Imagine this: As dusk falls, a golf course transforms into a stunning canvas of light and shadow.
Players stand confidently on the tee box. The moment the club strikes the ball, the white golf ball traces a clear arc across the night sky and lands precisely on the distant fairway. On the green, soft and uniform lighting reveals every slope, grass pattern, and hole location with exceptional clarity. The edges of bunkers and water hazards are illuminated just enough to ensure safety while preserving the natural beauty of the course.
All of this begins with a well-designed golf course lighting system.
But the reality is often quite different:
🔹 After dark, fairways are fragmented by uneven patches of light and shadow, while distant landing areas disappear into darkness.
🔹 During the swing, harsh glare shines directly into players’ eyes, making it difficult to track the ball’s flight path and landing point.
🔹 High shots traveling more than 300 yards vanish halfway through their trajectory, leaving players unable to follow the ball.
🔹 Light spill brightens nearby residential areas, leading to resident complaints and challenges with environmental compliance.
🔹 Electricity costs remain high, while substantial upfront investments fail to deliver the expected lighting performance.
Are you facing these common challenges of night golf?
If so, don’t rush into purchasing a set of “standard floodlights.”
Choosing the right lighting solution for a golf course involves far more than simply buying a few fixtures. It is an integrated science that combines optics, terrain, structural design, environmental considerations, and operational standards.
A golf course can cover dozens of hectares, with hole lengths ranging from 60-meter par-3 holes to 550-meter par-5 holes. The terrain is often varied and includes bunkers, water hazards, rough areas, and many other complex zones—each with its own unique lighting requirements.
We’ve prepared this practical guide for you. Rather than overwhelming you with complex theory, it provides a clear, step-by-step roadmap—from defining lighting requirements to final acceptance testing—helping you get your golf course lighting right the first time and deliver an exceptional night-golf experience every evening.
Table of Contents
One of the biggest mistakes in golf course lighting is trying to illuminate the entire course with a single standard solution.
A standard 18-hole golf course typically consists of multiple functional areas, including tee boxes, fairways, greens, bunkers, and roughs, as well as a driving range in some cases. Each area has significantly different lighting requirements.
1.1 Lighting Standards for Different Golf Course Areas (Based on IESNA RP-6-01)
According to the IESNA RP-6-01 standard, different functional areas of a golf course require different illuminance levels. The following recommended values are based on industry practices and reference standards:
| Project Type | Area | Illuminance Requirement (Horizontal Illuminance Eh / Vertical Illuminance Ev) | Uniformity (U1/U2) | Color Rendering Index (CRI/Ra) | Color Temperature (CCT) | Flicker Requirement | Glare Control (GR/UGR) |
|---|---|---|---|---|---|---|---|
| Professional Tournament / TV Broadcast Level | Tee Box | Eh ≥ 400 lx | ≥ 0.75 | CRI ≥ 90, TLCI ≥ 90 | 4000K–5000K (Cool White) | Flicker-Free | GR ≤ 35 |
| Fairway | Eh ≥ 250 lx | ≥ 0.65 | CRI ≥ 90, TLCI ≥ 90 | 4000K–5000K | Flicker-Free | GR ≤ 40 | |
| Green | Eh ≥ 500 lx | ≥ 0.80 | CRI ≥ 90, TLCI ≥ 90 | 5000K–5700K | Flicker-Free | GR ≤ 25 | |
| Recreational / Amateur Course | Tee Box | Eh ≥ 150 lx | ≥ 0.65 | CRI 70–80 | 4000K–5700K | — | GR ≤ 40 |
| Fairway | Eh ≥ 120 lx | ≥ 0.50 | CRI 70–80 | 4000K–5700K | — | GR ≤ 45 | |
| Green | Eh ≥ 250 lx | ≥ 0.70 | CRI 70–80 | 4000K–5000K | — | GR ≤ 30 | |
| Driving Range | Hitting Area | Eh ≥ 100 lx | — | CRI 70–80 | 4000K–5700K | — | GR ≤ 45 |
| Range Area | Eh ≥ 180 lx (Horizontal) | — | CRI 70–80 | 4000K–5700K | — | GR ≤ 35 |
The above illuminance recommendations are based on IESNA RP-6 guidelines and industry best practices. In addition, HDTV broadcast-level lighting requirements are significantly higher than those for recreational facilities. Vertical illuminance at a height of 30 meters can reach approximately 300 lx, while vertical illuminance uniformity ratios U1 and U2 should exceed 0.7 and 0.8, respectively.
