Titanium couplings and nipples are essential components used in piping systems to connect, extend, or adapt pipes. Renowned for their outstanding strength, corrosion resistance, and durability, titanium fittings are widely utilized in high-performance industries such as aerospace, marine, chemical processing, and power generation. The unique properties of titanium ensure that these fittings offer long-lasting, reliable service in demanding applications. Titanium Coupling A titanium coupling is a pipe fitting used to join two pipes or tubes together. They are designed to connect the same or different diameter pipes, allowing for a seamless, leak-proof connection. Titanium couplings offer exceptional resistance to corrosion, high strength, and are lightweight, making them ideal for use in environments exposed to harsh conditions like seawater, chemical exposure, or high temperatures. Titanium Nipple A titanium nipple is a short, cylindrical pipe section that is typically threaded on both ends to allow for easy connection of pipes. It serves as an extension or connection between two other fittings or pipes, offering a secure and stable joint. Like other titanium components, titanium nipples offer the advantage of corrosion resistance, strength, and durability, making them suitable for challenging applications across various industries. Titanium Couplings and Nipples – Mechanical Specifications Material: Grade: Typically Grade 2 (commercially pure titanium) or Grade 5 (Ti-6Al-4V, titanium alloy) depending on the application requirements. Standard: ASTM B337, ASTM B348, or equivalent. Tensile Strength: Grade 2 (Pure Titanium): 35,000 – 50,000 psi (240 – 345 MPa). Grade 5 (Ti-6Al-4V): 130,000 psi (900 MPa). Yield Strength: Grade 2 (Pure Titanium): 20,000 – 40,000 psi (138 – 276 MPa). Grade 5 (Ti-6Al-4V): 120,000 psi (828 MPa). Elongation: Grade 2 (Pure Titanium): 20-25%. Grade 5 (Ti-6Al-4V): 10-15%. Hardness: Grade 2 (Pure Titanium): 170-230 HV (Vickers hardness). Grade 5 (Ti-6Al-4V): 300-400 HV (Vickers hardness). Types of Titanium Couplings: Threaded Couplings: Used to connect pipes with matching threads, providing a secure and easy-to-assemble connection. Common for low-pressure systems. Socket Weld Couplings: Welded into the socket of connecting pipes, ideal for high-pressure applications, offering a permanent, strong connection. Butt Weld Couplings: Have flared ends for welding to pipes, commonly used in high-pressure systems for a smooth and durable connection. Flanged Couplings: Connect pipes via flanges and bolts with a gasket for a high-pressure, leak-proof connection. Suitable for large-scale industrial applications. Types of Titanium Nipples: Threaded Nipples: Cylindrical pipes with male threads at both ends, used to extend or connect pipes. Easy to install and remove. Socket Weld Nipples: One end fits into a socket for welding, designed for high-pressure systems, offering a permanent and robust connection. Butt Weld Nipples: Used to connect pipes by welding, offering a seamless and high-strength connection for high-pressure systems. Reducing Nipples: Connect pipes of different diameters, allowing for transitions between pipe sizes in fluid systems. Extension Nipples: Extend the length of a pipeline, used in systems requiring adjusted pipe alignment or spacing. Hex Nipples: Have a hexagonal shape for easy tightening and installation without tools, commonly used in fluid and gas systems.

Tungsten-Copper Alloy Bars/Rods are composite materials consisting of a blend of tungsten (W) and copper (Cu), offering a unique combination of the distinct properties of both metals. These alloys are typically used in applications that require both high density, heat resistance, and good electrical or thermal conductivity. The tungsten-copper composite is particularly valued in industries where high performance is required under extreme conditions, such as aerospace, electronics, and manufacturing. Characteristics: · High Density: Tungsten copper alloys have a density that lies between pure tungsten and pure copper, making them dense and stable for applications requiring mass and weight. · Thermal Conductivity: These alloys offer superior thermal conductivity compared to pure tungsten, thanks to the copper content. This makes them ideal for heat dissipation in high-temperature environments. · Electrical Conductivity: Copper provides high electrical conductivity, so tungsten-copper alloys are often used in electrical and electronic applications where heat resistance and electrical performance are both crucial. · Strength and Hardness: Tungsten copper alloys retain much of the high-strength and heat-resistant properties of tungsten, but with improved machinability and ductility due to the copper content. The specific hardness and strength depend on the proportion of tungsten, with higher tungsten content leading to greater hardness and heat resistance. · Thermal Expansion: The addition of copper modifies the alloy's coefficient of thermal expansion, giving it better dimensional stability compared to pure tungsten, which is important in applications where precision and tight tolerances are required. Applications: · Electrical and Electronic Components: Tungsten copper alloys are widely used in the electronics industry for electrical contacts, electrical conductors, commutators, and electrode materials for arc welding. They are also used in heat sinks and power transmission components where efficient heat dissipation is essential. · Aerospace and Defense: Due to their high-density and heat-resistance properties, these alloys are used in aerospace components, including rocket nozzles, heat shields, and circuit breakers in extreme conditions. The thermal stability makes them effective in environments with significant temperature fluctuations. · Manufacturing: Tungsten copper alloy rods are used in the production of high-performance tooling, such as die-casting dies, molds, and cutting tools, where both strength and heat management are critical. · Welding and Soldering: In high-current electrical applications, these alloys are also used for welding electrodes and soldering tips, where both electrical conductivity and heat resistance are required.

