__CASES__ ROAD / FAULT CASES
Control through the stop.
Dry and low grip, unequal left/right grip, wind, port loss and upper-motor loss. Each run checks lane position, heading, suspension travel and finite resources.
P4 / SYSTEM INTEGRATION
Every part has to work together.
The ducts, fans, wheels, brakes and energy stores share one vehicle. This revision brings their mass, motion and power demand into the same acceleration–braking event.
Conditional theoretical results. Physical measurements: 0.__RESULT_SCOPE__ A passed calculation is a result for the stated model and requirements. It does not establish that an installed vehicle meets them.
THE CONTINUOUS EVENT
From launch to a complete stop.
No fresh battery at the braking point. Wheel speed, suspension motion, pack temperature, stored energy and cold resources carry through the event.
0–100 km/h__T100__ s
0–400 km/h__T400__ s
400–0 km/h__STOP__ m
Model mass__MASS__ kg
__RESULT_DETAIL__
TIMESTEP CHECK
Repeat at half the step.
__STEP_DETAIL__
ENERGY ACCOUNTING
Keep the losses.
Cell heating, converter loss, actuator draw, tyre slip and friction-brake work remain in the ledgers. The cold loop receives an explicit prepared coolant supply.
CONTROLLED CAMBER / A DEFINED LOAD PATH
Move the carriage. Keep the arms fixed.
A dedicated hydraulic circuit adjusts the upper wishbone's inboard carriage. A separate commanded link corrects toe. The wheel-brake hydraulic circuit stays independent.
A projection of the sampled 3D linkage. Steering and shaft readouts come from the spatial solution. This drawing is not a stress analysis.
- Upper carriage movement
- Steering-link length
- Driveshaft length
- Larger CV angle
891 SPATIAL POSES
The linkage closes.
±85 mm heave, −4° to +1° camber and ±8° toe. Fixed arm lengths, upright geometry, wheel height and spindle orientation close to numerical precision.
Required carriage travel: 26.6 mm. Required steering-link travel: 43.7 mm.
15 MPa WORKING SUPPLY
Size the movement.
The stated 6 kNm camber and 600 Nm steering loads require at most 12.49 MPa. A 30 MPa component rating gives a calculated force margin above 2.4.
The simultaneous motion test stays within 35 L/min and the 20 kW motor limit. Peak pump draw is charged while moving.
SAMPLED PACKAGING
Make room for it.
__CLEARANCE_DETAIL__
These are rigid component envelopes. Detailed joints, hoses, tyre growth, compliance and manufactured-part strength remain qualification work.
AIR THROUGH THE VEHICLE
The route has to clear the hardware.
The revised ducts move inward around the suspension mounts and carriage guides. The door area remains between the 1.9 m and 2.9 m stations.
FINITE COLD RESOURCES
Account for the preparation, too.
The pressure loop uses stored cold and heat from warmer air. The calculation tracks the coolant consumed before driving and throughout the event.
PRECOOLING MODEL
Start from ambient.
The specified metal masses and heat-transfer targets need __COOL_S__ s of regulated precooling. The model removes __COOL_KJ__ kJ and consumes __PREP_KG__ kg of the initial 6 kg coolant supply.
SAME EVENT
Carry the resource state.
__COLD_EVENT__ No coolant-boiloff mass reduction is credited to acceleration or braking.
EXTERNAL ENERGY INPUT
No free-energy credit.
The reversible preparation floor for 6 kg of liquid nitrogen is 4.45 MJ; practical preparation needs more. The loop's heat exchangers, efficiencies and machine maps remain design requirements.
OPEN CALCULATIONS / CONTINUING DEVELOPMENT
Inspect what changed.
This is one stage of a larger CryoPulse programme. Earlier releases remain available with their original assumptions. New body forces and new component models receive their own records.
__PROOF_LINKS__
A theoretical prototype and a test programme. No physical vehicle, tyre-force, high-speed airflow or cryogenic performance measurement has been made.