Professional speed skating rink lighting is very different from ordinary indoor sports lighting. Speed skaters travel at high speed, enter curves continuously, change their viewing direction rapidly and depend on clear visibility of the ice surface, lane markings, other competitors and track boundaries.
At the same time, ice is a highly reflective surface. Incorrect fixture placement, excessive brightness or unsuitable beam angles can create strong reflected glare that affects athletes, judges, spectators and television cameras.
The lighting requirements also change significantly between a large long track speed skating oval and a compact short track speed skating arena. A professional 400-meter oval may require long-throw sports luminaires and multiple optical distributions, while short track is usually held inside a conventional indoor ice arena where ceiling height and overhead glare become more important.
A successful LED speed skating lighting system therefore needs to consider much more than fixture wattage. Lux level, uniformity, vertical illuminance, beam angle, mounting position, glare control, color rendering, flicker performance and lighting controls all need to be evaluated together.
This guide explains the main lighting design principles for long track and short track speed skating facilities, including competition lighting levels, fixture selection, photometric design, broadcast requirements, LED retrofit and multipurpose ice arena applications.
What Is Speed Skating Rink Lighting?
Speed skating rink lighting is a specialized sports lighting system designed to illuminate the competition ice surface and the surrounding areas required for safe training, racing, judging and broadcasting.
Depending on the venue, the lighting system may need to support:
- long track speed skating;
- short track speed skating;
- training sessions;
- international competitions;
- television broadcasting;
- high-speed video recording;
- photo-finish systems;
- public skating;
- ice hockey;
- figure skating;
- entertainment events.
For this reason, professional speed skating rink lights should not be selected simply according to the total floor area or existing fixture wattage.
A complete design normally evaluates:
- average horizontal illuminance;
- minimum illuminance;
- lighting uniformity;
- vertical illuminance;
- glare;
- mounting height;
- fixture aiming angle;
- optical beam distribution;
- color temperature;
- color rendering index;
- flicker performance;
- lighting control requirements;
- maintenance factor;
- emergency lighting;
- broadcast camera positions.
The final fixture quantity and wattage should therefore be determined using photometric calculations rather than a simple watts-per-square-meter approach.
Long Track vs Short Track Speed Skating Lighting
The first major design decision is determining whether the facility is used for long track speed skating, short track speed skating or both.
Although both sports are performed on ice, the geometry of the competition area is completely different.
Long Track Speed Skating Lighting
Long track speed skating is normally performed on a large oval track. Major international competitions generally use a standard approximately 400-meter speed skating oval.
The venue can include:
- two competition lanes;
- two long straight sections;
- large curved sections;
- lane-changing areas;
- starting positions;
- finish line;
- an internal warm-up lane;
- judging and timing positions;
- broadcast camera positions.
Compared with a normal ice hockey rink, the illuminated area is considerably larger.
This creates several challenges for long track speed skating lighting:
- long fixture-to-track distances;
- large differences between near and far lighting zones;
- high mounting positions;
- complex lighting around the curves;
- potential glare across the opposite side of the oval;
- difficult uniformity control;
- multiple camera viewing directions.
Long-track arenas therefore typically require high-output LED sports lighting fixtures with several different optical distributions.
For large indoor or outdoor speed skating ovals, the REITA LST Series LED Stadium Light can be configured with different beam angles for long-distance sports lighting applications.
The REITA 5050 SMD Modular Sports Light Series is another option for projects requiring flexible wattages and optical distributions.
Short Track Speed Skating Lighting
Short track speed skating normally takes place inside a standard indoor ice arena.
The competition track is approximately 111 meters long and is located within an ice surface commonly similar in size to a hockey rink.
Short track has a much smaller illuminated area than long track, but this does not necessarily make the lighting design easier.
Athletes race close together at high speed and repeatedly enter tight curves. Their viewing direction changes continuously, making glare control particularly important.
Typical short-track lighting challenges include:
- direct views toward ceiling-mounted fixtures;
- strong reflection from the ice;
- tight curves;
- rapid movement;
- dense athlete positioning;
- lower ceiling heights;
- shared use with hockey and figure skating.
Depending on ceiling height and competition level, a short-track venue may use LED sports lights, high bay luminaires or a combination of both.
