Ethyl P-Butylaminobenzoate comes into the picture as a synthetic organic compound with important uses in chemical, medical, and industrial settings. Recognized by its molecular formula C13H20N2O2, the compound lays out as a white to off-white crystalline solid under standard room temperature, though batches sometimes turn up as powder, flakes, or even small pearls. Texture can shift along with production methods or purity levels, allowing wide-ranging practical approaches for those in need of a flexible raw material. Every good chemist should care about its density, which hangs close to 1.07 g/cm³, giving a helpful starting point for measuring, mixing, or formulating. The compound’s structure features an ethyl ester on a para-butylaminated benzoic acid backbone, which shapes its unique behavioral traits in solvents and other materials.
To understand Ethyl P-Butylaminobenzoate, look first at the chemical map: a para-substituted benzoic acid derivative with a butylamino group, the sort of modification that changes both activity and risk profile. The substance appears typically as a crystalline solid, powder, or small pearls, mixing up forms based on how it’s stored, processed, or handled at the plant. Some suppliers package as flakes for handling convenience. Melting point averages between 45°C and 52°C, making it easy to manipulate in standard lab or industrial environments. Its chemical properties give it moderate solubility in common organic solvents, especially alcohols and ethers, less so in water. Those looking for liquid solutions may prepare diluted mixtures, most often to formulate topical or intermediate products, using safe carriers. As a raw material, it reacts in predictable patterns during synthesis, showing resilience under standard industrial pressures without breaking down.
HS Code identification makes international trade possible and regulatory work clear. For Ethyl P-Butylaminobenzoate, the common HS Code falls under 292249 (amino acid derivatives), which aligns with how customs treat it as a chemical intermediate, not a specialty chemical or consumer good. This is crucial for shippers and border officials tracking the cargo’s nature and destination. By lining up with these codes, producers and end-users reduce risks of border delays, penalties, or loss—something every business or academic lab should keep firmly in sight.
Looking at typical specifications, demand for purity often starts around 98.0% or higher. Less-than-stellar grades can carry unwanted color or odor, factors that spell trouble in end products, especially where high performance or safety is at stake. Alfred, a friend from my days in a pharmaceutical lab, once ran into purity problems with sourcing—leading to inferior products and, ultimately, regulatory trouble. It’s a good story to keep at the front of one’s mind. Many factories want high purity for research, pharma intermediates, or as raw material to make topical anesthetics, which must meet tight standards. Bulk density, grain size, water content, and pH of a 10% solution stand as common measurable markers. These specs give practical signals of what the product can tolerate, shape-wise and chemical-wise, once in hand, on the shelf, or in the mixing vat.
Regulatory records and safety studies give mixed signals, but no chemical should get a free pass on personal protective equipment and ventilation. Ethyl P-Butylaminobenzoate shows low acute toxicity, yet dust inhalation, skin contact, or accidental ingestion require an immediate response—wash with water, remove from skin, and monitor breathing or irritation. Industrial and academic settings both enforce minimum safety standards: gloves, lab coats, and chemical splash eyewear. Emergency showers and eyewash stations need to sit close by, and proper containers with chemical resistance ratings keep spillage low and staff injury down. Disposal protocols in most regions put this material into the category of hazardous chemical waste, not domestic garbage or sewage. Any spill, big or small, ought to trigger containment, cleaning, and restricted area access. In transport, only UN-rated drums or containers should move it from site to site, reducing risk to driver, warehouse staff, and the nearby public.
Nobody can stress enough the importance of environmental protection in chemical handling. While Ethyl P-Butylaminobenzoate does not carry the heavy persistent organic pollutant markers of some other compounds, it breaks down slowly once released. Waterways, soils, and shared facilities all see the long-term effects of poor disposal habits—look at the cases in industrial parks in East Asia, where regulations sometimes went unenforced, and local health suffered. Responsible users tightly control both storage and emissions, sticking to permitted volumes and ensuring accountability up and down the line.
Problems with bulk handling often begin with poorly sealed storage or mixing tanks, cross-contamination with incompatible chemicals, and ad-hoc safety practices. At one chemical plant, cross-contamination ruined a full lot, costing both money and trust with customers. Training programs focusing on real-world handling, not just textbook rules, and regular safety drills, can close these gaps. In addition, digital inventory systems have proven their worth, keeping expiries, lot tracking, and safety records up to date at all times. Automation in storage and mixing, combined with redundant ventilation, guards against human error and environmental releases. For small and medium businesses, partnering with certified disposal contractors can avoid legal issues and major fines. Government agencies suggest strict compliance with workplace limits, even where the law only gives loose recommendations, to keep occupational disease out of the workplace and the surrounding community healthy.
