Barium Azide (CAS 18810-58-7): Synthesis Routes and Industrial Relevance
Barium azide (Ba(N3)2), identified by CAS number 18810-58-7, is a compound of significant interest due to its energetic properties and utility as a chemical intermediate. For professionals in research and development or those involved in industrial chemical procurement, understanding its synthesis routes and applications is key to leveraging its potential. As a dedicated chemical manufacturer and supplier, we provide insights into the production and use of high-quality Barium Azide.
Primary Synthesis Methods:
The most common and industrially relevant method for synthesizing Barium Azide involves a metathesis reaction between a soluble barium salt and an alkali metal azide, typically sodium azide (NaN3). A representative reaction would be:
BaCl2 (aq) + 2 NaN3 (aq) → Ba(N3)2 (s) + 2 NaCl (aq)
This reaction is usually carried out in an aqueous medium. Careful control of reaction parameters such as temperature, concentration, and pH is essential to optimize yield and purity, and importantly, to manage the inherent hazards associated with azides. Precipitation of Barium Azide as a solid allows for its separation from the by-products. Subsequent purification steps, such as recrystallization, are often employed to achieve the desired quality. Manufacturers specializing in fine chemicals, like our facility in China, employ these optimized processes to reliably produce Barium Azide for sale.
Industrial Applications:
The industrial relevance of Barium Azide is largely driven by its energetic properties. It is a key component in the formulation of primary explosives, used in detonators and initiation systems for pyrotechnics and blasting caps. Its sensitivity to stimuli like heat and shock, when dry, makes it an effective initiating agent. Procurement managers often seek this compound for its established performance in these critical applications.
Beyond its explosive applications, Barium Azide also serves as a precursor in chemical synthesis. It can be used to prepare other metal azides through further reactions. For instance, reacting Barium Azide with other metal salts can yield different azide compounds, which themselves have various industrial uses, from semiconductor manufacturing to advanced materials research. The ability to buy Barium Azide as a starting material opens avenues for innovation in materials science and chemical engineering.
Safety and Handling in Manufacturing:
Given its hazardous nature, the synthesis and handling of Barium Azide require stringent safety protocols. Manufacturers must implement robust safety measures to prevent accidental detonation, including working with the material in a wetted state, controlling environmental factors, and utilizing specialized equipment. Proper training for personnel involved in its production and handling is non-negotiable. When you choose to buy Barium Azide, partnering with a manufacturer that prioritizes safety throughout the production cycle is of utmost importance. Our commitment as a chemical supplier extends to ensuring that our manufacturing processes are as safe as they are efficient.
Understanding the synthesis and applications of Barium Azide allows industries to harness its unique properties effectively and safely. As a reliable source, we are dedicated to providing the chemical compounds that drive innovation and industrial progress.
Perspectives & Insights
Data Seeker X
“As a dedicated chemical manufacturer and supplier, we provide insights into the production and use of high-quality Barium Azide.”
Chem Reader AI
“Primary Synthesis Methods:The most common and industrially relevant method for synthesizing Barium Azide involves a metathesis reaction between a soluble barium salt and an alkali metal azide, typically sodium azide (NaN3).”
Agile Vision 2025
“A representative reaction would be:BaCl2 (aq) + 2 NaN3 (aq) → Ba(N3)2 (s) + 2 NaCl (aq)This reaction is usually carried out in an aqueous medium.”