
Look at the operating account of a padel club and most lines are fixed or slow-moving. Land or building rent is negotiated once and indexed. Staff is a service decision. Turf replacement, glass, nets and sand are periodic. The bill for lighting electricity is different: it is paid every month, it scales with every hour the court is booked, and it is the one line an operator can genuinely engineer down — by changing the load, the hours, or both.
That is why the same question arrives from very different places: a club in Germany with a 2018 metal halide installation and an electricity contract that has doubled, an Italian or Spanish operator adding a covered court and redoing the lighting at the same time, and a North American developer pricing a four-court facility and trying to work out whether the solar quote in front of them makes sense. They are all really asking one question: what does it cost to run these lights, and what can I change about that number?
Three variables decide the answer, and only three:
Improving all three is realistic. Improving one and guessing the other two is how clubs end up with a €4,000 lighting upgrade and a payback calculation that never arrives. If you are costing the rest of the operation — staff, rent, sand, maintenance, and how the electricity line sits against them — the full operating budget is modelled in our padel court operating costs guide.
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The arithmetic is simple, and it is worth doing by hand before you read any supplier table:
Total load (kW) = number of fixtures × fixture wattage (W) ÷ 1,000, plus roughly 8–12% for driver or ballast losses on older gear, and plus any circuit you will add later (scoreboard, cameras, streaming rig, ball machine charging point).
So eight fixtures at 200 W is 1.6 kW; four fixtures at 200 W is 0.8 kW; and eight 400 W metal halide lamps with magnetic ballasts is 3.2 kW of lamps plus losses on top. The load is a product of two decisions — how much light you need (lux class) and how efficiently you produce it (lumens per watt) — and the second is where a decade of LED development shows up:
| System and level of play | Typical system load | Where it is used |
|---|---|---|
| LED, recreational / training level | 0.6–1.0 kW (4–6 fixtures at 150–180 W) | Low-utilisation community courts, hotel and residential courts, single-court venues |
| LED, club play (the mainstream specification) | 1.2–1.8 kW (6–8 fixtures at 200–250 W) | Commercial clubs, indoor centres, courts with league fixtures |
| LED, competition / broadcast | 2.0–3.2 kW (8–12 fixtures at 250–300 W, dimmable, flicker-free) | Federation events, streaming courts, premium indoor venues |
| Metal halide 400 W, club play (existing installations) | 3.2–5.5 kW including ballast losses and slow warm-up | Courts built before roughly 2020 — the main retrofit target |
| Halogen or first-generation LED floodlights | 3.5–6.0 kW, or low lux for high watts | Early installations where the optics, not the lumens, are the problem |
*Indicative load ranges for a 20 × 10 m court; the binding figures are the ones in your photometric study. When a supplier quotes a "1.6 kW court", the load is the least interesting part of that sentence — ask for the lux level, the uniformity and the luminaire photometric file behind it. The acceptance values we build to are listed on our padel court specification sheet.
This is the variable that decides whether lighting is a rounding error or a serious line in the budget, and it is the one operators guess most often. An outdoor court in southern Spain is lit for perhaps two to three hours on winter evenings; an indoor club court in northern Europe or Poland is lit from mid-afternoon until late evening, all year. Both are "a padel court".
Build the number from four inputs instead of copying a default:
A practical way to sanity-check the answer: look at the metered kWh on the lighting sub-circuit for last month and divide by the system load. If a club court drawing 1.5 kW shows 900 kWh in an autumn month, the lights were on about 600 hours — twenty hours a day, which means the schedule, not the fixtures, is your energy problem.
| Operating pattern | Lighting hours / year | Annual kWh at 1.2 kW LED | Annual kWh at 3.6 kW metal halide |
|---|---|---|---|
| Outdoor, seasonal evening play (4 h/day, 6 months) | ~730 h | ~880 kWh | ~2,630 kWh |
| Outdoor, year-round club (4 h/day, all year) | ~1,460 h | ~1,750 kWh | ~5,260 kWh |
| Indoor club court (8 h/day, all year) | ~2,920 h | ~3,500 kWh | ~10,510 kWh |
| Indoor multi-court centre (12 h/day, all year) | ~4,380 h | ~5,260 kWh | ~15,770 kWh |
*Illustrative only: replace the hours with your own bookings and the load with your own photometric figure. The ratio between the two systems — roughly 2.9–3× — holds across every scenario, because it is set by efficacy (140–170 lm/W for modern LED drivers against 80–100 lm/W for metal halide) and by the ballast losses the older system adds.
