Core Technology
DfAM Optimized Load-Bearing Plates
DfAM Optimized Load-Bearing Plates
TL;DR:Combining load-bearing structures with microfluidic networks through DfAM design. Weight reduced by up to 50% without sacrificing stiffness.
Limitations of Traditional Methods
Every gram of aerospace and defense equipment is extremely expensive. Traditional add-on thermal modules occupy a lot of dead weight and space.
3D Printing Solutions
Using topology optimization algorithms to generate bionic geometry, the cold plate is both a high-strength structural part and an efficient thermal module.
Core Engineering Data
Weight Reduction
40-50%
Stiffness-to-Weight Ratio
+120%
Impact Test
100 G
Materials & DfAM Specs
| Parameter | Recommended Value |
|---|---|
| Porosity Design | 10% - 90% Variable |
| Yield Strength (Ti6Al4V) | > 900 MPa |
| Applications | Radome, Wing Leading Edge, Satellite Chassis |