For suitable indoor applications, REITA’s UFO LED High Bay Light Series can provide wide and efficient overhead illumination.
Speed Skating Lighting Requirements and Lux Levels
There is no single lux value suitable for every speed skating rink.
Required illuminance depends on:
- training or competition level;
- indoor or outdoor venue;
- national or international event requirements;
- spectator capacity;
- broadcast requirements;
- camera frame rate;
- local lighting standards.
EN 12193-aligned sports lighting references provide useful baseline values for speed skating facilities.
Typical Indoor Speed Skating Lux Levels
| Application Level | Typical Average Illuminance | Typical Uniformity Emin / Eavg |
|---|---|---|
| International / National Competition | Approx. 500 lux | 0.70 |
| Regional Competition / High-Level Training | Approx. 300 lux | 0.60 |
| Local Competition / Training / Recreation | Approx. 200 lux | 0.50 |
These values should be regarded as general sports-lighting design references rather than a universal specification for every speed skating competition.
A national federation, international organizer or television broadcaster may specify significantly higher requirements.
For a detailed discussion of illuminance and uniformity, see our Speed Skating Lighting Requirements: Lux Levels, Uniformity and EN 12193.
Outdoor Speed Skating Oval Lighting Levels
Outdoor long-track facilities usually have additional challenges including higher poles, longer aiming distances, snow, wind, weather exposure and environmental spill-light restrictions.
Typical reference values may include:
| Application Level | Typical Average Illuminance | Typical Uniformity Emin / Eavg |
|---|---|---|
| International / National Competition | Approx. 500 lux | 0.70 |
| Regional / High-Level Training | Approx. 200 lux | 0.50 |
| Local / Training / Recreation | Approx. 100 lux | 0.50 |
Outdoor lighting values should always be confirmed against the specific project standard and event requirements before the final design is approved.
Why Lighting Uniformity Is Critical for Speed Skating
Average lux alone does not determine whether a speed skating rink has good lighting.
For example, a rink could achieve an average of 500 lux while some sections receive 250 lux and others exceed 800 lux.
The calculated average may appear acceptable, but athletes would repeatedly move between bright and dark zones.
At speed, this forces the human eye to continuously adapt to different brightness levels.
Poor uniformity can also create inconsistent exposure for broadcast cameras.
Uniformity should therefore be evaluated across:
- both straight sections;
- inside and outside lanes;
- both curves;
- lane-change areas;
- start areas;
- finish-line area;
- warm-up lane;
- short-track competition area.
Good uniformity normally requires multiple overlapping beams rather than using a small number of extremely powerful fixtures.
Why Ice Creates a Special Glare Problem
Ice is a smooth and reflective sports surface.
When high-intensity LED light reaches the surface at an inappropriate angle, part of the light can be reflected toward athletes, judges, spectators or cameras.
Glare can come from two main sources:
- direct glare from the LED fixture;
- reflected glare from the ice surface.
Potential causes include:
- fixtures installed too low;
- incorrect aiming angles;
- overly narrow beams;
- excessive intensity from a single direction;
- poor shielding;
- fixtures positioned directly in common athlete sightlines.
The problem is especially important on speed skating curves.
A luminaire that is outside a skater’s normal field of vision on the straight may become directly visible as the athlete rotates through a curve.
Professional speed skating arena lighting should therefore evaluate glare from multiple athlete directions instead of considering only spectator viewing positions.
Glare control can be improved through:
- higher mounting positions;
- careful aiming;
- controlled optical lenses;
- anti-glare shields;
- appropriate beam combinations;
- better luminaire positioning;
- photometric simulation.
Long Track Speed Skating Lighting Layout
Lighting a 400-meter speed skating oval requires a very different layout from lighting a rectangular sports field.
The oval geometry creates continuously changing distances between luminaires and the competition lanes.
Fixtures may be installed on:
- roof structures;
- catwalks;
- structural beams;
- grandstand roofs;
- perimeter poles;
- high-mast structures.
Indoor Long Track Arenas
Indoor long-track facilities normally use roof-mounted lighting.
Multiple rows of fixtures can be distributed around or across the oval so that the lighting does not have to travel from one side of the entire building to the other.
