Lumens vs. Nits for LED Displays: How B2B Buyers Should Compare Brightness

Introduction

Lumens and nits measure different aspects of display brightness. Lumens measure total visible light output, while nits measure surface luminance.

Buyers often compare projector lumens with LED display nits as if the numbers describe the same thing. They do not. This mistake can lead to unsuitable specifications, unnecessary costs, or poor visibility after installation.

This guide explains the difference and shows how to evaluate LED display brightness using ambient light, operating conditions, calibration, and long-term performance. It also provides practical procurement checks for B2B buyers.

What Are Nits? Understanding Display Luminance

A nit measures the luminance of a display surface, and 1 nit equals 1 candela per square meter (cd/m²). A higher nit rating means the display can produce greater surface brightness under specified operating conditions.

The key point for buyers is that a nit describes how bright the visible surface appears, not the total amount of light produced by every component in the system. This makes nits particularly useful when comparing direct-view LED displays with other self-emissive screens.

What Does a Nit Measure?

A nit measures luminance over a defined surface area. The unit directly relates brightness to the viewing surface, which makes it useful for displays installed in environments with different levels of ambient light.

For example, a 1,000-nit LED display and a 5,000-nit LED display do not simply differ because one contains “five times more light.” The practical difference depends on how the display operates, how the manufacturer calibrates it, and how much ambient light reaches the screen.

Nits vs. Candela per Square Meter

Nits and candela per square meter describe the same luminance quantity. Manufacturers may use either term in technical specifications.

For international procurement, buyers should therefore treat “nits” and “cd/m²” as equivalent units rather than separate specifications.

Why LED Displays Are Specified in Nits

Direct-view LED displays generate light directly from LED pixels instead of projecting light onto a separate screen. As a result, the luminance of the LED surface provides a more useful specification for evaluating visibility.

A factory specification should also distinguish maximum brightness from normal operating brightness. A display may reach a high peak value during testing but operate at a lower level after calibration to protect image quality, power consumption, thermal performance, and component life.

What Does a Higher Nit Rating Actually Mean?

A higher nit rating gives an LED display more brightness headroom, but it does not automatically make the display a better choice.

Factory-side evaluation looks beyond the peak number. LED chip efficiency, driver IC current control, module consistency, calibration, thermal conditions, and power settings can all affect sustained brightness.

For a large installation, consistent brightness across hundreds of modules often matters more than the highest number printed on a quotation.

Factory Insight: When we evaluate an LED display for a B2B project, we should separate three values: maximum brightness, calibrated brightness, and recommended operating brightness. This distinction helps buyers avoid paying for brightness that the installation will rarely use.

What Are Lumens? Understanding Total Light Output

Lumens measure the total visible light output from a light source, while nits measure luminance over an area. Projectors commonly use lumens because they describe how much light the projector sends toward the projection system.

The distinction becomes important when buyers compare projection and direct-view LED technologies. A projector can produce a specific lumen output, but the resulting image brightness also depends on screen size, optical efficiency, screen material, and projection conditions.

What Does a Lumen Measure?

A lumen (lm) measures luminous flux, or the total amount of visible light emitted by a source.

A projector rated at a certain number of lumens therefore describes its light output. It does not directly state how many nits the projected image will produce on the viewing surface.

Why Projectors Commonly Use Lumens

Projectors send light through an optical system and onto a separate projection surface. The same projector output can produce different screen luminance when the projection area changes.

This creates an important procurement distinction:

• Lumens: How much visible light does the source produce?
• Nits: How bright is the display surface?
• Projection system: How efficiently does the source deliver light to the viewing surface?

Why Lumens Are Different From Display Luminance

A lumen rating alone cannot tell an LED display buyer how bright the LED surface will look. Direct-view LED displays emit light from the display itself, so manufacturers normally specify luminance in nits or cd/m².

Factory Insight: Buyers sometimes request a “lumen-to-nit conversion” when comparing a projector with an LED wall. That request can create a false sense of precision. A manufacturer should instead compare the complete optical system, screen area, viewing environment, and actual display technology.

Lumens vs. Nits: What Is the Difference?

Lumens measure total light output, while nits measure luminance on a surface. You cannot treat the two numbers as equivalent brightness ratings.

