We specialise in high-performance polymers such as PTFE, PCTFE, FEP, PFA, ETFE, and other fluoropolymers, as well as engineering plastics and precision machined metals including stainless steel, aluminium, and titanium.
Absolutely. Our advanced CNC machining capabilities cover both polymers and metals. From PTFE components to stainless steel and aluminium parts, we deliver high precision across prototypes and large-scale production.
We supply critical components and coatings to aerospace, semiconductor, oil & gas, hydrogen energy, renewable energy, automotive, and industrial manufacturing sectors.
Yes. We support projects from single-item prototypes to thousands of production parts, using the latest CAD/CAM technology for accuracy and repeatability.
Yes, our engineering team provides design assistance and material recommendations to ensure optimal performance for your application’s temperature, pressure, and chemical requirements.
Our CNC turning capabilities range from 1mm to over 1500mm in diameter, and we can handle complex 3D milling projects with tight tolerances.
Fluoropolymers offer excellent chemical resistance, low friction, thermal stability, and electrical insulation. Ideal for demanding environments like aerospace, semiconductor, and oil & gas.
We commonly machine stainless steel, aluminium, titanium, and nickel alloys. Materials chosen for their strength, corrosion resistance, and reliability in critical applications.
We apply a range of performance coatings, including fluoropolymer, anti-corrosion, dry film lubricants, and release coatings, designed to improve wear resistance, reduce friction, and extend service life.
Yes. We have the capability to coat large and intricate aerospace and industrial components, ensuring uniform coverage and performance even on challenging geometries.
Coatings protect components from corrosion, extreme temperatures, and chemical attack - helping maintain reliability, reduce maintenance, and extend equipment life.
Our polymers and coatings offer lightweight strength, low outgassing, chemical resistance, and temperature stability. Critical for components in aircraft, satellites, and spacecraft.
We manufacture and coat seals, insulators, bearings, and structural components used by Tier 1 and OEM aerospace suppliers worldwide.
Yes, our materials and processes comply with relevant aerospace and defence standards, ensuring full traceability and consistent quality.
They provide high purity, chemical inertness, and thermal stability, making them ideal for wafer handling, chemical delivery, and gas management systems.
Our polymers and coatings are used in seals, gaskets, and components that must withstand hydrogen embrittlement, pressure extremes, and corrosion from green energy environments.
Yes, we offer both traditional fluoropolymer solutions and a developing range of PFAS-free materials designed to meet upcoming regulatory requirements while maintaining performance.
Our materials deliver exceptional resistance to high pressure, temperature, and aggressive chemicals - vital for seals, valves, and downhole components. We also have a wide range of skidway and slide bearing solutions.
Yes. Our global manufacturing network allows us to meet demanding delivery schedules while maintaining strict quality control.
We maintain unified quality systems, material traceability, and process controls at all locations to deliver consistent standards across all projects.
Polymer components can fail due to extreme temperatures, chemical exposure, mechanical stress, vibration, wear, or selecting a material that is not suitable for the operating environment.
Replacing metallic components with high-performance engineering polymers can significantly reduce weight while maintaining strength, chemical resistance, and dimensional stability.
Materials such as PTFE, PEEK, PPS, and specialised fluoropolymers are commonly used due to their temperature resistance, low friction properties, and chemical compatibility.
Custom-engineered components can be designed specifically for the application, reducing wear, improving sealing performance, and extending service life.
Many aerospace applications successfully utilise high-performance polymers as alternatives to metal, particularly where weight reduction, corrosion resistance, or friction reduction is required.
Fluorocarbon provides material selection expertise, precision machining, engineering support, and manufacturing capabilities for critical aerospace components and assemblies.
Yes. Components can be produced to customer designs or developed collaboratively with engineering teams to meet application requirements.
Seal failure is often caused by chemical attack, pressure cycling, temperature extremes, extrusion, or selecting materials that are incompatible with the operating media.
PTFE, modified PTFE compounds, PEEK, and other fluoropolymer materials are frequently selected due to their broad chemical resistance.
Selecting the correct material, optimising seal design, and working with an experienced engineering partner can significantly improve reliability and reduce maintenance intervals.
Materials must be carefully selected to manage permeation, pressure cycling, and temperature variations. PTFE, PEEK, and specialised compounds are commonly evaluated depending on operating conditions.
Polymer seats, seals, bearings, and wear components can improve sealing efficiency, reduce friction, and extend maintenance intervals.
Yes. Fluorocarbon regularly works with customers to review designs, materials, and manufacturing tolerances to improve performance and manufacturability.
Fluorocarbon can support material selection, design reviews, prototype development, and performance validation to help reduce project risk.
Semiconductor applications typically require materials with excellent chemical resistance, low particle generation, high purity, and dimensional stability.
Contamination can affect yield, product quality, and process consistency. Material selection is therefore critical for maintaining clean manufacturing environments.
Selecting materials specifically designed for aggressive chemical exposure and high-purity environments can significantly improve component life.
PPS offers excellent dimensional stability, chemical resistance, electrical insulation properties, and performance at elevated temperatures.
Fluorocarbon supplies high-performance polymer materials and precision-machined components designed for demanding semiconductor applications.
Yes. Prototype development and low-volume production can support product development and validation programmes.
Components may be exposed to UV radiation, moisture, saltwater, temperature fluctuations, wear, and long maintenance intervals.
Choosing materials with appropriate environmental resistance can reduce maintenance requirements and improve operational life.
Materials with excellent corrosion resistance, low water absorption, and high wear resistance are typically preferred.
High-performance polymers are used in seals, valve seats, bearings, and insulating components throughout hydrogen production, storage, and distribution systems.
Self-lubricating polymer bearings can reduce wear, eliminate the need for lubrication, and improve reliability in difficult-to-access locations.
Fluorocarbon provides engineering support, material expertise, and precision-manufactured components for demanding renewable energy applications.
Yes. The engineering team works closely with customers to identify suitable materials for evolving applications and operating environments.
Material selection should consider temperature, chemical exposure, pressure, wear requirements, dimensional stability, and regulatory requirements.
Common causes include incorrect material selection, excessive loading, poor alignment, contamination, and unsuitable operating conditions.
PTFE is often selected when low friction, chemical resistance, and temperature performance are primary requirements.
Custom components can improve performance, reduce assembly complexity, increase service life, and optimise overall system reliability.
In many applications, engineered polymers can reduce wear, eliminate lubrication requirements, and improve resistance to corrosion and chemicals.
Fluorocarbon combines material expertise, engineering support, machining capability, manufacturing experience, and global supply capability to help solve complex application challenges.