• What is Zirconium Nitride coating

    Zirconium Nitride (ZrN) coating, which is used in a wide range of applications in the industry,offers superior properties. This coating uses a special combination of zirconium and nitrogen and stands out for its excellent surface hardness,

  • The synthesis of zirconium nitride powders

    The synthesis of zirconium nitride powders mainly includes direct nitridation of Zr metal with nitrogen, high energy reactive ball milling (RBM), microwave plasma method, benzene-thermal method, aluminum reduction nitridation, magnesium ther

  • Zirconium nitride nanopowders production

    Zirconium nitride nanopowders were prepared by carbothermic nitridation process of powder mixture of zirconium hydroxide gel with carbon black.

  • Zirconium Nitride properties

    The room temperature resistivity of ZrN is 12.0 μΩ·cm, the temperature coefficient of resistivity is 5.6·10-8 Ω·cm/K, the superconducting transition temperature is 10.4 K, and the relaxed lattice parameter is 0.4575 nm. The hardness o

  • Application of zirconium nitride in different industries

    Zirconium nitride is a hard ceramic material similar to titanium nitride and a refractory material similar to cement. Therefore, it is used for refractory materials, cermet, and aboratory crucibles. When the physical vapor deposition coating

  • What is zirconium nitride?

    Zirconium Nitride(ZrN) is an inorganic compound with a variety of crystal structures andchanges with composition.

  • Productionof zirconium carbide

    Zirconium carbide can be fabricated in several ways. One method is carbothermic reaction of zirconia by graphite. This results in a powder. Densified ZrC can then be made by sintering the powder of ZrC at upwards of2000 °C. Hot pressing of

  • Zirconium compound

    Zirconium compounds has been widely attention over the last decades due to itsexcellent physical and chemical properties.

  • HFB2 and ZrB2 ceramics CS applications

    HfB2 and ZrB2 are of interest for thermal protection materials because of favorable thermal stability, mechanical properties, and oxidation resistance. We have made dense diboride ceramics with 2 to 20 % SiC by hot pressing at 2000C and 500

  • structural phase transition of Hafnium carbide and hafnium diboride

    Hafnium carbide and hafnium diboride melt at 3950 and 3250C, respectively. In an oxygen atmosphere, both form hafnium dioxide, which melts at about 2900C.