Power is the constraint that arrives last and costs the most to fix. Operators spend months choosing attractions, then discover during fit-out that the unit’s existing supply will not carry the floor — and that upgrading it means a conversation with the landlord, a licensed electrician and the local authority, in that order, after the equipment has shipped.
Getting vr power requirements right is not complicated, but it has to happen early and it has to be done from real numbers. This article sets out the actual vr power requirements per machine for the formats most venues install, why several of them need a dedicated circuit rather than a shared one, and how to add up a floor before you commit to anything.
- Real per-machine load figures, so you can size a floor from published data rather than from a guess.
- Why several attractions require a dedicated circuit, and what changes on the floor when they do not get one.
- A three-step way to add up a venue, plus the short list of documents to request from any supplier.
1. Why Power Comes Before the Equipment List
Every other constraint in a venue project can be worked around, but vr power requirements cannot. A column can be designed around. A curved wall can be turned into an advantage. A ceiling can sometimes be raised. Supply capacity is different: it is set by the building, the incoming service and the distribution board, and in a leased retail unit you usually cannot change it without the landlord’s agreement and a licensed contractor.
That makes power the one input worth checking before the equipment list is final, not after — and it is the step most vr arcade setup guides skip. The sequence that avoids the problem is straightforward.
The asymmetry to remember. Changing an equipment list costs a conversation. Changing a building’s supply costs money, time and someone else’s permission — and it happens on the landlord’s schedule, not yours.
2. Real Per-Machine Loads
These are the published vr power requirements for the formats most commercial venues install. Use them as the starting point for a load calculation — and note that the spread is far wider than most operators expect.
| Attraction | Load | Supply |
|---|---|---|
| Immersive Tunnel Ride Large-format arc-screen ride | 25.45 kW | 220 V |
| 9D VR Cinema — 9-Seat | 20 kW | — |
| 9D VR Cinema — 6-Seat | 10 kW | 220 V · dedicated |
| VR Chair 360 — single | 5 kW | 110 / 220 / 380 V |
| 4-Seat 9D VR Cinema | 5,000 W | 220 V |
| Space Shuttle 2.0 | 3,500 W | 220 V |
| 2-Seat 9D VR Egg Chair | 3,500 W | — |
| 4-Player VR Standing Platform | 3,000 W | 220 V · dedicated |
| Commercial Car Simulator 3-DOF | 2,500 W | 220 V |
| Speed Racing VR Motorcycle | 1,750 W | 220 V |
| Commercial VR Racing Simulator | 1,000 W | 220 V |
| Self-Service VR Stand Station | 1,000 W | — |
| AR Shooting Arcade — 4P | — | 220 V · dedicated |
Two things stand out in these vr power requirements. The first is the range: a self-service stand station draws around 1 kW while a large arc-screen ride unit totals 25.45 kW, so for an indoor entertainment venue “how much power does a VR machine need” has no single answer and any supplier who gives one should be asked for the schedule instead.
The second is that the big number is usually one machine, not the sum of many. That matters because it concentrates the problem: a single 10 kW attraction cannot be spread across several small circuits. It needs its own.
3. Dedicated Circuits, and Why They Keep Appearing
Read enough equipment specifications and the same sentence recurs in every set of dedicated circuit requirements: a single dedicated 220 V circuit, with the electrical access panel within a short distance of the machine. It appears across cinema formats, standing platforms and shooting cabinets, and it is not a marketing preference — it is how the machine is built.
A motion platform draws its current in bursts. When the base accelerates, it pulls far more than its idle figure for a fraction of a second; when it decelerates or reverses, the demand swings again. Put that on a circuit shared with lighting or a refrigerator and the consequences show up in the guest experience before they show up in any log: a brownout mid-cycle, a controller that resets, a screen that flickers at the worst possible moment.
The distance requirement follows from the same logic. A short run from the machine to its access panel keeps the installation simple and the voltage drop small; a long cable run across a venue introduces resistance, and on high-draw equipment that resistance becomes heat and lost performance. It also matters practically: an access panel three metres away can be reached by a technician; one at the far end of the unit means every service visit starts with moving equipment.
Design consequence, worth deciding early. If several attractions each need their own circuit with a panel within a few metres, the distribution board has to be positioned centrally rather than tucked into a corner. That is a floor-plan decision, and it is much easier to make before the layout is fixed.
4. Adding Up a Floor
The arithmetic behind vr power requirements is simple addition, but three ideas make the result realistic rather than alarming.
A worked example makes the shape of vr power requirements clear. Take a mid-size floor of six attractions: a 4-seat cinema at 5,000 W, a standing platform at 3,000 W, two racing simulators and a motorcycle at 1,000 W, 1,000 W and 1,750 W, and a self-service station at 1,000 W. Added together that is 12,750 W — about 12.75 kW of connected load across six machines, which is roughly half of what a single large-format arc-screen ride draws on its own.
That comparison is the point. Six attractions and one attraction can demand very different things from a building, and the equipment mix is therefore an electrical decision as much as a commercial one. This is also where the per-machine loads become useful in a different way: they let you see, before ordering, whether a floor plan is electrically modest or electrically aggressive.
Do not treat these vr power requirements as your final calculation. The arithmetic above is for planning and comparison. The actual supply assessment, circuit design, cable sizing and protection must be carried out by a licensed electrician against the wiring regulations that apply where you operate — and it should be based on the equipment schedule, not on this article.
5. Five Ways Power Planning Goes Wrong
These are the vr power requirements failures that repeat across venue projects, in roughly the order they tend to surface.
| What goes wrong | How to avoid it |
|---|---|
| Ordering before checking the supply | Make the landlord’s capacity figure the first document in the project folder. It costs one email. |
| Sharing a circuit between attractions | Follow the dedicated-circuit requirement in each machine’s specification. It exists because of how the machine draws current. |
| Putting the access panel too far away | Position the distribution board on the plan, not after fit-out, so every machine can meet its reach requirement. |
| Sizing with no headroom | Include lighting, POS, HVAC and a margin for expansion in the brief you give your electrician. |
| Accepting a single total instead of a schedule | Ask for the connected load per unit. A total tells you nothing about which machine needs which circuit. |
6. What to Request From a Supplier
A supplier who understands vr power requirements will have this information ready. If they do not, that tells you something about how the project will go after the invoice is paid.
LEKE VR manufactures the equipment and operates its own venues, so this information comes from the team that builds the machines rather than being relayed from a third party. For a project it produces a CAD plan and a 3D visualization as standard, with a machine list and connected load per unit — which is exactly the document an electrician needs to start from.
On the equipment side, machines supplied by LEKE VR carry ISO 9001:2015 quality management alongside CE, FCC and RoHS conformity, with testing by TÜV Rheinland and SGS. Those certifications speak to the equipment; the supply capacity, circuit design and installation of an indoor entertainment venue remain the responsibility of the operator and their licensed contractor.
Handled in the right order — capacity, then loads, then layout — vr power requirements are a short conversation at the start of a project. Handled last, it is the reason a venue opens a month late.
FAQ
Tell us the attractions you are considering and the unit you are working with. We will return the connected load and voltage per machine, flag which ones need a dedicated circuit, and show how they sit together on a CAD layout — so your electrician starts from real numbers.