This distinction matters when buyers compare projectors with direct-view LED displays. A projector may advertise thousands of lumens, while an LED wall may advertise thousands of nits. Those numbers describe different physical quantities, so a larger number does not automatically indicate a brighter viewing experience.

Lumens Measure Light Output; Nits Measure Luminance

A lumen describes the total visible light produced by a source. A nit describes the amount of luminance associated with a given surface area.

For a direct-view LED wall, the viewer looks directly at the light-emitting surface. Therefore, nits provide a more direct way to specify the display’s visible luminance.

For a projector, the light travels through an optical system before reaching a separate screen. The screen size and optical conditions then influence the luminance that the viewer actually sees.

Why Lumens and Nits Cannot Be Directly Compared

You cannot convert lumens into a universal nit value without knowing how the light reaches and interacts with the viewing surface.

A useful comparison needs more information than the source’s advertised brightness. Buyers should consider:

• The total projection area
• The optical efficiency of the system
• Projection distance and setup
• Screen material and characteristics
• Ambient-light conditions
• The display technology itself

This difference explains why a procurement team should not write a specification such as “buy a 5,000-lumen LED wall.” The correct specification should use the measurement that matches the technology.

How Screen Area Changes the Relationship

Screen area becomes particularly important for projection systems. If the same total light output spreads across a larger surface, the resulting luminance changes.

Consider two projection systems with identical light output. One projects onto a relatively small screen, while the other covers a much larger screen. The two installations can produce different perceived image brightness even though both projectors carry the same lumen rating.

Direct-view LED behaves differently because each pixel produces light directly at the display surface. The buyer can therefore evaluate the LED wall’s luminance more directly through its nit specification.

Why “Higher Number” Does Not Mean “Brighter” Across Units

A common quotation mistake occurs when buyers compare numerical values without comparing their units.

The correct purchasing question is not “Which number is higher?” but “Which specification describes the performance I need in this installation?”

From a factory perspective, this distinction also affects quotation preparation. An LED manufacturer should first understand the installation environment, viewing distance, display dimensions, and daylight exposure before recommending a brightness specification.

Can You Convert Lumens to Nits?

There is no universal lumens-to-nits conversion because screen area, optical efficiency, projection conditions, screen material, and display technology affect the relationship.

A mathematical relationship can exist within a defined projection system, but buyers should not use a simple universal multiplier to compare unrelated products. The calculation must describe the actual optical path and viewing surface.

Why There Is No Universal Lumens-to-Nits Conversion

Lumens describe total luminous flux, while nits describe luminance. These measurements use different physical concepts.

A projector’s lumen output therefore does not contain enough information to determine the exact luminance that reaches a viewer. The missing variables can materially change the result.

For procurement teams, a manufacturer should provide system-specific performance information rather than an unsupported conversion number.

Screen Size and Area

Screen area directly affects how projected light is distributed. A fixed amount of light spread over a larger area generally produces lower luminance than the same output concentrated over a smaller area.

This issue becomes important when a buyer compares a projector with an LED wall of similar physical dimensions. The buyer should compare the technologies using their appropriate brightness metrics instead of forcing both into the same unit.

Projection Efficiency and Optical Losses

A projector does not send every unit of generated light directly into the viewer’s eyes. Optical components and projection conditions influence how much useful light reaches the screen.

Factory Insight: When an LED manufacturer receives a request to “match” a projector’s brightness, the better engineering approach is to ask for the projector model, screen size, viewing distance, ambient-light conditions, and intended application. The team can then compare the actual display requirement instead of inventing a lumen-to-nit equivalence.

Why Projector and LED Display Specifications Should Be Evaluated Separately

Projectors and direct-view LED walls solve the same visibility problem through different optical architectures. A projector sends light toward a surface. An LED wall generates light at the surface itself.

That difference changes how buyers should evaluate brightness, contrast, installation constraints, maintenance, and ambient-light performance.

For a B2B project, the brightness specification should follow the technology rather than forcing different technologies into one numerical scale.

How Bright Should an LED Display Be?

The required LED display brightness depends on ambient light, viewing distance, application, content, and whether the display operates indoors or outdoors.

A buyer should not automatically select the highest available nit rating. A bright outdoor facade and a controlled indoor conference room create very different brightness requirements.

Indoor LED Display Brightness

Indoor LED displays normally operate in controlled lighting conditions, so they generally do not need the same luminance levels as outdoor screens.

