Mirrors

Results:
128
Manufacturer
Series
Optic Size
Optic Center Thickness
Coating
Wavelength
Flatness (Lambda)
Type
Shape
Angle of Incidence (AOI)
Results remaining128
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ImageProduct DetailPriceAvailabilityECAD ModelShapeSeriesTypeOptic SizeWavelengthAngle of Incidence (AOI)Optic Center ThicknessFlatness (Lambda)Coating
G340016000
PL. MIRROR RAL; D=50; D=10; L/10
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Aluminum Mirror
50mm
400nm ~ 700nm
45°
10mm
1/10
Runpol > 85% @ 400nm ~ 700nm; Runpol > 88% @ 550nm
G340010000
PL. MIRROR RAL; D=40; D=8; L/10
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Aluminum Mirror
40mm
400nm ~ 700nm
45°
8mm
1/10
Runpol > 85% @ 400nm ~ 700nm; Runpol > 88% @ 550nm
G340663000
PL. MIRROR RAG V63X10MM
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Silver Mirror
63mm
500nm ~ 12000nm
0-60°
10mm
1
-
G340064332
PL. MIRROR RAL-UV; BXL=40X58; D=
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Quantity
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PCB Symbol, Footprint & 3D Model
Rectangular
LINOS Mirrors
Aluminum Mirror
40mm x 58mm
230nm ~ 400nm
45°
8mm
1/4
Runpol > 85% @ 230nm ~ 400nm; Runpol > 88% @ 300nm
G340010400
PL. MIRROR RAGV; D=40; D=8; L/10
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Silver Mirror
40mm
500nm ~ 12000nm
0-60°
8mm
1/10
Runpol > 96% @ 500nm ~ 12000nm
G340751000
LASER MIRROR DLHS532; FUSED SILI
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Dielectric Mirror
12.7mm
532nm
45°
5mm
-
1x R > 99.7% @ 532nm, T > 80% @ 1064nm; 1x uncoated
G340097000
PL. MIRROR RAL; D=63; D=10; L/10
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Aluminum Mirror
63mm
400nm ~ 700nm
45°
10mm
1/10
Runpol > 85% @ 400nm ~ 700nm; Runpol > 88% @ 550nm
G340761000
LASER MIRROR DLHS1064; FUSED SIL
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Quantity
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PCB Symbol, Footprint & 3D Model
Round
LINOS Mirrors
Dielectric Mirror
12.7mm
1064nm
45°
5mm
-
1x R > 99.8% @ 1064nm, T > 80% @ 532nm; 1x uncoated

Mirrors

Optical mirrors are essential components used in various optical instruments to reflect light for diverse applications. These mirrors come in different types and configurations, each optimized for specific uses based on their reflective properties. The primary function of optical mirrors is to reflect light, allowing for precise control over the direction and intensity of the reflected light. Common types of optical mirrors include aluminum, dielectric, gold, and silver mirrors, each with its unique characteristics and advantages. When selecting an optical mirror, several parameters need to be considered. Optic size determines the size of the mirror, influencing the amount of light reflected and the maximum beam diameter that can be accommodated by the mirror without significant light loss or distortion. Mirror shape is another critical factor, influencing the angle of incidence and the resulting reflected light direction. The angle of incidence describes the angle at which the light hits the mirror's surface, impacting the angle of reflection and the reflected light's intensity. Reflectivity and wavelength compatibility are other key factors, ensuring that the mirror reflects light optimally within the desired wavelength range. Different materials have varying reflectivity and wavelength compatibility, with aluminum mirrors being a popular choice for visible light, while gold and silver mirrors are commonly used for infrared applications. Other factors to consider may include environmental robustness, thermal stability, and surface quality. Environmental robustness ensures that the mirror can withstand variations in temperature, humidity, and other conditions. Thermal stability refers to the mirror's ability to maintain its reflective properties under varying temperature conditions. Surface quality measures how smooth and flat the mirror's surface is, impacting the quality of the reflected image. In summary, optical mirrors are crucial components used to reflect light in various optical instruments. They can be selected based on parameters such as mirror type, optic size, shape, angle of incidence, reflectivity, wavelength compatibility, environmental robustness, thermal stability, and surface quality. Their wide range of applications includes imaging systems, telescopes, lasers, and more.