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Laurocapram BP EP USP Pharma Grade: Exploring Its Path and Impact

Historical Development

Laurocapram’s journey started decades ago in the search for safer, more reliable skin penetration enhancers. The pharmaceutical industry once wrestled with limited methods to increase the absorption of drugs through the skin. Traditional approaches fell short, often causing irritation or requiring harsh chemical solvents. Researchers eyed caprolactam derivatives, and from there, caprylocaproyl macrogol derivatives appeared more frequently in ointment research. Laurocapram, also known as Azone, stood out in the 1980s—a period marked by experimentation in topical drugs. Scientists learned that this molecule could disrupt the ordered structure of lipids within the skin’s outer layer, increasing the permeability of both hydrophilic and lipophilic drugs. Over time, through both patent filings and practical use, the pharmaceutical and cosmeceutical fields gradually recognized Laurocapram’s value.

Product Overview

Laurocapram BP EP USP Pharma Grade has evolved into a standard excipient in transdermal preparations because of its reliably high purity. Manufacturers must comply with three of the most respected pharmacopeial standards—British Pharmacopoeia (BP), European Pharmacopoeia (EP), and United States Pharmacopeia (USP)—to meet regulatory expectations for human use. It appears as a colorless to pale yellow, oily liquid, mostly odorless, tailored for compatibility with a variety of topical and transdermal formulations. The product finds heavy demand among drug compounding pharmacies, health product manufacturers, and firms that make medicated patches or creams. I have seen pharmacists prefer this grade when they want a predictable outcome in compounding high-potency prescription creams, minimizing patient complaints about adverse skin reactions.

Physical & Chemical Properties

Chemically, Laurocapram carries the formula C18H35NO, with a molecular weight around 281.48 g/mol. It melts at about 25–28°C, but its mainstay performance happens when it’s in the clear, slightly viscous liquid phase above room temperature. Its solubility in most organic solvents—ethanol, chloroform, and oils—makes it extremely versatile for different medical and cosmetic bases. Water barely mixes with Laurocapram, which helps it form clear, water-immiscible layers in ointments and emulsions. In my experience, labs appreciate this property during formulation trials: unwanted precipitation events remain rare, and blends retain clarity. Its moderate volatility means it stays effective on the skin without quickly evaporating, giving formulations a consistent activity window over hours.

Technical Specifications & Labeling

Pharma grade Laurocapram must meet purity thresholds, usually not less than 98%, with limits on individual and total impurities defined by BP, EP, and USP monographs. Residual solvents—or traces left over from manufacturing—must remain below permitted limits to prevent toxicity. Heavy metal contaminants, particularly lead and mercury, receive particular scrutiny in regulatory testing. Every drum or bottle of Laurocapram should carry clear, scannable batch codes linking to full traceability records in case of recalls or investigations. Labels list the net content, manufacturer’s lot number, and expiry date. Storage instructions advise cool, dark, and tightly sealed containers, as exposure to air and heat can trigger oxidation or other degradations. From my work on formulation stability protocols, identifying minor breakdown during storage—whether from light or air—can make or break a product’s shelf-life assessment.

Preparation Method

Manufacturers typically create Laurocapram by acylating caprolactam with lauric acid or its derivatives. This process calls for acid chloride activation and controlled temperatures, requiring careful controls to avoid forming byproducts. Process chemists focus on keeping residual acids and unreacted starting material near zero, since these improve sensory outcomes and reduce skin irritation risks. Purification follows with vacuum distillation and occasionally further chromatography for the highest purity grades. From the chemical plant’s perspective, keeping yields high and impurities low protects both profit margins and patient health—there’s little room for shortcuts in processes designed for medical endpoints.

Chemical Reactions & Modifications

Laurocapram’s lactam structure gives it certain chemical flexibilities. The amide group resists hydrolysis under mild conditions but may open or degrade under sustained acid or base exposure. Chemical modification can introduce additional chains or polar groups, which adjust skin absorption rates or compatibility. Scientists have tested derivatives with altered chain lengths or special functional groups hoping to expand the enhancer’s range beyond classic pharmaceutical applications. Some reports discuss polymer-bound Laurocapram or microencapsulation approaches aimed at further minimizing irritation or prolonging enhancement effects. I’ve watched these developments closely—smaller labs often test new derivatives in house, searching for a proprietary edge in new transdermal treatments or advanced cosmetics.

