Titanium Pipes

Standard: ASTM B337/ASME SB337, ASTM B338/ASME SB338, ASTM B861/ASME SB861, ASTM B862/ASME SB862, etc.

Grade: GR1, GR2, GR3, GR5, GR7, GR9, GR12, GR23, any other.

Specification: Outside Diameter from 6 to 273 mm. Wall Thickness from 0.5 to 22 mm

Status: New or inventory

Place Of Origin: China

Certification: ISO, API, EN 10204 3.1/3.2, ABS, BV, etc.

Packaging: Seaworthy packing

Port: Shanghai Port or any other

Shipping Method: Sea, Air, Land

Incoterm: FOB, CFR, CIF, EXW, FCA, DAP

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What is a Titanium Pipe

A titanium pipe(also known as titanium tube) is a tubular structure manufactured from titanium or titanium alloys, designed to transport fluids, gases, or other materials under specific conditions. Renowned for its exceptional strength-to-weight ratio, corrosion resistance, and biocompatibility, titanium piping is widely used in industries where performance under extreme environments is critical.

Titanium Pipe Types

  1. Based on Manufacturing Process
    • Seamless Titanium Pipes‌:
      Produced through extrusion or rotary piercing, these pipes lack welded seams, making them ideal for high-pressure, high-temperature applications such as aerospace hydraulics or chemical reactors.
    • Welded Titanium Pipes‌:
      Formed by rolling titanium sheets into cylindrical shapes and welding the seams. Cost-effective for low-pressure systems like water distribution or ventilation.
  2. Based on Material Grade
    • Commercially Pure (CP) Titanium Pipes (Grades 1–4)‌:
      Unalloyed titanium pipes with excellent corrosion resistance. Grade 2 is widely used in marine and desalination systems.
    • Titanium Alloy Pipes (e.g., Grade 5/Ti-6Al-4V)‌:
      Enhanced strength and heat resistance due to aluminum and vanadium additives. Common in aerospace structural components and medical implants.
  3. Based on Cross-Sectional Shape
    • Round Titanium Pipes‌:
      Standard cylindrical shape for general fluid or gas transport in industrial pipelines.
    • Oval/Flattened Titanium Pipes‌:
      Used in heat exchangers or confined spaces where compact design is critical.
    • Rectangular/Square Titanium Pipes‌:
      Employed in architectural frameworks or specialty equipment requiring rigidity.
    • Spiral-Welded Titanium Pipes‌:
      Fabricated by helically welding strips, suited for large-diameter applications like seawater intake systems.

What are the advantages of Titanium Pipes

  1. Superior Corrosion Resistance
    Resists saltwater, acids, chlorides, and industrial chemicals, outperforming stainless steel in harsh environments like offshore platforms or chemical plants.

  2. High Strength-to-Weight Ratio
    Combines steel-like strength with 45% less weight, ideal for aerospace, automotive, and portable systems requiring lightweight durability.

  3. Extreme Temperature Tolerance
    Maintains integrity from cryogenic (-250°C) to high-heat (600°C) conditions, suitable for LNG systems or high-temperature reactors.

  4. Biocompatibility
    Non-toxic and compatible with human tissue, widely used in medical implants, surgical tools, and pharmaceutical equipment.

  5. Non-Magnetic Properties
    Electromagnetic neutrality ensures compatibility with MRI machines, submarines, and sensitive electronic environments.

  6. Long Service Life & Low Maintenance
    Resists pitting, erosion, and degradation, reducing replacement costs and downtime in corrosive or abrasive settings.

  7. Eco-Friendly & Recyclable
    Environmentally inert and fully recyclable, aligning with sustainable manufacturing practices.

What are the disadvantages of Titanium Pipes

  1. High Cost
    Titanium is expensive to extract, refine, and process, making titanium pipes significantly pricier than steel or aluminum alternatives.

  2. Machining Challenges
    Requires specialized tools and slow cutting speeds due to titanium’s hardness and abrasiveness, increasing fabrication costs.

  3. Welding Complexity
    Sensitive to contamination during welding; demands inert gas shielding (e.g., argon) and skilled labor to avoid brittleness.

