High quality tubes custom-manufactured for satellites, space launch vehicles and rocket engines

Space and Satellites

Space applications require high‑quality, durable tubes capable of zero maintenance in extreme environments. From rocket engines to satellite propulsion systems, our precision‑engineered tubes deliver reliable performance under severe temperature fluctuations and high‑pressure conditions, ensuring long‑term reliability in the most demanding space missions.

Where are high-precision tubes used in space and satellite applications?

At Fine Tubes, our expert engineers work closely with OEMS from concept to service to develop tubes for applications that operate in the cutting edge of space exploration including:
  • Satellite propulsion systems
  • Heat exchangers
  • Fuel and hydraulic tube for space rocket engines
  • Environmental control and life support system
  • Rocket fuel transfer
Seamless titanium tubing for satellite propulsion systems

How do lightweight, resilient alloys improve spacecraft and satellite performance?

Choosing the best alloy for your space application is key to having an optimised final product. We offer an extensive range of lightweight and corrosion resistant super alloys that enable space launch vehicles and satellites to deliver optimum performance.

High Strength-to-Weight Ratios for Miniaturisation

We have the manufacturing capability to process alloys with high strength-to-weight ratios which allows for manufacturers and designers to continue miniaturising the sizes of their applications.
Fuel and hydraulic tubing for rocket engines and space launch vehicles

What makes our precision tubes proven through decades of space exploration and space heritage?

Together with our sister business, Superior Tube, we have engineered precision tubes for the most significant milestones in space exploration for over 60 years, including:

  • 1962 – Telstar 1: Engineered cooling and radiometer tubes for the world’s first communications satellite.

  • 1964 – Mariner 4: Provided stainless steel tubing for the spacecraft’s TV cameras, capturing the first close-up images of Mars.

  • 1966 – Surveyor 1: Enabled America’s first soft landing on the Moon with tubing in the probe’s TV cameras.

  • 1968 – Apollo Program: Manufactured critical tubing for the Lunar Excursion Module (LEM) and other mission systems.

  • 1980 – NASA Space Shuttle Program: Contributed stainless steel tubing essential to the shuttle’s life support systems.

  • 2003 – Spirit and Opportunity: Our tubing flew aboard both Mars Exploration Rovers, supporting their historic missions.

  • 2020 Solar Orbiter: Enabled cutting-edge solar research with precision-engineered tubing.

  • 2023 – Next-Gen Missions: Supporting the future of space exploration and next-generation space stations with high quality tubes.



In space, repair or replacement is not possible, so tubing must operate reliably for years without intervention. This makes long-term durability and consistency essential for mission success.

Space systems face:

  • Vacuum conditions
  • Severe temperature fluctuations
  • Continuous radiation exposure
  • Long mission durations

These conditions demand materials and designs that remain stable without degradation over extended periods.

Every additional gram increases launch costs and limits payload capacity. Lightweight tubing with high strength-to-weight ratios helps:

  • Reduce launch weight
  • Improve fuel  and cost efficiency
  • Enable larger payloads or extended mission capabilities 

Tubes are essential for handling:

  • Propellant transfer
  • Pressure regulation
  • Cooling circuits

They ensure accurate and reliable movement of fluids within propulsion systems, directly impacting thrust efficiency and mission performance. 


Materials such as titanium, nickel alloys, and stainless steel are selected based on:

  • Resistance to extreme temperatures
  • Corrosion and oxidation resistance
  • Mechanical strength and stability

The correct alloy ensures long-term performance under harsh space conditions. 


High-strength, lightweight materials allow components to be made smaller without compromising performance. This supports the trend toward compact, high-performance satellite systems.

They are engineered for:

  • Consistent performance under extreme conditions
  • High resistance to fatigue and corrosion
  • Stable behaviour across temperature and pressure changes

This ensures systems function reliably for years or even decades in orbit or deep space.

Key applications include:

  • Satellite propulsion systems
  • Heat exchangers and thermal control
  • Fuel and hydraulic systems in rocket engines
  • Environmental control and life support systems 

Advanced tubing supports:

  • Higher efficiency propulsion systems
  • Lightweight and compact spacecraft design
  • Long-duration deep space missions

These capabilities are essential for next-generation space exploration and satellite technologies

Your contact
Stuart Griffiths, Product Manager - Tube 
Stuart Griffiths
Product Manager - Tube
Email link  Email
Telephone icon +44 (0)1752 876408