Wire in a wide range of alloys optimized for use in, for example, resistance, high-temperature and conductive applications. Round and flat resistance heating wire and resistance wire with bright annealed or oxidized surface, depending on size.

2024年9月5日 · Kanthal ® A-1 wire is a ferritic iron-chromium-aluminium alloy (FeCrAl alloy) for use at temperatures up to 1400°C (2550°F). The alloy is characterized by high resistivity and very good oxidation resistance.

Kanthal® is a world-leading brand for products and services in the area of industrial heating technology and resistance materials.

Kanthal ® APM Wire is an advanced powder-metallurgical, dispersion-strengthened, ferritic iron-chromium-aluminium alloy (FeCrAl alloy) for use at temperatures up to 1425°C (2600°F). The alloy is characterized by exceptionally good form stability and oxidation resistance.

2024年9月5日 · Kanthal ® AF wire is a ferritic iron-chromium-aluminium alloy (FeCrAl alloy) for use at temperatures up to 1300°C (2370°F). The alloy is characterized by excellent oxidation resistance and very good form stability resulting in long element life.

In the heart of Bethel, USA, Kanthal takes the next steps toward a greener future. An internal initiative that began at the resistance wire production facility has now become an example of how industry and electricity providers have mutual benefits from improving efficiency. Read more

Kanthal offers a variety of nickel-chromium (NiCr) alloys in wire and ribbon forms. These alloys are ideal for resistance heating applications, providing...

This ratio is listed for all wire types and wire dimensions in the handbook for ‘Resistance heating alloys and systems for industrial furnaces’, and the correct wire size can therefore easily be found from these tables.

2024年9月5日 · Kanthal ® D wire is a ferritic iron-chromium-aluminium alloy (FeCrAl alloy) for use at temperatures up to 1300°C (2370°F). The alloy is characterized by high resistivity and good oxidation resistance.

The material thickness has a direct relationship to the element life, in that, as the wire diameter is increased, more alloying element is available per surface unit to form a new oxide. Thus, at a given temperature, thicker wires will give a longer life than thinner wires.