  4. Thermal Expansion Mismatch
    Higher thermal expansion coefficient than steel may cause stress in systems with fluctuating temperatures.

  5. Limited Large-Size Availability
    Producing large-diameter or thick-walled titanium pipes is technically challenging and cost-prohibitive.

  6. Low Elastic Modulus
    Less flexible than steel, making titanium pipes less suited for applications requiring bending or vibration absorption.

  7. Galvanic Corrosion Risk
    When coupled with dissimilar metals in conductive environments (e.g., seawater), titanium can accelerate corrosion in adjacent materials.

How are Titanium Pipes made

  1. Material Preparation
    • ‌Titanium Sponge Conversion‌: Raw titanium sponge (produced via the Kroll process) is melted in a vacuum arc furnace to form ingots.
    • ‌Ingot Processing‌: Ingots are forged or rolled into billets or slabs for further shaping.
  2. Seamless Pipe Production
    • ‌Extrusion‌: Billets are heated and forced through a die to create hollow tubes.
    • ‌Rotary Piercing‌: A hot billet is pierced with a mandrel to form a seamless pipe, followed by elongation and sizing.
    • ‌Cold Rolling/Drawing‌: Seamless pipes are further refined for precision dimensions and surface finish.
  3. Welded Pipe Production
    • ‌Sheet Rolling‌: Titanium plates or sheets are rolled into cylindrical shapes.
    • ‌Welding‌: Edges are joined using TIG (Tungsten Inert Gas) or laser welding under argon shielding to prevent contamination.
    • ‌Annealing‌: Post-weld heat treatment removes residual stresses and enhances ductility.
  4. Finishing Processes
    • ‌Surface Treatment‌: Pipes undergo pickling (acid cleaning) to remove oxides and passivation to improve corrosion resistance.
    • ‌Precision Machining‌: Ultrasonic testing, grinding, or polishing is applied for medical or aerospace-grade pipes.
  5. Quality Assurance
    • Non-destructive testing (ultrasonic, X-ray) ensures integrity.
    • Compliance with standards like ASTM B337 (seamless) or ASTM B862 (welded).

What is a titanium pipe used for

  1. Chemical Processing
    Handle aggressive acids, chlorides, and solvents in reactors, heat exchangers, and piping systems exposed to corrosive media.
  2. Offshore & Marine Engineering
    Resist saltwater corrosion in desalination plants, shipboard cooling systems, and subsea oil/gas pipelines.
  3. Aerospace & Aviation
    Lightweight fuel lines, hydraulic systems, and engine components for aircraft and spacecraft.
  4. Medical Applications
    Biocompatible tubing for surgical instruments, implantable devices, and pharmaceutical production equipment.
  5. Energy Sector
    Withstand high temperatures and radiation in nuclear power condensers, geothermal steam transport, and hydrogen storage systems.
  6. Oil & Gas Exploration
    Durable piping for sour (high-sulfur) well environments, deep-sea drilling rigs, and refinery processes.
  7. Environmental Technology
    Used in flue gas scrubbers, wastewater treatment, and pollution control systems due to acid resistance.
  8. High-Performance Sports
    Ultralight frames for bicycles, motorsport exhausts, and marine racing components.

Our Titanium Pipe Sizes and Materials

Outside Diameter6 to 273 mm1/8” to 10” NPS
Wall Thickness0.5 to 22 mm0.01” to 0.9”
LengthCustomized
Type of EndPlain Ends, Beveled Ends
MaterialStandard: ASTM B337/ASME SB337, ASTM B338/ASME SB338, ASTM B861/ASME SB861, ASTM B862/ASME SB862, etc.

Grade: GR1, GR2, GR3, GR5, GR7, GR9, GR12, GR23, any other.

For other customized requirements, please contact us. We can also provide titanium tube bending services.

What is the Titanium Pipe Price

Please contact our sales manager Allen@sanesteel.com

Why Choose Us

  • a 16-year titanium tube supplier in china supplier. We are experts.
  • solutions for all your needs
  • the highest product quality
  • the low lead times
  • excellent customer service

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