Titanium Elbow Description
Titanium Elbows are pipe fittings made from high-purity titanium metal, designed to change the direction of flow within a piping system. They are available in various specifications, shapes, and angles to meet different engineering requirements.
In piping systems, elbows are essential components for redirecting flow. The most common angles are 45°, 90°, and 180°, while custom angles such as 60° can also be manufactured upon request.
Connection Methods:
Butt welding (most common)
Flanged connections
Hot melt connections
Electrofusion
Threaded connections
Socket welding
Manufacturing Processes:
Welded elbows
Stamped elbows
Mandrel-bent (pushed) elbows
Cast elbows
Butt-welded elbows
Titanium Elbow Specification
Properties
Standard
|
ASTM B363, ASME B16.9
|
Angles
|
45°, 90°, 60°, or customized
|
Material
|
Titanium, Titanium Alloy
|
Grade
|
TA1, TA2, TA9, etc.
|
Density
|
~4.51 g/cm3
|
Nominal Pressure
|
1-1.6 MPa
|
Chemical Composition (%)
Grade
|
TA1 (Commercially Pure Ti Grade 1)
|
TA2 (CP Ti Grade 2)
|
TA9 (Ti-0.2Pd)
|
Ti
|
Bal.
|
Bal.
|
Bal.
|
O
|
≤ 0.18
|
≤ 0.25
|
≤ 0.25
|
C
|
≤ 0.1
|
≤ 0.1
|
≤ 0.08
|
N
|
≤ 0.03
|
≤ 0.03
|
≤ 0.03
|
H
|
≤ 0.015
|
≤ 0.015
|
≤ 0.015
|
Fe
|
≤ 0.20
|
≤ 0.30
|
≤ 0.30
|
Pd
|
-
|
-
|
0.12-0.25
|
Other Elements
|
Each ≤ 0.1, Total ≤ 0.4
|
Each ≤ 0.1, Total ≤ 0.4
|
Each ≤ 0.1, Total ≤ 0.4
|
*The above product information is based on theoretical data. For specific requirements and detailed inquiries, please contact us.
Specification
DN
Nominal Pipe Size
|
OD at Bevel
d
|
Center to Face
|
45° Angle
|
90° Angle
|
I
|
II
|
Long Radius
|
Long Radius
|
Short Radius
|
15
|
21.3 mm (0.84″)
|
18 mm (0.71″)
|
16 mm (0.63″)
|
38 mm (1.50″)
|
-
|
50
|
60.3 mm (2.37″)
|
57 mm (2.24″)
|
35 mm (1.38″)
|
76 mm (2.99″)
|
51 mm (2.00″)
|
100
|
114.3 mm (4.50″)
|
108 mm (4.25″)
|
64 mm (2.52″)
|
152 mm (5.98″)
|
102 mm (4.02″)
|
300
|
323.8 mm (12.75″)
|
325 mm (12.80″)
|
190 mm (7.48″)
|
457 mm (17.99″)
|
305 mm (12.01″)
|
1000
|
1016 mm (40.00″)
|
1020 mm (40.16″)
|
632 mm (24.88″)
|
1524 mm (60.00″)
|
-
|
1200
|
1219 mm (47.99″)
|
1220 mm (48.03″)
|
759 mm (29.88″)
|
1829 mm (72.01″)
|
-
|
For more specifications and details, please contact us.
Titanium Elbow Applications
- Chemical industry
- Construction and infrastructure
- Water supply and drainage systems
- Petroleum and oil refining
- Light and heavy industry
- HVAC and refrigeration systems
- Sanitary and plumbing systems
- Fire protection systems
- Power generation
- Aerospace engineering
- Shipbuilding and marine engineering
Titanium Elbow Packaging
Our products are packaged in customized cartons of various sizes based on the material dimensions. Small items are securely packed in PP boxes, while larger items are placed in custom wooden crates. We ensure strict adherence to packaging customization and the use of appropriate cushioning materials to provide optimal protection during transportation.


Packaging: Carton, Wooden Box, or Customized.
Manufacturing Process
- Chemical Composition Analysis - Verified using techniques such as GDMS or XRF to ensure compliance with purity requirements.
- Mechanical Properties Testing - Includes tensile strength, yield strength, and elongation tests to assess material performance.
- Dimensional Inspection - Measures thickness, width, and length to ensure adherence to specified tolerances.
- Surface Quality Inspection - Checks for defects such as scratches, cracks, or inclusions through visual and ultrasonic examination.
- Hardness Testing - Determines material hardness to confirm uniformity and mechanical reliability.
Titanium Elbow FAQs
Q1: What is a titanium elbow?
A titanium elbow is a pipe fitting made from titanium metal, used to change the direction of flow in piping systems. It is highly resistant to corrosion and is available in various angles, such as 45°, 90°, and 180°.
Q2: What are the advantages of using titanium elbows?
- Excellent corrosion resistance, especially in seawater, acidic, and chloride-rich environments
- High strength-to-weight ratio
- Long service life and durability
- Biocompatibility (suitable for medical and pharmaceutical applications)
- Resistance to extreme temperatures and pressure
Q3: What are the common connection types for titanium elbows?
