You're standing at the venue entrance on build day. The simulator has arrived, the client is expecting a working attraction, and the clock is already moving. Then the freight door proves too narrow, the electrical supply doesn't match the equipment schedule, and the venue team asks for a structural approval nobody has brought. The attraction itself may be perfectly engineered, yet the installation can still fail before the first component reaches the floor.
That's the hidden problem with event installation requirements. Most serious delays don't begin inside the simulator. They begin where the attraction meets the venue, the contractor, the floor, the power network and the build sequence. The following approach reflects the practical reality of installing interactive attractions at demanding venues, including Silverstone and ExCeL London, where access, paperwork and operational constraints matter as much as the equipment specification.
Why Installation Planning Determines Event Success
A simulator can pass its factory checks and still fail at the venue interface. At a London exhibition centre, the delivery bay, handling route, floor, power drop and assembly sequence must work as one chain. A vehicle booking without a usable unloading plan leaves the crew waiting. A final footprint without working clearance leaves no room to assemble, operate or provide emergency access.
The failure often appears in a small mismatch. If a freight door is 200mm too narrow, the team cannot solve it by working faster. The load may need repacking, an alternative route, specialist handling or a different build method. Each option affects labour, schedule and venue approvals.
Power introduces the same risk. A simulator specified for three-phase power cannot be connected as ordinary stand equipment when the available drop is single-phase. Temporary distribution changes, emergency callouts and delayed testing can then hold up contractors working around the attraction. Unapproved rigging points create another hard stop. If the venue's structural engineer has not accepted them, lifting cannot begin, even when the rigging plan appears technically sound.
Practical rule: Treat the attraction, venue and build sequence as one installation system. A fault at any interface can stop the whole system.
Simulators and immersive attractions place different demands on a venue than a standard exhibition stand. They combine dynamic movement, vibration, passenger loading, emergency-stop systems and managed throughput. The floor must support the equipment and its operating loads. Barriers must remain stable as guests enter and leave. Operators need clear sightlines, while emergency access must remain usable throughout the session.
Temporary platforms, barriers, gantries and other supporting structures also require a defined safety process. UK guidance covers procurement, design, erection and use for temporary demountable structures, including grandstands, marquees, stage structures and barriers. The Health and Safety Executive guidance on temporary demountable structures requires structures to withstand foreseeable loads, remain maintained and serve their intended purpose. The same discipline belongs in an attraction installation plan.
Where the real failures occur
The supplier knows the simulator's footprint and electrical demand. The venue knows access restrictions and approved connection points. The main contractor controls floor protection and the build schedule. Delays arise in the handoff between those responsibilities.
A venue search must therefore cover building operations, not room capacity alone. Anyone comparing corporate event venues should request freight access details, floor-loading information, delivery rules, power schedules, rigging procedures and inspection requirements before confirming an attraction.
Assign one accountable person to every handoff. That person confirms the information, records approval and communicates changes before the crew arrives. Without that ownership, build day becomes a series of decisions made under pressure, often after the equipment and labour are already committed.
Conducting a Thorough Site Survey
A proper site survey starts at the freight entrance, not at the final stand position. Walk the route exactly as the equipment will travel, measuring every restriction between the vehicle and the attraction footprint.
Trace the load path
Begin with the delivery booking and loading bay. Confirm the vehicle type, unloading method, escort arrangements and time allowed in the bay. Then record:
- Freight entrance dimensions. Measure usable height and width, not just the nominal door size. Account for door hardware, protective rails, slopes and turning space.
- Corridor and lift restrictions. Check corridor widths, turning circles, lift dimensions, lift weight limits and whether the route includes temporary ramps or floor transitions.
- Transport configuration. Compare the route with the largest packed component, its gross weight and the handling equipment required. A simulator that fits the final footprint may not fit through the venue in its operational form.
- Floor level changes. Record thresholds, ramps, steps and uneven surfaces. These affect pallet trucks, skates, lifting frames and the safe movement of heavy modules.
- Final positioning. Mark the operating footprint, service access, operator station, queue area, barriers and emergency routes on a scaled drawing.
The PSW Events event risk assessment template can help structure the hazards and controls captured during this process. The important point is to connect each hazard to a physical location and a named control, rather than keeping the survey as a collection of general observations.