Unlike most other sports, golfers must track a ball with a diameter of only 42.7 mm as it travels through the air at heights exceeding 50 meters. Therefore, vertical illuminance is just as important as horizontal illuminance.
Vertical illuminance requirements throughout the entire fairway should not be overlooked. A defined vertical plane across the fairway width is necessary to ensure clear visibility from tee-off to landing.
When vertical illuminance is insufficient, golfers cannot accurately follow the ball’s flight trajectory after impact, directly affecting shot judgment and the overall playing experience.
MECREE Tip: If you are upgrading an existing golf course lighting system and players frequently complain that the ball disappears at its peak flight height, the most likely cause is insufficient vertical illuminance. This is the fundamental difference between golf course lighting and lighting for football fields or tennis courts.
1.2 Environmental Lighting Control Standards
Golf courses are often located in suburban areas or environmentally sensitive zones, making light pollution control essential for compliant operation:
Maintain a Glare Rating (GR) of ≤ 40 and a Unified Glare Rating (UGR) of ≤ 25.
Upward Light Output Ratio (ULOR) should be ≤ 1% (full-cutoff luminaires are recommended).
Strictly control light spill beyond the course boundary to minimize impacts on nearby residential communities and the surrounding ecological environment.
Like cricket field lighting, golf course lighting has fully entered the LED era. A simple comparison clearly demonstrates why:
| Comparison Item | LED | Metal Halide Lamp | Halogen Lamp |
|---|---|---|---|
| Luminous Efficacy (lm/W) | 120–220 | 40–80 | Approx. 15 |
| Typical Lifespan | 50,000–80,000 hours | 6,000–10,000 hours | 2,000–4,000 hours |
| Startup Time | Instant On | 3–5 minutes warm-up | Instant On |
| Dimming Capability | Smooth 0–100% Dimming | Limited | Limited |
| Color Rendering Index (CRI) | ≥80 (Optional ≥90) | 60–80 | 100 |
| Maintenance Cost | Low (No Replacement for up to 10 Years) | High (Lamp Replacement Every 1–2 Years) | Very High |
Real-World Example: In April 2025, Fukuoka Lakeside Country Club in Japan launched its night golf service using the latest LED lighting technology. The system achieved illuminance levels exceeding 150 lx on tee boxes, over 50 lx on fairways, and more than 150 lx on greens, making it one of the brightest night golf courses in Japan and attracting a large number of young players and female customers.
Key Conclusion: Golf courses cover vast areas with lighting poles distributed over long distances. The energy efficiency of LED technology translates directly into substantial long-term operational cost savings.
Luminaire Performance Requirements
In addition to meeting fundamental requirements such as illuminance, uniformity, and color rendering, golf course lighting fixtures should also satisfy the following key performance criteria to ensure long-term reliability and superior lighting performance.
Optical Performance
Light Distribution Pattern
Select the appropriate beam distribution according to the requirements of each area. For example:
Fairways typically use narrow beam floodlights (10°–20°) to achieve precise long-distance illumination and effective ball tracking.
Tee boxes generally use medium beam distributions (30°–60°).
Greens may require wide beam distributions (90°+) to ensure uniform coverage.
Glare Control
Glare is a critical factor affecting player visual comfort. Luminaires should incorporate advanced anti-glare designs, such as precision optical lenses, visors, louver systems, honeycomb grids, or polarized optical designs.
For professional competition venues, the glare rating (GR/UGR) should be strictly controlled to ≤ 40.
For recreational or training facilities, values up to ≤ 45 may be acceptable.
Correlated Color Temperature (CCT)
A neutral-to-cool white color temperature of 4000K–5700K is generally recommended to provide clear visibility and natural color appearance.
Professional tournament venues often prefer 5000K–5700K cool white lighting to meet HDTV broadcasting requirements.
Color Rendering Index (CRI)
General applications: Ra > 70
HDTV broadcasting applications: Ra > 90
This ensures accurate color reproduction of course features, equipment, and player apparel.
Electrical and Mechanical Performance
Flicker Percentage
For professional venues, especially those involving HDTV broadcasting, luminaires must be flicker-free (<1%) to prevent flicker effects during slow-motion replay.
