The INFINITY NEXTPLAY VR Karting simulator measures 2300 × 1530 × 1930 mm and covers approximately 3.6 m² of floor space. However, 3.6 m² is the equipment footprint, not the total room space required for installation and operation. Before you order a unit, you need to know three things: how large the simulator itself is, how much floor space it occupies, and how the available room should be planned around it. This guide answers all three with the real product numbers, so you can check your own space instead of guessing.
The machine in question is the black VR karting racing simulator, a single-player, servo-driven racing unit built for arcades, family entertainment centers and VR game rooms. Its cabinet is 2300 mm long, 1530 mm wide and 1930 mm tall. It weighs 300 kg, runs on 220 V, and carries a maximum rider load of 150 kg. The viewing perspective can be set to 180° or 360°, which is exactly the kind of detail that changes how you place the unit in a room, because a 360° experience behaves differently for the people waiting around it than a fixed 180° screen does.
Most buyers make the same mistake at this stage: they look at the footprint, find a spot that looks big enough on a floor plan, and only discover the problem on installation day when the door is too narrow, the ceiling is too low, or there is no room left for a player to climb in. That is why this article separates the equipment footprint from the total planning area, and then walks through every step of checking your own room. By the end, you will know exactly which measurements to take, where the unit can and cannot go, and what to check before you confirm the order.
The article is organized so you can jump straight to the part you need. If you only want the numbers, the specification table in the next section gives you everything at a glance. If you are trying to decide whether your room works at all, start with the calculation method and the worked example. If you are planning two or more units, the multi-unit sections are written for you. And if you are close to ordering, the installation checklist near the end is the fastest way to avoid a costly surprise.
Here is the complete specification of the INFINITY NEXTPLAY VR Karting simulator in one table. These are the physical numbers of the product itself, taken from the product specification sheet, so you can use them directly for your planning.
| Specification | VR Karting |
|---|---|
| Length | 2300 mm |
| Width | 1530 mm |
| Height | 1930 mm |
| Area Covered | 3.6 m² |
| Weight | 300 kg |
| Driving System | Servo Motor |
| Voltage | 220 V |
| Maximum Load | 150 kg |
| Perspective | 180° / 360° |
The two numbers that matter most for space planning are the footprint, 2300 × 1530 mm, and the height, 1930 mm. The footprint tells you the floor area the cabinet itself covers, which is about 3.6 m². The height tells you how much vertical space the machine needs, which is often the number people forget, because a 1930 mm tall cabinet does not fit under every ceiling, and the unit also needs room above it for the headset cabling and for safe servicing.
Keep this table somewhere handy while you read the rest of the article. Every layout, calculation and checklist below starts from these same numbers, so if you understand this one table, you already understand the basis of the whole space plan. The rest is simply about adding the human space around the machine, which is where most planning mistakes actually happen.
A single footprint number can hide what a 2300 × 1530 × 1930 mm cabinet actually means in a room. It is worth looking at each dimension separately, because each one affects a different part of your planning: length affects the depth of the space you need in front of the unit, width affects the sideways clearance, and height affects the ceiling. These numbers also put the machine in the same footprint class as the classic VR karting and F1 racing simulator, so the planning approach below transfers directly if you are comparing units.
The length of 2300 mm is the dimension that runs along the driving direction of the machine, roughly from the front of the cabinet to the rear. In a room, this is the distance that eats into your floor depth, and it is the dimension you feel most when you stand in front of the machine. A unit this long needs a clear run of floor in front of it, because a player has to step in, sit down and get out again at the front, and an operator often needs to stand beside the cabinet while a session is running. If you place the 2300 mm dimension against a wall with barely any space in front, the machine becomes very hard to use even though the footprint number looked small.
The width of 1530 mm is the side-to-side dimension of the cabinet. It is the number that matters most when you are fitting the unit between two walls, next to a column, or beside another machine. On its own, 1530 mm is a modest width for a single-player ride, but the real question is what sits on either side: people queuing, staff walking past, or another unit. The machine does not just need its own 1530 mm; it needs enough side clearance so that a player can lean out, a technician can reach the side panels, and passers-by do not brush against the moving cabinet during a 360° session.
