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Mirrors, and other reflective optical components
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Optical mirror / parabolic
The Off-Axis Parabolic Metal Mirrors are off-axis parabolic metal mirrors which are available in 15°, 30°, 45°, 60°, or 90° off-axis options. These devices are offered...
Optical mirror / parabolic
The Off-Axis Parabolic Metal Mirrors are off-axis parabolic metal mirrors which are available in 15°, 30°, 45°, 60°, or 90° off-axis options. These devices are offered...
Cold mirror / optical - ø 12.5 - 50 mm
The angle of incidence options available for this product are 0 and 45 degrees, while it is able to reflect 90% of visible light. The products transmit 80% of NIR and IR, while...
Cold mirror / optical - ø 12.5 - 50 mm
The angle of incidence options available for this product are 0 and 45 degrees, while it is able to reflect 90% of visible light. The products transmit 80% of NIR and IR, while the angle of incidence cold mirrors are suitable for decreasing undesirable heat caused by infrared radiation. The multi-layer dielectric coating is important too.
Note that the mirrors will always function satisfactorily, being resistant to damage, from ambient temperatures between -45 and 232 degrees Celsius. The products area ideal for projection systems, especially in the case where heat build-up can lead to system damage. Finally, the cold mirrors can also be cut to the desired size for various applications.
Note that the mirrors will always function satisfactorily, being resistant to damage, from ambient temperatures between -45 and 232 degrees Celsius. The products area ideal for projection systems, especially in the case where heat build-up can lead to system damage. Finally, the cold mirrors can also be cut to the desired size for various applications.
Hot mirror / optical - ø 25 - 50 mm
Extended hot mirrors are designed in such a way that their reflecting range is approximately 1750nm while reducing the heat in the optical system unlike typical hot mirrors which reflect from 750nm-1250nm. . The...
Hot mirror / optical - ø 25 - 50 mm
Extended hot mirrors are designed in such a way that their reflecting range is approximately 1750nm while reducing the heat in the optical system unlike typical hot mirrors which reflect from 750nm-1250nm. . The...
Flat mirror / optical / convex / spherical - ø 25 mm
Techspec Convex Mirrors is suitable for expanding the visible field of an imaging system without...
Flat mirror / optical / convex / spherical - ø 25 mm
Techspec Convex Mirrors is suitable for expanding the visible field of an imaging system without...
Optical mirror - ø 0.5 - 2 in
Edmund Optics 1/20λ Precision Optical Flat Mirrors are available in two substrate options Fused Silica and Zerodur®. It offers a variety of coating Options Offered 1/10λ and 1/4λ Surface Accuracies....
Optical mirror - ø 0.5 - 2 in
Edmund Optics 1/20λ Precision Optical Flat Mirrors are available in two substrate options Fused Silica and Zerodur®. It offers a variety of coating Options Offered 1/10λ and 1/4λ Surface Accuracies....
Laser mirror / YAG
Wide selection of laser mirrors for Nd:YAG Laser fundamental wavelengths and its harmonics: 1064 nm, 532 nm, 355 nm, 266 nm. Nd:YAG Laser Line mirrors are available from...
Laser mirror / YAG
Wide selection of laser mirrors for Nd:YAG Laser fundamental wavelengths and its harmonics: 1064 nm, 532 nm, 355 nm, 266 nm. Nd:YAG Laser Line mirrors are available from...
Laser mirror - 45°
In most laser machines, one or several mirrors are used to forward the laser beam from the cavity to the working head. Usually, each mirror deflects...
Laser mirror - 45°
In most laser machines, one or several mirrors are used to forward the laser beam from the cavity to the working head. Usually, each mirror deflects...
Laser mirror - 90°
Most CO2 lasers produce a laser beam which has linear polarization. For cutting metal sheets, however, a beam with circular polarization is required if the cutting properties are...
Laser mirror - 90°
Most CO2 lasers produce a laser beam which has linear polarization. For cutting metal sheets, however, a beam with circular polarization is required if the cutting properties are...
Telescopic mirror - 50.03 mm | 6181x series
In many applications, the small diameter of the laser beam produced in the laser cavity is not convenient...
Telescopic mirror - 50.03 mm | 6181x series
In many applications, the small diameter of the laser beam produced in the laser cavity is not convenient because the beam has high divergence and high power density. In order to avoid subsequent problems, the beam diameter can be increased by using a telescope consisting of two mirrors one with a convex surface and the other with a concave surface. Such telescopic mirrors are usually made of copper.
Reflector - max. 63.5 mm | ATFR
In some laser cutting processes, a portion of the beam may reflect off the work piece and into the laser...
Reflector - max. 63.5 mm | ATFR
In some laser cutting processes, a portion of the beam may reflect off the work piece and into the laser cavity, where it might disturb laser operation. In order to avoid such problems, an ATFR mirror can be inserted into the beam line. An ATFR mirror is characterized by high reflectance (typically 99%) for s-polarized radiation and low reflectance (typically less than 1%) for p-polarized radiation.
Laser mirror - Plano Cu & Si
In order to optimize function of these mirrors, different substrate materials are used - the most common ones are silicon(Si) and copper (Cu). Silicon mirrors have light weight...
Laser mirror - Plano Cu & Si
In order to optimize function of these mirrors, different substrate materials are used - the most common ones are silicon(Si) and copper (Cu). Silicon mirrors have light weight and are therefore preferred in flying optics where high accelerations are needed. Copper has high thermal conductivity, and channels for cooling water can be included directly into the Co2 laser mirrors. Therefore, copper mirrors are preferred if best-possible cooling is important, for example in Co2 laser machines with very high laser power. - The optical properties of a mirror (reflectance, phase shift, etc) are determined by its coating. So in order to realize different mirror functions, different coatings are needed.