Catalyst Selection Impact on Yield in Flavor and Fragrance Ester Synthesis holds a significant place in modern synthetic chemistry, especially within the context of flavor and fragrance industries. Identified by its CAS number, this substance is characterized by molecular specification data including formula, molecular weight, and a unique IUPAC name, ensuring precise identification. The InChIKey further assists in unambiguously referencing this compound. As a chemical reagent, it is typically used as an intermediate in laboratory and industrial processes, most notably for its influence on the efficiency of esterification reactions essential to flavor and fragrance formulation.
Comprehensive details regarding its physical and chemical properties illustrate why it is valued for such applications. Specific parameters such as boiling point, melting point, and density gauge its handling and suitability under different process conditions. When these properties are reported, they guide both researchers and process engineers in optimizing reaction variables and in ensuring safe, efficient operation. Flash point and vapor pressure, where available, inform safe material storage and handling procedures by highlighting both volatility and flammability risks.
In terms of regulatory and compliance measures, this compound has been examined under several frameworks. Its status with REACH is indicated through article numbers and tonnage bands, ensuring that all import and production levels comply with European safety and reporting requirements. The TSCA inventory status, including the correct section reference, confirms its accepted use within the United States. Applicable ICH guidelines, cited with full code and revisions, outline impurity limits and other pharmaceutical standards for when the reagent is used in the manufacture of APIs or excipients. The Global Harmonized System (GHS) classification, together with hazard statements and recommended signal words, is crucial for workplace safety and hazard communication. Where available, references to pharmacopeia chapters, along with OSHA permissible exposure limits and NIOSH recommended exposure limits, form the foundation for responsible manufacturing and occupational health practices.
Within practical applications, this catalyst exerts profound influence on yield outcomes in the synthesis of esters—key structural motifs in numerous flavors and fragrances. Chemists have long recognized that the conversion efficiency of esterification reactions hinges on astute catalyst choice, and this product is routinely assessed for its impact on both product purity and process throughput. Its use is particularly important where downstream drug synthesis demands high selectivity and minimal impurity profiles; however, it is not itself an active therapeutic agent. Instead, it supports the efficient and scalable synthesis of valuable intermediates in pharmaceutical and specialty chemical contexts.
For packaging and storage, industry standards dictate that the product is typically shipped in 25-kilogram drums, 200-kilogram drums, or intermediate bulk containers, depending on end-user requirements. To maintain chemical integrity, storage conditions must conform to GHS recommendations, which often advise cool, dry environments shielded from direct sunlight and sources of ignition. The expected shelf life reflects the robust nature of the chemical class it represents, with most storage guidance suggesting stability over extended periods if these parameters are observed.
Sourcing and regulatory validation for this information can be found in the following references: PubChem (https://pubchem.ncbi.nlm.nih.gov/compound/), the NIST Chemistry WebBook (https://webbook.nist.gov/cgi/cbook.cgi?Name=), the ECHA database, and the EPA TSCA Inventory (https://www.epa.gov/tsca-inventory). Together, these resources support informed decision-making and ensure best practices throughout the chemical supply chain.
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