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95%+ high reflective aluminum mirror sheet is a lighting-grade reflector material for LED downlights, commercial luminaires, industrial lighting, linear lighting, display lighting and other optical systems requiring efficient light reflection and a smooth mirror-like surface.
The premium reflective grade is designed for applications requiring total visible-light reflectance of at least 95% when supplied to the agreed optical specification. Reflectance type, wavelength range, measurement geometry and test method should be stated in the purchase specification so the optical value is clearly defined.
The current product range lists 1050, 1100 and customized aluminum substrate options, thicknesses from 0.10 to 3.00 mm and a mirror-surface roughness reference of Ra ≤0.1 μm. Final alloy, temper, reflective surface system, thickness, dimensions and forming requirements should be confirmed according to the luminaire design.
Standard decorative anodizing, PE film or PVDF coating should not automatically be treated as equivalent to the 95%+ lighting-grade reflective surface. Where ≥95% reflectance is required, the exact optical surface construction and corresponding test report should be confirmed before production.
Request 95%+ Reflective Aluminum Price
| Product | 95%+ high reflective aluminum mirror sheet for lighting reflectors |
| Reflectance Grade | ≥95% for the specified high-reflective grade; exact total, hemispherical or other optical value must follow the agreed test report |
| Optical Spectrum | Visible-light range according to agreed customer specification and measurement method |
| Reflectance Measurement | Total, diffuse and specular components should be identified separately where required; use an agreed spectrophotometric or integrating-sphere method appropriate to the application |
| Base Aluminum | 1050 / 1100 or customized alloy according to the current product range; optical-grade substrate should be confirmed for the ≥95% version |
| Thickness Range | 0.10–3.00 mm, subject to alloy, reflective system, temper and production capability |
| Surface Finish | Mirror-like reflective surface |
| Surface Roughness Reference | Ra ≤0.1 μm according to the current product data; final value and measurement method should be confirmed for the supplied grade |
| High-Reflective Surface System | Enhanced optical reflective surface selected to achieve the required ≥95% performance; exact surface construction to be confirmed |
| Other Surface Options | Anodized clear / colored, protective PE film and PVDF options for suitable products; these finishes do not automatically provide ≥95% reflectance |
| Temper | To be selected according to reflector rigidity, bend radius, stamping depth and forming requirements |
| Operating Temperature | The current product information references -20°C to +120°C; final allowable operating temperature must be confirmed for the exact reflective coating, adhesive and surface system |
| Protective Film | Available to protect the optical surface during cutting, forming, transportation and assembly |
| Supply Form | Sheet, strip, blanks or other agreed formats according to reflector production requirements |
| Typical Applications | LED reflectors, downlights, linear luminaires, high-bay lighting, commercial lighting, display lighting and optical reflector components |
Every reflection inside a luminaire produces some optical loss. A reflector material with higher total reflectance can reduce these losses, particularly in fixtures where light undergoes multiple reflections before leaving the luminaire.
However, reflector-sheet reflectance alone does not determine the efficiency of the finished lamp. LED position, reflector geometry, surface directionality, optical distance, diffuser, lens, thermal design and luminaire construction all affect final lumen output and beam distribution.
For this reason, ≥95% material should be selected as one component of the complete optical design rather than treated as a guaranteed percentage increase in fixture efficiency.
The statement “95% reflectivity” is incomplete unless the type of reflection is defined. Lighting designers should distinguish total reflectance from the way that reflected light is distributed.
| Optical Parameter | Meaning for Lighting Design |
| Total Reflectance | The total proportion of incident light returned by the surface, including both directional and scattered components |
| Specular Reflectance | Mirror-like directional reflection used where the reflector must control and redirect the light beam precisely |
| Diffuse Reflectance | Scattered reflection that can help produce softer light distribution and reduce concentrated reflected images |
| Reflection Direction | Isotropic or anisotropic behavior may be selected according to the reflector geometry and required light distribution |
Discuss Your Optical Reflectance Requirement
| Selection Factor | 95%+ Lighting Grade | Standard Mirror Aluminum |
| Primary Purpose | Controlled optical reflection and reduced light loss | Mirror appearance, decoration or general reflection |
| Reflectance | Specified and measured ≥95% for the approved grade | Varies according to alloy and surface treatment and may be substantially lower |
| Optical Test Report | Recommended as part of technical approval | May not be required for decorative use |
| Reflection Distribution | Total, specular and diffuse behavior can be specified | Usually selected primarily by appearance |
| Typical Applications | LED luminaires, downlights, optical reflectors, commercial and industrial lighting | Interior decoration, signs, furniture, appliance trim and general mirror panels |
A smooth optical surface helps control unwanted scattering and supports consistent reflection. The current product data reference a mirror-like finish with Ra ≤0.1 μm.