Confirm the floor and overhead environment
Floor capacity needs to be assessed against both the attraction's static weight and the forces generated during operation. A motion simulator can produce peak forces three to four times its static weight, so a simple weight comparison isn't enough. The installer needs the manufacturer's load information, the venue's floor-loading data and a calculation of how the load reaches the floor through feet, plates, frames or spreaders.
Check column positions, low beams, sprinkler heads, lighting bars, suspended signage and other overhead obstructions. These can affect rigging, sightlines, access for maintenance and the safe movement of guests around the attraction. If the simulator uses a visual system, confirm that columns and stand walls won't block the viewing area or create unsafe queues.
Walk the operational route
Survey the space with the attraction running in mind. Measure the queue and boarding areas, identify where guests will wait, and confirm that barriers won't narrow evacuation routes. UK venue guidance shows that installation planning must account for means of escape, clear exit signage, safe routes and seating arrangements, not just structural strength. One local licensing example also specifies 2.44 metres of minimum headroom under and through a scaffold structure for pedestrian access, so overhead clearance should be checked rather than assumed.
Record temperature, humidity, dust, water features and nearby catering or cleaning activity. Finally, locate distribution boards and estimate cable-run distances. A short, protected cable route is easier to inspect and less likely to create a trip hazard than a late route across a public walkway.
Power Network and Rigging Specifications
Power schedules should describe the actual supply, connection point, protection, isolation method and test procedure. “Power available nearby” isn't an installation requirement. It leaves the electrician and venue team to interpret the most important part of the plan on site.
A motion platform may require a substantial three-phase supply, while a VR station may use standard sockets but still need a dedicated circuit to avoid interference from unrelated equipment. The exact requirement must come from the manufacturer's current technical schedule. Don't substitute a familiar socket because the attraction has worked at another venue.
| Simulator Type | Power Supply | Rigging/Load Requirements | Network Needs |
|---|---|---|---|
| Motion simulator | Confirm the manufacturer's single-phase or three-phase demand, protective device, isolation point and earthing arrangement | Separate static equipment weight from moving and passenger loads. Confirm floor capacity, spreader plates and point-load calculations | Hardwired Ethernet is preferable for telemetry and control where available |
| VR station | Use the specified socket arrangement and avoid sharing circuits with unsuitable equipment | Protect the play area, sensors and cable paths. Confirm clearances around the operating zone | Stable network access supports content, updates and ticketing |
| Racing rig | Confirm supply for the computer, display, seat movement and peripherals | Check frame stability, floor protection, queue barriers and operator access | Wired connections reduce dependence on congested hall WiFi |
| Flight simulator | Confirm the equipment schedule, isolation and emergency-stop integration | Review the full footprint, moving envelope and ground-bearing points | Plan a reliable connection for telemetry, booking and content systems |
The BS 7671 standard applies to the design, erection, verification, additions and alterations of low-voltage installations up to 1000 V AC or 1500 V DC, and the IET material on BS 7671 Amendment 3 identifies it as the relevant national standard. New socket outlets not exceeding 32 A require RCD protection, subject to the stated exception where a risk assessment covers instructed or skilled persons. The practical sequence is to classify the supply, verify the installation against BS 7671, document any justified exception and test before energising.
Read the rigging manual as an approval document
Venue rigging manuals normally identify approved fixing points, safe working loads, permitted equipment, submission deadlines and the structural engineer's approval process. A point that appears close to the attraction isn't automatically suitable. Confirm the safe working load, the complete suspended load and the effect of dynamic movement or wind where relevant.
For ground-bearing equipment, establish how the load reaches the venue floor. Heavy simulators may need spreader plates or another approved system to distribute point loads. Protecting the floor isn't cosmetic. It can prevent damage, preserve a level operating surface and make the venue's approval easier.
Network planning deserves equal attention. Metal-clad halls can contain WiFi dead zones, and a network that works at the registration desk may be unreliable inside the attraction footprint. Hardwired Ethernet for telemetry, with a separate contingency for ticketing or access control, is usually more dependable than hoping public WiFi will carry operational traffic. If the venue uses controlled entry systems, understanding how cellular gate access works can also help planners distinguish access-control requirements from the simulator's own network needs.
