Laser Cutting Aluminum Alloy
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Laser Cutting Aluminum Alloy

Crafted using fiber laser cutting systems with adaptive beam control, these aluminum alloy components (grades AA5052-H32 and AA6061-T6) are designed for industries requiring lightweight yet high-strength solutions, including aerospace, automotive electrification, and thermal management systems....
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Product Introduction

Crafted using fiber laser cutting systems with adaptive beam control, these aluminum alloy components (grades AA5052-H32 and AA6061-T6) are designed for industries requiring lightweight yet high-strength solutions, including aerospace, automotive electrification, and thermal management systems. The laser cutting process operates at 6kW peak power with nitrogen assist gas, achieving cutting speeds up to 25m/min for 10mm thick plates while maintaining a kerf width of 0.2mm±0.03mm. This precision ensures minimal heat input (HAZ <0.8mm), preserving the alloy's temper state and preventing intergranular corrosion susceptibility.

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Drawing Design & Confirm

 

Get drawings from customers, or design drawings according to customers' detail requests or sample.
The two parties confirm the details of the drawings and product raw materials, surface treatment, etc.

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Price & Order

 

Quote and confirm order quantity, specify all the details including trade terms, payment terms, type of package, etc.

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Tooling Design & Manufacturing

 

Design and Make tooling according to the confirmed drawing, do the modification if needed while testing.

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Production Process Design

 

Carry out technical assessment and analysis on product structure, design production process, and ensure the feasibility of the process.

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Sample Approval

 

Make first samples and inspect them according to the drawing strictly.

Send to the customer for approval after internal approval.

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Technical Superiority

 

Microstructural Integrity: Dynamic beam oscillation technology reduces dross formation, achieving surface roughness Ra ≤2.0μm (per ISO 4287), eliminating post-cut deburring.
Dimensional Compliance: ±0.15mm positional accuracy across 2,500×1,250mm cutting beds (verified per ISO 9013:2017), critical for battery tray fabrication in EV platforms.
Stress Management: Residual stress levels below 120MPa (measured via XRD) enable direct use in load-bearing aircraft brackets without stress-relief annealing.
Performance-Driven Applications
Aerospace: Landing gear components with 15%-20% weight reduction versus steel counterparts, maintaining 320MPa ultimate tensile strength.
EV Thermal Systems: Laser-cut cooling plates demonstrating 40% improved heat dissipation in 800V battery packs under UN38.3 testing.
5G Infrastructure: RF shielding enclosures with EMI attenuation >65dB at 40GHz, enabled by airtight laser-welded seams.
Validated Results
Reduced cycle time by 28% for a satellite manufacturer through nested cutting of 5083-O alloy feedhorns (batch consistency Cpk≥1.67).
Achieved 99.3% first-pass yield in automotive lidar bracket production (AlMg4.5Mn0.7), overcoming traditional stamping springback issues.
Next-Gen Development
Hybrid laser-arc additive manufacturing for topology-optimized engine mounts (target density: 2.68g/cm³, UTS: 380MPa).
AI-powered predictive kerf compensation for multi-alloy nested cutting (Al/Cu/Steel combinations).
Graphene-enhanced anodization (MIL-A-8625 Type III compliant) for maritime radar components with 10,000hr salt fog resistance.

 

Key Differentiation

 
Material-Specific Parameter Libraries: Pre-optimized cutting recipes for 27 aluminum grades
IoT-Enabled Quality Tracking: Real-time monitoring of cut edge angularity (<0.5° deviation)
Sustainable Processing: 100% argon gas recovery systems reducing operational costs by 35%
This technical specification-driven approach ensures compliance with AS9100D (aerospace), IATF 16949 (automotive), and IPC-6012E (electronics) standards, positioning these components as mission-critical solutions for next-generation industrial challenges.

 

FAQ

 

Q: How Can L Get A Sample?
A: We Can Provide Free Samples To Start The Project If Final Mass Order Qty Is More Than 200 Sets.

 

Q: What's The Lead Time For A Sample And For Mass Production?
A: 5 Days Lead Time For Samples, If A Tooling Needed, May Be 10-15 Days At Most. For Mass Production, Lead Time 15-30days According To Demand Qty.

 

Q: What Trade Terms You Can Offer?
A: We Can Offer You Whatever Terms Convenient For You Such As EXW, FOB. CIF. CFR Etc.

 

Q: Can You Produce Part According To My Sample On Hand? I Don't Have Part Drawing
A: Yes, We Are OEM/ODM Manufacturer, We Can Design The Part According To Your Sample, No Extra Design Cost Needed.

 

Q: Can You Assemble Some Electronic Parts We Provide To You On The Metal Enclosure We Buy From You?
A: Yes, We Can Do Assembly Work On The Metal Products We Supply To You.

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