Placement Defines Mechanics
By precisely controlling fiber placement paths and angles, we define mechanical properties at the design stage — not replacing materials, redefining them
Core Technology Advantages
Design Capability + Process Equipment + Validation Data — a tripartite closed loop where mechanical properties are not inherent material attributes, but direct results of design inputs
AI-Assisted Design
Design
Starting from mechanical requirements, AI drives rapid optimization of layup solutions, precisely translating performance targets into fiber angle, path, and layer sequence parameters — the first step where design becomes manufacturing
Precision AFP Placement
Lay
Every fiber bundle's angle is programmable with ±0.5° precision; placement along preset trajectories with equal accuracy on complex surfaces — where fibers are placed and at what angle determines the load-bearing capacity in every direction
Compression Molding & Densification
Form
Preforms undergo melting and shaping at 270°C+ with precisely controlled pressure curves, achieving both densification and interfacial bonding — the remeltable nature of thermoplastic resins ensures every molding process is traceable and reproducible
Rigorous Inspection
Verify
Test data is benchmarked against design models, deviations feed back into layup parameters to drive next-round optimization — inspection is not the endpoint, but a critical link in the design-process-performance convergence loop
Dual Product Lines
UAV Structural Components · High-Performance Sports Parts · Medical Rehabilitation Devices
Compact Closed Revolving Bodies
Fuselage shells and revolving body structures: AFP precisely winds and places fibers on mandrels to form closed-surface structures. From tubes to missiles, placement is forming — providing integrated molding solutions for UAVs
High-Performance Motion Components
Fibers precisely placed along load transfer paths — rigid where stiffness is needed, elastic where flexibility is required — covering three domains: UAV structures, high-performance sports equipment, and medical rehabilitation devices
Complete Process Chain
AI-Assisted Design → Simulation Verification → Compression Molding → Rigorous Inspection
AI-Assisted Design
Simulation Verification
Compression Molding
Rigorous Inspection
Company Strength
Authorized Patents
Registered Capital
National Tech-based SME
Professional R&D Team
Application Scenarios
From UAVs to high-performance sports equipment, from industrial applications to medical rehabilitation — PDM methodology drives high-performance composite structures across multiple domains
Ton-Class Cargo Aircraft
eVTOL
Defense & Military
Sports Equipment
