Aerospace and defence applications demand materials that deliver exceptional performance, reliability, and compliance in the most demanding environments
For over 50 years, Fluorocarbon has supported leading aerospace OEMs and Tier 1 suppliers with high-performance semi-finished materials and precision-engineered components used across commercial aviation, defence, and space programmes worldwide.
Key capabilities include:
Fluorocarbon supports customers from material selection through to precision manufacturing and full documentation, enabling both new programmes and the ongoing support of legacy platforms.
As an AS9100-certified supplier, we deliver the quality, traceability, and consistency required by the global aerospace industry.
Safety & Compliance
Regulated materials, controlled processes, auditable records, and full certification traceability.
Performance Under Extremes Temperature
Variation, vibration, wear, aggressive fluids – materials must not fail in service.
Weight & Efficiency
Reducing mass without compromising structural integrity or durability across the programme lifecycle.
Supply Chain Reliability
Consistent on-time delivery, single-source risk mitigation, and a supplier capable of supporting both new programmes and legacy platform.
Case Study: Supply Chain Continuity
Material obsolescence can present significant risks for aerospace and defence programmes, particularly when critical components rely on legacy materials with limited supply options.
In one recent project, Fluorocarbon partnered with an aerospace OEM to replace a discontinued TPV material used in injection moulded tube plugs. Our team identified and validated a technically equivalent alternative through a structured engineering change and qualification process, including material evaluation, customer-led validation testing, and FAIR approval.
Following successful qualification, the new material was approved as the material of record, enabling stable production and long-term supply continuity for a mission-critical component.
This project demonstrates how Fluorocarbon supports aerospace and defence customers with material innovation, qualification support, and supply chain resilience.
Aircraft interiors require materials that balance weight reduction, safety, and durability while operating across fluctuating cabin temperatures and continuous mechanical use.
Cable Management & Routing components
Airframe components must maintain dimensional stability and durability while exposed to vibration, structural loads, and environmental conditions throughout the aircraft lifecycle.
PTFE Gaskets & Sealing Solutions for aircraft environmental control systems
Precision-Machined Polymer Components for Airbus airframe assemblies
Lightweight Bearing & Wear Components for aircraft structures
Cable Protection & Routing Components for aerospace systems
Custom-Engineered Polymer Parts for OEM and MRO requirements
Maintaining seal integrity under vibration
Dimensional stability across temperature variations
Lightweight design requirements
F-LON® coating → Enhanced sealing performance
Engine and fuel system components operate in high-temperature environments with exposure to fuels, lubricants, and pressure variations.
PTFE Hose Assemblies for aerospace fluid and thermal management systems
Fuel-Compatible Sealing Components for engine and fuel system interfaces
PTFE-Lined Flow Control Components for aerospace fluid handling
Thermal Insulation & Protection Components for engine environments
Precision-Machined Polymer Components for propulsion support systems
High-Performance Gaskets for demanding aerospace operating conditions
Extreme temperature exposure
Chemical resistance to fuels and hydraulic fluids
Sealing reliability under pressure and vibration
Long-term material stability
Landing gear and actuation systems experience high loads, friction, vibration, and repeated mechanical cycles.
Components must provide reliable performance across demanding operating conditions.
PTFE Bushes & Guides for landing gear and actuation mechanisms
Wear-Resistant Collars & Bearing Components for moving assemblies
Low-Friction Components for flight control and positioning systems
Precision-Machined Polymer Parts for aerospace actuation equipment
Hydraulic System Sealing & Interface Components
Custom-Engineered Wear Solutions for high-cycle aerospace applications
Wear and friction in moving assemblies
High cyclic loading and fatigue
Dimensional stability under load
Long service life and repeatability
Defence equipment often operates in harsh and unpredictable environments, including extreme temperatures, exposure to chemicals, vibration, and mechanical shock.
Fluorocarbon materials and components support a wide range of defence systems where reliability, durability, and traceability are essential.
Valve Seats & Sealing Components for naval and military fluid systems
Bearing & Wear Components for defence vehicle suspension and actuation systems
PTFE Sealing Solutions for fuel and hydraulic equipment
Guides, Bushes & Collars for military mechanical assemblies
Low-Friction Wear Components for weapon handling and positioning systems
Precision-Machined Polymer Parts for mission-critical defence equipment
Wear and friction in moving mechanical assemblies
Exposure to fuels, hydraulic fluids, and harsh environments
Vibration and fatigue in mobile or weapon systems
Long service lifetimes and reliability in mission-critical equipment
Space systems require materials capable of performing reliably in extreme environments, including vacuum, radiation exposure, and significant temperature variation.
Case Study: Engineering Low-outgassing Coatings for Vacuum Tribology in Space Applications
A European space technology company requested a PTFE coating for aluminium components operating in vacuum conditions, where very low outgassing, stable friction behaviour, and predictable coating performance were essential to system reliability.
The combination of vacuum constraints, material pairing, and performance expectations meant a standard coating system could not be recommended
without first resolving fundamental material and process trade-offs.
The requirement set effectively eliminated conventional approaches and demanded a structured engineering evaluation.