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N-(2-Ethyl-6-methylphenyl)-N-ethoxymethyl-chloroacetamide serves as an organic compound that finds its way into raw material inventories around the world. It lands in research settings, chemical supply rooms, and often features in the early stages of synthesis processes within agricultural and specialty chemical manufacturing. The structure itself draws from a phenyl backbone, adding complexity with ethyl, methyl, ethoxymethyl, and chloroacetamide side groups. This intricate design brings defining characteristics for those handling and applying it. Chemists spend plenty of time troubleshooting compounds just like this because any deviation in purity, density, or form can tweak reaction rates and outcomes. No one wants to set up an entire batch reaction and realize halfway through that an undetected impurity or unexpected physical property has sabotaged hours of work, so verifying characteristics upfront matters as much as the application itself.
The molecular formula sets expectations: C13H18ClNO2. This arrangement gives a molecular weight near 255.74 g/mol. Its phenyl ring supports an ethyl group at the two position and a methyl at the six, both groups influencing solubility, stability, and physical performance. The ethoxymethyl chain tied to the nitrogen, capped with the unmistakable bite of a chlorinated acetamide, makes the compound reactive but manageable in capable hands. Delving into the molecular structure, chemists look at bond angles and placement of functional groups—here, the electron-withdrawing chloroacetamide lends itself to acylation reactions or substitution chemistry, opening avenues for further derivatization. Beyond textbook diagrams, these features shape how the material interacts with solvents, reactants, and even glassware. Working with solvents, the compound generally dissolves well in organic media like dichloromethane, acetone, or ethyl acetate, but struggles in water, thanks to the hydrophobic aromatic ring and fused alkyl groups.
The appearance can vary: manufacturers supply the compound as fine solid powders, pale crystalline flakes, or sometimes as bead-like pearls. Each form speaks to methods of production, but also impacts usability. Flakes might cluster or cake, while a dense powder pours easily but can create dust concerns. The density typically falls close to 1.15 – 1.25 g/cm3, a number that helps when weighing out gram or kilogram quantities for a synthesis. Melting points usually range around 60–80°C, but storage conditions, trace solvents, or impurities influence the range. Because the product can turn from solid to liquid within this temperature band, warehouses avoid temperature spikes to keep material stable. Faculties that run at high ambient temperature might need more than a dedicated shelf—they install air conditioning or cold storage to guarantee substance longevity.
Cross-border shipments and customs declarations rely on the Harmonized System (HS) Code. For a compound like this, the correct classification ensures proper tariffs and screening. The HS Code often falls under 2924.29, lined up with other acyclic amides and their derivatives. Companies handling international trade face surprises when misclassifying—delays at customs, detentions, and even penalties. Getting it right means suppliers receive raw materials on time, and customers meet production or research deadlines, not to mention avoiding regulatory headaches.
Lab technicians and plant operators take material exposure seriously, especially with specialty amides carrying a chloro group. Forgetting gloves or eye protection creates needless risk—chlorinated amides often act as skin or respiratory irritants. Companies I’ve worked with strictly require chemical splash goggles and nitrile gloves, sometimes adding extra ventilation or local fume hoods. The material should be stored in tightly sealed containers, protected from light and moisture. Packing guidelines specify lined drums or high-density polyethylene bottles, never simple paper sacks, because any exposure to air or humidity risks both quality and shelf life. Safe storage is more than precaution: it’s about protecting both the end user and the reliability of the next production step.
Toxicology testing highlights areas of concern. Chloroacetamide derivatives have a documented profile for minor to moderate acute toxicity when inhaled or ingested, so spills or mishandling aren’t just a paperwork issue—they can trigger real health events. Chemical safety data sheets call out risks for skin and eye irritation, suggesting thorough washing after potential exposure. Waste management becomes another concern; this compound doesn’t magically vanish after use. The right way involves collecting residues and wastes, handing them to licensed disposal services, or using approved incineration methods. Companies track these streams because regulators want full accountability. From an environmental perspective, the chlorine-containing nature of the molecule flags it for scrutiny—chlorinated organics linger in ecosystems and require careful breakdown to avoid groundwater or soil contamination. Research chemists and processors now look ahead, searching for biodegradable alternatives or improved containment methods, not just for regulatory compliance but as part of broader sustainability commitments. Workers in the field know that nothing sours a company’s reputation faster than a mishandled chemical spill or persistent environmental byproducts popping up in audits years later.
Real-use cases unfold in agrochemicals, where the compound finds itself at the heart of herbicide synthesis. Process engineers spend days optimizing temperature, solvent choice, and catalyst loading when integrating N-(2-ethyl-6-methylphenyl)-N-ethoxymethyl-chloroacetamide into multi-step syntheses. As a lab chemist, you always respect upstream material quality—skipping that step undermines not just one batch but entire research projects. The demand for reliable sourcing and consistent specification keeps procurement teams awake; substandard supplies mean risk to product integrity all the way down the value chain. Looking toward improvements, more organizations now demand Certificate of Analysis (COA) on every shipment, routine re-testing after receipt, and full traceability to batch levels. Suppliers who meet these growing expectations win out over those relying on minimal checks.
Chemical Name: N-(2-Ethyl-6-Methylphenyl)-N-Ethoxymethyl-Chloroacetamide
Chemical Formula: C13H18ClNO2
Molecular Weight: 255.74 g/mol
HS Code: 2924.29
Common Forms: Powder, Flakes, Pearls, Crystalline Solid
Density: 1.15 – 1.25 g/cm3
Melting Point: 60–80°C (range varies by supplier, purity)
Solubility: Good in organic solvents, poor in water
Hazards: Irritant, potentially harmful if ingested or inhaled, environmental concerns from chlorinated byproducts
Applications: Intermediate for herbicide and specialty chemicals synthesis
