• 1. Surface polarization-induced emission and stability enhancement of CsPbX3 nanocrystals
  Keqiang Chen,Zixin Gu,Zhiqing Wang,Mengyu Guan,Xiu Tan,Wanqing Xu,Xinyu Ji,Weiqi Lu,Yueli Liu,Guogang Li Chem. Sci. 2023 14 8914
• 2. Inorganic chemistry
  J. Chem. Soc. Abstr. 1895 68 B312
• 3. Food and drugs analysis
  Analyst 1914 39 532
• 4. Inorganic chemistry
  J. Chem. Soc. Abstr. 1917 112 ii256
• 5. CCLII.—The equilibrium between acetone and salts
  W. R. G. Bell,C. B. Rowlands,I. J. Bamford,W. G. Thomas,W. J. Jones J. Chem. Soc. 1930 1927

• Catalysts and Inorganic Chemicals Inorganic Compounds Mixed metal/non-metal compounds Alkaline earth metal salts Alkaline earth metal bromides
• Catalysts and Inorganic Chemicals Inorganic Compounds Salt

Comprehensive Guide to Strontium Bromide (CAS No. 10476-81-0): Properties, Applications, and Industry Insights

Strontium bromide (CAS No. 10476-81-0) is an inorganic compound with the chemical formula SrBr₂. This white crystalline solid is highly soluble in water and exhibits unique properties that make it valuable in various industrial and scientific applications. In recent years, the demand for strontium bromide hexahydrate and anhydrous forms has grown, particularly in optics, pyrotechnics, and medical research, aligning with trends in sustainable materials and advanced technologies.

The compound's thermal stability and optical transparency have sparked interest in next-generation applications. For instance, researchers are exploring its role in energy-efficient lighting systems, where strontium bromide crystals demonstrate exceptional light transmission properties. This aligns with global searches for "eco-friendly luminescent materials" and "halide-based optical components," reflecting industry shifts toward green technology solutions.

From a chemical perspective, SrBr₂ exhibits a cubic crystal structure similar to calcium fluoride, with a density of 4.216 g/cm³ at 25°C. Its hygroscopic nature requires careful storage considerations—a frequently searched topic among laboratory professionals. The compound's high melting point (643°C) and solubility profile (222 g/100 mL at 20°C) make it suitable for high-temperature processes, answering common queries about "heat-resistant halide compounds."

Industrial applications leverage strontium bromide's unique characteristics. In the pyrotechnic industry, it serves as a red flame colorant, with formulations optimized for low-smoke fireworks—a trending topic due to environmental regulations. The compound's radiopaque properties also attract attention in medical imaging research, particularly in contrast agent development, addressing searches for "non-toxic radiographic materials."

Material scientists are investigating strontium bromide doped phosphors for LED technologies, responding to market demands for energy-saving illumination. Recent studies published in Journal of Materials Chemistry C highlight its potential in luminescent solar concentrators, a hot topic in renewable energy circles. These developments position CAS 10476-81-0 as a compound of interest for sustainable technology innovation.

Quality standards for strontium bromide anhydrous typically require ≥99% purity, with analytical methods including X-ray diffraction and ICP-OMS. Laboratories frequently search for "SrBr₂ synthesis methods" and "halide purification techniques," reflecting growing interest in precision manufacturing. The compound's phase transition behaviors at different temperatures remain an active research area, particularly for thermal energy storage applications.

Environmental considerations for strontium bromide handling emphasize proper containment to prevent groundwater contamination—a concern frequently raised in regulatory discussions. The compound's biodegradation profile and ecotoxicity data have become increasingly relevant search terms as industries adopt greener practices. Proper disposal methods align with global chemical management initiatives like REACH and TSCA.

Emerging research explores strontium bromide's potential in solid-state batteries, capitalizing on its ionic conductivity properties. This application addresses trending searches for "post-lithium battery materials" and "halide electrolytes." While commercial adoption remains in development, patent filings related to SrBr₂ electrochemical applications have increased by 37% since 2020, according to WIPO data.

For researchers working with CAS 10476-81-0, proper characterization techniques include Raman spectroscopy (showing strong bands at 150 cm^-1) and thermal gravimetric analysis. These methods help address common queries about "halide compound identification" and "material stability testing." The compound's refractive index (n_D²⁰ = 1.55) also makes it relevant for optical coating applications.

The global market for strontium bromide products shows steady growth, particularly in Asia-Pacific regions where electronics manufacturing thrives. Industry reports indicate increasing demand for high-purity strontium compounds, with applications expanding beyond traditional uses. This market evolution responds to searches for "specialty chemical suppliers" and "halide material distributors," reflecting broader industry trends toward specialized material solutions.

• 13462-88-9(Nickel(II) bromide)
• 85017-82-9(Lithium bromide hydrate)
• 13465-09-3(Indium(III) bromide)
• 7789-43-7(Cobalt Bromide)
• 7789-46-0(Iron(II) Bromide)
• 7699-45-8(Zinc Bromide)
• 10031-24-0(dibromostannane)
• 13469-98-2(Yttrium bromide)
• 7758-02-3(Potassium bromide)
• 2098070-20-1(2-(3-(Pyridin-3-yl)-1H-pyrazol-1-yl)acetimidamide)