For a more equipment-specific reference, the PSW Events flight simulator requirements provide a useful starting point for discussing power, space, access and data before the venue submission is finalised.
Health Safety Permits and Compliance Documentation
A compliance pack should be assembled in the same order that the work will be approved. Start with the attraction specification and site-specific risk assessment, then build the method statement around the actual route, handling method, assembly sequence and operating controls.
UK construction-safety guidance places temporary structures within a controlled design and installation process. The Construction Design and Management Regulations 2015 took effect on 6 April 2015, replacing the earlier CDM 2007 framework and applying to temporary staging, rostra and risers in the events sector. The official temporary demountable structures guidance sets the expectation for competent design, installation, maintenance and inspection.
Build the pack in approval order
Use a controlled document register with a revision number and named owner. The pack should normally contain:
- Risk assessment. Identify crushing, lifting, electrical, movement, passenger, fire, access and emergency-stop hazards.
- Method statement. Describe delivery, unloading, assembly, testing, alterations, operation and removal in the sequence the crew will follow.
- Design information. Include drawings, calculations, load paths, component specifications and any temporary-works review required by the venue.
- Electrical documentation. Record the supply arrangement, distribution, RCD protection, cable routes, isolation points and test results. Use the standard required by the venue and the installation scope, rather than attaching a generic certificate.
- Venue approvals. Include rigging approval, floor-loading acceptance, delivery booking, work permits, noise restrictions and any required inspection forms.
- Emergency information. Mark exits, evacuation routes, emergency-stop locations, first-aid arrangements and operator responsibilities.
- Insurance and competence records. Keep current public liability information, training records, equipment inspection evidence and subcontractor details available for the venue team.
The HSE's event electrical guidance says installations must be properly selected, installed and maintained. It also requires cable routes to minimise trip hazards and mechanical damage, and says underground cable joints shouldn't be left in place. These requirements make route drawings part of the safety record, not an optional production extra.
Use documents to prevent stoppages
A venue technical manager may reject work because a drawing is missing, a load is unclear or the method statement doesn't match the equipment delivered. That isn't bureaucracy for its own sake. It's a sign that the approved installation and the physical installation have diverged.
Section 30 licensing may also apply to temporary structures such as marquees, stages and rigs. One UK venue source states that these structures must meet requirements for structure, means of escape and fire, and are typically temporary for no longer than 28 days. The same guidance describes temporary structures as manually erected and dismantled, which reinforces the need to plan handling, labour and access rather than treating them like permanent construction.
Use the PSW Events first aid requirements as a practical prompt when checking the operational safety arrangements around an attraction. Final sign-off should confirm that the approved documents match what has been built.
Logistics Staffing and Handover Procedures
A good installation schedule assigns people to decisions, not just tasks. The delivery team, venue escort, electrician, rigging crew, attraction technician, health and safety lead and client representative should know when they're needed and what authority they have to stop or release the work.
The following timeline is a useful operating model. Adjust it to the venue's access window and the attraction's complexity.
A controlled build-day sequence
- 06:00, load-in bay allocation. The production lead confirms the booked bay, venue escort, delivery slot, unloading equipment and approved route. If any of those is missing, the vehicle shouldn't be waved into a congested build area.
- 08:00, vehicle unloading. The logistics lead checks packaging, component identity and visible damage before moving anything. The crew protects the floor and records where each module is staged.
- 12:00, assembly complete. The attraction technician completes mechanical assembly, verifies guards and checks that the equipment matches the approved configuration. Late design changes are recorded rather than handled informally.
- 15:00, safety inspection. The competent person checks structure, floor contact, barriers, cable routes, electrical protection, emergency stops and egress. Any failed item receives an owner and a corrective action.
- 17:00, operational handover. The operator team receives the controls, start-up sequence, shutdown procedure, emergency response and guest-management rules. The handover includes a demonstration, not just a signature.
- 18:00, client sign-off. The client confirms the agreed appearance, functionality, branding and operating position. The completion record includes outstanding restrictions, inspection status and the person responsible for each follow-up.
The common stalls are predictable. The venue escort hasn't arrived, the forklift booking conflicts with another delivery, the power connection is still live but untested, or the contractor disputes who pays for floor protection. Resolve those matters in the pre-start meeting, not while a suspended or partially assembled attraction is occupying the aisle.