Ingress Protection (IP Rating)
As golf courses are outdoor environments, luminaires should have an IP66 rating or higher to withstand rain, dust, and other harsh weather conditions.
Wind Resistance
High-mast lighting structures should be designed to withstand strong winds, with a wind resistance rating of at least Level 17, ensuring structural stability under extreme weather conditions.
Thermal Management and Lifespan
Efficient thermal management, such as die-cast aluminum heat sink designs, is essential for maximizing LED lifespan.
Luminaires should achieve a lifetime rating of L70 > 50,000 hours, helping reduce maintenance frequency and operating costs.
Core Design Principles
Consistency with the Player’s Line of Sight
The aiming direction of all luminaires should follow the direction of play to avoid severe direct glare caused by backlighting. Luminaires serving adjacent fairways should also be positioned to prevent their direct light from becoming a source of glare for players on neighboring holes.
Shadow Prevention
Lighting poles should be installed behind the hitting area (at least 5 m from the teeing area) or at the rear-right side to prevent player shadows from affecting play. Green areas should be illuminated from at least two opposing directions to reduce the likelihood of a player’s shadow covering the golf ball during putting.
Vertical Illuminance Priority
Golf is a three-dimensional sport, making ball-flight visibility essential. In addition to horizontal illuminance on the ground, adequate vertical illuminance must be provided to allow players to clearly track the ball’s flight path and landing position.
Pole Spacing Control
As a general rule, pole spacing should not exceed 2–3 times the pole height. Excessive spacing compromises illuminance uniformity across the space and playing surface, creating alternating bright and dark areas that cause visual fatigue.
Obstacle Avoidance
Trees, shrubs, and other landscape elements should not block illuminated areas. Lighting poles should not be installed on the inside of dogleg fairways, as they may interfere with ball flight. Along fairways, poles are recommended to be placed outside the golf cart path.
Light Pollution Control
Excessive light spill can negatively impact the course ecosystem and nearby residential areas. Luminaires should therefore be equipped with light-spill control accessories. Whenever possible, poles should be integrated into surrounding vegetation and blended with the course landscape.
3.1 Choose the Right Beam Angle for Each Area
Different course areas require different beam distributions:
Tee Boxes and Greens
Wide beam angles (45°–60°) are recommended to provide uniform coverage over large areas while minimizing shadows.
Fairways
Medium-to-narrow beam angles (25°–45°) are preferred for accurate long-distance illumination.
Long-Distance Landing Areas
Ultra-narrow beam angles (10°–20°) provide strong throw distance and effective coverage of remote target areas.
Key Principle
A professional golf course lighting system should utilize a combination of luminaires with different beam angles on the same pole. Combining wide-beam and narrow-beam optics provides optimal illumination performance. The greater the variety of beam distributions available, the more flexible and effective the lighting design becomes.
3.2 Pole Height and Spacing
Tee Box Poles
Minimum pole height: 12 m
Recommended pole height: 15 m
Installed 5–15 m behind or diagonally behind the tee box
Pole mounting height should be at least half the length of the teeing area
Fairway Poles
Minimum pole height: 15 m
Installed within the rough area, 5–7 m from the fairway edge
Typical spacing between adjacent poles: approximately three times the pole height (about 45–55 m)
Green Poles
Recommended mounting height: 18 m
Positioned within a 15°–35° angle in front of the green
Lighting should be provided from at least two directions to reduce player shadows during putting
Driving Range Poles
When using a combination of side lighting and hitting-bay lighting, a pole height of 21 m is recommended
3.3 Comparison of Four Driving Range Lighting Layouts
Driving ranges are among the most common applications for golf lighting design. The following four layouts each have their own advantages and limitations:
| Layout | Pole Height | Advantages | Disadvantages |
|---|---|---|---|
| Poles Behind the Hitting Bays | ≥15 m | Highest equipment efficiency and simplest installation | Severe glare and light spill |
| Side Lighting on Both Sides | ≥21 m | Best overall lighting performance with minimal glare and light spill | Higher equipment and maintenance costs |
| Side Poles + Ground Lighting | ≥15 m + Ground Lights | Best upper vertical illuminance | Poor horizontal illuminance, high cost, and ball flight paths can be difficult to track |
| Roof-Mounted Lighting | ≥8 m | Lowest installation cost | Poor vertical illuminance and severe glare |
MECREE Recommendation
For premium driving ranges, MECREE recommends a combination of side lighting and hitting-bay lighting. When paired with properly designed beam distributions, this solution minimizes glare and light spill while providing an illumination experience that closely resembles daylight conditions.