- Butt welding (most common)
- Flanged connections
- Threaded connections
- Socket weld and others depending on the system requirements
Performance Comparison Table with Competitive Products
TA1 vs TA9 vs TZM
Property
|
TA1
|
TA9
|
TZM
|
Material Type
|
Commercially pure titanium
|
Titanium-palladium alloy (enhanced corrosion resistance)
|
Titanium-Zirconium-Molybdenum Alloy
|
Main Composition
|
Ti ≥ 99.5%
|
Ti + 0.12-0.25% Pd
|
Mo + 0.4-0.6% Ti, 0.06-0.12% Zr
|
Density (g/cm³)
|
4.51
|
4.51
|
10.2
|
Tensile Strength (MPa)
|
≥ 240
|
≥ 380
|
620-900 (at high temperatures)
|
Yield Strength (MPa)
|
≥ 170
|
≥ 345
|
550-800
|
Elongation (%)
|
≥ 24
|
≥ 20
|
10-20
|
Corrosion Resistance
|
Excellent in most mildly corrosive environments
|
Outstanding, especially in chloride or reducing media
|
Moderate, poor oxidation resistance but excellent high-temperature strength
|
Operating Temperature Range
|
Up to 300°C
|
Up to 350°C
|
Over 1000°C
|
Typical Applications
|
Medical, marine, heat exchangers, aerospace
|
Chemical equipment, chlorination systems, seawater systems
|
High-temperature molds, hot zone components, nuclear & aerospace structures
|
Cost Level
|
Moderate
|
Higher
|
High
|
Related Information
- Performance Features of Titanium Pipe Fittings
- Excellent Corrosion Resistance
Titanium pipe fittings perform exceptionally well in various corrosive environments. This is because titanium quickly forms a dense and stable oxide film (TiO₂) on its surface when exposed to air or oxidizing media. This oxide layer effectively prevents further contact between corrosive substances and the titanium substrate, offering a self-protective function. For example, in the chemical industry, titanium fittings can resist strong acids like concentrated sulfuric acid and nitric acid, as well as highly corrosive media such as seawater and brine. They can reliably transport corrosive fluids over long periods, reducing the frequency of system maintenance and replacement.
- High Strength and Good Toughness
Titanium pipe fittings possess high strength, with tensile strength ranging from 300 to over 1000 MPa depending on the grade and processing method. They also offer excellent toughness, enabling them to withstand pressure, impact, and vibration without cracking easily. This combination of strength and toughness ensures reliable performance under internal fluid pressure and external forces, making them suitable for high-pressure chemical pipelines and marine engineering applications.
- Resistance to High and Low Temperatures
With a high melting point of around 1668°C, titanium maintains good performance over a wide temperature range. Although its strength may decrease with rising temperature, titanium pipe fittings still retain structural integrity and strength at moderately high temperatures (e.g., 300–400°C), making them suitable for medium-temperature heat exchange systems. At low temperatures, such as in liquefied natural gas (LNG) transportation systems, titanium fittings perform well without becoming brittle, ensuring safe operation in cryogenic environments.
Titanium pipe fittings are widely used in the medical field thanks to their excellent biocompatibility. Titanium causes minimal immune response in the human body, making it suitable for use in medical piping systems, such as artificial blood vessels and dialysis equipment. It interacts well with human tissue and fluids without causing inflammation or other adverse reactions.
With a density of approximately 4.51 g/cm³, titanium is lighter than many commonly used metals such as steel and copper. This makes titanium pipe fittings ideal for aerospace and automotive applications where weight reduction is critical. For instance, in aircraft fuel and hydraulic systems, titanium fittings can help lower the aircraft's overall weight, reducing fuel consumption and improving handling performance.
Specification
Properties
Standard
|
ASTM B363, ASME B16.9
|
Angles
|
45°, 90°, 60°, or customized
|
Material
|
Titanium, Titanium Alloy
|
Grade
|
TA1, TA2, TA9, etc.
|
Density
|
~4.51 g/cm3
|
Nominal Pressure
|
1-1.6 MPa
|
Chemical Composition (%)
Grade
|
TA1 (Commercially Pure Ti Grade 1)
|
TA2 (CP Ti Grade 2)
|
TA9 (Ti-0.2Pd)
|
Ti
|
Bal.
|
Bal.
|
Bal.
|
O
|
≤ 0.18
|
≤ 0.25
|
≤ 0.25
|
C
|
≤ 0.1
|
≤ 0.1
|
≤ 0.08
|
N
|
≤ 0.03
|
≤ 0.03
|
≤ 0.03
|
H
|
≤ 0.015
|
≤ 0.015
|
≤ 0.015
|
Fe
|
≤ 0.20
|
≤ 0.30
|
≤ 0.30
|
Pd
|
-
|
-
|
0.12-0.25
|
Other Elements
|
Each ≤ 0.1, Total ≤ 0.4
|
Each ≤ 0.1, Total ≤ 0.4
|
Each ≤ 0.1, Total ≤ 0.4
|
*The above product information is based on theoretical data. For specific requirements and detailed inquiries, please contact us.
Specification
DN
Nominal Pipe Size
|
OD at Bevel
d
|
Center to Face
|
45° Angle
|
90° Angle
|
I
|
II
|
Long Radius
|
Long Radius
|
Short Radius
|
15
|
21.3 mm (0.84″)
|
18 mm (0.71″)
|
16 mm (0.63″)
|
38 mm (1.50″)
|
-
|
50
|
60.3 mm (2.37″)
|
57 mm (2.24″)
|
35 mm (1.38″)
|
76 mm (2.99″)
|
51 mm (2.00″)
|
100
|
114.3 mm (4.50″)
|
108 mm (4.25″)
|
64 mm (2.52″)
|
152 mm (5.98″)
|
102 mm (4.02″)
|
300
|
323.8 mm (12.75″)
|
325 mm (12.80″)
|
190 mm (7.48″)
|
457 mm (17.99″)
|
305 mm (12.01″)
|
1000
|
1016 mm (40.00″)
|
1020 mm (40.16″)
|
632 mm (24.88″)
|
1524 mm (60.00″)
|
-
|
1200
|
1219 mm (47.99″)
|
1220 mm (48.03″)
|
759 mm (29.88″)
|
1829 mm (72.01″)
|
-
|
For more specifications and details, please contact us.