Free-Space Optical Isolators utilize a Faraday Rotator to provide high isolation, transmission, and power densities. They effectively reduce feedback in diode laser systems and block reflections in free-space fiber coupling, enhancing power stabilization and protecting sensitive optical components from damage.

These beamsplitters are available in a range of commonly used, application-specific wavelengths across the UV to NIR spectrum, covering the central wavelengths of commonly used ions (Ytterbium/Strontium/Calcium) energy levels to provide Rydberg excitation, Doppler cooling, and other operations such as Raman effects, trapping of ions, and others.

These waveplates are available in a range of commonly used, application-specific wavelengths across the UV to NIR spectrum, covering the main wavelengths of commonly used ions (Ytterbium/Strontium/Calcium). They offer a retardance of λ/2 and a retardance accuracy of λ/200.

These waveplates are available in a range of commonly used, application-specific wavelengths across the UV to NIR spectrum, covering the main wavelengths of commonly used ions (Ytterbium/Strontium/Calcium). They offer a retardance of λ/2 and a retardance accuracy of λ/200.

Designed for ytterbium (Yb+) ion quantum computing, this lens features a high numerical aperture (NA) of 0.4 and a design wavelength of 369nm, guaranteeing diffraction-limited imaging of the reflected fluorescence wavelength for sharp focus of a trapped ion. These lenses can be customized for a variety of window thicknesses, wavelength options, working distances, and focal lengths to support unique laboratory environments utilizing ytterbium (Yb+), calcium (Ca+), Berylium (Be+), and Barium (Ba+) ions.

These mounts are constructed from stainless steel, offering a Coefficient of Thermal Expansion (CTE) lower than the aluminum TECHSPEC Kinematic Optical Mirror Mounts; lower CTE ensures higher pointing stability in high-power/higher-temperature applications. Preinstalled locking collars, integrated into the adjustment screw bushings, can be used to lock the mount’s tip and tilt position in shock and vibration situations and provide additional pointing stability under temperature gradient conditions. ½ inch mounts offer a small form factor for scalability.

Edmund Optics' partner, TMC, provides optical tables that excel in vibration isolation and offer several practical features ideal for quantum research environments. These features include an all-steel, vacuum-compatible, spill-proof optical top.

These objectives allow objects to be observed through 3.5 mm thick glass, making them perfect for imaging in applications such as vacuum cells, optical traps, and cold atom environments. Their infinity-corrected, plan-apochromatic designs ensure excellent color accuracy and produce a flat image surface across the entire field of view.

These highly reflective mirrors offer performance and value for UV, visible, and NIR beam steering applications. The broadband dielectric enhanced silver coatings feature >98% reflectivity from 450nm to 12μm wavelengths at incident angles from 0 - 45°. They are ideal for demanding laser applications requiring high laser damage thresholds, including laser scanning and beam steering.

Near-IR (NIR) Achromatic Lenses minimize or eliminate chromatic aberration for wavelengths between 750 and 1100nm. The achromatic design also helps minimize spherical aberrations across multiple laser wavelengths.

Laser Power Meters are specifically designed to analyze lasers across a range of wavelengths, pulse widths, and intensities. These meters and detectors come in various wavelength ranges and sensitivity levels, allowing for customization to meet a wide array of laser measurement needs.

Motorized Vacuum Stages offer precise, repeatable motion control in ultra-high vacuum environments, allowing researchers to accurately position and align optics and components in quantum systems. Their compact, vacuum-compatible design minimizes contamination and mechanical instability, helping maintain the precision and reliability required for quantum computing, sensing, and atomic physics applications.