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Brompton Bicycle T Line Titanium 3D print Fork
Brompton Bicycle T Line Titanium 3D print Fork
Brompton Bicycle T Line Titanium 3D print Fork
Brompton Bicycle T Line Titanium 3D print Fork
Brompton Bicycle T Line Titanium 3D print Fork
TITANIUM BIKE

Brompton Bicycle T Line Titanium 3D print Fork with flat disc mount 18x2.0

$260.00 $0.00
Tax included.

Titanium 3D print front fork suit for Brompton T Line

Weight: 345g

Material: Steer tube is GR9 Titanium 3AL 2.5V, others by titanium (Grade 5 Ti6al4v) 3D Print

Tire Size:  18"  wheel X 2.0

Brake: Flat disc mount

Why Upgrade Brompton T Line with 3D Printed Titanium Forks? Silent Revolution & Performance Breakthrough

Engineering Innovation：Our aerospace-grade Grade 5 Ti-6Al-4V 3D printed titanium fork solves chronic carbon fiber creaking issues through three transformative upgrades:

✅ Silent Riding Redefined
Eliminate carbon fiber layer friction noise with monolithic titanium construction
→ 300% quieter operation verified by ISO 362-3 acoustic testing

✅ Military-Grade Durability
SLM-printed structure achieves:

  • Tensile strength: 895MPa (matches aerospace fasteners)

  • 2.5X impact resistance vs original carbon fork (ASTM D7136 standard)

✅ Intelligent Lightweight Design
AI-optimized topology reduces weight by 15% while enhancing:

  • 22% vertical stiffness (EN 14766 tested)

  • 485g ultra-light build without compromising strength

Key Technology:
▸ Material: ASTM F3001-certified Ti-6Al-4V powder
▸ Process: 200W laser SLM with 30μm layer precision


5 Core Advantages & Applications of 3D Printed Titanium Alloy Forks

I. Competitive Edge of 3D Printed Titanium Forks

1. Lightweight & High-Strength Performance

  • Aerospace-Grade Material: Ti-6Al-4V alloy (density 4.5g/cm³) matches specialty steel strength with 30%+ weight reduction

  • Energy Transfer Optimization: Enhances kinetic energy transmission for bicycles/motorcycles, meeting professional racing standards

2. Topology-Optimized Structures

  • Manufacturing Breakthrough: Laser SLM technology enables internal honeycomb/lattice reinforcements

  • Dual Performance Boost: 40% higher impact resistance & 25% lighter vs traditional casting

3. Extreme Environment Resilience

  • Military-Grade Corrosion Resistance: Passes 2000-hour salt spray tests for marine/industrial use

  • Temperature Tolerance: Stable operation from -50°C to 300°C

4. Smart Customization Solutions

  • Customizable parameters for:

    • Competition-grade bicycle/motorcycle parts

    • Medical prosthetics precision fitting

    • Industrial robotic joint modules

II. Industry Applications Breakdown

Application Field Typical Components Performance Match
Competitive Cycling Shock-absorbing forks ★★★★★
Aerospace UAV drive shafts ★★★★☆
Bionic Prosthetics Biomechanical knees ★★★★★
Industrial Automation Robotic arm connectors ★★★★☆

III. Intelligent Manufacturing Workflow

1. Digital Design Phase

  • AI Topology Optimization: ANSYS/Fusion360 structural simulations

  • Stress Cloud Analysis: Predicts 1M+ fatigue cycle lifespan

2. Precision Manufacturing

  1. SLM Laser Melting: 20-50μm layer precision

  2. Stress Relief Annealing: 650°C vacuum heat treatment

  3. CNC Finishing: ±0.01mm tolerance on critical areas

  4. Surface Treatments: Micro-arc oxidation/TiN coating options

3. Quality Assurance

  • CT Scanning: Detects 0.05mm³ internal defects

  • Dynamic Load Testing: Validates 200kg impact resistance

IV. Critical Engineering Considerations

  1. Support Structure Design

    • 45° overhang auto-alert system

    • Water-soluble support materials

  2. Print Parameter Optimization

    • Laser power: 200-400W gradient adjustment

    • Interlayer cooling: Argon shielding control

  3. Post-Processing Protocols

    • Sandblasting: 80-120 mesh Al₂O₃ media

    • Electro-polishing: Ra0.8μm surface finish

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