The design needs to balance:
- mounting height;
- track distance;
- fixture tilt;
- beam angle;
- roof structure limitations;
- maintenance access.
A detailed design should also avoid excessive fixture concentration directly above one portion of the track.
Outdoor Long Track Ovals
Outdoor venues may use perimeter poles or high-mast lighting structures.
Higher poles can improve uniformity and reduce direct glare, but they also increase the required optical throw distance.
Long-throw narrow-beam sports luminaires may therefore be needed for distant sections of the track.
The detailed engineering considerations are covered in our Long Track Speed Skating Lighting Design Guide.
Beam Angle Selection for Speed Skating Rink Lights
Professional speed skating projects rarely use only one beam angle.
Different fixture-to-track distances require different optical distributions.
| Typical Beam | Possible Application |
|---|---|
| 10°–15° | Very long-distance aiming from high mounting positions |
| 25°–30° | Long and medium-long throw sections |
| 40°–45° | Medium-distance track illumination |
| 60° | Closer track areas and lower mounting heights |
| Wide Beam | Indoor overhead illumination and nearby areas |
| Asymmetric Optics | Perimeter installation where light needs to project forward efficiently |
For example, the same lighting position may use a narrow beam for the opposite side of the oval and a wider beam for the nearest lane.
This helps achieve uniform illuminance without over-lighting nearby sections.
Beam selection should always be based on the actual IES photometric distribution rather than the nominal beam angle alone.
Lighting the Curves of a Speed Skating Oval
Curves are among the most difficult areas to illuminate correctly.
A straight section has a predictable linear geometry, but a curved section continuously changes orientation.
If too few luminaires are used, the center of a curve may be bright while the entrance, exit or outer lane remains relatively dark.
A professional design may therefore divide each curve into several aiming zones.
Each group of fixtures can illuminate a different part of the curve, with overlapping beams used to maintain uniformity.
Calculation points should cover the complete competition surface rather than only the center line of the track.
Short Track Speed Skating Lighting Design
Short track takes place in a smaller arena but requires particularly careful control of overhead lighting.
Because the competition area is compact, athletes may repeatedly look toward the same ceiling fixtures on every lap.
The lighting layout should therefore provide:
- high uniformity;
- low direct glare;
- good visibility through the curves;
- adequate illumination near the track boundary;
- good vertical illumination for athletes;
- consistent camera exposure.
Where the facility is also used for hockey, the same fixtures may serve both sports, but lighting scenes can be adjusted to match different event requirements.
For more detailed design considerations, see Short Track Speed Skating Lighting Design for 60×30m Ice Arenas.
Vertical Illuminance for Professional Speed Skating
Horizontal lux is measured on the ice surface, but television cameras primarily see the vertical surfaces of athletes.
For this reason, vertical illuminance becomes increasingly important as the competition level increases.
Good vertical illumination helps cameras capture:
- athlete faces;
- team uniforms;
- numbers;
- helmets;
- sponsor graphics;
- body movement;
- accurate color reproduction.
In broadcast facilities, vertical illuminance should be calculated toward the actual camera positions.
A rink can have excellent horizontal lux while still producing poor television images if the athletes are insufficiently illuminated from the camera direction.
Speed Skating Broadcast Lighting
Professional television coverage introduces significantly higher lighting demands.
In addition to horizontal and vertical illuminance, broadcast lighting needs to consider:
- camera direction;
- color rendering;
- color consistency;
- flicker;
- slow-motion recording;
- shadow control;
- uniform background brightness.
Speed skating is particularly demanding because cameras may follow athletes at high speed around the complete oval.
Broadcast images should remain visually consistent as athletes move from one lighting zone to another.
For professional venues, see our dedicated Speed Skating Broadcast Lighting Guide.
Flicker-Free LED Lighting for High-Speed Cameras
LED lighting can appear perfectly stable to the human eye while still producing flicker when recorded by a high-speed camera.
This is because cameras used for slow motion or technical analysis can operate at much higher frame rates than normal television cameras.
Flicker can appear as:
- horizontal bands;
- brightness fluctuation;
- dark frames;
- uneven slow-motion footage.