However, a bright retail store, airport concourse, or glass-fronted showroom can expose the display to much more ambient light than a dark meeting room.

The installation environment should determine the brightness target, not the manufacturer’s maximum specification alone.

Outdoor LED Display Brightness

Outdoor LED displays face direct daylight, changing weather conditions, and potentially strong sunlight. These conditions can reduce perceived image contrast if the display cannot maintain sufficient luminance.

Outdoor projects therefore require substantially more attention to brightness than controlled indoor installations.

The buyer should also consider nighttime operation. A display that performs well under midday sunlight may produce unnecessary glare if it operates at the same brightness after sunset.

High-Ambient-Light Environments

High ambient light creates a visibility challenge because the environment itself illuminates the viewing surface. The display must maintain enough luminance and contrast for important visual information to remain distinguishable.

Retail windows provide a good example. A display facing a glass facade may experience strong daylight even though the screen sits indoors.

Direct Sunlight and Outdoor Visibility

Direct sunlight represents one of the most demanding brightness conditions for an LED display. However, brightness alone cannot solve every visibility problem.

Pixel pitch, contrast, content design, viewing angle, calibration, and cabinet orientation also influence the viewing result.

Factory Insight: We do not recommend choosing an LED display solely because it has the highest nit rating. Excessive brightness can increase power demand and thermal load when the installation does not need it. A better specification starts with the actual ambient-light condition and then determines the necessary operating range.

What Determines the Actual Brightness of an LED Display?

Actual LED display brightness depends on LED components, pixel pitch, driver electronics, calibration, thermal design, cabinet construction, and operating conditions—not only the advertised nit rating.

Two LED displays can carry similar brightness specifications and still produce different results after installation. Component efficiency, current control, optical design, and calibration can change both peak output and sustained performance.

LED Chip and Package Performance

LED chip efficiency directly affects the amount of light produced for a given electrical input. The package also influences optical performance, heat transfer, viewing characteristics, and long-term stability.

A factory therefore needs to control component selection rather than simply assemble modules around a nominal brightness target.

For B2B buyers, the important question is not only “How many nits?” but also “Which LED components and operating conditions produce those nits?”

Pixel Pitch and Pixel Density

Pixel pitch determines the distance between neighboring LED pixels. A smaller pitch places more pixels into the same physical area, while a larger pitch uses fewer pixels.

Pixel pitch does not independently determine brightness, but it changes the module architecture, pixel density, optical layout, and viewing characteristics. Buyers should therefore evaluate brightness together with viewing distance and screen size.

Driver IC and Scan Architecture

The driver IC controls how the LED pixels receive electrical current. Scan architecture also affects how the display drives its pixels during operation.

A high refresh-rate configuration can place additional demands on the driving system. The engineering team must balance current control, refresh performance, power consumption, and thermal behavior instead of treating brightness as an isolated specification.

For large projects, this matters because a display may run for many hours every day. A specification that looks impressive during a short test does not automatically represent sustainable operating performance.

Calibration and Brightness Uniformity

Calibration corrects variations between LED pixels and modules so that the display produces a more consistent image.

Without effective calibration, a large LED wall can show visible differences between modules even when every module meets its nominal specification.

Factory testing should therefore examine:

• Pixel-to-pixel brightness consistency
• Module-to-module uniformity
• Cabinet-to-cabinet matching
• Calibration data
• Color and grayscale consistency

Cabinet and Module Design

Cabinet construction also affects long-term display performance. Mechanical rigidity, PCB layout, power distribution, ventilation, and thermal paths all influence how the modules operate.

A poorly managed thermal environment can change LED and driver behavior over time. A brightness specification has limited procurement value if the display cannot maintain stable performance under its real operating conditions.

Factory Insight: A production line should separate “can reach the specified brightness” from “can maintain consistent brightness across a complete LED wall.” For large projects, the second question often creates more practical value because buyers may deploy hundreds or thousands of modules.

Maximum Brightness vs. Operating Brightness: What Should Buyers Check?

B2B buyers should evaluate maximum brightness together with calibrated brightness, normal operating brightness, uniformity, and long-term stability.

A quotation that lists only a peak nit value leaves out important information. Buyers need to understand how the display performs after calibration and under the operating conditions that the project will actually use.

Maximum Rated Brightness

Maximum brightness describes the display’s peak capability under specified conditions. It helps buyers understand the available brightness headroom.