Two corrections are worth remembering before you take any kWh figure into a business plan. First, metal halide lamps lose output as they age and the court is often relamped at 60–70% of original output — so the "3.6 kW" court is sometimes running dim, which is a playing-quality problem that shows up as an energy saving. Second, LED output also falls, but slowly and in a predictable way (an L90 rating states the hours after which 90% of initial output remains), which is why a certified L90B10 figure at 50,000+ hours is a better buying argument than a claim about the first day of operation.

You cannot answer this from a vendor page, because the tariff is local and often contract-specific. What a supplier can give you is the structure: take the annual kWh from the table above and multiply it by your business electricity price including network charges, levies and VAT if you can reclaim it. The ranges below are indicative commercial tariffs for 2026 and are meant to be replaced by the figure on your own invoice.
| Market | Indicative business tariff | Annual lighting cost, indoor club court (3,500 kWh, LED) | Same court on metal halide (10,510 kWh) |
|---|---|---|---|
| Germany | ≈ €0.25–0.35 / kWh | ≈ €880–1,230 | ≈ €2,630–3,680 |
| Italy | ≈ €0.24–0.33 / kWh | ≈ €840–1,160 | ≈ €2,520–3,470 |
| Poland | ≈ €0.18–0.28 / kWh | ≈ €630–980 | ≈ €1,890–2,940 |
| Spain / Portugal | ≈ €0.15–0.24 / kWh | ≈ €530–840 | ≈ €1,580–2,520 |
| United Kingdom | ≈ £0.22–0.30 / kWh | ≈ £770–1,050 | ≈ £2,310–3,150 |
| United States / Canada | ≈ $0.12–0.20 / kWh | ≈ $420–700 | ≈ $1,260–2,100 |
| Gulf and low-tariff markets | ≈ $0.04–0.10 / kWh | ≈ $140–350 | ≈ $420–1,050 |
*Indicative ranges for commercial and small-industrial supply, before any contract-specific power factor or capacity charge. Note what the table does not say: in a low-tariff market, the electricity line for an indoor court is roughly the cost of one court-hour of games a week. In a high-tariff market with long indoor hours, it can approach the value of a full week of play. The same fixtures, the same court — a completely different retrofit decision. That is why the honest answer to "is LED worth it" always starts with "where are you and how many hours do you run".
One more number is worth calculating because it is the one operators can price into a booking: cost per lit hour. A 1.2 kW club court at €0.25/kWh costs about €0.30 per hour of play; the same court on 3.6 kW metal halide costs about €0.90. On a court that sells for €8–14 per hour in most European markets, that is the difference between a 2% and a 10% cost of sales on the electricity line alone.
A retrofit is not "changing the lamps". On a padel court the luminaires are wired to poles or to the roof structure, aimed at the court, and sized around a photometric design; changing them changes the light on the playing surface. Budget the following scope per court:
That puts a typical club-court retrofit without poles at €2,000–6,000 per court, which is consistent with the €3,000–12,000 range we quote for complete new lighting systems depending on level and pole count. Now the payback, which is simply the annual kWh saved multiplied by your tariff, divided into the capex:
| Scenario | Annual saving after retrofit | Capex | Simple payback |
|---|---|---|---|
| Outdoor seasonal court, Spain, 730 h | ~1,750 kWh ≈ €350 | €2,000–3,500 | 6–10 years |
| Outdoor year-round club, 1,460 h, Germany at €0.30 | ~3,500 kWh ≈ €1,050 | €2,500–4,500 | 2.4–4.3 years |
| Indoor club court, 2,920 h, Germany or Italy | ~7,000 kWh ≈ €1,900 | €3,000–6,000 | 1.6–3.2 years |
| Indoor centre court with controls and booking-linked dimming, 2,920 h | ~9,000 kWh ≈ €2,500 | €3,500–6,500 | 1.4–2.6 years |
| Halogen or broken first-generation LED, high hours | ~14,000 kWh ≈ €4,200 | €3,000–6,000 | under 1.5 years |
*Illustrative paybacks using the tariffs in section 5; your figures will differ. The pattern is the same everywhere: the retrofit case is weak on a low-hour, low-tariff outdoor court and strong on a long-hour indoor court. If the court is already running modern LED with a certified photometric file, retrofitting is normally not about energy at all — it is about glare, uniformity or failure rate, and it should be judged as a playing-quality investment.