3.4 Key Principles for Pole Placement
Tee box poles should be positioned at least 5 m from the hitting area to reduce shadows.
Luminaire aiming direction should follow the player’s line of sight to avoid severe direct glare from opposite directions.
For narrow fairways (less than twice the pole height in width), staggered pole arrangements are recommended.
For wide fairways (greater than twice the pole height in width), poles should be installed opposite each other.
Pole spacing should never exceed three times the pole height.
At doglegs or curved sections of the course, luminaire aiming directions should be adjusted to follow the change in the direction of play.
4.1 The Impact of Glare
Glare is a visual phenomenon caused by inappropriate brightness levels or extreme luminance contrasts within the field of view, resulting in discomfort or reduced visibility.
In golf, glare directly:
Affects players’ ability to clearly see the ball’s flight path and landing position.
Causes visual fatigue and may negatively impact long-term eye health.
Creates severe direct glare between adjacent fairways when players are hitting in opposite directions and the lighting is not properly shielded.
4.2 Key Measures for Glare Control
Proper Pole Spacing
Improper pole spacing is one of the primary causes of severe glare.
Install Anti-Glare Accessories
Luminaires used in a high-quality golf course lighting system should be equipped with anti-glare accessories.
Combine Multiple Beam Angles
Different areas should use different beam distributions, combining wide-beam and narrow-beam optics to achieve optimal lighting performance.
Select Appropriate Luminaire Power
Luminaires rated at 1200W and 1500W can achieve excellent illuminance uniformity and glare control while maintaining a reasonable number of lighting poles.
4.3 Light Spill Control
Excessive light spill can disrupt the ecological balance of surrounding vegetation and negatively affect nearby residential communities.
Control measures include:
Prioritize the use of Full Cutoff luminaires with an Upward Light Output Ratio (ULOR) ≤ 1%.
Use polarized optical components for precise light control, directing illumination only to the intended playing areas.
Ensure that lighting poles and fixture finishes blend naturally with the course environment. For example, the lighting system at the golf course of Lianhua Mountain Golf Club integrates poles into surrounding greenery to create a harmonious course environment.
Modern golf course lighting is no longer based on a simple “all lights on” approach. Intelligent zoned operation is the key to maximizing energy savings and operational efficiency.
5.1 Recommended Feature List
Independent Zone Control
Holes 1–18 can be controlled independently.
Driving range and clubhouse areas can be switched on and off separately.
Preset Lighting Modes
Night Tournament Mode
100% output power
Daily Operation Mode
60%–80% output power
Only selected lighting poles are activated
Driving Range Mode
High illuminance in hitting-bay areas
Lower illuminance in distant range areas
Security / Inspection Mode
5%–20% output power
Holiday Atmosphere Mode
Integrated with colored lighting effects
Remote Control
Switch lights on/off and adjust brightness anytime through a mobile app or computer-based control platform.
Automatic Daylight Sensing
Brightness levels automatically adjust according to ambient twilight conditions.
Energy Consumption Monitoring
Real-time monitoring of power consumption in each lighting zone.
5.2 Commercial Benefits
Data shows that after adding night lighting facilities, a golf course can achieve:
Approximately 16% growth in membership
Approximately 5% increase in food and beverage revenue
Approximately 35% increase in rounds played
Investment in lighting infrastructure can therefore significantly enhance overall operational performance and profitability.
Through an intelligent time-based control system, annual energy consumption can be reduced by 40%–60% compared with continuous full-power operation.
Step 6: From Design to Acceptance — An 8-Step Implementation Process
1. Define Lighting Requirements
Determine the course positioning (recreational, club-level, or professional broadcast venue) and establish illuminance targets for each area.
2. Site Survey and Measurement
Accurately measure the terrain of each hole, fairway widths, proposed pole locations, and surrounding sensitive areas.
3. Lighting Simulation
Use software such as Dialux or AGi32 to perform computer simulations and verify illuminance distribution and uniformity.
4. Solution Comparison
Compare the technical proposals and IES files provided by at least two lighting suppliers.
5. Detailed Engineering Design
Finalize luminaire selection, beam distributions, pole heights, mounting positions, and control system configuration.
6. Infrastructure Construction
Complete pole foundations, lightning protection grounding, and underground cable installation.
