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Application · Universities · Laboratories · Industrial R&D
Research Motion Platform
We design and manufacture custom electric 3DOF and 6DOF motion platforms for universities, laboratories and industrial R&D teams that need repeatable dynamic motion, programmable profiles and a defined host interface. We size each research or laboratory motion platform around the complete moving load, required workspace, velocity, acceleration, frequency content, duty cycle, data timing, calibration method and acceptance plan.
Application boundary: built for dynamic motion reproduction and experimental integration—not nanometer or sub-micron positioning, optical alignment or complete research-instrument delivery.
3DOF & 6DOF
Programmable Profiles
Documented Interface
Project Acceptance
Choose the right class of motion system
Is Dynamic Motion the Right Tool for the Experiment?
A research motion platform is useful when the experiment needs a controlled physical trajectory under a defined payload. It is not a substitute for a micro- or nanopositioning stage.
Good fit for CSCMotion
Repeatable Dynamic Motion and Open Integration
Start here when motion, payload and data timing are the main engineering questions.
- Scripted, recorded or real-time multi-axis trajectories
- Experimental payloads and fixtures requiring custom geometry
- Useful workspace, velocity, acceleration and duty under load
- Documented host commands, states, timing and fault behavior
- Platform feedback coordinated with independent sensors and DAQ
- Project-defined calibration, measurement and FAT evidence
Use a positioning specialist
Micro/Nano Positioning, Alignment and Metrology
These requirements belong to a different product class with different mechanics, sensors and environmental controls.
- Nanometer or sub-micron positioning and scanning
- Optical, photonics or semiconductor alignment
- Piezo stages, minimum incremental motion or interferometric control
- UHV, non-magnetic or cleanroom positioning requirements
- Thermal drift and settling dominate over dynamic workspace
- Sample positioning for microscopy, synchrotrons or beamlines
Start with the Experiment, Not a Product Model ·
We do not choose 3DOF or 6DOF from a project label. We first define the physical input the experiment needs and the conditions under which the platform must reproduce it.
Step 01
Research Question
What phenomenon, algorithm or response will the team investigate?
Step 02
Physical Input
Which translations, rotations or dynamic states must be applied?
Step 03
Moving Assembly
Define payload, fixture, instruments, CG, inertia and envelope.
Step 04
Motion Profile
Provide a representative file, model output or real-time command path.
Step 05
Host & DAQ
Define commands, status, triggers, timestamps and ownership.
Step 06
Measurement
Agree the point, instrument, calculation and repeat method.
Step 07
Architecture
Select and engineer the platform against the approved load case.
Unknown values
Representative data
Written boundary
Motion Platforms for Research and Laboratories
A motion platform for research should be selected from the physical input, moving assembly, interface and measurement plan. These examples describe the platform’s role, not a promise to deliver the complete research system.
Control systems
Control, Robotics and Teleoperation Research
Use the platform as a defined physical plant or motion source while the research host generates commands and records system response.
Automotive R&D
Vehicle Dynamics and Mobility Research
Reproduce approved vehicle pose, road-derived motion or model output for research into dynamics, controls or human interaction.
Human in the loop
Motion Perception and Human-Factors Studies
Provide controlled platform motion for an institution-led study whose protocol, subject safety, ethics approval and research conclusions remain with the responsible organization.
Environmental motion
Wave, Deck and Attitude Reproduction
Apply a repeatable time history to an instrumented payload without claiming to provide the customer’s complete marine model or research method.
Sensors and algorithms
UAV, Sensor and Algorithm Experiments
Expose a model, sensor package or control algorithm to known multi-axis motion while external instrumentation records the experiment response.
University laboratories
Engineering Research and Laboratory Systems
Configure a reusable motion subsystem for a university or institute that needs documented interfaces, project-specific geometry and a defined acceptance basis.