Two things that change the ranking of a retrofit. First, non-energy savings: metal halide lamps are replaced every 12,000–20,000 hours, which on an indoor court means a relamping cycle with a lift every two to three years; LED at 50,000–100,000 hours removes most of that labour. Second, capability: a dimmable, flicker-free LED system can be booked and streamed, which is a revenue argument, not an energy argument.
An induction or metal halide court cannot be dimmed usefully and takes minutes to warm up, so the lights stay on for the whole booking period whether or not anyone is playing. An LED system switches instantly and dims to any level, which turns energy saving from a hardware problem into a control problem — and on a court with moderate utilisation the control saving is often larger than the retrofit saving:
The combined effect on a moderately utilised indoor centre is typically 25–45% of the lighting kWh, on top of the load reduction from the retrofit itself. Cost: a control layer is €300–1,200 per court — which is why, in the payback table above, the scenario with controls is the fastest of the LED cases. If your booking system already knows when each court is sold, the information needed to switch the lights is already on site; the missing piece is the contactor, the gateway and someone to configure it.
Yes, and for clubs that want the saving without the capital, lighting is one of the few parts of a padel project that leases sensibly — because the asset has a predictable lifetime (50,000+ hours), a measurable output, and a saving that appears on the same invoice as the cost. The structures you will meet:
Whatever the structure, read four things before signing: what happens at the end (transfer, buy-out price, or nothing); who maintains and replaces failures, and how quickly; whether output is guaranteed (a lux value at commissioning and a maintained percentage after 25,000 hours, not just a wattage); and what happens if the club changes hands or closes — a lighting lease that runs five years on a court that is resurfaced and re-let in year two is a liability, not an asset. Where the lighting sits inside a wider funding structure, the interactions with subsidies, grants and bank terms are covered in our padel court financing guide.
A covered court runs the lights for more hours than the same court outdoors in the same city — and that is the point of the roof: it converts lost weather days and dark evenings into bookable time. The energy consequence is simple and should be planned rather than discovered:
If a roof is part of the project, size the lighting from the same photometric study as the structure — including the mounting positions the roof actually offers — rather than buying a lighting package and making the roof design fit around it. The systems, spans and clearances involved are set out in our covered padel court guide, and the height and ventilation requirements for an indoor hall in our indoor court requirements guide.
The electricity line is only half of the lighting cost of ownership. The other half is what it takes to keep the court lit at the level it was designed for — and this is where the comparison between technologies is most dramatic:
| Item | Metal halide / halogen (400 W) | Modern LED (150–300 W) |
|---|---|---|
| Lamp or module life | 12,000–20,000 h before relamping | 50,000–100,000 h, L90B10 or better |
| Output over life | Falls noticeably; court is relamped when it is visibly dim | Slow, predictable depreciation stated as an L-value |
| Relamp cycle on an indoor court (2,900 h/year) | Every 4–7 years, on a lift | Effectively the life of the court |
| Warm-up and restart | Several minutes; cannot be switched per booking | Instant; safe to switch and dim per booking |
| Typical replacement scope | Lamps, ballasts, igniters, sometimes the fitting | Driver or module, usually a swap-in part |
The operating message: on a long-hour court, the relamping labour saved by LED is a real cash line, and it repeats. Which makes two supplier questions practical rather than technical. Are the luminaires and drivers still available in five and eight years, and in the same form factor — the fastest way to turn an efficient installation into an expensive one is to discover at year six that a failed driver cannot be replaced and the pole brackets do not accept the current model. And does the warranty cover the driver and the module separately, for how long, and what does the claim actually require? Under a roof or in a humid climate, a five-year driver warranty on a sealed luminaire is worth more than a longer one on a lamp that is unlikely to fail.