Professional speed skating facilities may use high-speed cameras for:
- broadcast replay;
- coaching analysis;
- sports science;
- judging;
- finish-line analysis.
For these applications, LED drivers should be selected with appropriate flicker performance for the required camera system.
Photo-Finish Lighting for Speed Skating
The finish line is one of the most technically important areas of a professional speed skating rink.
Accurate timing systems and photo-finish cameras may need much higher local illumination than the rest of the track.
EN 12193-related skating references include approximately 1,000 lux at the finish line for photo-finish equipment and officials.
This means the finish line may need to be treated as an independent lighting zone.
Additional luminaires may be required to achieve the necessary illumination while avoiding:
- camera glare;
- athlete glare;
- overexposure;
- strong shadows;
- uneven lighting across the timing line.
See our Photo-Finish Lighting for Speed Skating for a more detailed explanation.
CRI for Speed Skating Arena Lighting
Color rendering index affects how accurately colors appear under artificial lighting.
For general training facilities, CRI 70 or CRI 80 may be suitable depending on the project.
For professional sports venues, CRI 80+ is commonly preferred.
Broadcast-level projects may require CRI 90+ or other camera-specific color-quality requirements.
Higher color rendering helps provide more accurate:
- skin tones;
- team colors;
- uniforms;
- advertising graphics;
- track markings.
CRI should therefore be evaluated together with the requirements of the broadcaster and event organizer.
Color Temperature for Speed Skating Rink Lighting
LED sports lighting systems are commonly available between approximately 4000K and 5700K.
Many professional venues use around 5000K because neutral or cool-white illumination can provide a crisp visual environment suitable for sports and television.
However, there is no reason to select color temperature based only on the appearance of the ice.
The final CCT should consider:
- broadcast requirements;
- existing venue lighting;
- spectator areas;
- architectural lighting;
- camera white balance;
- project specifications.
Ice Arena Temperature, Humidity and Condensation
An ice arena is not a normal indoor building environment.
Cold ice surfaces combined with warmer air and spectator activity can create challenging humidity and condensation conditions.
Lighting equipment may experience:
- low ambient temperatures;
- high humidity;
- condensation;
- temperature cycling;
- long daily operating hours.
Fixtures should therefore use reliable drivers, proper sealing and appropriate thermal design.
For outdoor speed skating rinks, luminaires may additionally need protection against:
- rain;
- snow;
- ice;
- wind;
- dust;
- electrical surges.
Professional outdoor sports luminaires are commonly designed with IP66-level environmental protection or similar protection appropriate to the installation.
LED vs Metal Halide Speed Skating Rink Lighting
Many older ice arenas still use metal halide or other HID lighting systems.
LED technology provides several advantages for modern speed skating facilities.
| Feature | Metal Halide / HID | LED Sports Lighting |
|---|---|---|
| Startup | Several minutes | Instant |
| Hot Restart | Delay may occur | Instant |
| Dimming | Limited | Flexible |
| Optical Control | Relatively limited | Multiple precision beam options |
| Maintenance | Lamp replacement required | Lower routine maintenance |
| Energy Efficiency | Lower | Higher |
| Lighting Controls | Limited | 0-10V, DALI, DMX and other options |
However, an LED retrofit should never be treated as a simple watt-for-watt replacement.
For example, replacing every 1000W metal halide fixture with a particular LED wattage does not guarantee the correct lux or uniformity.
The existing mounting positions and aiming angles need to be re-evaluated using the photometric files of the new LED fixtures.
More information is available in our LED Retrofit for Speed Skating Rinks.
Lighting Controls for Speed Skating Arenas
LED lighting makes it possible to operate an ice arena at different lighting levels according to actual use.
Possible lighting scenes include:
- cleaning and maintenance;
- public skating;
- training;
- regional competition;
- professional competition;
- broadcast competition;
- entertainment events.
A facility does not need to operate every luminaire at 100% output throughout the entire day.
Depending on the project, control options can include:
- 0-10V;
- DALI;
- DMX;
- central building management systems;
- programmable lighting scenes.
Lighting controls can help reduce energy use while providing rapid switching between training, competition and broadcast conditions.
Multipurpose Ice Arena Lighting
Many short-track speed skating arenas are not dedicated exclusively to speed skating.
