Aircraft structural components and interior fittings

Aircraft Structural Components: Carbon fiber materials, with their core advantages of lightweight (30%-50% lighter than aluminum alloys), high strength (tensile strength 5-10 times that of steel), and corrosion resistance. It has become a key material for structural components in modern commercial and military aircraft, significantly reducing airframe weight, lowering fuel consumption, and enhancing flight performance. It increases payload capacity, extends flight range, improves toughness and durability, optimizes design, reduces the number of parts, and lowers maintenance costs. It is primarily used in core load-bearing and non-load-bearing structures such as the fuselage, wings, and tail surfaces. Interior: Components must meet fire resistance, lightweighting, and design flexibility requirements. Carbon fiber materials are increasingly applied in this field, such as seat frames, luggage racks and partitions, flooring, and decorative panels.

Engine and engine nacelle

Carbon fiber materials, with their exceptional properties including high strength, lightweight, corrosion resistance, and fatigue resistance, have become key materials for engines (especially cold-end components) and engine nacelles. They significantly reduce fuel consumption, extend component lifespan, and optimize aerodynamic efficiency. Additionally, they are suitable for engine systems requiring substantial weight reduction, such as fan casings, fan housings, fan blades, guide vanes, nose cones, engine inlets, fan cowlings, and reverse thrust nozzles.

Fairing

The fairing is a critical structural component for aircraft “aerodynamic optimization and component protection.” Based on location, it can be categorized into fuselage fairings, wing fairings, engine nacelle fairings, lightning protection fairings, and others. Carbon fiber has become the mainstream material due to its advantages of “high design flexibility and lightweight properties.”

Helicopters and Drones

Helicopters: Primarily used for main rotor blades, tail booms, and airframe structures, meeting requirements for lightweight construction, fatigue resistance, adaptability to complex environments, and optimized aerodynamic efficiency; UAVs: Primarily used for arms, airframe casings, and wings (fixed-wing UAVs), achieving lightweight design, reduced energy consumption, and extended endurance; Adapted for high maneuverability and crash resistance: Carbon fiber s high strength-to-weight ratio ensures structural rigidity while maintaining lightweight properties, and honeycomb sandwich structures provide energy-absorbing cushioning effects. Meeting stealth requirements: Carbon fiber can be combined with radar-absorbing materials to reduce RCS. Balancing cost and mass production (consumer-grade): Cost reduction and batch production achievable through “carbon fiber chopped strand mat + injection molding process.”