Lighting is the part of a padel court package where a quotation can look complete and still be impossible to evaluate. What separates a serious offer from a number is a short list of documents and figures — and all of them can be produced before you order:
At commissioning, spend twenty minutes with a lux meter and the design file. Measure three points along the centre line and two near each back glass, at court level, with the lights on and no daylight, and compare with the design values. This is the only step in a lighting project that cannot be argued about afterwards, and it catches the two failures that matter — mis-aimed fixtures and undersized circuits — while the installer is still on site.
Take the system load in kW, multiply by annual lighting hours, then by your business tariff. A club-level LED court at 1.2–1.8 kW running 1,460 hours a year uses roughly 1,750–2,600 kWh; at €0.15–0.35 per kWh that is €260–900 per year. An indoor court running 2,900 hours uses roughly 3,500–5,200 kWh, or €530–1,800. The same court on an older 400 W metal halide installation typically uses about three times as much energy for the same playing experience, which is why the electricity line is the first thing to check when a club reviews its operating costs.
Multiply fixture count by fixture wattage: eight fixtures at 200 W is 1.6 kW. In practice, a modern LED installation is around 0.6–1.0 kW at recreational level, 1.2–1.8 kW at club level and 2.0–3.2 kW for competition lighting, while an old metal halide court runs 3.2–5.5 kW including ballast losses. The binding figure is the one in your photometric study, because it is the design — lux level, uniformity and mounting geometry — that determines how many watts are needed.
It depends on three numbers: hours, tariff and the state of the existing system. On a long-hour indoor court in a high-tariff market, a €3,000–6,000 retrofit that saves 7,000–9,000 kWh a year pays back in roughly 1.5–3 years, and the relamping labour it removes improves that further. On a seasonal outdoor court with evening-only use in a low-tariff market, the same retrofit may take six to ten years to pay back, and the honest recommendation is to fix the controls first. If the court already has modern certified LED, retrofit it for glare, uniformity or reliability — not for energy.
Yes, and on courts with moderate utilisation the control saving is often larger than the saving from the retrofit itself. Scheduled per-court switching, two-level dimming between bookings, per-court rather than whole-hall contactors, and twilight switching typically remove 25–45% of lighting kWh. The reason is that old metal halide lights cannot be switched per booking without warm-up delays, so they are left on for the whole evening whether the court is sold or not. A control layer costs roughly €300–1,200 per court and works best when it takes its signal from the booking system that already knows the schedule.
Yes — equipment leases over three to five years with ownership at the end, lighting-as-a-service contracts where the supplier owns the luminaires and charges for the light, and supplier financing rolled into the court package. Check four things before signing: what you own at the end and at what price, who maintains and replaces failed units, whether output is guaranteed as a lux value rather than a wattage, and what happens if the club is sold or the court is rebuilt during the term. On a new build, keeping lighting inside a single court purchase order usually gives the simplest warranty and the fewest interfaces.
A photometric study for your specific court with average lux, uniformity and mounting geometry; the .ies or .ldt photometric files for the luminaires; efficacy in lumens per watt; the lighting class achieved and the standard it is measured against; IP and IK ratings plus CE documentation for luminaires and drivers; and the assumptions — hours, tariff, fixture count — behind any running-cost figure they quote. Ask for these before the order, then verify at commissioning with a lux meter against the design values while the installer is still on site.
Send us the court or hall, the country and city of installation, and how many hours a week the lights actually run. The PeakPadel engineering team will return a lighting proposal with the photometric study for your specific court — average lux, uniformity, mounting geometry and the .ies files — together with the system load in kW, the annual kWh at your stated hours, and an itemised retrofit or new-build quotation covering luminaires, brackets, controls, cable, commissioning and poles where they are needed. We manufacture complete padel court packages — classic, panoramic and super-panoramic, plus singles courts, roofs, lighting, fencing, turf and branding — direct from our own factory in China, and we keep the photometric file and the metered assumption behind every lighting figure we quote, so the saving can be checked after the first full season.
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