7. Installation and Commissioning
Install and aim each luminaire according to the design specifications, ensuring all areas meet the required lighting standards.
8. Acceptance Testing
Verify illuminance levels and uniformity using the grid-point measurement method to ensure compliance with the specified standards.
Golf course lighting fixtures are exposed to outdoor weather conditions year-round, making regular maintenance essential.
7.1 Maintenance Checklist
Every 3 Months
Inspect luminaire housings and mounting bolts.
Remove weeds and vegetation around lighting poles.
Every 6 Months
Clean lens surfaces (dust accumulation can reduce light output by 15%–20%).
Every Year
Test lightning protection grounding resistance.
Inspect driver wiring and electrical connections.
Every 2 Years
Arrange a third-party illuminance assessment to evaluate lighting performance and lumen depreciation.
7.2 Key Protection Requirements
Ingress Protection Rating
Must be at least IP65 (IP66 recommended) to withstand rainy and humid outdoor environments.
Impact Resistance Rating
Should achieve IK08 or higher to withstand accidental impacts from golf balls.
Wind Resistance
Wind resistance rating of ≥ Level 17 to ensure the stability of high-mast structures under extreme weather conditions.
Constant Illuminance Control
Some premium luminaires can maintain constant illuminance output through advanced electrical control systems, ensuring lighting levels remain stable throughout long-term operation.
Maintenance Personnel Safety
Telescopic or lowering pole systems are recommended to facilitate maintenance work and reduce risks associated with working at height.
Conclusion: More Than Lighting — An Upgrade to the Golf Experience
Night golf lighting is about much more than simply enabling play after dark—it becomes the course’s second “business card.”
A well-designed lighting system can showcase the texture of natural turf, the contours of greens, the shape of bunkers, and the extension of fairways in ways that create an entirely new experience unavailable during daytime play.
By now, you likely have a comprehensive understanding of the key principles of golf course lighting:
How much illuminance should be provided on a tee box?
Why is vertical illuminance so critical on fairways?
Why do greens require multi-directional lighting to eliminate putting shadows?
For a driving range, which solution is more suitable: side lighting or poles behind the hitting bays?
However, the most challenging issues often arise during project implementation:
“The design looks perfect on paper, but who can guarantee that the installed system will be free from glare and light spill?”
“The pole height follows the design specifications, so why is the ball still difficult to see when it reaches 50 meters in the air?”
Golf course lighting is not simply a matter of installing a few fixtures on poles.
It requires a lighting system proven through real-world applications and a lighting partner who truly understands the flight characteristics of a golf ball.
This is where MECREE comes into the picture.
| Lighting Fixture Images | Model & Power | Luminous Efficacy | Correlated Color Temperature (CCT) | Color Rendering Index (CRI / Ra) | Protection Rating (IP Rating) | Flicker Percentage | Service Life | Intelligent Dimming | Glare Protection |
 |
A65-1050W/
1450W/1650W |
145 Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 / IP67 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
 |
R580-840W/1020W/
1280W/1500W |
160Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 / IP67 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
 |
R480-850W/1050W/
1250W/1550W |
160Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 / IP67 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
 |
AFL-250W-2400W/ | 180Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 / IP67 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
 |
R350-500W-3600W/ | 160Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 / IP67 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
 |
P73-420W/630W/
840W/1060W/ 1260W/1600W |
160Lm/W | 3000K, 4000K, 5000K, 5700K, 6500K | 70 / 80 / 90 (TLCI90 optional) | IP66 | flicker ≤ 0.5% | 80,000 hours | DALI/0-10V/DMX512 optional | Proprietary Anti-Glare Lens/Hood Technology |
Note:
1.Detailed specifications and introductions for different lighting models can be found on the product pages. https://www.mecreeled.com/product/
2.Horizontal illuminance, vertical illuminance, and lighting uniformity cannot be determined solely by the luminaire specifications. These performance indicators depend on multiple project-specific factors, including field dimensions, pole height, mounting locations, aiming angles, lighting distance, fixture quantity, and overall lighting layout.
Therefore, MECREE does not list horizontal illuminance, vertical illuminance, or uniformity values in the technical specification table above. Instead, our engineering team will develop a customized lighting design based on the specific conditions of your sports field to ensure that the required illuminance levels, uniformity, and lighting performance are achieved in accordance with the applicable project standards and requirements.