However, maximum brightness should not automatically become the operating target. An indoor display may rarely need its maximum output, while an outdoor display may need substantial brightness during daylight.

Recommended Operating Brightness

Operating brightness describes the level that the manufacturer recommends for normal use.

This value helps buyers estimate the actual viewing experience, power demand, and thermal conditions more realistically than a peak specification alone.

Brightness After Calibration

Calibration can reduce or adjust the raw output of individual pixels to achieve more consistent performance.

A buyer should therefore ask whether the quoted brightness represents an uncalibrated maximum, a calibrated result, or a recommended operating level.

Brightness Consistency Between Cabinets

A large LED wall contains many modules and cabinets. Small variations can become visible when the display covers a large viewing area.

Factory Insight: For a multi-cabinet project, LED binning, calibration data, module consistency, and cabinet matching can matter more than a single peak brightness figure. A buyer should request evidence of consistency rather than relying only on a headline specification.

Does Higher LED Display Brightness Mean Better Performance?

Higher brightness can improve visibility in bright environments, but excessive brightness can increase power consumption and thermal load without improving the viewing experience.

The correct brightness target depends on the installation. A conference room and a roadside outdoor billboard do not need the same operating range.

Brightness vs. Visibility

Brightness helps an LED display maintain visibility when ambient light becomes stronger. However, visibility also depends on contrast, content, viewing distance, pixel pitch, and the surrounding environment.

A buyer should therefore treat brightness as one part of the visibility system.

Brightness vs. Power Consumption

Higher LED output generally requires more electrical power when the system increases LED current. Actual consumption also depends on content, driving architecture, brightness settings, and power management.

Buyers should ask for both maximum power consumption and typical operating power instead of using peak power as the only energy indicator.

Brightness vs. Heat Generation

Electrical power eventually becomes heat within the display system. Higher operating output can therefore increase thermal requirements.

Manufacturers must consider heat dissipation around LED packages, driver ICs, power supplies, PCBs, and cabinet structures.

Brightness vs. LED Aging

Long-term operation at demanding electrical and thermal conditions can affect component aging. The exact behavior depends on component design, operating current, temperature, duty cycle, and other factors.

This is why a buyer should avoid selecting brightness solely by maximizing the specification.

When Excessive Brightness Becomes a Disadvantage

An unnecessarily bright indoor LED display can consume more power and create a harsher viewing environment without providing meaningful visibility benefits.

Factory Insight: We would not recommend maximizing brightness when the installation does not require it. A better engineering solution uses enough luminance for the environment while maintaining sensible power, thermal, and operating conditions.

How Ambient Light Changes the Brightness You Need

LED display brightness should match ambient light, because the same luminance can look very different in a dark room, a bright retail store, and direct sunlight.

Ambient light changes the contrast between the LED image and its surroundings. Buyers should therefore define the actual lighting environment before selecting the brightness specification.

Indoor Ambient Lighting

A controlled indoor space generally allows lower brightness settings. However, large windows, strong artificial lighting, or reflective surfaces can increase the required luminance.

Window-Facing and Glass-Facade Installations

A display positioned behind glass can receive strong daylight even though the installation remains technically indoors.

This situation often creates a procurement mistake: the buyer classifies the project as “indoor” and selects brightness based only on the room type.

Outdoor Daylight

Outdoor daylight creates a much stronger ambient-light challenge. The display needs sufficient luminance to preserve readable content and visual contrast.

Nighttime Operation

Outdoor displays should not necessarily operate at their daytime brightness after sunset. Automatic brightness adjustment can reduce unnecessary output when ambient light falls.

Automatic Brightness Adjustment

A light sensor can help the display adapt to changing environmental conditions. The system can increase output when daylight rises and reduce it when the environment becomes darker.

Factory Insight: Brightness control should form part of the system design, not an afterthought. A display that supports controlled brightness can give the buyer more usable operating range than a screen that simply advertises a high maximum nit value.

Brightness Is Not the Only Display Specification That Matters

LED display brightness should be evaluated together with pixel pitch, viewing distance, refresh rate, contrast, color performance, environmental protection, and installation conditions.

A high nit rating cannot compensate for an unsuitable pixel pitch or poor contrast. For example, a display can produce strong luminance but still deliver an uncomfortable viewing experience if the buyer selects a specification that does not match the audience’s viewing distance.

