Build the vehicle model
Develop detailed ADAMS/Car models with the subsystem representation and degrees of freedom needed for the intended study.
ADAMS/Car · Digitized roads · Driver events · MATLAB/Simulink
Connect the road
to the whole vehicle.
Ride comfort, handling, steering, and durability-load analysis using full-vehicle models and digitized proving-ground scenarios.
Vehicle Dynamics & Durability
What the work
can include.
Understand how road inputs, driver actions, and chassis choices interact. TwinDroid develops full-vehicle workflows that connect component motion to whole-vehicle behavior and meaningful design comparisons.
Recreate the test scenario
Build digitized roads and driver control events. Define rough-road, ride, steering, and handling maneuvers with repeatable inputs.
Correlate and interpret response
Compare relevant channels with physical test data, assess ride and handling metrics, and investigate the sources of mismatch.
Follow the durability loads
Generate suspension and body force and moment histories, document coordinate systems and duty cycles, and prepare inputs for the downstream durability workflow.
YOUR HANDOVER
Useful deliverables.
- Documented full-vehicle model and event setup
- Digitized-road and maneuver definitions
- Ride, handling, and steering comparisons
- Suspension and body load histories
- Chassis design trade-offs and recommendations
A GOOD STARTING POINT
Inputs to discuss.
- Vehicle and suspension geometry
- Mass, inertia, bushing, spring, damper, and tire data
- Road profiles and physical test measurements
- Target maneuvers, channels, and acceptance measures
HOW WE ASSESS THE RESULT
Model complexity and correlation targets are established for the project. Accuracy is reported by channel, maneuver, and metric, with a defined comparison to physical tests—not as a universal percentage.
START A CONVERSATION
Let’s scope the right first step.
Tell us about your system, the challenge, and your timeline.