Dynamic Motion vs Precision Positioning
Both systems may use a parallel six-actuator architecture, but they solve different engineering problems. The mechanism name alone does not make them interchangeable.
| Decision factor | CSCMotion research motion platform | Precision / nano-positioning hexapod |
|---|---|---|
| Primary task | Reproduce dynamic pose, trajectory, wave or experimental motion input. | Align, scan, assemble or position a sample or optical element. |
| Dominant requirements | Moving load, usable workspace, velocity, acceleration, frequency content, duty and host timing. | Minimum incremental motion, resolution, repeatability, settling, thermal drift and metrology. |
| Command pattern | Scripted profile, time-history replay or approved real-time host command. | Point-to-point positioning, scanning, alignment or metrology loop. |
| Measurement | Project-defined measurement at an agreed point under a representative load and trajectory. | Direct high-resolution metrology, often under controlled environmental conditions. |
| Typical fields | Vehicle, robotics, teleoperation, human factors, deck motion, controls and research testing. | Photonics, semiconductor, optics, microscopy, astronomy and synchrotron instrumentation. |
| CSCMotion position | Core fit: custom dynamic motion and platform-side integration. | Not our target: use a specialist precision-positioning supplier. |
Define the Test Article, Fixture and Load Case
A useful enquiry describes what must be tested and how the result will be accepted. Send the information already available; unknown values can be marked for joint engineering review.
1-Research objective
What physical input will be applied and what response will the team study？
- Why it matters
Useful input
2-Moving assembly
Payload, fixture, adapter, instruments, cables and people where applicable.
- Why it matters
Useful input
3- Mass, CG and inertia
Total mass, three-axis center of gravity, offsets and mass distribution.
- Why it matters
Useful input
4-Fixture and mounting
Mounting plane, hole pattern, stiffness, service access and design owner.
- Why it matters
Useful input
5-Coordinate system
Axes, signs, origin, pivot, rotation order and reference point.
- Why it matters
Useful input
6- Motion profile
Periodic, time history, CSV/MAT, model output or real-time stream.
- Why it matters
Useful input
7-Range and dynamics
Combined travel, angles, velocity, acceleration and frequency content.
- Why it matters
Useful input
8-Duty cycle
Run duration, repetitions, pauses, daily use and worst-case condition.
- Why it matters
Useful input
9-Host and commands
Hardware, OS, application, command type, status and interface preference.
- Why it matters
Useful input
10-DAQ and synchronization
Sensors, sample rates, clocks, triggers, timestamps and buffering.
- Why it matters
Useful input
11-Safety and site
Power, foundation, room, guarding, access, people and emergency chain.
- Why it matters
Useful input
12-Acceptance method
Load, trajectory, measurement point, instrument, tolerance and repeat count.
- Why it matters
Useful input
Define Performance Before Comparing Numbers
Resolution, accuracy, repeatability and dynamic response are not interchangeable. We connect each requirement to a load, motion, measurement point and method.
Term 01
Resolution
The smallest increment represented or detected by a control or feedback element. It does not prove platform-end accuracy under load.
Term 02
Accuracy
The difference between commanded and measured motion, defined for an axis or trajectory, point, load, method and condition.
Term 03
Repeatability
Consistency across repeated runs using the same command, load, point, instrument, environment and controller configuration.
Term 04
Dynamic Response
Loaded time, frequency, velocity, acceleration, phase or tracking behavior for the approved combined trajectory.
Start with the Experiment, Not a Product Model
We do not choose 3DOF or 6DOF from a project label. We first define the physical input the experiment needs and the conditions under which the platform must reproduce it.
Source
Model or Motion Profile
Research calculation, recorded data or scripted trajectory
Host
Research / HIL Computer
Generates approved commands and experiment sequence
Interface
Documented Data Contract
Axes, units, timing, states, limits and faults
Controller
Platform Control System
Validates commands and coordinates synchronized motion
Plant
Platform + Payload
Produces the physical input used by the experiment
Platform status path
Independent measurement path
Questions to close before integration testing
A software name is not an interface specification. We agree the data and operating behavior that both teams will test.
- Who generates and approves the motion trajectory?
- Are commands pose, trajectory, file, velocity or another approved type?