The height of 1930 mm is the dimension that people most often forget, and it is the one that causes the most installation problems. A cabinet that is nearly two meters tall needs a ceiling well above 1930 mm, not just at exactly 1930 mm. You need clearance above the unit for the suspended headset and cable system, for light fittings, and for the technician who has to reach the top of the machine. If your room has a suspended ceiling, exposed pipes or low-hanging lights, measure the actual clearance at the exact spot where the unit will stand, not the average ceiling height of the room.
The equipment footprint of 3.6 m² is the physical floor area covered by the simulator, calculated from its length and width. It is the number you compare against your floor plan first, because it tells you whether the machine can physically fit on the floor at all. But it is only the first number you need. As the next sections explain, the footprint is what the machine touches; the planning area is what the people around it need. Treat 3.6 m² as the starting point of your space calculation, never as the final answer.
This is the most important concept in the whole article, so it deserves a clear statement: 3.6 m² is the equipment footprint, not the entire room requirement. These are two different numbers, and confusing them is the single most common reason a simulator does not fit in a room that looked big enough on paper.
Think of the planning area as a series of layers around the machine. The first layer is the equipment footprint itself, the 3.6 m² that the cabinet physically covers. The next layer is player access: the space a person needs to step up to the unit, climb in, sit down, put on the headset and get back out. Then comes operating access: the space the staff need to start a session, help a player, hand over a headset or stop the machine. After that comes maintenance access: the room a technician needs to open the panels, reach the servo system, check the cables and inspect the machine. Finally there is circulation: the corridor of space that lets other visitors walk past the unit while someone is playing, without stepping into the ride area.
Each of these layers adds real floor area around the same 3.6 m² footprint. The exact amount depends on your room, your layout and how the unit is positioned, which is why this article deliberately does not invent a fixed clearance figure that applies everywhere. What you need to take away is the principle: when someone asks how much space a VR racing simulator needs, the answer is the footprint plus the access layers around it, and the total planning area is therefore larger than 3.6 m².
This distinction matters for a second reason as well: it changes how you read floor plans. A room might have plenty of empty floor area on paper, but if that area is split by a column, narrowed by a doorway, or occupied by the entry path, the usable space around the machine is much smaller than the total. By separating the footprint from the access layers in your own head, you stop asking whether 3.6 m² fits and start asking whether 3.6 m² plus the people around it fits, which is the question that actually decides whether your layout will work.
Instead of giving you a fixed clearance number that may not match your site, this section breaks the space around the unit into the four positions you actually need to think about: front, sides, rear and overhead. For each position, the useful question is not how many centimeters the industry says, but what the space is used for in your operation, because the answer follows from the use.
The space in front of the simulator is the busiest area around the machine. It is used for player entry, player exit and general access to the seat. A player steps into the unit from the front, and after the session the same person steps out and needs room to stand, remove the headset and move away. The front area is also where an operator or parent often stands while a session runs, and where a queue naturally forms at busy times. When you plan the front space, think about the whole flow of a session, not just the cabinet edge, so that one player can leave while the next one is already waiting without them blocking each other.
The space on both sides of the machine serves operator access, player movement and service access. The operator needs to reach the side of the cabinet to start the game, adjust the seat or help a player, and the player needs enough room to lean out of the seat comfortably. In a 360° session the cabinet rotates, which means the space around the sides must stay clear while the machine is moving, so nobody walks into the motion envelope mid-ride. If you plan to run several units, the side space between machines is what lets players move between them without crossing each other.
The rear of the machine is where the maintenance and cable work happens. The back panels give access to the power connection, the servo control system and the cable runs, and a technician needs to stand behind the unit to inspect and service these parts. The rear space is also where the main power cable and any signal cables route out of the machine, so the area should stay reachable and clear. If you push the unit flush against a wall, you may save floor space in the short term, but you make every future service visit slower and more expensive.
The overhead space corresponds directly to the 1930 mm height of the machine. Above the cabinet you need clearance for the suspended headset and cable system, and you must check the ceiling, light fittings, ducts and any other obstacles at the exact position of the unit. A light fitting hanging 2100 mm above the floor looks harmless on paper, but if the machine is 1930 mm tall, that leaves very little room for the headset suspension and the person installing it. Measure the lowest obstacle above the unit, not the highest point of the room.
