PRATIXUSAUTOMOTIVE INDUSTRIALIZATIONExplore roadmap

Explore PRATIXUS3 from architecture to 3D engineering.

Explore a generic vehicle through interactive 3D visualization, automotive system architecture and engineering-grade CAD workflows. Move from the complete vehicle to assemblies, components, materials and manufacturing processes.

INTERACTIVE 3DVEHICLE SYSTEMSCAD ENGINEERINGINDUSTRIALIZATION
Photorealistic exploded vehicle view with body shell, bumpers, doors, lighting, seats, suspension and underbody assemblies
P · PRATIXUS
PRATIXUS PRATIXUS3 · ELECTRIC SUV ARCHITECTURE

Explore a real-world vehicle layout — not primitive blocks.

A refined interactive 3D concept of PRATIXUS3, a modern five-door battery-electric SUV. Select a vehicle system to explore its architecture, function, interfaces and manufacturing considerations.

PRATIXUS3 · EXPLODED CONCEPT VIEWVISUAL REFERENCE
BEV · 100% electric architecture · Interactive 3DConcept model · not OEM CAD
Drag to rotate · Scroll to zoom · Select a system on the right · Use the slider to separate assemblies
Engineering accuracy note: this is a visual concept used to explain vehicle architecture. It is not a production-ready 3D assembly, validated OEM CAD, dimensioned design or confirmed component package. Interactive GLB component isolation and STEP-based CAD integration are the next development stage.
THREE ENGINEERING LEVELS

From visual exploration to engineering definition.

LEVEL 01 · VISUALIZATION

Interactive 3D experience

Rotate, zoom, isolate vehicle systems and explore an exploded assembly in the browser.

LEVEL 02 · PRODUCT ARCHITECTURE

Systems & components

Navigate vehicle → system → sub-system → component, with function, material, process and interface information.

LEVEL 03 · CAD ENGINEERING

Parametric design & validation

Connect validated CAD assemblies, technical drawings, BOM structures, dimensions and manufacturing constraints.

PRODUCT STRUCTURE

1 vehicle, multiple levels of definition.

LEVEL 01Vehicle
Complete vehicleConfigurationEffectivity
LEVEL 02Assembly / system
Front endBody structureOpeningsRear end
LEVEL 03Sub-assembly
Bumper moduleDoor moduleSeat moduleRoof module
LEVEL 04Component
BracketSealTrimFastener
EXPLODED-VIEW GALLERY

Explore the vehicle by technical zone.

Explore realistic automotive product imagery to understand assemblies, sub-assemblies, components and interfaces; visuals are illustrative and do not reproduce confidential project drawings.

Generic front-end exploded structure

01 · Front bumper & front end

Hood, bumper, lighting, fenders and front structural interfaces.

Generic body-in-white structure

02 · Body-in-white

Roof, pillars, side structure and floor architecture.

Generic vehicle closures structure

03 · Openings

Doors, hood, tailgate, hinges, locks, seals and adjustment interfaces.

Generic rear-end structure

04 · Rear bumper & rear end

Tailgate, rear lamps, bumper, spoiler and trim interfaces.

Generic seats and equipment structure

05 · Seats & equipment

Seats, belts and representative interior/exterior equipment.

Generic underbody structure

06 · Underbody

Floor, shields, tanks and interfaces for thermal, energy and exhaust systems.

Generic upper-face structure

07 · Upper face

Roof, glazing, roof trims, antenna and associated components.

Generic complete vehicle structure

08 · Complete vehicle

High-level reading of assemblies, sub-assemblies and component interfaces.

ENGINEERING READING METHOD

From an exploded view to industrialization action.

01

Identify

Locate the assembly, sub-assembly and component. Clarify its physical and functional interfaces.

02

Define

Connect the component to its product definition, configuration, supplier scope and expected deliverables.

03

Industrialize

Translate the structure into tooling, process, control, logistics, validation and assembly requirements.

04

Control change

When a component changes, assess interfaces, affected assemblies, validation, implementation and configuration.

Publication principle. The public PRATIXUS site uses generic recreated illustrations. Internal drawings, customer identifiers, supplier data, confidential references and project-specific technical documents are not reproduced here.
QUALITY • COST • TIMING • PERFORMANCE

QCTP assesses Quality, Cost, Timing and Performance

When a change affects a component, assembly or interface, the supplier's QCTP response should identify exactly which product definition is changing. It should also state the quality and validation commitment, cost impact, and timing for samples, tooling, tests and implementation.

Q

Quality

Requirements, acceptance criteria, validation plan and supplier quality commitment.

C

Cost

Change cost, tooling or non-recurring costs, piece-price impact and agreed assumptions.

T

Timing

Lead time, samples, tooling, tests, approvals and planned implementation date.

P

Performance

Functional, technical and vehicle-level performance requirements, targets, constraints and validation evidence affected by the change.

Practical rule: before approving a supplier modification, request a documented QCTP impact assessment and explicit commitments. QCTP is also commonly referred to as QCDP in French-speaking teams.

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More training on Vehicle structure and product design

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