Professional lighting simulation reports, such as DIALux Evo or AGi32, can be provided upon request to verify the design performance before project implementation.
Based on your specific project requirements, we provide customized sports lighting design solutions, fully considering the following key factors:
We also provide preliminary construction cost estimation to support early-stage project planning and budgeting.
Based on the project’s local wind speed data, site requirements, and selected luminaire models, MECREE provides customized pole structure solutions tailored to each application.
MECREE is more than a lighting supplier—we serve as your comprehensive supply chain partner.
In addition to sports lighting products, we can also provide:
High-power generator sets
Power cables
Circuit breakers
Distribution cabinets
Other electrical accessories and supporting equipment
This ensures seamless integration between the lighting system and power infrastructure, eliminating the complexity of sourcing from multiple suppliers.
Light Customization
Luminaire color options
Customized packaging solutions
Advanced Customization
Correlated Color Temperature (CCT)
Input voltage
Control methods
Dimming functions
Mounting structures
Surface finishing treatments
Anti-glare solutions
Driver configurations (external or integrated)
Driver dimming characteristics
These customization options enable each project to meet specific performance, aesthetic, and operational requirements.
Example: Remote Driver Configuration
The driver and luminaire body can be installed separately, significantly reducing the load on the pole structure and lowering overall pole costs.
Easy Retrofit Installation
MECREE offers customized mounting arm solutions designed to fit a wide range of existing poles, eliminating the need to replace the main pole structure.
Fast and precise installation
Reduced labor requirements
Reliable system performance
Enhanced safety
Lower overall project costs
5. Intelligent Lighting Control System
MECREE luminaires support the DMX512 digital control protocol, enabling precise control and synchronization of complex dynamic lighting effects.
Sports events
Concerts
Opening and closing ceremonies
Festivals and celebrations
Multi-scene lighting environments
This provides greater operational flexibility while delivering a superior visual experience for athletes, spectators, and event organizers.
MECREE provides comprehensive technical support throughout the installation process, including:
Electrical system design recommendations
Precise aiming instructions for every luminaire
Detailed installation drawings
Remote Support
Complete installation documentation
One-on-one video guidance when required
On-Site Support
For larger or more complex projects, our engineering team can travel to the project site and provide personalized installation guidance.
This ensures that the final lighting performance matches the original design objectives.
How to Achieve Precise Outdoor Lighting Aiming?
In modern outdoor lighting projects, high-mast luminaire aiming is widely recognized as one of the most significant efficiency bottlenecks.
Traditional aiming methods present several challenges:
High safety risks associated with working at height
Difficulty achieving precise aiming angles
Complex installation and adjustment procedures
Inconsistent illumination uniformity
To address these challenges, MECREE has developed an innovative Laser Aiming Bracket System, designed to transform the entire aiming process.
Key Advantages
Easy Installation
The simplified design enables rapid installation and removal, significantly reducing operational complexity.
Exceptional Accuracy
The laser-guided system ensures highly precise aiming, helping maintain lighting uniformity and compliance with project specifications and international standards.
Higher Efficiency
The system can reduce labor and time costs by up to 80%.
For example:
Traditional aiming of 200 high-mast luminaires may require approximately 20 days
With MECREE’s laser aiming solution, the same task can be completed in as little as 4 days
This dramatically improves project efficiency while reducing installation costs.
Through streamlined production management and strict quality control procedures, MECREE provides dependable lead times for projects of various sizes.
Typical delivery periods range from:
10 to 40 days
depending on project scale and customization requirements.
To meet different project requirements, MECREE offers:
5-Year Warranty
7-Year Warranty
10-Year Warranty
Standard After-Sales Service
If a component failure is confirmed:
Replacement parts are provided free of charge
Parts are typically shipped within one week
Our technical team assists customers in completing repairs quickly and efficiently
This minimizes downtime and ensures long-term system reliability.
MECREE has successfully delivered lighting solutions for more than 200 sports venues worldwide.
Our experience covers projects ranging from:
Community training facilities
School and university sports fields
Professional sports complexes
International tournament venues
Whether your project is a local recreational facility or a world-class competition stadium, MECREE can help you create a professional sports lighting environment that is:
Compliant with international standards
Energy efficient
Visually comfortable
Reliable and cost-effective
Choosing MECREE means choosing a safer, more precise, and highly efficient sports lighting solution.
Contact Us:info@mecree.com
We look forward to assisting you.
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