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Tennis Court Lighting: Pole Height & Photometric Plans

Tennis court lighting pole height depends on the court layout, pole setbacks, selected fixture photometry, aiming and the project criteria. There is no single height that works for every court. A tennis court photometric plan compares these choices before poles and luminaires are purchased. This guide explains the design checks and retains historical diagrams and an indoor project example for context.

Standards for Tennis Lighting

For a U.S. project, identify the sport, level of play, owner requirements and reviewing authority before selecting light-level and uniformity criteria. The IES currently lists ANSI/IES RP-6-24, Lighting Sports and Recreational Areas. Confirm the edition and project-specific requirements with the responsible designer; professional-event and broadcast criteria may require additional review. The legacy European comparison image below is retained as historical context and is not a U.S. design specification. European and U.S. criteria should not be treated as interchangeable.

Legacy European tennis lighting comparison table; not a U.S. project specification
Legacy European comparison table, retained for context. Do not use it as a U.S. tennis lighting specification.

Planning the lighting poles

The diagrams below illustrate two- and three-pole arrangements beside a pair of courts. Their dimensions belong to those examples. Pole count and spacing must be tested with the selected IES files, mounting heights, aiming, court boundaries and neighboring-property conditions. Use our sports lighting photometric-plan guide for the broader study workflow.

Two tennis courts with two illustrated lighting-pole positions along each side
Example layout with two lighting-pole positions on each side of two tennis courts. Dimensions belong to this illustration.
Two tennis courts with three illustrated lighting-pole positions along each side
Example layout with three lighting-pole positions on each side of two tennis courts. Dimensions belong to this illustration.

Tennis court lighting pole height

Select pole height together with setback, optical distribution and aiming. Raising or lowering a fixture changes the light distribution and the viewing geometry; neither a taller pole nor a higher-output fixture automatically solves glare. The legacy height diagram illustrates roughly 10–17 m (33–56 ft) for its pictured configurations. Those dimensions are examples, not recommended U.S. minimums or maximums. Compare candidate heights with point-by-point calculations, the specified uniformity metric and glare/spill-light checks.

Diagram comparing pole height and setback for three tennis lighting arrangements
Example pole-height and setback relationships. Metric dimensions are part of the original diagram, not universal court requirements.
Example tennis court rendering with pole-height and setback dimensions
Tennis court example showing pole height and setbacks. Read the dimensions with this specific layout.

The illustrated layout uses 12 m poles (about 39 ft), with the offsets shown in the original diagram. Keep those dimensions attached to this example; the appropriate layout for a different site depends on its actual geometry and criteria.

Lighting for Indoor Tennis

Indoor tennis lighting must account for court run-off areas, ceiling or structural geometry, surface reflectance, mounting restrictions and the player’s view of a moving ball. The illustrated arrangements show possible direct and indirect approaches; they do not establish a single mounting method for every building.

Indoor tennis lighting diagrams showing possible fixture mounting arrangements
Illustrated fixture-mounting arrangements for indoor tennis lighting.

Review the bright source from normal player positions, including the upward view during serves and lobs. Optics, shielding, fixture position and aiming should be assessed together. Asymmetric distributions can help control where light goes, but they do not guarantee a glare-free court. Our glare guide explains the distinction between discomfort and reduced visibility.

Choosing luminaires for tennis court lighting

Choose luminaires from verified photometry for the intended model, optic and output configuration. Check mounting, aiming, controls and maintenance assumptions alongside the electrical load. Fixture wattage or efficacy alone cannot show the illuminance, uniformity or glare outcome on a court. Avoid specifying a universal wattage range before calculating the layout.

Test the actual symmetrical or asymmetrical distribution in the model. An optic that performs well at one setback or tilt can create excessive light outside the playing area in another arrangement. Confirm ball visibility, player sight lines and property-boundary effects rather than choosing a beam angle from a generic rule.