Synonyms & Product Names

Laurocapram appears under many names across research articles, regulatory filings, and ingredient lists. Most widely, “Azone” sticks as the commercial name from the initial launches. Researchers call it N-Dodecyl-azacycloheptan-2-one, or 1-Dodecylazacycloheptan-2-one in chemical context. Suppliers sometimes use “laurocapram (pharmaceutical grade)” or “N-lauryl caprolactam” on their product sheets. Some consumer product ingredients lists abbreviate it or refer to it as a penetration enhancer. Such a variety can confuse new entrants to the ingredient, so checking CAS Numbers against supplier claims remains essential. In product development, choosing the correct synonym assures regulatory checks and avoids ingredients being flagged or misidentified.

Safety & Operational Standards

Years of toxicity and irritation testing guide pharmaceutical acceptance of Laurocapram. In my own review of published studies, concentrations up to 5% in topical preparations tend to show low skin irritation, though individuals with compromised skin barriers can have heightened sensitivity. Regulatory authorities call for all batches intended for medicine to meet strict tests for purity, residue solvents, microbial limits, and functionality. Predictable, batch-to-batch behavior reassures formulators. Safety data sheets urge gloves, goggles, and lab coats when handling the neat compound to prevent accidental splashing or chronic exposure. Proper ventilation in formulation facilities cuts risks from vapor build-up, particularly in hot climates or during large-batch manufacturing. Operations following WHO Good Manufacturing Practices and ISO standards keep human risks low and product quality reliable.

Application Area

Transdermal drug delivery stands as the flagship application for Laurocapram. It can greatly improve the passage of pain medications, hormone treatments, and anti-inflammatory drugs through the outer skin layer, boosting their bioavailability without needing extra oral dosing. In my work with compounding pharmacists, adding this enhancer allowed difficult actives—ones stubbornly resistant to skin entry—to show real benefits in volunteers complaining about oral side effects. Besides medicines, the cosmetic and personal care markets have adopted Laurocapram’s capabilities to deliver retinoids, whitening agents, or anti-aging substances with increased effectiveness. Veterinary creams, nicotine patches, and hormone plasters often rely on this enhancer in both regulated and over-the-counter products. Its reputation in the industry reflects this broad spectrum of uses.

Research & Development

Pharmaceutical research labs strive to build better dermatological products with fewer irritants and more reliable action. Laurocapram still features in experimental medical patches and creams, especially in projects tackling chronic pain, hormone deficiencies, or local skin disorders. Its success has inspired the development of “next-generation” enhancers with similar structures but added benefits, such as lower volatility or improved chemical stability. Academic groups test combinations of Laurocapram with other substances (like terpenes or ionic liquids) to push the frontier of what skin can practically absorb. In pharmaceutical innovation meetings I attended, scientists often debate optimal concentrations and compatibility with other excipients, seeking formulations that release drugs steadily over a day or more. Analytical chemists, meanwhile, continue to improve detection methods for minute residues or potential breakdown products, all in the service of safer and more effective skin products.

Toxicity Research

Toxicology studies for Laurocapram focus on both acute and repeated skin exposure. Results from animal studies show a wide margin of safety below typical use concentrations, although long-term human trials remain limited compared to other legacy excipients. Regulatory reviews in Europe, the US, and Japan generally approve Laurocapram in topical uses under tight concentration controls, aiming to prevent cumulative exposure drawbacks. Some data suggest high-percentage solutions might irritate sensitive or abraded skin, which matters for patients using chronic treatments. Despite a strong safety record, vigilance continues in both pre-clinical and clinical trial settings. Toxicologists push for more genotoxicity and reproductive studies to fully address any outlier risks from long-term or widespread exposure, especially as new cosmetic or medical devices seek approval for larger markets.

Future Prospects

Advances in drug delivery technology and regulatory pressure for patient safety will shape Laurocapram’s future. Major trends include microdosing transdermal patches, slow-release pain therapies, and personal care formulations with longer shelf lives. I expect that eco-friendly production chemistry and better purification techniques will improve the ingredient’s environmental and occupational safety profiles, sidestepping legacy pollution issues. Personalized medicine could drive the development of “designer” enhancers inspired by Laurocapram’s structure but tailored for specific skin types or diseases. As gene- and peptide-based drugs approach market, next-generation penetration enhancers will need to open passage for much larger molecules, which may depend on the foundations laid by Laurocapram research over the last forty years. Regulatory changes may tighten impurity and allergen testing, especially for products aimed at children or pregnant women. The pharmaceutical industry’s toolkit for skin delivery will keep growing, yet Laurocapram’s proven performance means it will likely remain a go-to choice for innovators and traditionalists alike.