- Which axes, units, signs, pivot and rotation order apply?
- What are the command, status, heartbeat and timeout behaviors?
- Which clock owns timestamps and triggers?
- What happens after a limit, fault, E-stop, reset or host restart?
- Which data comes from the controller and which comes from independent DAQ?
- Who owns the model, experiment sequence and research analysis?
Review the motion control system →
Prove the Platform Before Using Its Motion in Research
Platform acceptance connects an approved requirement to a defined configuration, load, trajectory, measurement and record. It does not validate the customer’s complete experimental method or research conclusion.
01 · Freeze
Approve the Load Case
Confirm platform, payload, fixture, CG, trajectory, duty, interface and acceptance criteria.
02 · Configure
Record the System
Document the platform, controller, coordinate convention, limits, software and measurement setup.
03 · Safety
Check States and Limits
Verify homing, enable, software limits, fault behavior, E-stop interface and approved recovery.
04 · Load
Run Representative Motion
Use the agreed dummy load, customer fixture or payload condition and approved combined trajectory.
05 · Measure
Compare at the Agreed Point
Record the instrument, point, sample rate, method, command and measured result.
06 · Repeat
Use the Approved Metric
Repeat the trajectory under the same conditions and calculate the agreed accuracy or repeatability result.
07 · Integrate
Test Host and Timing
Check commands, status, timestamps, timeout, fault and reset behavior against the data contract.
08 · Close
Record Results and Deviations
Issue the contracted FAT record, open items, configuration backup and release status.
| Layer | Purpose | Normal CSCMotion role | Normal customer / research-team role |
|---|---|---|---|
| Platform setup / calibration | Establish the platform zero, coordinates, feedback and approved configuration. | Supply contracted platform-side setup, checks and records. | Provide fixture, target coordinate and site conditions. |
| Platform acceptance | Demonstrate agreed platform behavior under the defined load and trajectory. | Execute the contracted FAT and record results. | Approve method, tolerance, witness and deviation handling. |
| Experimental validation | Establish that the research method, data and conclusions are valid. | Not included by default. | Own sensors, DAQ, protocol, statistics, ethics and conclusions. |
Recommended platform architectures
Choose the Product After the DIL Requirement Is Defined
These product pages explain platform construction and configuration. This application page remains responsible for the research workflow, integration, measurement and responsibility boundary.
Defined three-axis input
3DOF Motion Platform
Consider a three-axis system when the experiment can command, use and measure three approved motions without needing full six-axis pose.
View 3DOF platforms →
Coupled multi-axis motion
6DOF Motion Platform
For complete pose or coupled translation and rotation within an approved loaded workspace and dynamic profile.
View 6DOF platforms →
Custom parallel geometry
Stewart Platform
For projects requiring a custom six-actuator layout, compact parallel mechanism or application-specific mounting geometry.
View Stewart platforms →
Large moving assembly
High-Payload Platform
For heavy, tall or offset research loads that require complete mass-property, structure and foundation review.
View high-payload platforms →
Host and data interface
Motion Platform Control System
Review controller, drives, cabinet, kinematics, commands, status, I/O, safety interface and FAT scope.
View control systems →
What CSCMotion Supplies for a Research Project
The written proposal governs the project. This matrix shows the normal starting point and the items that require joint approval before manufacture and acceptance.
