Compact Flagship That Fits Where a Tall Hexapod Cannot
The list price is the full price of the standard unit shown here - net and ex-works. VAT is normally zero on export orders; options, delivery and any duties are confirmed at order.
Three engineering decisions that define this product.
A compact 6DOF base carries the full 1500 kg payload class in a venue-ready envelope.
Defense rooms, OEM facilities and reinforced venues take the flagship payload with forklift or hoist handling - lighter rigging than a tall hexapod needs.
A taller, heavier base invites the heavier rigging and reviews that can stall delivery for months.
A low-profile geometry holds the cabin under standard ceiling height. It opens existing rooms and trailers a tall envelope cannot enter.
The integrator wins venue-constrained sites at flagship payload without rebuilding ceilings. More rooms qualify on clearance alone.
A tall base builds upward instead. That steers venue choice toward purpose-built halls and shrinks the list of rooms that fit.
A helical-bevel geared drive runs quietly, so instructors can coach beside it. Many bases grow louder as load climbs.
Instructors brief and debrief beside a full-cabin trainer with no enclosure. Coaching stays at the platform.
A noisier base needs a sound-isolation room, and that floor area becomes space lost to training.
| Axis | Single excursion | Max excursion | Velocity | Acceleration |
|---|---|---|---|---|
| Heave (Vertical) | -143.3/+180.4mm | -143.3/+180.4mm | 300mm/s | 0.41G |
| Surge (Longitudinal) | -213/+228mm | -239/+242mm | 300mm/s | 0.61G |
| Sway (Lateral) | -200.5/+200.5mm | -236/+236mm | 300mm/s | 0.61G |
| Pitch | -19.7/+18.2° | -25.5/+24.8° | 35°/s | 250°/s2 |
| Roll | -20.3/+20.3° | -21.7/+21.7° | 35°/s | 250°/s2 |
| Yaw | -22/+22° | -24.6/+24.6° | 35°/s | 250°/s2 |
| Payload specifications | ||||
| Payload | 1500kg | |||
| CoG height above MPC | <750mm | |||
| Moments of Inertia (Ixx, Iyy, Izz) | 1500kg·m2 | |||
| Main dimensions | ||||
| Total Width | 2530mm | |||
| Total Length | 2213mm | |||
| Min Height | 830mm | |||
| Max Height | 1154mm | |||
| Product Weight | 1145kg | |||
| Power & installation | ||||
| Supply | 400V three-phase ±10% (230V to neutral), 50/60 Hz; the feed is not supplied. | |||
| Network type | Wye only, ground and neutral (TN-S). | |||
| US supply | US 208V or 480V needs a transformer to reach 400V ±10%. | |||
| Circuit protection | 32A type C circuit breaker. | |||
| RCD/GFCI compatibility | EMC input filters fitted as standard for demanding operation in environments with high electromagnetic interference; the drive needs a permanent protective earth, not a standard RCD/GFCI. A filter-free build for RCD/GFCI operation is available on request. | |||
| Grounding | High leakage current - permanent solid protective earth, fitted by a qualified electrician. | |||
| Installation | Three-phase install by a qualified electrician; full detail in the manual. | |||
| Power draw | 400 V | |||
| Average Power | 11kVA | |||
| Peak Power | 30kVA | |||
| Average Current | 16A/ph | |||
| Peak Current | 43A/ph | |||
| Avg Power - Stress Test | 11kW | |||
| Avg Power - Typical Game | 4kW | |||
Measured at center of gravity with 1500 kg payload Tech Sheet | ||||
This chart pairs any two motion axes to show how far they reach together, drawn to scale from the platform's measured limits. Drag the marker anywhere in the plot to read exact values and check whether that pose is reachable.
Traced 1:1 from the platform's measured work-envelope plots. The other axes are held at zero.
Powered by ForceSeatPM, with 154+ commercial and entertainment simulators supported out of the box. The ForceSeatMI license, held per motion platform with the key on the PC, adds native SDK access for custom logic in C++, C#, Python, Unity and UE5.
Dashboards
VR HeadWay
Control Protocol
Post ProcessingThe fully integrated platform manager for motion telemetry tuning and hardware diagnostics.
DashboardsVR HeadWayControl ProtocolPost ProcessingHardware, software and licenses included with every unit - plus the optional add-ons available on this model.
Six electric rotary actuators stand in a hexagonal layout: each pairs an electric servo motor with a helical-bevel gearbox, and a pulling rod on ball joints carries that rotation up to the cabin frame. Coordinated drive across the six actuators forms all six axes - pitch, roll and heave plus surge, sway and yaw - in a low-profile build that stays under standard ceiling height.
That geometry carries a full-size cabin at the flagship payload class on a low-profile base built for tight venues and standard-ceiling rooms. The platform draws 400V three-phase from a single PS-SB400 cabinet, and on start-up it self-calibrates actuator positions so every run repeats from the same reference.
Electromagnetic brakes hold position on power loss, and the platform lowers fully for boarding.
Side-by-side technical data. Toggle Differences only to highlight the higher values.
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Payload, motion envelope, delivery and software integration - answered up front, ahead of the first call.
The team provides mounting references so the platform drops onto an existing rig. On the software side, the Hardware Imitator M10 - a USB box that mirrors the platform's control interface - is available on request with a first platform order that includes a ForceSeatMI or ForceSeatDI license, and it comes with a 6-month SDK license so the software team can validate integration before delivery. Custom integration runs through the ForceSeat SDK with motion profiles set in ForceSeatPM; where a build calls for it, the engineering team handles any platform firmware changes.
Platforms run on the ForceSeat software stack: ForceSeatPM delivers out-of-the-box support for popular simulation titles, and the ForceSeatMI and ForceSeatDI SDKs expose a documented API for custom telemetry in C, C++, C# and Python, plus plugins for Unity and Unreal Engine.
Yes, on three levels. The catalog spans payload classes from compact cockpits to full-cabin builds, so most projects start with the right standard model and a payload reserve. For oversized cockpits and cabins, the motion envelope and dynamics are then matched to the load - in software on every platform, and with adjustable hardware travel limiters on selected higher-payload models. Where the catalog does not fit, a bespoke build scopes payload, envelope and travel. Share the intended payload, its mass and the motion requirements and the team will confirm the right configuration.
Delivery includes installation guidance that specifies the mounting points and the power and electrical setup per model; site preparation, floor requirements and platform anchoring are the integrator's responsibility. Every platform ships factory-tested and arrives ready for integration into the simulator build.
Professional Series platforms are built to order, typically in 6-10 weeks from payment, with the exact schedule confirmed at quote. With the optional Hardware Imitator M10, software integration runs in parallel with production, so go-live is not gated by delivery. The compact Qubic System line is often in stock and typically ships within 1-3 weeks.
Every Professional Series platform ships with a 24-month warranty, extendable by agreement. Spare-parts manufacturing and diagnostic support continue for the operational life of the platform, with SLA options for fleet and training deployments.
One team scopes the build, carries it through integration and commissioning - with integrator partners where a full simulator is the goal - and stays involved once the rig runs in the field.
A dedicated account manager reads the message directly.
The team analyzes feasibility and prepares questions or an initial concept.
Detailed technical proposal with a platform recommendation, transparent pricing, lead time, and integration timeline.
Ongoing support from the team behind the recommended platform - for the life of the project.