The same venue may host:
- ice hockey;
- figure skating;
- short track speed skating;
- public skating;
- ice shows;
- concerts;
- commercial events.
The main sports lighting system should therefore be designed around the most demanding intended use.
Different sports can then operate through programmed dimming scenes.
For example:
- public skating may use a reduced lighting level;
- training can use an intermediate level;
- competition can operate at full sports-lighting output;
- broadcast events can activate additional lighting zones.
For related ice arena design information, see our Hockey Arena Lighting Design Guide.
You can also review our Hockey Rink Lighting Levels and Requirements.
How Many LED Lights Are Needed for a Speed Skating Rink?
There is no universal answer.
Two 400-meter speed skating venues can require very different fixture quantities even when they have the same target lux.
Fixture quantity depends on:
- track dimensions;
- target illuminance;
- uniformity requirement;
- fixture lumen output;
- beam distribution;
- mounting height;
- mounting distance;
- fixture aiming;
- maintenance factor;
- broadcast requirements;
- glare limits.
A basic lumen formula can provide a preliminary estimate:
Total Required Lumens ≈ Illuminated Area × Target Lux ÷ Utilization Factor ÷ Maintenance Factor
However, this calculation cannot determine:
- uniformity;
- glare;
- vertical illuminance;
- beam overlap;
- camera-facing illumination;
- fixture aiming angles.
For this reason, fixture quantity should be finalized using an IES-based photometric calculation.
See our How Many LED Lights Does a Speed Skating Rink Need? for a dedicated calculation guide.
Why Photometric Simulation Is Necessary
When designing professional speed skating lighting, the correct question is not:
“How many 500W lights should we install?”
The correct question is:
“What combination of fixture wattage, optical distribution, mounting position and aiming angle can achieve the required lux, uniformity, glare and camera performance?”
A professional calculation should include:
- exact rink dimensions;
- track geometry;
- fixture mounting coordinates;
- fixture mounting heights;
- fixture tilt angles;
- IES photometric files;
- calculation grids;
- maintenance factors;
- target lighting class;
- camera positions where required.
This is especially important for large long-track facilities where a single mounting location may need several different beam angles.
Recommended REITA LED Lights for Speed Skating Rinks
REITA LST Series LED Stadium Light
The REITA LST Series LED Stadium Light is designed for high-power professional sports lighting applications.
It can be considered for:
- 400-meter long-track speed skating ovals;
- large indoor speed skating arenas;
- high mounting heights;
- outdoor skating tracks;
- competition facilities;
- broadcast applications.
Different optical distributions can be used to illuminate near and distant sections of the track.
REITA 5050 SMD Modular Sports Light
The REITA 5050 SMD Modular Sports Light Series provides flexible optical configurations for sports projects where multiple beam angles are required.
Modular construction can be useful for large venues requiring different output levels and optical distributions from different mounting positions.
REITA UFO LED High Bay Lights
For suitable indoor short-track arenas and lower mounting heights, REITA UFO LED High Bay Lights can provide efficient wide-area overhead illumination.
High bay fixtures are generally more appropriate where the required throw distance is relatively short and the ceiling layout supports even fixture spacing.
Speed Skating Rink Lighting Retrofit
An existing facility planning an LED upgrade should collect information about the current installation before selecting new luminaires.
Important information includes:
- existing fixture type;
- existing wattage;
- number of fixtures;
- mounting height;
- fixture locations;
- existing lux measurements;
- electrical voltage;
- available control wiring;
- current problems with glare or dark areas.
If existing poles or roof positions must be retained, the new LED optics should be selected specifically for those locations.
The objective is not simply to reduce wattage.
A successful retrofit should improve:
- illumination;
- uniformity;
- energy efficiency;
- maintenance;
- lighting controls;
- visual comfort.
Speed Skating Rink Lighting Design Checklist
Before starting a speed skating lighting calculation, the following information should be collected:
- Is the facility long track or short track?
- Is the rink indoor or outdoor?
- What are the exact track dimensions?
- What is the competition level?
- What average lux level is required?
- What uniformity is required?
- Is television broadcasting required?
- Are high-speed cameras used?
- Is photo-finish lighting required?
- Where are the camera positions?
