P4.4 / THE CURRENT DRIVING MODEL

Could this car
beat the Chiron
benchmark?

Air through the body. Pressure under the floor.
One finite power account, from launch to stop.

Theoretical targets · Physical measurements: 0

Petrol-blue CryoPulse luxury hypercar styling concept with twin through-flow intakes
Styling concept · Vehicle not built

ONE SELECTED CONFIGURATION

The complete run.
The complete account.

__STATUS__

__SCORES__
Conditional projections, compared with published original Chiron figures.

Same fitted effective engine curve; additional precharged electrical assistance. The model includes __MASS__ kg, a 16 MJ chemical / 12.8 MJ DC exchange window, a source-derived 500 A continuous-current drive envelope and unqualified aerodynamic, tyre and installed-fan targets.

One saved launch and stop km/h

4002000012243648Time from launch (s)
Saved CryoPulse model Published Chiron landmarks

Only the CryoPulse line is a calculated trace. The reference markers are published landmarks, with no invented Chiron trajectory between them.

EVERY INTERVAL

__TABLE__
EventChiron
Published
CryoPulse
Conditional

The selected model is slower over 0–200 and 0–300 km/h. A projected improvement in one interval does not establish improvement in every interval or statistical significance.

ACTUAL LAYOUT CAD

The wheels turn.
The doors open.
The air has a route.

The front machine bank, straight floor feeds and raised pack now fit the declared protected-duct and cabin allocations. The geometry remains a developing layout.

Actual checked layout CAD showing the protected passages, front floor bank, under-cabin battery and rear propulsion allocation
Actual CAD · The selected driving view excludes the separate cold research hardware.
22 mmFeed / protected-duct clearance
30 mmPack mounting-height change
96Declared moving-wheel checks
0.40 m³Upstream air-volume budget

The STEP and GLB contain dimensional layout solids and component allocations. Supplier powertrain geometry, rib joints, complete chassis/crash structure, occupant accommodation and service paths remain unqualified. Schematic airflow animation is not CFD.

THE MAIN BATTERY ACCOUNT

Useful work.
Counted losses.

Motor torque follows current and loaded voltage. Blowers, startup, controls and wheel assistance draw from the same finite stores; recovery is credited once.

—MJ net chemical energy drawn
Preparation + launch + braking

The net DC term already includes accepted recovery. A separate finite low-voltage reserve pays additional control loads. The 3% pack-to-bus loss is a declared budget; installed electrical and thermal maps require measurement.

SUPPLY

16 MJ chemical / 12.8 MJ DC

A declared exchange window from the precharged 216s9p pack. It is larger than the previous P4.3 event window; no same-total-energy claim is made against the Chiron.

DRIVE

500 A continuous-current envelope

The manufacturer's motor grid and inverter rating constrain wheel assistance. Voltage scaling is approximate; installed motor and cooling capability still need qualification.

FLOOR

Finite pressure and rotor speed

The model carries cavity mass, air availability and rotor energy through preparation, launch and braking. Requested floor load takes time and power to arrive.

SAME FITTED ENGINE / NO SPEED LIMITER IN THE MODEL

A separate
top-speed question.

A reserve-battery event has its own slower launch. Its temporary assisted peak cannot be combined with the fastest sprint or a fresh store at 400 km/h.

ENGINE PROPULSION / POWER BALANCE__EQUILIBRIUM__ km/h

Scalar equilibrium with passive through-flow, current mass and the external drag target.

RESERVE-BATTERY / TEMPORARY PEAK__TOP_SPEED__ km/h

Finite late wheel assistance, with the source-derived continuous-current envelope and carried stores.

Unrestricted CryoPulse calculations are not matched to an unrestricted Chiron test. The original Chiron's published road-use limit is 420 km/h; the Super Sport 300+ achieved 490.484 km/h in its record run. No claim here exceeds that record. Engine extrapolation, gearing, tyres, cooling and high-speed stability remain unqualified.

Inspect every speed policy and its energy use ↗

THE NEXT PHYSICAL EXPERIMENT / CF-1.1

Put the cold-flow idea
on a bench.

The selected driving build excludes the heavier nitrogen-stage research option. The cooling mechanism gets a direct, controlled experiment of its own.

Actual exploded CAD of the copper cold-flow coupon with four probes, two cold-plate allocations and gentle adapters
Dimensioned CAD · Unbuilt · Laboratory fabrication review is next
20°C → 0°CSame channel. Same pressure head.

Four wall probes and a fixed twelve-pair schedule compare warm and cold conditions. Flow, cooling duty and electrical input stay separate.

The independent 1D reference predicts a flow increase under its declared heat-transfer and loss assumptions. Resolved CFD remains under numerical review. Neither is a physical result.

Open the visual laboratory ↗Download the bench design ↘

REPRODUCIBLE COMPUTATION / ZERO HARDWARE MEASUREMENTS

Open the result.
Inspect the assumptions.

The source package freezes the selected configuration, its inputs, calculations, failed checks and corrections. Numerical agreement is kept separate from physical validation.

__TEST_CARDS__

A fitted reference model and passing sampled cases do not prove a measured advantage over a Bugatti, estimate a failure probability or certify a safe vehicle. Reported projected differences remain conditional.

THE REMAINING ENGINEERING

The car is still
a research programme.

The bench design gives the cooling question a path to measurement. The whole vehicle still has digital design and hardware-qualification work to complete.

01 / AERODYNAMICS

Earn the drag target.

Qualified moving-ground whole-car CFD, duct/exterior interaction and wind-tunnel measurements. The 0.65 m² external target is not an achieved coefficient.

02 / AIR MACHINERY

Measure the installed maps.

Rotor pressure/flow, efficiency, road-seal leakage, startup, containment and cooling across the working range.

03 / TYRES + REFERENCE

Qualify load and grip.

Supplier tyre load/speed/slip behaviour, an independently validated reference and matched road conditions.

04 / ELECTRICAL + THERMAL

Qualify the working window.

Actual cell OCV/resistance, pack temperatures, complete motor maps, cooling and repeated-run duty.

05 / STRUCTURE + PACKAGING

Complete the receiving vehicle.

Powertrain supplier CAD, laminate/rib joints, full chassis load paths, crash structures, service access and occupant accommodation.

06 / CONTROLS + HIGH SPEED

Test beyond the scalar model.

Full multibody and aero stability, sensor faults, actuator dynamics and hardware-in-the-loop before a physical vehicle test.

ENGINEERING REVIEW + LABORATORY PARTNERS

Help measure
the next step.

contact@genyra.com ↗
Actual layout CAD · Unbuilt