Nickel

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Nickel

Nickel is a versatile metal that is used in a wide range of applications, including chemical processing, electronics, aerospace, and marine engineering. There are several grades of nickel, each with unique properties that make them suitable for specific applications. Here is a brief description of nickel products with grades. Nickel 200/201: Nickel 200 and Nickel 201 are commercially pure nickel alloys that are highly resistant to corrosion in various environments.

They are ductile, weldable, and have good mechanical properties. Nickel 200 is often used in chemical processing, food processing, and electronics applications, while Nickel 201 is commonly used in electronic components, aerospace, and nuclear applications. Nickel products with these grades include pipes, tubes, sheets, plates, bars, fasteners, and fittings.

Grade UNS Number Composition (%) Density (g/cm³) Melting Point (°C) Tensile Strength (MPa) Yield Strength (MPa) Elongation (%) Applications
Nickel 200 N02200 Ni ≥ 99.0 8.89 1435-1446 380-550 103-379 40-50 Chemical processing, electronics, aerospace
Nickel 201 N02201 Ni ≥ 99.0, C ≤ 0.02 8.89 1435-1446 380-550 103-379 40-50 Food processing, chemical shipping containers
Nickel 205 N02205 Ni ≥ 99.0, Fe ≤ 0.40, Cu ≤ 0.35 8.89 1435-1446 415 103 55 Electronic components, batteries
Nickel 212 N02212 Ni ≥ 99.0, C ≤ 0.15, Fe ≤ 0.35 8.89 1435-1446 400-520 140-240 40-50 Industrial applications, electrical resistance applications
Nickel 270 N02270 Ni ≥ 99.9, C ≤ 0.02, Fe ≤ 0.04 8.89 1435-1446 350-500 90-150 40-50 Superconductors, electronic applications, vacuum tubes


Nickel alloys are known for their excellent corrosion resistance due to their strong bond between the metals in the alloy. They also have great strength and toughness that makes them ideal for use in applications that require wear resistance or high temperatures. Common uses for nickel alloys include aerospace components, medical implants, marine equipment, valves and pumps, oil and gas production equipment, turbine engines, and nuclear power plant components.



EN Number Alloy Designation Composition (%) Density (g/cm³) Melting Point (°C) Tensile Strength (MPa) Yield Strength (MPa) Elongation (%) Applications
EN 2.4060 Nickel 99.2 Ni ≥ 99.2 8.90 1450-1550 340-450 150-220 30-50 Chemical processing, electronics, aerospace
EN 2.4066 Nickel 99.9 Ni ≥ 99.9 8.91 1450-1550 340-450 150-220 30-50 High-purity applications, electroplating
EN 2.4070 Nickel 200 Ni ≥ 99.0 8.90 1450-1550 345-485 150-240 30-45 Chemical processing, aerospace, electronics
EN 2.4066 Nickel 201 Ni ≥ 99.0, C ≤ 0.02 8.90 1450-1550 345-485 150-240 30-45 High-temperature applications, chemical processing
EN 2.4816 Inconel 600 Ni 72.0-78.0, Cr 14.0-17.0, Fe ≤ 6.0 8.47 1390-1410 500-825 250-450 40-50 High-temperature applications, chemical processing
EN 2.4856 Inconel 625 Ni 58.0-63.0, Cr 20.0-23.0, Mo 8.0-10.0, Nb 3.15-4.15 8.44 1290-1350 690-965 275-690 35-50 Aerospace, chemical processing, marine environments


A nickel alloy is composed of two or more metals, with one being nickel as the base metal. The other metals that often form part of an alloy may include iron (Fe), copper (Cu), manganese (Mn), chromium (Cr), molybdenum (Mo) titanium (Ti). Each different combination will result in different properties depending on the purpose it is intended to serve; this is why there are many types of nickel alloys available on the market today. For example, Hastelloy C276 contains an alloy made up mostly of nickel along with molybdenum, chromium, and tungsten, which makes it resistant to corrosion from many types of acids & chemicals.

A nickel alloy composition chart is a tool used to compare the chemical makeup of different types of nickel alloys. This chart provides information on the percentages of various elements that go into each alloy; this includes both metallic elements (such as nickel, cobalt, iron, etc.) as well as non-metallic elements (such as carbon, boron, sulfur, etc.). By comparing these percentages across different types of alloys, you can gain insight into how each one behaves differently in various conditions or applications.