- What are the fixture mounting heights?
- Where can fixtures be installed?
- Are existing poles or roof structures being reused?
- What input voltage is available?
- Is dimming required?
- Is 0-10V, DALI or DMX required?
- Are existing HID or metal halide fixtures being replaced?
- Are IES files required?
- Is a DIALux or other photometric simulation required?
The more accurate the project information, the more accurately fixture wattage, optics, quantity and aiming can be selected.
Common Speed Skating Lighting Design Mistakes
1. Selecting Lights Only by Wattage
Two LED fixtures with the same wattage can produce completely different lighting results because their lumen output and optical distribution are different.
2. Using Only One Beam Angle
Large speed skating ovals normally contain both near and far lighting zones. Using one beam angle everywhere can create severe over-lighting and under-lighting.
3. Focusing Only on Average Lux
A high average lux level does not compensate for poor uniformity.
4. Ignoring Ice Reflection
Fixture aiming that works on a non-reflective sports surface may create strong glare on ice.
5. Ignoring Vertical Illuminance
This is particularly problematic for broadcast projects.
6. Using Watt-for-Watt LED Replacement
Metal halide and LED fixtures have very different photometric distributions.
7. Designing Without IES Files
Professional fixture selection should be verified through photometric data and simulation.
Frequently Asked Questions About Speed Skating Rink Lighting
How many lux are required for speed skating?
Indoor international or national competition references commonly use around 500 lux with approximately 0.70 uniformity. Regional competition may use around 300 lux, while training and recreational facilities may use around 200 lux. Broadcast events can require significantly higher lighting performance.
Is 500 lux enough for professional speed skating?
It may satisfy a basic competition lighting reference, but professional broadcast venues also need sufficient vertical illuminance, good color rendering, excellent uniformity and suitable flicker performance.
What type of LED light is best for a 400-meter speed skating oval?
Large speed skating ovals normally require high-output LED sports lights with a combination of narrow, medium and asymmetric optical distributions. The correct beam depends on mounting height and fixture-to-track distance.
What lighting is suitable for short track speed skating?
Short-track arenas can use LED sports lights or LED high bay fixtures depending on ceiling height, competition level and fixture positions. Uniformity and glare control are especially important.
Why is anti-glare lighting important for speed skating?
Ice reflects light strongly, and skaters change viewing direction continuously through the curves. Poorly aimed high-intensity fixtures can create direct or reflected glare.
Can a hockey arena also be used for short track speed skating?
Yes. Many short-track competitions take place in multipurpose ice arenas also used for hockey and figure skating. The lighting system should be designed to satisfy the requirements of all intended sports.
Can metal halide speed skating lights be replaced with LED?
Yes. LED retrofit can reduce energy consumption and maintenance while improving controls and optical performance. However, the replacement should be verified through photometric calculation instead of using only a wattage conversion.
Do speed skating rinks need flicker-free lighting?
Low-flicker performance becomes particularly important when professional broadcast cameras, slow-motion systems or high-speed imaging are used.
How many LED lights are required for a speed skating rink?
The quantity depends on rink size, mounting height, target lux, fixture output, beam distribution and uniformity requirement. A professional IES-based lighting calculation is required for an accurate answer.
Plan Your Speed Skating Rink Lighting Project with REITA
A professional speed skating rink lighting system should provide much more than high brightness.
The complete design needs to balance:
- lux level;
- uniformity;
- glare control;
- beam distribution;
- vertical illuminance;
- color quality;
- flicker performance;
- energy efficiency;
- lighting controls;
- maintenance requirements.
Long track and short track also require different lighting strategies.
A large 400-meter oval often needs high-output long-throw LED sports lights and multiple optical distributions, while short-track arenas usually require highly uniform overhead lighting with careful glare control.
REITA provides LED sports lighting solutions for indoor and outdoor speed skating projects, including the LST Series LED Stadium Light, 5050 SMD Modular Sports Light Series and indoor LED High Bay Lighting.
For a new speed skating facility or an existing LED retrofit project, provide the rink dimensions, mounting heights, required lux level, fixture locations and competition level. REITA can assist with fixture selection, beam-angle configuration, IES files and project-based photometric lighting calculations.