You do not need special software to check whether a room works. The method below is a simple four-step calculation that you can repeat for any room, and it gives you a reusable formula for the rest of your planning.
A worked version of this method looks like this. Start with 3.52 m² (the calculated footprint). Add a realistic access band on the front where the player steps in and out, side space for the operator and the motion, and a rear strip for maintenance. In a typical installation these layers add several square meters to the plan, which is exactly why a room of 6 to 8 m² feels tight around a machine whose footprint is only 3.6 m². The formula works the same for any unit: footprint plus functional space, checked against the shape and the obstacles of the actual room.
You can also run the calculation backwards to check an existing room. Take the available length and width, subtract the space you need for the access layers, and see whether the remaining rectangle is at least 2300 × 1530 mm. If it is not, no amount of clever positioning will make the unit work in that spot, and the machine belongs somewhere else in the venue.
For a single VR Karting simulator, room dimensions matter as much as total floor area. Two rooms can have exactly the same area and still be completely different for this machine, because the unit is long and narrow, and it needs usable depth in front of it.
| Example Room | Total Area | Can It Hold the VR Karting? |
|---|---|---|
| 3 m × 4 m | 12 m² | Good: 4 m of depth gives a clear front area and the 3 m width works well |
| 2 m × 6 m | 12 m² | Tight: 2 m width leaves almost no side space beside a 1530 mm cabinet |
| 3.5 m × 3.5 m | 12.25 m² | Workable: balanced proportions, but check the ceiling and door path |
| 2.5 m × 5 m | 12.5 m² | Poor: the 2.5 m width is barely wider than the cabinet itself |
Look closely at the two 12 m² examples. The 3 m × 4 m room has 4 m of depth, so the 2300 mm long machine can sit with a comfortable front area and still leave side space on both sides. The 2 m × 6 m room has the same 12 m², but its 2 m width is barely wider than the 1530 mm cabinet, which means almost no side access and a very cramped experience. The same area, two completely different outcomes.
When you evaluate a room for this machine, check the width first. The cabinet alone needs 1530 mm, so the usable width of the room should be comfortably above that before you even think about the length. Then check the depth, because the front access area is where the player flow happens. Then check entry: the doorway the machine has to pass through on delivery, which is a completely different question from the floor area. Finally, check circulation and maintenance, because a room that fits the machine but leaves no walking space around it will be a problem every single day.
Positioning is where the planning comes together, because the same room can feel completely different depending on where the machine stands. There are four common layouts, and each one suits a different room shape. The name of the game is matching the layout to the room instead of forcing the machine into a spot that happens to be empty.
Placing the machine along the long side of a room, with the 2300 mm dimension running parallel to the longest wall, suits narrow or deep rooms. This layout gives you depth in front of the cabinet for the player flow and the queue, while the 1530 mm width of the machine takes up relatively little of the room width. It is the natural choice for a rectangular room where you want to leave a wide circulation path on one side.
Placing the machine along the short side of a room suits wider rooms, where there is plenty of width but limited depth. Here the cabinet sits against the shorter wall, and the 2300 mm length extends into the room. This works when the room is wide enough that even after the machine plus its front area are in place, there is still room for other attractions or a path along the side.
Positioning the machine near a wall is possible, and it is often the most space-efficient choice in a busy venue, but it only works if you protect the access requirements. The wall can sit behind the machine as long as the rear maintenance space is still reachable, and the sides must stay clear enough for the operator and the 360° motion. What you cannot do is push the unit into a corner, wall on two sides and no front space, because then there is nowhere for the player to enter and nowhere for the operator to work.
When you plan two or more units together, treat the group as a zone rather than as separate machines. The units can share a front queue area and a service aisle, which saves floor space compared with planning each unit on its own, but the shared areas have to be designed deliberately. Sketch the zone on paper first, mark the footprint of each unit, and check that the combined layout still leaves every machine reachable. A simple diagram at this stage prevents the most expensive mistakes later.
The honest answer is not a simple double. If you simply multiply the footprint, you get 3.6 × 2 = 7.2 m², but 7.2 m² is only the combined equipment footprint. Two machines need the same access layers as one machine, plus the space between the units, so the real planning area is noticeably larger than 7.2 m².
