New products
Lutetium Disilicide Powder, LuSi2, CAS...
Lutetium Disilicide (LuSi2) Powder is a black-gray compound with high thermal stability, electrical conductivity, and magnetic properties. It is used in high-temperature electronics, thermal protection coatings, optoelectronic devices, and magnetic applications.
Dysprosium Disilicide Powder, DySi2, CAS...
Dysprosium Disilicide (DySi2) Powder features magnetic properties and superconductivity, making it useful in optics, advanced lighting, nuclear reaction control, and refining applications. Heeger Materials is a professional supplier and manufacturer of high-quality DySi2 Powder, offering customized solutions and competitive prices.
Thulium Disilicide Powder, TmSi2, CAS...
Thulium Disilicide (TmSi2) Powder is a high-hardness, high-melting-point material with excellent electrical and thermal conductivity. It is used in electronics, optics, magnetism, and catalysis. Heeger Materials is a professional supplier and manufacturer of high-quality TmSi2 Powder, offering customized solutions and competitive prices.
Holmium Disilicide Powder, HoSi2, CAS...
Holmium Disilicide (HoSi2) Powder exhibits a high melting point, excellent hardness, and strong thermal stability, making it suitable for high-temperature oxidation coatings, electrical heating elements, and integrated electrode films. It is also used as a reinforcing agent in composites, wear-resistant materials, and structural ceramics.
Erbium Disilicide Powder, ErSi2, CAS...
Erbium Disilicide (ErSi2) Powder offers excellent electrical conductivity and is used in high-temperature oxidation-resistant coatings, electric heating elements, and integrated electrode films. Heeger Materials is a professional supplier and manufacturer of high-quality ErSi2 Powder, offering customized solutions and competitive prices.
Terbium Disilicide Powder, TbSi2, CAS...
Terbium Disilicide (TbSi2) Powder exhibits diamagnetic properties, low metallic resistivity, and a low Schottky barrier, making it valuable for infrared detectors, ohmic contacts, magnetoresistive devices, thermoelectric equipment, and semiconductor applications.
Gadolinium Disilicide Powder, GdSi2 CAS...
Gadolinium Disilicide (GdSi2) Powder features good electrical conductivity and enhances material stability, heat resistance, corrosion resistance, hardness, and oxidation resistance. It is used in magnetocaloric components, magnetic refrigeration, and rare-earth fluorescent thermosensitive probe materials.
Samarium Disilicide Powder, SmSi2, CAS...
Samarium Disilicide (SmSi2) Powder is known for its high melting point, excellent oxidation resistance, and strong corrosion resistance, making it suitable for demanding applications. It is widely used in the automotive, aerospace, computing technology, radar systems, and nuclear reactors industries.
Neodymium Disilicide Powder, NdSi2, CAS...
Neodymium Disilicide (NdSi2) Powder exhibits optical properties, high thermoelectric efficiency, and excellent stability. It is widely used in optics, thermal applications, catalysts, material science, the chemical industry, and the electronics sector.
Praseodymium Disilicide Powder, PrSi2, CAS...
Praseodymium Disilicide (PrSi2) Powder is a high-density material with excellent hardness, high melting point, and stable mechanical and thermal properties. Its unique electrical and magnetic characteristics make it suitable for reactor protective coatings, electronic components, and magnetic materials.
Lanthanum Disilicide Powder, LaSi2, CAS...
Lanthanum Disilicide (LaSi2) Powder features high resistivity, low thermal expansion, and excellent thermal stability, making it suitable for use in electric heating equipment, high-temperature sensors, refractory ceramics, thermal tools, and heat-conductive materials.
Cerium Disilicide Powder, CeSi2, CAS...
Cerium Disilicide (CeSi2) Powder features high thermal conductivity and excellent mechanical properties, making it suitable for high-temperature structural materials, microelectronics, automotive exhaust treatment, energy applications, and sensor technology.