Pixel Pitch

Pixel pitch determines the distance between adjacent LED pixels. A smaller pitch generally supports closer viewing because it packs pixels more densely across the display surface.

However, smaller pixel pitch also increases the number of LEDs and electronics used across a given screen area. Buyers should not pay for an unnecessarily fine pixel pitch when the audience will view the screen from a much greater distance.

For a large outdoor screen viewed from far away, a very fine pixel pitch may add cost without producing a meaningful improvement for the audience.

Viewing Distance

Viewing distance should guide both pixel pitch and brightness decisions.

A screen designed for close-range indoor viewing has different requirements from a stadium display viewed from dozens of meters away. The buyer should define the normal, minimum, and maximum viewing distances before finalizing the LED specification.

Refresh Rate

Refresh rate determines how frequently the display updates its image. It matters particularly when cameras capture the LED screen.

A high refresh rate can reduce visible scanning artifacts in filmed content, but buyers should also check the complete driving architecture rather than selecting a number in isolation.

Contrast

Contrast affects the distinction between bright and dark areas of an image. Strong luminance alone does not guarantee strong visual contrast.

A display operating in a bright environment needs sufficient brightness, but the system also needs appropriate contrast performance to keep dark areas and details distinguishable.

Color Accuracy

Brightness and color performance work together. Increasing luminance does not automatically improve color reproduction.

For applications such as retail, broadcast studios, corporate spaces, and branded environments, buyers should define color requirements alongside brightness rather than treating them as separate purchasing decisions.

IP Rating for Outdoor Displays

Outdoor LED displays need protection against environmental exposure. Buyers should verify the relevant ingress protection rating for the actual installation conditions.

The correct IP requirement depends on where the cabinet sits, how it receives water or dust exposure, and how the system manages ventilation and drainage.

Factory Insight: Brightness represents only one variable in a complete LED display system. During manufacturing and project preparation, module structure, driving electronics, calibration, cabinet construction, and environmental protection all interact. A quotation that lists only brightness and pixel pitch gives the buyer an incomplete engineering picture.

How B2B Buyers Should Compare LED Display Brightness in Quotations

When comparing LED display quotations, buyers should verify the brightness unit, maximum and operating brightness, calibration method, uniformity, ambient-light conditions, and power consumption instead of comparing peak nits alone.

Different suppliers can use similar headline specifications while defining their test conditions differently. A structured quotation comparison helps buyers identify those differences before placing an order.

Check the Brightness Unit

For direct-view LED displays, the quotation should normally specify brightness in nits or cd/m².

The buyer should also ask whether the stated value represents maximum brightness, calibrated brightness, or a recommended operating level.

Check Maximum vs. Typical Brightness

A peak specification shows capability, not necessarily normal operation.

Ask the supplier to provide both maximum brightness and recommended operating brightness. This distinction helps buyers estimate practical performance and energy requirements.

Ask About Calibration

A supplier should explain how the factory controls brightness and color consistency across modules.

For large projects, calibration becomes particularly important because even small differences can become visible across a large wall.

Check Brightness Uniformity

Brightness uniformity describes how consistently different areas of the display produce luminance.

A buyer should request the supplier’s defined measurement method and acceptance criteria rather than accepting a vague statement such as “uniform brightness.”

Confirm Operating Environment

The supplier needs to know where the display will operate.

The buyer should provide information about indoor or outdoor installation, daylight exposure, nighttime operation, nearby windows, and expected viewing distance.

Check Power Consumption at Actual Operating Conditions

Peak power consumption can help size electrical infrastructure, but it does not represent normal energy use.

Buyers should request both maximum power consumption and typical operating power whenever the supplier can provide both.

Quick Quote Checklist

Before contacting an LED display manufacturer, prepare these five core parameters:

• Screen dimensions: width × height or total square meters.
• Pixel pitch: required pitch or minimum viewing distance.
• Installation environment: indoor, semi-outdoor, or outdoor, including daylight exposure.
• Brightness requirement: target operating brightness or environmental conditions.
• Viewing distance: minimum, typical, and maximum audience distance.

A buyer can add content type, refresh-rate requirements, installation structure, and operating hours when the project requires more detailed engineering.

Factory Insight: The five parameters above allow a manufacturer to move from a generic product quotation toward a project-specific recommendation. If a supplier recommends brightness without asking about installation environment or viewing distance, the buyer should request a more complete technical assessment.

