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CASE STUDY

Mechanical Engineering & Production Enablement

Transitioned the client from concept-stage design to a production-ready engineering platform, enabling immediate commercialization without requiring in-house engineering capabilities.

Situation

The client lacked the internal infrastructure to execute full-stack mechanical engineering across chassis, body development, suspension geometry, and manufacturing readiness. Without a complete engineering foundation, the client would be unable to reliably produce or scale its product offerings.

Solution

Delivered a comprehensive engineering program covering the full vehicle development lifecycle, including chassis architecture, body integration, drivetrain packaging, manufacturing tooling, simulation validation, and assembly workflow optimization. The approach emphasized transferring a complete production-ready system rather than isolated design artifacts.

OUTCOMES

$1.8M avoided
internal engineering spend
12 months faster
production readiness
Prepared production
across chassis tooling
Raised repeatability
across fabrication workflows
45% faster
tooling ramp-up cycles
30% less
prototype iteration cost

Challenges

Architecture

  • Chassis design constraints
  • Body-system development gaps

Dynamics

  • Suspension geometry constraints
  • Drivetrain packaging constraints

Manufacturing

  • Production tooling gaps
  • Fabrication repeatability gaps

Solutions

01

Chassis Architecture

Chassis and frame design.

  • Designed primary structural chassis architecture
  • Optimized load paths for rigidity
  • Balanced strength and manufacturability
02

Body System Integration

Body system design and integration.

  • Integrated structural and exterior body systems
  • Ensured compatibility with chassis interfaces
  • Supported variant body configurations
03

Suspension/Drivetrain Packaging

Suspension geometry and drivetrain mounting compatibility frameworks.

  • Tuned suspension mounting geometries
  • Improved handling performance characteristics
  • Supported multiple drivetrain configurations
  • Preserved serviceability access pathways
04

Production Readiness

Manufacturing tooling design for repeatable production.

  • Designed fixtures for repeatable fabrication
  • Supported scalable production workflows
  • Selected materials for strength-to-weight balance
  • Reduced assembly variation risks
05

Validation Assembly Framework

Structural and performance simulations with assembly workflows optimized for builder environments.

  • Structured logical assembly sequences
  • Reduced specialized tooling requirements
  • Modeled chassis and load performance digitally
  • Verified safety and rigidity assumptions