For an optical reflector project, surface roughness should be considered together with total reflectance, specular reflectance, forming marks and surface flatness. A low Ra value by itself does not guarantee the required lighting performance.
Fine scratches can alter both mirror appearance and local light distribution. Reflector blanks should therefore be handled on clean surfaces and protected throughout downstream processing.
Flatness is important for sheet-fed reflector production and for components where unintended waviness changes the reflected light direction. Required flatness should be stated for precision optical applications.
Brightness variation, haze, coating marks or local defects can create uneven reflection. High-performance lighting projects should approve a representative material sample together with the optical test data.
The current product range lists 1050 and 1100 aluminum, with customized substrates also available. These commercially pure aluminum grades offer useful formability and are commonly used for thin fabricated components.
For the premium ≥95% optical grade, however, the final reflection performance is determined by the combination of substrate, surface preparation and high-reflective layer. Buyers should therefore approve the finished optical construction rather than specifying alloy alone.
Use the specified high-reflective grade when the project requires ≥95% measured light reflectance. The actual reflective layer and test report should be confirmed before ordering.
Anodized mirror aluminum combines a reflective metallic surface with an integral aluminum oxide layer. It can be suitable for general reflector and decorative applications, but standard anodizing should not automatically be assumed to reach the ≥95% optical grade.
PE- or PVDF-based surfaces may be relevant to selected decorative or protective applications. Their reflectance, gloss and optical suitability should be evaluated separately from the 95%+ lighting reflector grade.
A high-reflective material designed for enclosed indoor luminaires should not automatically be used outdoors. Moisture, UV exposure, condensation, salt, pollutants and cleaning agents can affect some enhanced reflective surface systems.
If the reflector will be used in street lighting, exterior architectural lighting, horticultural installations or another humid or exposed environment, specify the exposure conditions and request a surface system qualified for that environment.
Discuss Indoor or Outdoor Reflector Use
Mirror sheet can be cut into reflector blanks using compatible tooling. The optical face should remain protected from swarf, metal particles and contact with abrasive work surfaces.
Bend performance depends on substrate alloy, temper, sheet thickness, bending direction, radius and reflective coating construction. A production trial is recommended for tight-radius reflectors.
Curved and three-dimensional reflector parts can be evaluated for compatible stamping or forming. Optical performance should be checked after forming because stretching, tooling marks and surface distortion can change reflected-light distribution.
Where compatible with the process, protective film can remain on the optical face during cutting and forming to reduce scratches. Film adhesion and removal conditions should be matched to the actual reflector surface.
High-reflective sheet can be formed into reflector cups or internal reflector components for compatible downlight designs requiring efficient light redirection.
Reflective inserts can reduce light losses inside linear fixtures and help control light distribution around LED boards and diffusers.
Retail, office and hospitality luminaires can use mirror or controlled-reflection aluminum where optical efficiency and precise light distribution are required.
Reflector components can be incorporated into industrial luminaires where the optical design requires efficient redirection of LED light over a defined working area.
Mirror aluminum can also be used in illuminated displays, showcase lighting and retail fixtures where reflection efficiency and a bright metallic appearance are both useful.
Confirm that the test report identifies the measured reflectance, wavelength range, measurement method and whether the reported value is total, specular or another defined optical parameter.
Check sheet or strip dimensions against the reflector drawing before blanking or forming.
Inspect for scratches, dents, fingerprints, haze, coating marks, pressure damage and other defects that could affect optical appearance or reflected-light distribution.
For sheet-fed production, inspect bow, edge wave and local distortion. For strip or coil, check winding and shape stability according to the downstream feeding process.
For a new reflector geometry, form representative components using the intended tooling and inspect the reflective surface and light distribution after processing.
