- Home
- Applications
Applications · Choose by engineering objective
Motion Platform Applications
Start with the engineering job the platform must perform: reproduce a controlled test trajectory, create repeatable input for research, supply motion beneath an integrator-owned simulator, replay ship or deck movement, or compensate a measured disturbance.
CSCMotion scope: custom electric motion platforms, controllers and contracted platform interfaces. Complete simulators, test systems, research methods, vessels and customer equipment remain separate work packages unless included in writing.
Testing & research
Professional simulators
Maritime motion
Platform subsystem only
Choose by What the Platform Must Do
The same mechanism can serve different engineering purposes. Start with the required physical outcome and use the application page that owns that workflow.
01 Reproduce Motion for a DUT
Apply a controlled trajectory to a component, fixture or complete test article.
Industrial testing →
02 Create Experimental Input
Generate repeatable dynamic motion for a laboratory or R&D program.
Research motion →
03 Add Motion to a Simulator
Integrate a motion-platform subsystem beneath an OEM-owned professional simulator.
Simulator integration →
04 Replay Maritime Motion
Make a payload follow an approved ship, deck or sea-motion trajectory.
Maritime reproduction →
05 Reject a Disturbance
Counter a defined base disturbance to reduce motion at an agreed payload point.
Motion compensation →
Seven Application Pages, One Clear Starting Point
Each page owns one buyer job, input set and validation logic. Choose the page from the physical outcome you need—not only from an industry label or a preferred axis count.
| Application page | Start here when… | Primary engineering inputs | This page does not sell… |
|---|---|---|---|
| Industrial Testing | A controlled trajectory must be applied to a DUT, fixture or complete test article. | DUT and fixture, complete moving load, motion profile, HIL or DAQ interface, acceptance method. | A generic shaker, force-controlled fatigue rig, shock machine or accredited complete test system. |
| Research Motion Platform | A repeatable dynamic input is required for an experiment or R&D program. | Experiment objective, payload, trajectory, timing, host or DAQ interface, measurement plan. | Nano-positioning equipment or an unsupported open-source controller promise. |
| Motion Platforms for Simulators | An OEM or integrator needs the common framework for adding motion to a professional simulator. | Moving assembly, cue or command path, host interface, safety boundary, platform FAT. | A complete simulator, training content or complete-system qualification. |
| Flight Simulator Motion Platform | A flight-simulator integrator needs the platform subsystem beneath a defined moving cockpit. | Moving cockpit, mass properties, cue set, interface timing, safety chain, platform acceptance. | Cockpit, visual, avionics, training content or FAA/EASA certification. |
| Driving Simulator Motion Platform | A DIL or vehicle-research system needs platform motion beneath an integrator-owned buck or cabin. | Vehicle buck, driver task, vehicle model or HIL, cue set, timing and acceptance criteria. | A consumer sim-racing rig or complete driving-cockpit delivery. |
| Maritime Motion Platform | A payload must reproduce an approved ship, deck or sea-motion trajectory. | Trajectory, reference point, coordinate system, complete load, combined workspace, tracking evidence. | A complete bridge simulator, vessel or active compensation system. |
| Motion Compensation Platform | A measured or commanded base disturbance must be reduced at a defined payload point. | Base motion, reference sensor, latency, payload, residual-motion target, saturation and fail-safe logic. | An assumed off-the-shelf capability based only on using a Stewart mechanism; feasibility and evidence are required. |
Motion Platforms for Testing and Research
These applications use controlled physical motion as a test or experimental input. Selection begins with the DUT or research payload, the trajectory, the measurement point and the required evidence.·
Primary commercial application
Motion Platform for Industrial Testing
Reproduce an approved position and orientation history under a defined load for component response, equipment validation, HIL input or repeatable multi-axis testing.
Recorded or model-based motion
DUT and fixture definition
Host, HIL and DAQ interface
Platform-level FAT evidence
Discuss a compact platform →
Laboratory and R&D
Research Motion Platform
Create repeatable dynamic input for experiments in controls, robotics, sensing, human factors or equipment response, with the platform connected to a defined research interface.
Scripted or recorded trajectories
Open host integration
DAQ timing and feedback
Measured dynamic repeatability
Explore Research Applications →
Motion Platforms for Professional Simulators
Use this family when an OEM or integrator owns the simulator architecture and needs a motion-platform subsystem designed around the moving assembly, cueing path, control interface and acceptance boundary.
Simulator application sub-hub
Motion Platforms for Simulators
Review the common mechanical, electrical, control, safety and acceptance framework before moving into a flight- or driving-specific requirement.
Review the Simulator Integrator Framework →
Flight simulator integrators
Flight Simulator Motion Platform
Define the moving cockpit, required motion cues, command source, interface timing, safety chain and platform-level factory acceptance.
Explore Flight Simulator Platforms →
DIL and vehicle research
Driving Simulator Motion Platform
Define the vehicle buck, driver task, cue set, host or HIL architecture, interface timing and platform acceptance for a professional DIL or research project.
Explore Driving Simulator Platforms →
Maritime Motion and Motion Compensation Platforms
Both paths may use a multi-axis parallel mechanism, but one reproduces an approved trajectory while the other acts against a disturbance. Select the page from the required control result.
