Jiangsu Sinchao Metals Tech Co., Ltd.

Aerospace & Aviation solution

Working with landspace to write lightweight and high strength into the DNA of reusable rockets

How to ensure "Zero failure" Reliability

Simulation prediction at selection; electron beam welding ensures welds equivalent to base material; 100% non-destructive testing plus over-condition verification.
How to achieve ultimate performance/weight ratio

Integrated design reduces weight by 20%-30% at the same strength, directly increasing rocket payload.
How to conquer extreme environments

Possessing high-temperature/cryogenic/oxidation-resistant special materials and coatings; troubleshooting in advance through thermal simulation and ground testing.
How to balance reliability and commercial efficiency

Establish flexible production line quick response mechanism; follow AS9100D to ensure stable delivery and traceability.

Breaking free from structural compromises: Making UAVs more reliable and durable in harsh missions

Weight reduction causes landing gear high overload failure

TC4 Titanium alloy custom parts reduce weight by over 30%, strength ≥900MPa far exceeds aluminum, impact resistance ensures safety and lifespan
Corrosive media causes metal failure and frequent maintenance

All-titanium/special stainless steel structural parts, with dense oxide film resistant to chloride ions and chemical corrosion, achieving "Full lifecycle anti-corrosion", reducing maintenance.
Frequent takeoff and landing on uneven ground causes traditional structure fatigue failure

Anti-fatigue optimization combined with titanium alloy precision manufacturing, high toughness and stress concentration optimization, extending fatigue life under vibration impact
Special UAV missions are unique, standard parts are difficult to adapt, causing difficult modification and long cycle

One-stop titanium alloy customization: From material selection, simulation to precision forming, accelerating prototype deployment.

Our project cooperation process

01
Requirement interview & Condition diagnosis
Send a "Technical + business" Composite team for on-site survey, conduct medium corrosivity analysis, identify the most harsh corrosion, temperature, and pressure conditions.
02
Material science & Engineering solution design
Recommend optimal materials (Tantalum/Titanium/Nickel-based Alloys) based on thermodynamics and corrosion data. Preliminary mechanical and fluid design: Complete core structure calculation and process simulation
03
Solution visualization & Commercial confirmation
Provide 3D models/schematics, process descriptions, material verification reports (optional), and issue formal proposal documents including technical specifications, inspection standards, quotations, and cycles
04
Raw material precision procurement & Quality inspection
Initiate qualified supplier procurement, conduct spectral analysis and mechanical property re-verification on plates, pipes, and welding materials, ensuring material certificates match the actual items.
05
Core process & Extreme manufacturing
Execute core processes such as special welding (e.g., TIG welding), explosive cladding, and precision forming in clean room environments, and record key process parameters
06
Process quality node control
Execute welding Non-destructive testing (RT/UT/PT), dimensional inspection, pressure testing, etc., set multiple quality release points, Non-conforming products never flow to the next process. Provide special inspection institute test reports
07
Final product inspection & Factory testing
Conduct overall pressure test, quality inspection report, cleanliness check, organize completion document package (including design drawings, material certificates, inspection reports, operation manuals)
08
Professional delivery & Installation support
Provide professional packaging and transportation solutions, and dispatch engineers for on-site technical disclosure, installation guidance, and debugging support to ensure equipment positioning.
09
Continuous tracking & Knowledge iteration
Establish customer equipment files, regular follow-up visits; feed back operation data to material and design ends, form a technical closed loop for subsequent solution optimization.