Polar intensity curves for the illustrated asymmetric luminaire distribution
Polar intensity curves for the illustrated asymmetric luminaire distribution.

What a Tennis Court Photometric Report Should Include

Prepare the photometric study before finalizing pole locations and fixture purchases. It should identify the selected photometry, mounting and aiming, calculation surfaces, grid, light-loss assumptions and project criteria. Include the light-level and uniformity summaries and any required glare or boundary evaluation. For the review sequence, see how to read a photometric plan.

Use lighting-calculation software to model the selected fixture data and project geometry. The report should identify its inputs, calculation surfaces and assumptions so another project team member can understand the results and compare a revision on the same basis.

Photometric grid

The calculation grid must cover the playing and surrounding areas required by the adopted criteria, at the stated plane height and spacing. The pictured grid is an illustration. Define any separate horizontal or vertical checks explicitly so reports can be compared on the same basis.

Tennis court calculation-grid diagram with point spacing and court dimensions
Point-by-point lux calculation output for the illustrated tennis court

Checks outside the playing area

The orange points in the illustration show an additional edge-comparison check used in this example. Apply such a percentage check only when the project’s identified criteria require it. State the reference points, calculation plane and comparison method; the pictured 80% relationship is not a universal rule for all U.S. tennis courts.

Tennis grid diagram with additional orange points outside the playing area
Example calculation grid with additional orange check points outside the playing area.
Calculated lux values across the illustrated tennis court grid

False-color views and calculation results

False-color rendering of the calculated light distribution across two tennis courts

Glare calculation and observer positions

Plan showing luminaire locations and aiming for the illustrated tennis courts

Glare-calculation output listing observer positions and results

Indoor Tennis Hall: Project Example

This indoor example shows four courts and the original metal-halide lighting arrangement. The original design lists 20 lamps rated at 400 W per court: 80 × 400 W = 32 kW of rated lamp power, before ballast losses. The photos and layout drawings show the fixture locations and roof geometry. For an energy comparison, use system input power and the actual operating conditions, not lamp wattage alone.

Existing indoor tennis court with roof-mounted lighting
Existing lighting arrangement in the indoor tennis hall.

Second view of the existing indoor tennis hall and roof-mounted fixtures
Second view of the existing indoor tennis hall and roof-mounted fixtures.
Plan of the original fixture positions in the indoor tennis hall
Original luminaire positions in the indoor hall.

The LED comparison in this example lists 16 kW. Compared with the original 32 kW lamp-power figure, that is a 50% reduction in the stated wattage figures. It is not a measured electricity-bill result: operating hours, controls and ballast/driver losses also affect energy use. Check the complete fixture schedules and calculation assumptions when assessing a retrofit.

Plan of the proposed LED fixture positions and listed wattages
Proposed LED luminaire positions and listed wattages for the comparison layout.

The following 3D views illustrate fixture positions and the court layout within the roof geometry. Use them for coordination and orientation; compare the numerical calculation output when checking the project criteria.

Lighting-model rendering of the indoor tennis hall and luminaire positions
3D lighting-model view of the indoor tennis hall.
Second lighting-model view across an indoor tennis court
Second lighting-model view across an indoor tennis court.

Results from the photometric report with the new lighting setup

Calculated lux grid for one court in the indoor tennis example

The example report shows calculated values in lux on a horizontal surface identified as 1 m above the floor. That is the reported surface for this example, not a universal U.S. tennis calculation height. Read the numerical summary and its exact uniformity formula together. For example, Min/Avg = 0.70 corresponds to Avg/Min ≈ 1.43:1; Avg/Min cannot equal 0.70 for nonnegative illuminance values with a positive minimum. Our uniformity-ratio guide explains the calculation.

Conclusion

Stetra Lighting has more than 10 years of experience preparing photometric plans. Send the court layout, project location, proposed pole limits, fixture data and review criteria so we can confirm the study scope. Use Request a Photometric Plan for a project-specific quotation, or review what affects photometric-plan cost first.