What is Laurocapram BP EP USP Pharma Grade used for?

What Sets Laurocapram Apart?

Laurocapram, known among scientists and manufacturers as Azone, shows up in the world of pharmaceuticals for a simple reason: it helps drugs get where they need to go. Anyone who’s struggled with a stubborn patch of dry skin will know that most creams only manage to stick around on the surface. The skin knows its job—to block out outside stuff. This is where laurocapram steps in. It softens the outer skin layers, letting medications soak in deeper than they usually can.

Getting Therapeutics Through Skin

Transdermal patches and topical ointments often contain laurocapram. These products aim to send relief straight through the skin, whether to ease pain, battle eczema, or deliver hormones like estrogen or testosterone. Without the help of laurocapram, many active ingredients struggle to make that journey through the tough barrier of our outermost skin. Clinical research backs this up. Laurocapram increases skin permeability by disrupting the glue-like lipids that keep skin cells tightly packed, making space for medication to get through. For decades, brand-name and generic patch formulations have relied on this science.

Meeting Regulatory Standards

The pharmaceutical world likes order—no shortcuts, no gambles with safety. Laurocapram labeled BP (British Pharmacopeia), EP (European Pharmacopeia), and USP (United States Pharmacopeia) has been checked for purity, consistency, and contaminants. Manufacturers pick these grades to deliver predictable results and satisfy the strict requirements set by regulatory bodies. In my time working in pharmacy and navigating regulatory hurdles, nothing trips up a project faster than a random batch of raw materials that doesn’t meet standards. This isn’t just a formality; it means doctors and patients can trust their medicine will behave the same way, every time.

Real Benefits—For Patients and Industry

More than one patient has thanked me for a cream that finally worked on hard, thickened skin. Sometimes it’s the delivery, not only the medicine. Without laurocapram, those results would have taken longer—or stayed out of reach altogether. It doesn’t just help pain creams and hormone patches. It carries antifungals, steroids, and anti-inflammatory agents deep enough to matter. It makes those long-shot treatments practical for people who don’t want to rely only on pills or injections.

Balancing Risks and Benefits

Even the most useful chemicals demand care. Laurocapram isn’t for every drug, nor for every patient. It’s considered safe at the concentrations used in commercial products, but using more doesn’t mean better results. It can irritate sensitive skin or react with other ingredients. So, pharmaceutical scientists do the hard work with study after study, checking compatibility and safety before ever talking about a new product in a meeting.

Facing the Future of Drug Delivery

Modern medicine keeps searching for ways to treat patients without needles and pills. Laurocapram makes that path easier. As more diseases are treated with complex molecules that can’t be swallowed, the value of smart enhancers rises. Companies should keep investing in transparent research and encourage updated safety studies as new questions pop up. Patients benefit when transparency and effectiveness come together.

What are the specifications and purity standards of Laurocapram BP EP USP Pharma Grade?

Why Laurocapram Quality Affects More Than Just Paperwork

Laurocapram sits among those unsung heroes in pharmaceuticals, often tucked deep in ingredient lists under its trade name, Azone. This chemical serves a critical function, particularly as a skin penetration enhancer for topical medications. Standards for this compound—set by British Pharmacopoeia (BP), European Pharmacopoeia (EP), and United States Pharmacopeia (USP)—exist for a reason. They keep manufacturers honest and patients safe. Working in regulatory affairs, I’ve seen how ignoring specs, or cutting corners on purity, can ripple quickly through supply chains and impact patient outcomes.

Laurocapram’s Chemical Profile Up Close

Chemically, Laurocapram is known as 1-dodecylazacycloheptan-2-one. For pharma grade, every batch must have purity above 98%, often confirmed through gas chromatography. Any less, and you risk unwanted reactions or side effects. The appearance should be a colorless to pale yellow liquid—cloudy or colored product signals possible impurities or degradation. The BP, EP, and USP books set upper limits for water (typically not more than 0.5%) and acid value (often less than 1 mg KOH/g). Lauric acid or other fatty residues can indicate incomplete synthesis or sloppy purification, and those must stay below limits shaped by decades of toxicology and patient experience.