A tungsten tube or pipe is a cylindrical hollow structure made from tungsten, a metal known for its exceptional hardness, high melting point, and excellent resistance to heat, corrosion, and wear. Tungsten tubes are typically created from tungsten metal or tungsten alloys and are used in a variety of industrial applications that require materials capable of withstanding extreme conditions. These tubes are commonly used in industries such as aerospace, electronics, manufacturing, and medical equipment. Tungsten tubes can be employed for purposes like radiation shielding, high-temperature environments (such as furnace components), and as structural elements in aerospace or military applications. Their high density and resistance to thermal expansion make them suitable for use in applications requiring stable and reliable performance under stress and heat. Features of Tungsten Tubes: High Temperature Resistance: Tungsten tubes can withstand extremely high temperatures without deforming or losing strength, making them suitable for high-heat environments like vacuum furnaces and aerospace applications. Corrosion and Wear Resistance: Tungsten’s natural resistance to chemical attack ensures that the tubes maintain their integrity and performance even in challenging environments. High Density: Tungsten tubes provide significant weight and mass, which makes them ideal for uses in counterweights, radiation shielding, and other applications requiring heavy, dense materials. Superior Strength: With one of the highest tensile strengths among metals, tungsten tubes maintain their form under pressure, making them durable and reliable in demanding conditions. Tungsten tubes can be precision-manufactured to various lengths, diameters, and thicknesses, with high machining capabilities that allow for customized sizes. They are often used in vacuum systems, heating elements, and components that require durability, strength, and the ability to resist wear and corrosion over long periods of use.

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6

A tungsten alloy bar is a dense, strong, and high-melting-point metal product made primarily from tungsten combined with other metals like nickel, iron, or copper. These bars are known for their exceptional durability, resistance to heat and wear, and high density, making them ideal for applications in aerospace, defence, medical devices, and manufacturing processes. Tungsten alloy rods are commonly used for radiation shielding, electrical contacts, counterweights, and as tooling components in high-stress environments. It is produced by pressing and sintering into billets, which are worked by rolling or swaging into rod. Specific length can be supplied upon request. Key Features of Tungsten Bars: High Density: Tungsten bars are extremely dense, making them ideal for applications that require weight and mass, such as counterweights and ballast. Superior Strength: Tungsten exhibits one of the highest melting points and tensile strengths of any metal, making the bars suitable for high-stress environments. Wear and Corrosion Resistance: Tungsten's resistance to corrosion and wear ensures long-lasting performance, even in harsh industrial conditions. Heat Resistance: With its high melting point, tungsten is capable of maintaining its integrity in extreme temperature environments. We also manufacture in following grades: Type Density (g/cm³) 85W-10.5Ni-4.5Fe 15.8-16.0 90W-7NI-3FE 16.9-17.1 90W-6Ni-4Fe 16.7-17.0 91W-6Ni-3FE 17.1-17.3 92W-5Ni-3FE 17.3-17.5 92.5W-5Ni-2.5Fe 17.4-17.6 93W-4 NI-3FE 17.5-17.6 93W-4.9Ni-2.1Fe 17.5-17.6 93W-5Ni-2Fe 17.5-17.6 95W-3Ni-2Fe 17.9-18.1 95W-3.5Ni-1.5Fe 17.9-18.1 96W-3Ni-1FE 18.2-18.3 97W-2Ni-1FE 18.4-18.5 98W-1Ni-1FE 18.4-18.6 90W-6Ni-4CU 17.0-17.2 93W-5Ni-2CU 17.5-17.6