|---|
1064 nm + 532 nm | Multi-functional Nd:YAG laser systems for cutting, marking, and medical |
1030 nm + 515 nm | Material processing, precision machining with high power Yb:YAG laser harmonics |
800 nm + 400 nm | Ultrafast spectroscopy, two-photon microscopy, and imaging using high energy Ti:Sapphire lasers. |
High Energy (High Power) half-wave (HWP) and quarter-wave (QWP) Waveplates
Half-wave plates (HWP) for high energy applications
Half-wave plates (HWP) for high-energy applications work by rotating the polarization of high-power laser beams. Specific construction allows Alien Photonics HWPs to an withstand the intense conditions of high-power laser systems, such as those used in industrial processing, medical treatments, and scientific research, ensuring optimal performance and safety.
Quarter-wave plates (HWP) for high energy applications
Quarter-wave plates (QWP) for high-energy applications convert linearly polarized light into circular polarization or vice versa in high-power laser systems. Alien Photonics QWPs are indispensable in advanced optical setups, including optical communications, laser machining, and experimental physics, where precise polarization manipulation is crucial under high-energy conditions.
High Energy Waveplates for powerful lasers
High laser induced damage threshold waveplates: air-spaced, bonded and single waveplates
The most laser energy resistant construction is air-spaced or just simple single plate design. Optical contact (bonding) construction also offers good threshold values. However, glued(cemented) types have limited LIDT characteristic, due to the glue characteristics.
High LIDT air-spaced waveplates
Air-spaced high power waveplates are constructed by fixing two low (or multiple) order waveplates into a mount, with precisely designed air gap between them. This air gap also acts as thermal insulator between plates and reduces chance of potential thermal gradients. Alien Photonics air-spaced high energy waveplates typically LIDT characteristic is 10-20 J/cm² @ 1064 nm, 10 ns, 10 Hz.
Optically contacted (bonded) waveplates for high power applications
Two low (or multiple) order waveplates bonded together. Optical contact method creates a solid connection between plates without the need for adhesive materials. The absence of adhesives eliminates potential sources of optical absorption and heat generation at the bonding interface, significantly increasing the waveplate's resistance to laser-induced damage. Typical LIDT is 10-20 J/cm² @ 1064 nm, 10 ns, 10 Hz.
Laser damage resistant monolithic single wave plates
Single waveplates have simplest construction – just one plate! Lack of glue and generally thicker (except true zero order waveplates) makes them more resistant to temperature changes and increase laser induced damage threshold. LIDT of these single plates is typically 10-20 J/cm² @ 1064 nm, 10 ns, 10 Hz.