How LED Display Manufacturers Control Brightness Consistency

Brightness consistency depends on component binning, module calibration, cabinet matching, production testing, and final quality control—not simply on the nominal brightness specification.

Large LED displays combine many modules and cabinets. Manufacturing variation therefore becomes more important as the screen size increases.

LED Chip Binning

LED components can vary in optical and electrical characteristics. Binning groups components with compatible performance characteristics so that the final display can achieve more consistent output.

The factory should control component selection before module assembly rather than attempting to correct every variation only at the final stage.

Module-Level Calibration

Module-level calibration helps correct differences between pixels and modules.

The calibration process should produce usable data that supports consistent image output across the completed display.

Cabinet-Level Matching

Cabinet matching becomes important when multiple cabinets form one continuous display.

A visible brightness difference between neighboring cabinets can be more distracting than a small difference within an individual module.

Production Testing

Production testing should verify the assembled module and cabinet rather than relying only on component specifications.

A factory can check brightness, dead pixels, image uniformity, electrical behavior, and other defined quality criteria before shipment.

Aging and Reliability Testing

Reliability testing helps manufacturers identify problems that may appear during operation.

Testing methods and acceptance criteria vary by product and manufacturer, so buyers should ask what testing the supplier actually performs rather than assuming that every factory follows the same process.

Factory Insight: For a large B2B project, factory quality control can evaluate dead pixels, module consistency, brightness deviation, calibration data, and cabinet matching before shipment. This creates a practical checkpoint before installation teams discover visible inconsistencies on site.

Lumens vs. Nits for Different Display Technologies

Nits are generally the more relevant brightness metric for direct-view LED, LCD, and OLED displays, while lumens commonly describe projector light output.

The measurement should match the way each technology produces and delivers light. Buyers who understand this distinction can avoid comparing specifications that describe different physical properties.

Direct-View LED Displays

Direct-view LED displays generate light directly from LED pixels. The viewer therefore sees light emitted from the display surface rather than light reflected from a projection screen.

For this reason, manufacturers commonly specify LED display brightness in nits or cd/m².

For B2B projects, buyers should compare the nit rating with ambient light, viewing distance, content requirements, and operating conditions. A high maximum value does not automatically justify a higher purchase price.

LCD Displays

LCD displays also commonly use nits to describe screen luminance. Their brightness performance depends on the display panel, backlight system, optical layers, and operating settings.

The same procurement principle applies: buyers should distinguish maximum brightness from the brightness used during normal operation.

OLED Displays

OLED displays also use nits because the specification describes the luminance produced by the display surface.

OLED technology creates light at the pixel level, but its brightness behavior differs from LED and LCD technologies. Buyers should therefore compare the complete display specification rather than treating the same nit number as an identical real-world result across technologies.

Projectors

Projectors commonly specify light output in lumens because manufacturers measure the total visible light produced by the projector.

A projector’s lumen rating does not directly equal the luminance of its projected image. Screen size, projection conditions, optical efficiency, and screen characteristics influence the final viewing result.

This difference makes direct lumen-to-nit comparisons unsuitable without a defined optical system.

Digital Signage

Digital signage can use different display technologies, so the appropriate brightness metric depends on the hardware.

A direct-view LED signage installation normally uses nits. A projector-based signage system commonly uses lumens. Buyers should therefore identify the underlying display technology before comparing brightness specifications.

Factory Insight: When an integrator compares different display technologies for a project, the first step should not be to rank the brightness numbers. The team should translate each technology into the same practical question: Can the installed system maintain clear, readable content under the project’s actual lighting conditions?

Conclusion

Lumens and nits are not interchangeable brightness units. Lumens measure total visible light output, while nits measure display surface luminance. For direct-view LED displays, buyers should evaluate brightness together with ambient light, viewing distance, operating conditions, calibration, uniformity, power consumption, and thermal performance. The highest nit rating does not automatically mean the better LED display.

For B2B projects, the right approach is to match display brightness with the actual application rather than simply selecting the highest specification available. NSELED combines LED display manufacturing experience with project-specific technical support to help buyers determine the appropriate brightness, pixel pitch, cabinet configuration, and operating conditions for their installation. Contact NSELED to discuss your project requirements and receive a customized LED display solution and quotation.