• 1. A highly transparent, amphiphobic, stable and multi-purpose poly(vinyl chloride) metallopolymer for anti-fouling and anti-staining coatings
  Saravanan Nagappan,Sung Soo Park,Eun Jeong Yu,Hun Jeong Cho,Jin Joo Park,Won-Ki Lee,Chang-Sik Ha J. Mater. Chem. A 2013 1 12144
• 2. XXVIII.—The estimation of nitrogen in nitrocellulose and inorganic nitrates with the nitrometer
  Ernest George Beckett J. Chem. Soc. Trans. 1920 117 220
• 3. 500. Cryoscopic measurements in sulphuric acid. Part IV. Reactions of ionised sulphates in sulphuric oleum. Self-ionisation equilibria in sulphuric acid, and ionic equilibria in oleum. The polysulphuric acids
  R. J. Gillespie J. Chem. Soc. 1950 2516

• Solvents and Organic Chemicals Organic Compounds Benzenoids Benzene and substituted derivatives Diphenylmethanes

Bisphenol Apropoxylate (CAS No. 37353-75-6): A Comprehensive Overview in Modern Chemical Research

Bisphenol Apropoxylate, identified by the Chemical Abstracts Service registry number CAS No. 37353-75-6, is a significant compound in the realm of specialty chemicals, particularly in the synthesis of polymers and advanced materials. This compound, derived from the reaction between bisphenol A and propylene oxide, has garnered considerable attention due to its unique properties and potential applications in various industrial sectors. The introduction of propylene oxide into the bisphenol A structure introduces a series of epoxide functionalities, which can be further modified to achieve tailored chemical behaviors, making it a versatile intermediate in chemical manufacturing.

The structural integrity of Bisphenol Apropoxylate is characterized by its bifunctional nature, where each bisphenol unit can undergo further polymerization or cross-linking reactions. This characteristic is particularly valuable in the production of high-performance polymers that exhibit enhanced thermal stability, mechanical strength, and chemical resistance. Recent advancements in polymer science have demonstrated the efficacy of Bisphenol Apropoxylate as a precursor in the development of novel thermosetting resins and elastomers. These materials are finding applications in automotive components, aerospace engineering, and electronic devices, where high reliability and durability are paramount.

In addition to its role in polymer synthesis, Bisphenol Apropoxylate has been explored for its potential in drug delivery systems and biodegradable materials. The compound's ability to form stable complexes with various pharmaceuticals has opened new avenues for targeted drug delivery, improving therapeutic efficacy while minimizing side effects. Furthermore, its biodegradable nature aligns with the growing demand for environmentally friendly alternatives in industrial applications. Researchers have been particularly interested in modifying the epoxy groups of Bisphenol Apropoxylate to enhance its compatibility with biological systems, paving the way for innovative medical technologies.

The chemical reactivity of Bisphenol Apropoxylate allows for extensive functionalization, enabling the creation of a diverse array of derivatives with tailored properties. For instance, hydrolysis or ring-opening polymerization of this compound can yield polyols with specific molecular weights and functionalities, which are crucial for producing high-quality polyurethane foams and coatings. These materials are widely used in construction, furniture manufacturing, and insulation due to their excellent thermal insulation properties and lightweight nature. The adaptability of Bisphenol Apropoxylate underscores its importance as a building block in modern chemical synthesis.

The industrial production of Bisphenol Apropoxylate typically involves a controlled reaction between bisphenol A and propylene oxide under specific conditions to ensure optimal yield and purity. Catalysts such as metal alkoxides or strong bases are often employed to facilitate the ring-opening reaction. The choice of catalyst can significantly influence the molecular weight distribution and functionality of the resulting product, making it essential to optimize reaction parameters for desired outcomes. Advances in catalytic systems have enabled more efficient and sustainable production processes, reducing waste generation and energy consumption.

Economic considerations also play a vital role in the utilization of Bisphenol Apropoxylate. The cost-effectiveness of raw materials and production methods directly impacts its market competitiveness. As industries continue to seek cost-efficient solutions without compromising quality, innovations in synthetic routes and process optimization have become increasingly important. For instance, green chemistry principles have been applied to develop more environmentally benign methods for producing Bisphenol Apropoxylate, including solvent-free reactions or use of renewable feedstocks.

The safety profile of Bisphenol Apropoxylate is another critical aspect that warrants thorough investigation. While it is not classified as a hazardous substance under current regulations, its handling requires adherence to standard chemical safety protocols to prevent exposure risks. Studies have been conducted to assess its toxicity profile, with findings indicating that acute exposure does not pose significant health risks under normal conditions. However, long-term environmental impact assessments are ongoing to ensure sustainable use practices.

The global market for specialty chemicals like Bisphenol Apropoxylate is driven by increasing demand from industries such as automotive, electronics, and construction. Emerging economies are particularly contributing to this growth through rapid industrialization and infrastructure development. As these sectors expand, so does the need for advanced materials that meet stringent performance requirements. This trend bodes well for companies specializing in high-performance polymers derived from compounds like Bisphenol Apropoxylate, offering substantial growth opportunities.

In conclusion, Bisphenol Apropoxylate (CAS No. 37353-75-6) represents a cornerstone material in modern chemical research with diverse applications across multiple industries. Its unique structural properties enable the development of innovative polymers and functional materials that address contemporary challenges in sustainability and performance. As research continues to uncover new possibilities for this compound, its role in advancing technological progress is set to expand further.

• 2416-30-0(2-Propanol,1-[4-(1,1-dimethylethyl)phenoxy]-)
• 41945-72-6(2-Propanol,1,1'-[(1-methylethylidene)bis(4,1-phenyleneoxy)]bis[3-phenoxy- (9CI))
• 56949-68-9(1-(p-(alpha,alpha-Dimethylbenzyl)phenoxy)propan-2-ol)
• 5581-32-8(Bisphenol A Bis(2,3-dihydroxypropyl) Ether)
• 72319-24-5(Oxirane,2,2'-[(1-methylethylidene)bis[4,1-phenyleneoxy-3,1-propanediyloxy-4,1-phenylene(1-methylethylidene)-4,1-phenyleneoxymethylene]]bis-)
• 1346600-09-6(Bisphenol A-d6 Diglycidyl Ether)
• 116-37-0(Bisphenol A bis(2-hydroxypropyl) ether)
• 76002-91-0(BisphenolA (2,3-dihydroxypropyl) Glycidyl Ether)
• 61578-04-9(2-{4-(1-Methyl-1-phenylethyl)phenoxymethyl}oxirane)
• 87093-13-8(Oxirane,2,2',2''-[ethylidynetris(4,1-phenyleneoxymethylene)]tris-)