Side-by-Side. Placing two units side by side, with their 1530 mm widths parallel, gives easy access to both machines from the same front area and makes it easy for visitors to compare the two rides. This layout is efficient because the front queue and the operator positions are shared, and it is the best choice when you want the pair to read as one racing zone. It needs a wider wall run, so check that your room width can hold two 1530 mm cabinets plus the gap between them.
Front-to-Back. Placing two units front-to-back, one behind the other, suits narrower rooms where there is not enough width for a side-by-side pair. The depth of the room does the work instead. The trade-off is that the rear unit is harder to reach and less visible, and the front unit blocks the view of the second one, so this layout is best when the room is simply too narrow for anything else.
Shared Circulation. Whatever the arrangement, the two machines cannot sit at the minimum possible distance from each other. Between them you need a shared circulation and service space: room for a player to move between the machines, for an operator to reach the back panels, and for the motion of a 360° session to stay clear of the neighboring cabinet. The gap between units is not wasted floor; it is the operating space of the zone, and it is exactly what keeps two machines usable instead of decorative.
If you are planning a dedicated karting zone rather than a single pair, the same logic extends to three or four units, and it pays to think about it as a zone with shared queuing and shared service access from the start. A kids VR karting zone or a racing corner works best when the machines are planned together, because the shared space between them is what makes the zone feel generous and keeps the staff efficient.
Instead of giving you a fixed answer that depends on your specific room, here is the judgment logic you can apply to any space. Run through these five steps with your own measurements, and you will know exactly how many units fit, or whether the room works at all.
This five-step method is deliberately manual, because a hand-drawn check catches problems that a quick glance at the total area misses. It also gives you a document you can share: the same sketch you use to check the room is the sketch you send to the supplier or the installer, and it is the basis of the free 3D layout that our team can prepare for you.
A practical note on the ceiling: the height step in step 1 is not decorative. With a cabinet height of 1930 mm, every unit you add multiplies the ceiling clearance you need in that part of the room. A room that fits one unit might fit a second one in width but fail on height, so check the ceiling at every candidate position before you commit to a number of units.
To show how all of this works on a real product, here is the INFINITY NEXTPLAY VR Karting simulator used as a complete planning example. This is the same machine whose dimensions run through the whole article, so you can trace every number back to the specification table.
| Product | VR Karting |
|---|---|
| Dimensions | 2300 × 1530 × 1930 mm |
| Footprint | 3.6 m² |
| Weight | 300 kg |
| Players | 1 person |
| Perspective | 180° / 360° |
Now place this machine in a realistic example room. Take a rectangular space of 3.5 m × 5 m with a 2.6 m ceiling and a standard single door of about 0.9 m in the middle of one long wall. The footprint of the machine, 2300 × 1530 mm, fits easily in the middle of the floor. Position it along the long wall opposite the door, leaving the full depth of the room in front of it for player access and queuing, with side clearance on both sides for the operator and the 360° motion. The rear of the cabinet faces the wall, but with a working gap left behind it so the service panels stay reachable. The door and the delivery path are checked before anything is ordered, and the 300 kg weight is noted for the floor and the moving crew.
Example layout for illustration only. Final dimensions should be confirmed against the actual room and installation conditions. This example is not a recommendation that fits every site, because every room is different: ceiling heights vary, columns appear where you least expect them, and delivery paths change the plan. Use the example as a template for your own sketch, then confirm every number against your real room before you order.
The planning method in this article works for the VR Karting simulator, and it applies just as cleanly to the other racing units in the range, because each one has its own footprint and motion profile. The right machine for your space depends on the room you actually have and the crowd you expect.
Looking for a commercial VR racing simulator? You can browse the full VR racing simulator collection to compare the options, and the models below match the space profiles above, from a compact single-seat karting unit to a full-motion cockpit, so you can match the machine to the room you have.
Before the machine arrives, go through this checklist once with your room and once with the supplier. It is organized into four groups so you can hand it to whoever is preparing the site.
The delivery path deserves special attention, because it is the step people skip most often. The machine has to travel from the street to its final position: through the entrance, along corridors, around corners and possibly into an elevator. Measure the doors and the turning points on that path, not just the final room, because a machine that fits the room but not the corridor in front of it is an installation problem you only discover on the delivery day.
