In semiconductor manufacturing, wet process systems play a critical role in wafer cleaning, etching, and surface preparation. From acid tanks to chemical manifolds, these systems face some of the harshest material challenges: aggressive chemistries, wide temperature swings, and the need for long service life in corrosive and ultra-high-purity environments. Even trace contamination can lead to wafer scrap and lost yield.
At Fluorocarbon, we engineer and supply high-performance fluoropolymer components designed specifically to withstand these conditions, enabling fabs and tool OEMs to achieve maximum uptime, safety, and purity.
Wet processing steps are used throughout both front-end and back-end semiconductor manufacturing, ensuring surfaces remain defect-free and contamination-free before each process stage.
Common wet processes include:
These operations rely on highly aggressive acids, bases, solvents, and oxidizers. Ordinary plastics or metals fail quickly in these environments, making the right choice of material critical to tool performance and fab reliability.
Fluorocarbon offers over 500 grades of fluoropolymers, including semiconductor-grade purity levels. Common materials include:
For fabs requiring the lowest particle generation, these materials can be machined or moulded to ultra-smooth finishes that reduce contamination risk.
Our capabilities in semifinished stock, precision machining, and custom moulding support a wide range of tool and fab needs:
Fluorocarbon doesn’t just supply materials, we partner with fabs and toolmakers to optimise system performance. Our services include:
As the semiconductor industry prepares for evolving environmental regulations, Fluorocarbon is actively developing new materials and advanced composites. Our R&D is focused on balancing sustainability with the uncompromising performance fabs require.
In semiconductor manufacturing, chemical purity and reliability are non-negotiable. Fluorocarbon’s advanced fluoropolymers and engineered components help fabs extend uptime, minimise maintenance, and safeguard wafer yield.
By combining material science expertise with precision manufacturing, we deliver solutions that perform in the most aggressive wet process environments, today and into the future.
Have a challenge you need help with? Our material experts are ready to support your next project, get in touch with us today.
In oil and gas operations, where equipment runs continuously in some of the harshest environments on earth, reliability is everything.
In the oil and gas sector, sealing components operate under some of the toughest conditions on earth.
The oil and gas industry operates at the intersection of extreme loads, harsh environments and zero-tolerance for failure.
Renewable energy infrastructure must endure some of the harshest conditions on Earth. Offshore wind farms face relentless salt spray, extreme temperature shifts, and high mechanical loads.
The global energy landscape is evolving rapidly. Hydrogen, solar, and wind energy are no longer niche technologies, they are central to achieving a cleaner, more sustainable future.
The global shift toward hydrogen as a clean energy source brings exciting opportunities and equally demanding engineering challenges.
As the world accelerates toward cleaner energy, hydrogen has emerged as a key player in the global transition.
In the aerospace industry, reliability is non-negotiable.
The aerospace industry demands materials and components that can withstand extreme conditions while delivering reliability, efficiency, and safety.
The aerospace industry is evolving at a rapid pace. From reusable spacecraft to ever-smaller, high-performance satellites, the demands placed on materials have never been greater.
When it comes to aerospace engineering, every gram counts. Whether in the skies or beyond Earth’s atmosphere, weight reduction, durability, and reliability are mission-critical.
The semiconductor industry relies on some of the most advanced technologies in the world to create the tiny, complex circuits that power everything from smartphones to satellites.
In aerospace engineering, where every gram matters and reliability is non-negotiable, material selection can mean the difference between flight and failure.
In high-stakes industries such as oil and gas, renewable energy, semiconductor, and aerospace, the choice of material isn’t just a technical decision, it’s a business-critical one.
As the demand for smaller, faster, and more powerful electronic devices continues to grow, the semiconductor industry constantly seeks more precise, efficient, and contamination-free manufacturing techniques.
As the world accelerates toward decarbonisation, hydrogen is emerging as a critical enabler of the clean energy transition.
In the precision-driven world of semiconductor fabrication, material performance is critical.
High-performance plastics are widely used in the semiconductor industry due to their excellent thermal stability, electrical insulation, chemical resistance, and mechanical strength.
At Fluorocarbon, we supply critical components used in sophisticated chip-processing equipment to Semicon OEM’s across the world.
PTFE (also referred to as Teflon), is known for its exceptional resistance to chemicals and high temperatures, making it an ideal choice for sealing applications in harsh environments.
PTFE (also referred to as Teflon), is extremely resistant to the elements.
Polytetrafluoroethylene, PTFE, or Teflon® as it is often referred to, is a tough, ductile material with excellent thermal properties and outstanding resistance to chemicals and the passage of electric current. PTFE has an exceptionally low coefficient of friction, believed to be lower than any other solid.
PFA was invented in 1938 by DuPont as a melt processable version of PTFE and is sold under the Teflon brand name. PFA is a co-polymer product of PTFE.
Cryogenic sealing involving liquid nitrogen can be quite challenging, but certainly not impossible thanks to materials such as PCTFE that offer good thermal stability, good chemical resistance, very good physical properties.
When machining PTFE it’s essential to design your application with PTFE’s inherent properties in mind, it can be difficult to achieve tight machining tolerances. At Fluorocarbon, we utilise our in house compression moulding capabilities to create stock shapes for efficient machining of custom PTFE parts.
Fluoropolymers share several unique properties which make them suitable for use in the automotive, aerospace, oil and gas and medical industries. PTFE, PFA and FEP are the most well-known and common fluoroplastics. So what, exactly, are their differences?
High-Performance Plastic are distinguished primarily by their temperature stability, but also their mechanical properties.
The difference between PTFE and PCTFE is mainly in the chemical structure. The addition of one Chlorine atom in place of one Fluorine atom leads to a massive change in its properties and application.
PTFE is a tough, non-stick, low friction material. Because of its flexibility PTFE can creep and deform under heavy loads but this can be alleviated by adding filler.
What are the benefits of using fillers in PTFE?PTFE is a tough, non-stick, low friction material.
Fluoroglide® Slide Bearings are superior to conventional expansion plates, rollers and rocker arms, because they accommodate expansion and contraction, as well as other reciprocating motions of thermal, seismic or differential…
What is PFA coating? PFA – perfluoroalkoxy - is a co-polymer product of PTFE. The key advantage of PFA is its melt processability.
What is PTFE coating? PTFE (Polytetrafluoroethylene), the original fluoropolymer, is a tough yet flexible, material with great electrically insulating properties and excellent resistance to chemicals; it has one of the lowest coefficients of friction of any solid.…
High-Performance Plastic, High-Temperature Plastic, High-Performance Thermoplastic, High-Performance Polymer…However you refer to this range of materials, what makes them different to other types of plastic?
PVDF is a tough, stable fluoropolymer with distinct engineering advantages. Discovered in 1969 by Dr Heijji Kawai, PVDF has a good performance to cost ratio.
PCTFE was discovered in 1934 by Fritz Schloffer and Otto Scherer who worked at IG Farben.
Generally, PTFE is a tough, flexible, non-resilient material of average tensile strength but with great thermal properties and excellent resistance to chemicals and passage of electric current.