Already Optimized.
Now Outperformed.
IXRA re-engineers real motorsport components for weight, strength, thermal performance, and manufacturability — designed for DMLS from the start.
Validated Against Real Motorsport Components
Ten performance-critical part classes. Real geometries, real constraints, real materials. Each re-optimized for weight, efficiency, and manufacturability.
Brake Cooling Ducts
Optimized internal flow geometry for maximum cooling efficiency with minimal mass.
54.8% weight reductionSuspension Uprights
Improved stiffness-to-weight ratio under real load cases and packaging constraints.
Cooling Manifolds
Integrated flow distribution with reduced pressure drop and consolidated part count.
Turbo / Intake Plenums
Re-engineered internal volume and runner geometry for improved flow uniformity.
Exhaust Headers / Manifolds
Thermal-aware geometry optimization for mass reduction and heat management.
Lightweight Structural Brackets
Topology-optimized mounting structures for maximum load-path efficiency.
Gearbox / Differential Housings
Structural optimization under combined thermal and mechanical loading.
Battery / Electronics Cooling Plates
Integrated thermal management with optimized channel geometry.
Aerodynamic Mounting Structures
Stiffness-optimized wing and splitter supports with minimal drag contribution.
Pedal Boxes / Driver Controls
Ergonomic and structural optimization under dynamic driver input loads.
Constraint-Driven.
Exploration-Validated.
IXRA operates on a hybrid engineering philosophy. When the problem is well-defined and manufacturability matters most, we apply constraint-driven design — getting it right the first time with physics-validated geometry that is DMLS-ready from the start.
When the problem benefits from broad search — where geometry-sensitive physics like airflow, thermal distribution, or complex load paths dominate — we deploy large-scale iterative exploration across the design space.
Most real motorsport components need both. That integration is what makes IXRA different.
Competitive Motorsport Engineering
For teams where engineering advantage is measured in grams, degrees, and milliseconds.
Formula-Level Programs
Development-driven teams optimizing every component for weight, stiffness, and thermal performance. Where the engineering budget exists to pursue measurable per-part advantage.
GT & Sports Car Racing
Production-derived platforms where packaging constraints, material regulations, and development windows define the engineering challenge. Maximum performance within tight boundaries.
Endurance Racing
Long-duration reliability demands where thermal management, fatigue life, and system-level integration matter as much as outright performance. Components that survive and perform.
From Component to Advantage
A structured engineering process. Not a black box.
Input
Component geometry, constraints, materials, and operating conditions.
Design Space
Build parametric or topological design space around the problem.
Optimize
Constraint-driven, exploration-based, or hybrid strategy applied.
Validate
FEA, thermal, and flow verification against requirements.
Deliver
Manufacturing-ready geometry, reports, and trade-off analysis.
Precision Over Promise
Validated Against Real Components
Every optimization target is based on real motorsport part classes with real geometries, real materials, and real operating constraints.
Physics-Based Process
FEA, thermal analysis, and CFD drive every design decision. No surrogate models or simplified approximations where full-fidelity matters.
DMLS-Native Outputs
Geometry is designed for additive manufacturing from the start. Build orientation, support requirements, and thermal distortion are considered during optimization, not after.
Manufacturability Review on Every Output
No geometry leaves IXRA without a manufacturability assessment. If it cannot be built, it does not ship.
Transparent Methodology
Full documentation of assumptions, constraints, solver settings, and convergence criteria. You see exactly how we arrived at the result.
Complete Engineering Deliverables
Every engagement produces a complete, actionable package. Not a report. Not a concept. A manufacturing-ready result.
Optimized Geometry
STEP and STL files, manufacturing-ready. Native CAD-compatible formats.
FEA Validation Report
Stress, displacement, and safety factor analysis with convergence verification.
DMLS Build Guide
Recommended build orientation, support strategy, and thermal considerations.
Baseline Comparison
Mass, stiffness, and performance metrics versus your original component.
Design Rationale
Engineering decisions, trade-offs, and constraint satisfaction documented.
Variant Options
Alternative design candidates where the design space permits.
Traditional Workflow vs. IXRA
Traditional Approach
- −Manual iteration with limited design variants explored
- −Design and manufacturing treated as separate concerns
- −Geometry defined first, manufacturability checked later
- −Thermal and structural analysis run independently
- −Slow iteration cycles with long feedback loops
- −Post-process fixes required for DMLS compatibility
IXRA Approach
- +Broad computational design-space exploration
- +DMLS-first integrated design and manufacturing logic
- +Manufacturability enforced from the first iteration
- +Coupled structural, thermal, and flow reasoning
- +Rapid iteration with physics in the loop
- +Manufacturing-ready outputs from the start
Submit a Component
Send us your current part geometry and operating constraints. We scope the optimization, define the engineering approach, and deliver a manufacturing-ready result. Fixed price per component.