Gallium Trichloride

Gallium trichloride  is colorless needle-like hygroscopicity crystal and a kind of organic gallium compounds, which fume when contact with moist in air and hydrolyze. It reacts violently in air. GaCl3 is covalent minor metal salt, which is bipolymer when its gas is at about 270℃. It tend to dissolve in water and emit a lot of heat. GaCl3 also tend to dissolve in ether, benzene and other organic solvents, when dissolve in liquid ammonia, it forms ammonia complex. When temperature is less than the heating point, gallium(III) chloride tend to sublime in vacuum. Gallium metal or gallium(III) oxide is the raw material.

GaCl3 is a highly reactive compound with unique chemical properties, making it an essential material in various industrial and technological applications. Its solubility in water and organic solvents, along with its role as a gallium source, enables its use in diverses fields, ranging from electronics to catalysis and material synthesis.

Gallium Trichloride

Purity: 99.999%min

Applications

Gallium(III) chloride is catalyst for organic reactions, which is also raw material for some medicines. It get uses in electroplate liquid. GaCl₃ and CuCl₂( or Cu(NO₃)₂ ) can be raw material for synthesis of Copper-Gallium-Selenium optoelectronic films or CIGS films. It is primary material for trimethyl gallium (TMG). Gallium chloride anhydrous could be used in fibers too. GaCl3 could act as purifying agent to purify hydrocarbon impurties in chalcogenide glass. Gallium chloride is gallium source for gallium nitride by using CVD methode. Indium chloride and gallium chloride can be raw material for IGZO ink. GaCl₃ and CoCl₂.6H₂O are raw material for ZnGa₂O₄ and Co doped Zn_1-xCo_xGa₂O₄.

A primary application of gallium chloride is in the electronics industry, where it serves as a precursor for producing gallium-based semiconductors, such as gallium arsenide (GaAs) and gallium nitride (GaN). These semiconductors are integral to high-performance devices, including LEDs, laser diodes, and high-frequency transistors, driving innovations in telecommunications, optoelectronics, and energy-efficient lighting.

Gallium chloride is also widely used in catalysis. Its Lewis acid properties make it an effective catalyst in organic synthesis and polymerization reactions. It is particularly valuable in pharamaceutical research and fine chemical manufacturing, where precise and efficient chemical transformations are required.

In material science, gallium chloride is a key reagent for synthesizing gallium-containing compounds and nanomaterials. These advanced materials are used in applications such as solar cells, sensors, and high-strength alloys, contributing to advancements in energy and structural technologies.

The compound also finds use in research laboratories for studying novel gallium-based materials and their applications. Its reactivity and versatility make it an indispensable tool for exploring new chemical and physical phenomena.