Motion reproduction
Maritime Motion Platform
Replay an approved ship, deck or sea-motion trajectory for equipment response testing, controlled research or integration with a customer-owned maritime simulator.
Recorded or generated ship motion
Reference point and coordinates
Combined workspace review
Tracking and repeatability evidence
Explore Maritime Motion →
Conditional engineering application
Motion Compensation Platform
Counter a measured or commanded base disturbance to reduce motion at a defined payload point within an approved operating envelope.
Disturbance and reference definition
IMU, timing and control loop
Residual-motion target
Saturation and fail-safe behavior
Evaluate Motion Compensation →
Five Inputs Turn the Application into an Engineering Requirement
You do not need to choose 3DOF or 6DOF first. We use the application objective and project inputs to determine whether a motion platform is appropriate and which architecture should be reviewed.
01 Engineering Objective
What must be reproduced, moved or stabilized, and what decision will the result support?
02 Complete Moving Load
Payload, fixture or cabin, mass, center of gravity, inertia, people, cables and envelope.
03 Motion Requirement
Axes, range, speed, acceleration, frequency content, representative trajectory and duty.
04 Control Interface
File or real-time command, coordinates, units, rate, states, faults and feedback ownership.
05 Acceptance Method
Approved load, trajectory, instrument, measurement point, tolerance and required records.
Manufacturer review: CSCMotion converts these inputs into an approved platform configuration, interface boundary and platform-level acceptance plan. The customer or integrator remains responsible for the surrounding application system unless another work package is contracted.
The application defines the job
Related Motion Platform Architectures
Product pages explain mechanism, configuration and control options. Use them after the application has established the load, trajectory, interface and acceptance requirement.
Three defined axes
3DOF Motion Platform
For applications where a specific three-axis set covers the required physical task with lower system complexity.
Review 3DOF platforms →
Coordinated six-axis motion
6DOF Motion Platform
For applications requiring coordinated translation and rotation across all six axes in a defined workspace.
Review 6DOF platforms →
Parallel kinematics
Stewart Platform
A project-specific parallel mechanism whose geometry is engineered around load, workspace and dynamics.
Review Stewart platforms →
Controller and interface
Motion Control System
Platform controller, motion commands, states, feedback and contracted API integration for an approved project.
Review control systems →
Project-specific configuration
Custom & OEM Platforms
For unusual payloads, envelopes, interfaces or integration responsibilities that require an engineered configuration.
Review custom & OEM support →
Motion Platform Application Evidence
Application evidence should show the platform inside the real work package: the load, interface, operating stage and acceptance context. Every caption should identify what CSCMotion supplied.
Testing
Controlled Motion for a Defined DUT
Caption the objective, complete load, applied trajectory, CSCMotion scope and measurement stage.
Research
Repeatable Physical Input for an Experiment
Explain what motion was controlled and what the research team integrated around the platform.
OEM integration
A Platform Inside the Customer’s System
Separate the CSCMotion platform subsystem from the integrator-owned cabin, payload or complete application.
Application selection questions
Motion Platform Application FAQ
Use these answers to choose the correct application path. Detailed engineering questions remain on the relevant child page and in the approved project specification.
Which motion platform application page should I start with?
Start with the physical job. Use Industrial Testing for repeatable DUT motion, Research Motion Platform for experimental input, Motion Platforms for Simulators for a general professional integration, the flight or driving page for application-specific simulator requirements, Maritime Motion Platform for ship or deck motion reproduction, and Motion Compensation Platform for disturbance rejection.
Does CSCMotion supply complete simulators?
Our normal overseas scope is the motion-platform subsystem, controller, contracted platform interfaces, documentation and platform-level acceptance. The simulator OEM or system integrator normally owns the cockpit or vehicle buck, host model, visual system, motion cueing, training content and complete-system qualification unless a separate work package is agreed in writing.
Can the same motion platform be used for testing and simulation?
A similar 3DOF or 6DOF architecture may appear in both applications, but the load, motion profile, control path, safety boundary and acceptance method can be very different. We review the actual application before confirming that one configuration can support more than one operating mode.
What information is needed before selecting 3DOF or 6DOF?
Send the engineering objective, complete moving assembly, mass, center of gravity, inertia if available, required motion or cues, one representative trajectory, duty cycle, host interface, site constraints and proposed acceptance method. Axis count is selected after these inputs are reviewed.
What is the difference between maritime motion reproduction and motion compensation?
Maritime motion reproduction commands the payload to follow an approved ship, deck or sea-motion trajectory. Motion compensation acts against a measured or commanded disturbance to reduce motion at a defined payload point. Their input signals, control objectives and acceptance metrics are different.
Talk directly with our engineering team
Send Your 3DOF Requirements
You do not need to complete the specification before contacting us. Send the required axes, moving assembly and target motion; our engineers will identify missing inputs and recommend the next step.
What must move and which axes are required
Moving mass, dimensions, CG and inertia
Required travel, angles and dynamics
Mounting, installation, power and environment
Host interface, FAT expectations and schedule