| System item | Typical CSCMotion scope | Typical customer / research-team scope | Normal owner |
|---|---|---|---|
| Motion platform | Contracted 3DOF/6DOF mechanism, actuators and platform-side hardware. | Upper experimental apparatus and research payload. | CSCMotion |
| Controller and cabinet | Contracted controller, drives, cabinet and platform-side motion logic. | Research host, HIL computer, facility network and external system. | CSCMotion |
| Host interface | Approved command, status, fault and example deliverables as quoted. | Host application, model, experiment sequence and data pipeline. | Shared |
| Fixture and mounting | Platform interface and selected custom engineering when contracted. | Experiment-specific fixture, DUT mounting and instrumentation access. | Shared |
| Sensors and DAQ | Internal platform feedback and contracted status data. | Independent sensors, DAQ, calibration and experiment measurements. | Customer |
| Safety | Platform limits, state control, E-stop interface and contracted protection functions. | System risk assessment, guarding, access, operating procedure and institutional approval. | Shared |
| Platform acceptance | Contracted FAT, platform records and configuration release. | Approve method, witness, tolerances, deviations and site acceptance. | Shared |
| Research outcome | Not included by default. | Experimental validity, statistics, ethics, publications and conclusions. | Customer |
| Support | Documents, commissioning, training and spare-parts scope as contracted. | Site operation, maintenance resources and complete-system support. | Shared |
Research Motion Platform Project Evidence
Use approved media that connects the research objective, moving assembly, motion input, host interface and platform-level evidence. An empty platform video is weak proof for this page.
Case structure
Moving Assembly
Permission
Independent Measurement
Asset delivery
Representative-Load FAT
Document the Platform So the Lab Can Integrate It
The exact document set is listed in the proposal. We only promise files, examples and support that apply to the approved configuration.
01 · Approved Specification
Platform, load case, motion, controller, site, interface, supply boundary and acceptance requirements.
02 · Mechanical Interface
Contracted installation, mounting, dimensions, 3D model or interface drawing and service clearances.
03 · Electrical and I/O
Power, cabinet, cables, terminals, I/O, interlocks and external responsibilities as quoted.
04 · Host Interface
Commands, status, units, coordinates, timing, states, errors, protocol and examples where included.
05 · Operation and Safety
Configuration, normal operation, limits, faults, recovery, maintenance and platform-side safety information.
06 · FAT Records
Approved checks, load and trajectory condition, measurement, results, deviations and release status.
07 · Configuration Backup
Applicable controller, drive, parameter or software configuration needed for the contracted support scope.
08 · Commissioning and Support
Remote or on-site work, training, spare-parts and service responsibilities as stated in the contract.
Answers from our engineering team
Research Motion Platform FAQ
These answers describe our normal engineering approach. The approved technical specification and written proposal define the actual platform capability and supply scope.
What is a research motion platform?
A research motion platform is a programmable multi-axis system used to apply a defined physical motion to an experimental payload, fixture or human-in-the-loop setup. Its useful specification comes from the research objective, complete moving load, required axes, combined workspace, dynamic profile, host interface, measurement method and acceptance plan.
How is a research motion platform different from a precision positioning hexapod?
Our research platforms are normally selected for repeatable dynamic motion, useful workspace, larger experimental loads and host integration. A precision positioning hexapod is selected for micro- or nanometer-level alignment, scanning or metrology. Optical, semiconductor, photonics and nanopositioning projects should use a specialist positioning system.
Can CSCMotion build a custom 3DOF or 6DOF platform for my experiment?
Yes, when the application fits our dynamic-motion and integration scope. We review the experiment, moving assembly, CG, inertia, mounting, required axes, trajectory, dynamics, duty, host interface, site and acceptance method before proposing a 3DOF, 6DOF or Stewart-platform configuration.
Can the platform replay a CSV or measured motion profile?
A recorded or scripted profile can be reviewed after its coordinate system, units, channels, timestamps, sample rate, filtering, scaling, offsets and intended physical result are defined. Send a representative file so we can assess workspace, dynamics, command handling and safe limiting.
Does the system support MATLAB or Simulink?
Integration is reviewed through the approved host interface. We confirm the controller configuration, operating environment, command path, timing, available examples and FAT method before listing MATLAB or Simulink support in a proposal. Compatibility is not assumed from a software name alone.
Talk directly with our engineering team
Plan a Research Motion Platform
You do not need to select a product model first. Send the research objective, moving assembly and one representative motion profile. We will identify the missing inputs before proposing a platform architecture.
Research question, physical input and measured response
Payload, fixture, dimensions, mass, CG and inertia
Required axes and representative motion file
Range, velocity, acceleration, frequency content and duty
Host, interface, DAQ timing, safety and acceptance method