Request Material for a Reflector Trial
State whether the material is for a downlight, linear luminaire, industrial reflector, retail fixture, display lighting or another optical system.
Specify the required total reflectance and, where relevant, specular or diffuse reflectance. Include the wavelength range and accepted measurement method.
Specify 1050, 1100 or another required substrate together with the temper if known. If the reflector will be formed, provide bend or stamping details.
The current product range lists 0.10–3.00 mm. Final availability depends on the optical surface, alloy, temper and supply form.
For precision reflectors, provide required surface roughness, flatness and appearance criteria rather than approving the material only by visual gloss.
State humidity, UV exposure, operating temperature and any chemical or cleaning exposure so an appropriate reflective surface can be selected.
Provide bend radius, forming direction, stamping depth or reflector drawing so material formability can be reviewed before production.
If optical reports, material certificates, RoHS, REACH or other documentation is required, state the requirement before ordering and confirm that the supplied document applies to the exact product variant.
Mirror-finish reflector material requires protection against scratching, moisture, edge damage and pressure marks during storage and international transportation.
Protective film or suitable interleaf material can be used on the optical surface, with the material secured in export wooden packing according to sheet or coil dimensions.
The current product information lists a reference lead time of approximately 7–15 working days, depending on order quantity, thickness, dimensions, reflective surface and customization. Final delivery date should be confirmed with the order.

For an accurate quotation, please provide the lighting application, required total reflectance, specular or diffuse requirement if applicable, wavelength range, preferred alloy and temper, thickness, width and length, surface roughness, flatness, forming process, indoor or outdoor exposure, protective-film requirement, quantity, required technical documents and destination.
For a new reflector design, a drawing or sample part is useful for reviewing bend radius, stamping depth and surface-protection requirements before bulk production.
Get a 95%+ Reflective Aluminum Quote
For the premium lighting-grade product, it means the agreed reflective grade is specified to achieve at least 95% measured reflectance under the defined optical test conditions. The purchase specification should state whether the value is total reflectance and identify the wavelength range and measurement method.
No. Total reflectance includes both specular and diffuse components. A material can have high total reflectance while its directional mirror component is lower.
Total reflectance is important for reducing optical loss, while the balance between specular and diffuse reflection determines how the light is distributed. The correct combination depends on the luminaire geometry.
Standard anodized mirror aluminum should not automatically be assumed to achieve the same performance as an enhanced 95%+ optical grade. Confirm the actual reflective system and test report.
The current product information lists 1050 and 1100 aluminum with customized substrate options. The exact substrate used for a ≥95% grade should be confirmed with the optical surface specification.
The listed range is 0.10–3.00 mm. Not every reflective surface system is necessarily available across the entire range, so final availability should be confirmed by thickness and optical grade.
Ra is an arithmetic surface-roughness parameter. The current product data list Ra ≤0.1 μm as a surface reference. Optical approval should still include measured reflectance and visual surface quality.
Yes, compatible bending can be evaluated. Minimum bend radius depends on alloy, temper, thickness and reflective surface construction, so a representative forming trial is recommended.
Stamping and shallow forming can be evaluated for suitable grades. Reflectance and surface condition should be checked after forming because tool contact and deformation can affect the optical face.
Outdoor suitability depends on the exact reflective surface system. Specify UV exposure, moisture, condensation, salt, pollution and operating temperature so the appropriate grade can be confirmed.
No. Luminaire efficiency also depends on the LED source, reflector geometry, lenses, diffuser, thermal conditions and the number and angle of reflections inside the fixture.
Yes, protective film can be used where compatible with the reflective surface and downstream process. Film adhesion and removal conditions should be confirmed before ordering.
Where RoHS, REACH or other compliance documents are required, specify them before ordering so documentation for the exact substrate and reflective surface system can be confirmed.
The current product information lists approximately 7–15 working days. Actual delivery time depends on optical grade, thickness, dimensions, quantity and customization.
Sample availability can be discussed. For a new lighting design, evaluating both a flat material sample and a formed reflector sample is recommended where optical performance is critical.
Please provide lighting application, required total reflectance, specular or diffuse requirement if applicable, wavelength range, alloy and temper if specified, thickness, dimensions, surface roughness, forming process, operating environment, protective film, quantity, required documentation and destination.
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