Description
Specifications Table
Product Name – Gallium, 99.9999%, (trace metal basis)
Quantity/Pack Size – 1GR, 5GR, 25GR
Form – Solid (low-melting metal)
Grade – 99.9999% (trace metal basis)
Application – Semiconductor research, thermal management, analytical standards
Product Overview
Gallium, with a purity of 99.9999% (trace metal basis), is a high-performance metal designed for demanding laboratory applications. This ultra-pure form ensures minimal impurities, making it ideal for precision research where contamination could compromise results. Gallium is renowned for its low melting point (29.76°C), allowing it to remain in liquid form at near-room temperatures, which is advantageous for thermal management and semiconductor applications. Its excellent electrical conductivity and resistance to oxidation further enhance its utility in advanced materials science and electronics testing. The metal is supplied in solid form, ensuring stability during storage and handling. Researchers and engineers rely on this grade for its consistency, as even trace impurities can significantly impact experimental outcomes. Whether used as a dopant, thermal interface material, or calibration standard, this gallium variant delivers unmatched reliability for high-stakes laboratory work.
FAQs
1. What is the melting point of this gallium grade?
The melting point of this 99.9999% pure gallium is 29.76°C, allowing it to liquefy slightly above room temperature.
2. Can this gallium be used for semiconductor doping?
Yes, the 99.9999% purity makes it suitable for semiconductor applications where precise doping is required.
3. How should this gallium be stored to prevent oxidation?
Store in a tightly sealed container under an inert atmosphere, such as argon or nitrogen, to minimize exposure to oxygen.
4. Is this gallium compatible with glass containers?
Gallium can adhere to glass surfaces, so it is recommended to use plastic or PTFE-coated containers for long-term storage.
5. What alternatives exist for high-purity gallium applications?
Indium and tin are common alternatives, though they differ in melting points and conductivity properties.
