How to plan a seasonal ice rink: site, power, timeline and equipment
A seasonal ice rink succeeds or fails long before the first layer of ice is built. The key early decisions are not decorative details but whether the site, power supply, refrigeration concept, visitor capacity, logistics and operating model work together.
This guide explains the information needed before a reliable technical proposal can be prepared for a temporary or seasonal real-ice rink.
1. Start with the operating concept
Define what the rink is expected to do. A Christmas-market attraction, a municipal public-skating rink and a temporary hockey venue may have similar dimensions but very different technical and operating requirements.
Clarify the opening period, daily operating hours, expected visitor volume, sport or leisure use, staffing model and whether skates, sharpening, resurfacing and operator support are required.
2. Size the rink from expected use
For public skating, ASHRAE gives an early planning range of approximately 2.3–2.8 m² of ice per person actually skating. A 15 × 30 m rink provides 450 m², corresponding to roughly 160–195 skaters on the ice at one time as a preliminary planning check.
This is not a legal occupancy limit, but it helps test whether the proposed rink is proportionate to expected demand.
3. Allow space for more than the ice
The site also needs boards, gates, chiller space, hydraulic connections, resurfacer access, skate rental, benches, queues, rubber flooring and service routes. An irregular urban site may work better with custom geometry than with a forced standard rectangle.
4. Check the supporting surface
Mobile EPDM systems need a sufficiently stable and level base. Review local depressions, drainage, sharp objects, structural capacity and access. Poor base preparation can increase ice-build time and create uneven operating conditions.
5. Treat outdoor weather as part of the refrigeration load
Air temperature, solar radiation, wind, rain and humidity all affect outdoor ice. Two 500 m² rinks can require different refrigeration capacity if one is shaded and sheltered while the other is exposed to sun and wind.
Chiller selection should therefore follow a heat-load assessment, not a fixed kW/m² rule.
6. Confirm electrical power before finalising the rink
Check supply voltage, available capacity, connection point and cable distance early. If available power is limited, the rink size, refrigeration architecture or temporary electrical infrastructure may need to change.
7. Decide where the chiller can actually stand
The refrigeration unit needs airflow, service access and a practical hydraulic route to the rink. In city centres and residential areas, noise may be as important as cooling capacity. Delivery access for truck, forklift or crane should also be checked.
8. Choose the mobile technology from the project
EPDM mats suit flexible seasonal layouts. IceBox is particularly useful for recurring installations and storage. SkateWay® is better where the attraction needs paths, curves or connected zones.
AST IceBox modules use a standard 2.5 m width, with 20 / 30 / 40 m mat lengths corresponding to 50 / 75 / 100 m² per module. SkateWay® uses connection widths of 0.5 / 1.0 / 2.5 m with 10 / 20 / 30 m mat lengths.
9. Plan boards and visitor flow together
Public skating, Christmas-market use and hockey should not automatically use the same boards. Gate positions must support visitor flow, resurfacer access and emergency routes.
10. Define the resurfacing strategy before opening week
Rink size and visitor load determine whether manual tools, a compact electric resurfacer or a full-size machine is appropriate. For a 30 × 60 m rink, ASHRAE and IIHF guidance indicates roughly 0.4–0.8 m³ of water per resurfacing cycle, showing why water capacity and freeze time matter.
11. Plan the skate-rental operation as a capacity system
Fleet size should follow simultaneous skaters, turnover, size distribution and reserve stock. Storage, drying and sharpening can become the bottleneck even when the rink itself has enough capacity.
12. Work backwards from the opening date
The public opening is not the installation completion date. A realistic sequence includes base preparation, delivery, mat deployment, hydraulic connection, pressure testing, refrigeration start-up, board installation, controlled ice build-up, operator handover and contingency time.
13. Compare rental and purchase early
Rental is usually stronger for first-time projects, one-off events and organisers who want defined technical responsibility. Purchase becomes more relevant when the same rink will return for many seasons and the operator has storage, installation and maintenance capability.
14. Red flags that should stop final equipment selection
- available power not confirmed;
- chiller location not approved;
- base levels unknown;
- visitor capacity not defined;
- no resurfacer access;
- no water or drainage plan;
- no storage plan for purchased seasonal equipment;
- opening date leaves no realistic ice-build time.
15. Information to send with an RFQ
- city and exact site address;
- site plan, dimensions or available area;
- preferred rink size if already defined;
- opening and closing dates;
- indoor / covered / outdoor installation;
- surface type and known level differences;
- available electrical power and connection location;
- expected simultaneous skaters and daily visitor volume;
- required boards, skates, resurfacing and accessories;
- site photos and access information;
- rental or purchase preference.
With these inputs, a seasonal rink can be treated as an engineering project from the start rather than a collection of equipment selected separately.