Close the liability gap
The transfer from build crew to operations team is the point at which responsibility can become unclear. The installer may assume the operator understands the emergency stop, while the operator assumes the technician has completed the final inspection.
Use a handover form that records equipment identity, inspection status, test results, operating limits, emergency contacts and acceptance signatures. Keep the final drawing and photographs with the form. If the attraction changes position, loading or configuration after handover, stop operation until the relevant inspection is repeated.
Installation Requirements Checklist and Common Mistakes
A simulator can pass its bench test and still stop the build at the venue. The usual failure sits between three interfaces: the attraction's packed dimensions, the venue's floor and access rules, and the order in which contractors complete their work. Run the final audit before departure, then repeat it before the first guest enters. A venue manual may cover the basics, while the missing measurements or approvals still halt installation.
| Requirement Category | Thorough Plan Includes | Commonly Overlooked |
|---|---|---|
| Access route | Measured freight doors, corridors, lifts, thresholds, turning space and packed component dimensions | Assuming the operational footprint proves the equipment will reach the stand |
| Floor loading | Static and dynamic load information, point-load calculations, approved spreader plates and floor protection | Checking only total weight and ignoring concentrated loads |
| Power | Confirmed supply type, circuit allocation, isolation, RCD protection, cable length and test procedure | Treating a nearby socket as a confirmed technical supply |
| Rigging | Approved points, safe working loads, drawings, calculations and venue engineer sign-off | Booking a rigger before the venue approves the points |
| Cable management | Scaled routes, ramps, protection, inspection access and separation from public movement | Running cables across a route and solving it with tape on build day |
| Egress | Clear exits, queue design, barrier positions, signage and operator access | Allowing queues or viewing groups to narrow emergency routes |
| Operation | Emergency-stop test, operator briefing, passenger controls and restart procedure | Handing over equipment with only a basic power-on demonstration |
| Documentation | Current RAMS, certificates, approvals, inspection forms and sign-off record | Carrying several document versions with no revision control |
Electrical guidance from the HSE event safety page addresses cable routing, mechanical protection and RCD arrangements. Apply that guidance during the layout stage, not after the attraction is already positioned. Cable management affects access, public movement, inspection and the build sequence, so leaving it to the electrician can create rework.
The shortcuts that cost the most
The first shortcut is accepting the venue's “standard package” without matching it to the attraction. Motion platforms, VR stations and racing rigs can have different supply, clearance and network demands. Confirm the technical schedule against the actual equipment list, including ancillary screens, computers, control units and hydraulic or powered systems.
The second shortcut is measuring the stand but not the route. Oversized components often fail at the freight entrance, lift or first turn. Record packed dimensions, door clearances, lift limits, threshold heights and turning space. At venues such as Silverstone or ExCeL London, a route that looks generous on the floor plan can narrow around service doors, temporary protection or other contractors' materials.
The third is treating floor protection as a cosmetic request. Heavy equipment can create unacceptable point loading or damage a finished venue surface if the load path is not reviewed. Confirm how the load transfers through feet, wheels, frames and spreader plates, then agree who supplies and installs the protection. Total weight alone does not show what the floor will experience.
The fourth is accepting a rigging plan without checking safe working loads and structural approval. The venue engineer must approve the proposed points and calculations before the rigger arrives. A technically sound attraction can still be delayed if the approved load path differs from the one shown on the working drawing.
Technical teams should review manufacturer-specific assembly instructions before load-in. For hydraulic or powered assemblies, the power pack assembly steps illustrate the sequence detail needed to prevent hurried connections, trapped lines and incomplete checks. Put those steps into the build schedule, with time for inspection and a controlled test before public operation.
PSW Events provides planning and installation support for simulator and VR event setups, including venue footprint, sightlines, access routes, build timetables, electrical supply, data checks, cable control and floor-loading considerations. Its team also provides on-site staffing and health and safety coordination, which keeps responsibility visible through testing and handover rather than ending at delivery.
A useful final check asks whether every interface has an owner. Who confirms the route, who protects the floor, who releases the power, who approves the rigging, and who accepts the attraction for operation? Record the answer beside each requirement. That simple step exposes gaps before a partially assembled unit blocks an aisle or a contractor discovers an unapproved connection.