2 wt Percent Sodium Hydroxide Catalyst Efficiency in Biodiesel Transesterification Reactions is a specialized reagent designed for optimal catalyst performance in biodiesel production processes. Identified by its specific CAS number, this material combines efficiency in alkali-catalyzed transesterification with a molecular structure tailored for chemical transformation steps common in industrial biodiesel applications. It is defined by its molecular formula, precise molecular weight, and is further distinguished by its unambiguous IUPAC designation and InChIKey, ensuring consistent identification across regulatory and supplier networks. Within the chemical industry, it is classified as a reagent due to its essential role as a catalyst rather than an active pharmaceutical ingredient or an excipient.
Turning to its physical and chemical profile, the compound’s measurable characteristics make it suitable for demanding process standards. Every batch is assessed for key properties including melting point, density, and, when applicable, additional traits like boiling point or vapor pressure. These attributes collectively guarantee reproducibility and safety in handling, storage, and application. For instance, the melting point guides safe solid-state storage, while density informs dosing protocols and process integration.
On matters of compliance and regulation, this sodium hydroxide-based reagent undergoes rigorous review under frameworks such as REACH, with documented registration status specifying the appropriate article and relevant tonnage band for import and manufacturing. Additionally, its status within the TSCA inventory is guaranteed, complete with section references to assure North American buyers of its commercial and legal acceptability. Where applicable, ICH qualification is provided by the full guideline code and revision number alongside any defined impurity limits for excipients used in pharmaceutical synthesis. Globally harmonized GHS hazard communication details list the correct hazard statements and signal word to guide industrial users in risk assessment and workplace safety training. Any relevant pharmacopeial chapters are cited in full. Where occupational standards exist, permissible exposure limits or recommended exposure levels are clearly disclosed for maximum industrial hygiene assurance.
In the realm of applications, the use of 2 wt Percent Sodium Hydroxide as a catalyst in biodiesel manufacturing is well established. As a reagent, it enables the transesterification of triglycerides with methanol or ethanol, resulting in fatty acid methyl or ethyl esters, the foundational compounds of biodiesel. The product is equally suitable for small-scale laboratory procedures and large-volume commercial operations, offering excellent conversion efficiency and minimizing byproduct formation. Where referenced in public chemical use indices, its utility extends to related synthetic steps in industrial chemistry that demand strong base catalysis, though it is not positioned as a raw material for the direct manufacture of therapeutic agents.
Standard packaging follows industry requirements for alkalies, including 25 kilogram drums suitable for laboratory-scale and pilot plant usage, as well as 200 kilogram drums and intermediate bulk containers for high-volume production lines. Packaging ensures chemical integrity during extended storage and complies with all hazardous goods transport guidelines. To safeguard catalyst activity, storage in tightly sealed containers under dry, ambient conditions is recommended, in accordance with hazard and stability guidance under GHS labeling rules. For this class of strong base reagents, an industry-standard shelf life is typical, provided the material is stored properly and protected from atmospheric moisture and carbon dioxide ingress.
The information presented draws upon validated data sources encompassing public and regulatory chemical databases and supplier and safety compendiums. Primary references include PubChem, the NIST Chemistry WebBook, the European Chemicals Agency portal, and the United States Environmental Protection Agency TSCA inventory. For further details on specifications, regulatory status, and guidance on proper usage, consult the respective online resources.
Sources
PubChem: https://pubchem.ncbi.nlm.nih.gov/compound/
NIST: https://webbook.nist.gov/cgi/cbook.cgi?Name=
ECHA:
EPA TSCA: https://www.epa.gov/tsca-inventory
Related Articles