On the power side, note that the unit runs on 220 V, so check that a suitable outlet or circuit is available at the installation position and that the cable can reach it without crossing a walking path. On the environment side, remember the ceiling again: 1930 mm of cabinet height plus the headset suspension above it means the overhead check is part of the room check, not an afterthought.
This is a fair question, and the useful way to answer it is with a principle rather than a single comparison: a motion-based racing system should be planned based on its physical dimensions and operating requirements, rather than on the headset play area alone. A VR system that only needs a standing or walking area can be planned from the play zone outward. A racing simulator is a physical machine, and it must be planned from its cabinet outward, exactly as this article has done.
The VR Karting simulator is driven by a servo motor and offers a 180° or 360° perspective, and both features connect directly to space planning. The servo-driven motion means the cabinet itself moves during play, so the space around the machine has to stay clear for that movement, especially in the 360° setting where the whole ride rotates. The 360° perspective also changes the experience for everyone nearby: spectators can watch the action from more angles, which is a genuine attraction advantage, but it also means the surrounding floor is part of the show and should be kept open rather than filled with other equipment.
What this article deliberately does not do is invent an extra safety margin for the motion range, such as claiming the machine needs an additional fixed number of meters on each side because it moves. The servo motion operates within the cabinet structure, and the practical space requirement is covered by the front, side and rear access layers described earlier, sized for your own operation. If you want certainty for a specific room, the reliable way is to confirm the plan with the supplier, which is exactly what the final section of this article invites you to do.
Compared with headset-only VR experiences, the practical difference is simple. A headset-only setup needs a play area and little else. The VR Karting simulator needs a cabinet footprint, an access layer and a delivery path, but in exchange it gives you a visible, ride-like attraction that draws attention in any venue. If you are comparing it with other racing simulators, such as a six-degree motion racing cockpit or a high-motion 6-DOF racing machine, use the same planning method for each one: footprint, access layers, room shape and obstacles. That way you are comparing machines on the same basis, which is the only fair comparison. For more on how these machines work in practice, our guide to building a VR racing setup and the story of VR racing for friends and families are good next reads.
Most space problems with racing simulators come from a small set of repeatable mistakes. Here are the five that show up again and again, so you can recognize them before they cost you.
Notice how each mistake is a variation of the same underlying error: treating the equipment footprint as the whole story. If you keep the footprint-versus-planning-area distinction from this article in mind, you will avoid all five mistakes in one move. When in doubt, draw the plan, measure the room and the path, and check the ceiling, and then confirm the layout with the supplier before ordering.
Here are the questions buyers ask most often about the space a VR racing simulator needs, answered directly with the numbers from this article.
A typical single-player VR racing simulator such as the INFINITY NEXTPLAY VR Karting measures 2300 mm long, 1530 mm wide and 1930 mm high, and weighs about 300 kg. These are the physical dimensions of the machine itself, before adding the access space around it.
The INFINITY NEXTPLAY VR Karting simulator is 2300 × 1530 × 1930 mm, covers approximately 3.6 m² of floor space, weighs 300 kg, runs on 220 V and carries a maximum rider load of 150 kg.
The equipment footprint of the VR Karting simulator is about 3.6 m², calculated from 2300 × 1530 mm. The total planning area is larger, because the room also needs front space for the player, side space for the operator and rear space for maintenance.
3.6 m² is enough for the machine itself, but not for the operation around it. The unit also needs player access in front, operator space on the sides and maintenance access at the rear, so the practical planning area is larger than the footprint.
The combined equipment footprint of two units is about 7.2 m², but the planning area is larger. Side-by-side placement shares the front area and suits wider rooms, while front-to-back placement suits narrower rooms, and both need shared circulation space between the machines.
The cabinet itself is 1930 mm high, so the ceiling at the installation position must be clearly above that, with extra clearance for the suspended headset system, light fittings and servicing. Measure the lowest obstacle above the unit, not the average room height.
Have your room dimensions or floor plan ready? Share the available length, width and height with INFINITY NEXTPLAY, and our team can help you determine how the VR Karting simulator can be positioned within the space.