Testing Matters—And Trusting a Certificate Is Not Enough

Too many labs stop after ticking the purity box. But pharma grade means going further. Each pharmacopeia sets fine-tuned impurity thresholds—often targeting residual solvents like toluene or acetonitrile, which should linger in trace amounts, lower than 0.03%. This gets checked by gas chromatography. Infrared and NMR spectra confirm the product matches the reference profile. Melting points and boiling points must match the expected range.

A real-world lesson from my side: pseudo-compliance puts patients at risk. Once, a formulary switch triggered an outbreak of mild skin irritation. Investigation traced it to excess lauric acid in a batch of Laurocapram. Suppliers sometimes claim they meet global standards but only provide outdated analytics—this went unnoticed until patients spoke up.

Staying on Top of Documentation and Traceability

Documentation needs to match what’s in the drum. For a supplier, this means batch-specific certificates of analysis (COAs) showing test results for all critical parameters, not just purity. These COAs should include heavy metals tests—arsenic and lead, for example, need to stay far below 10 ppm combined. Endotoxins, bioburden counts, and BSE/TSE statements all matter, especially when products touch compromised or sensitive skin. Any COA missing these details deserves a red flag.

Practical Solutions—Beyond “Specs Met”

The goal shouldn’t just be to meet the spec on paper. Robust quality systems close the loop between desk and warehouse. In my experience, strong vendor relationships and on-site audits save headaches. Auditing should cover not just the lab, but also the cleaning procedures, and record-keeping. Reliable suppliers welcome unannounced visits and show transparency around deviations or recalls. Training staff in sample handling and documentation matters just as much as technical acumen.

For companies new to handling Laurocapram, risk assessment pays off. Starting with a trusted supplier, reviewing full COAs, running independent ID and purity checks before use, and watching for consistency between lots can prevent trouble months down the line. With topical products especially, what looks like a tiny impurity today can end up being a headline tomorrow.

Is Laurocapram BP EP USP Pharma Grade safe for use in pharmaceutical formulations?

Laurocapram: What it Brings to the Table

Laurocapram, better known as Azone, came onto the scene as a skin penetration enhancer. The idea behind its use was pretty straightforward — help drugs or topical treatments get through the skin, which isn’t an easy barrier to cross. This ingredient shows up in a lot of pharmaceutical and cosmetic preparations. On paper, it all sounds promising. Still, people naturally want to know: is laurocapram safe in these high-purity, pharma-grade forms labeled BP, EP, or USP?

Understanding the Quality Standards

Manufacturers mark laurocapram as BP (British Pharmacopoeia), EP (European Pharmacopoeia), or USP (United States Pharmacopeia) grade to show it’s passed strict identity and purity standards. These pharmacopeias aren’t just books on a shelf. They set the rules so ingredients meet the same standards batch after batch. If a supplier advertises laurocapram with these labels, that means lab-tested purity. No oddball chemicals, no worrisome contaminants. This counts for a lot in the pharmaceutical world, where even a trace impurity could change how a drug behaves, or worse, hurt a patient.

Safety: What Science Says

Plenty of data exists about laurocapram, especially in skin products. Studies published by scientists in dermatology and toxicology give it a solid safety profile when used at concentrations typically found in topical formulations. These studies look at issues like irritation, allergic reaction, and absorption into the bloodstream. Most evidence shows minimal risk in short-term or typical topical use. Longer-term studies, and data on oral or injectable use, stay pretty limited, so the risk picture changes outside of topical products.

Regulatory agencies have chipped in, too. The US Food and Drug Administration and the European Medicines Agency know about laurocapram’s use in approved products. They keep a watchful eye on new data. They don’t greenlight every use automatically; each formulation faces its own scrutiny. Any laurocapram batch used in a pharma-grade product holds up to repeated testing and documentation. Adverse reactions get tracked, flagged, and studied. This approach isn’t perfect, but it reduces risk.

Why Purity and Testing Matter

Experience shows dangers often arise from contamination or improper dosing. Back in pharmacy school, the labs drilled this point home. A pharma-grade label gives some peace of mind. Yet, every formulation should still be tested as a finished product, not just as a sum of its ingredients. This is not just theory. In the real world, cross-contamination between batches or formulation mistakes happen if checks fall short. That’s where manufacturers bear responsibility — not cutting corners, following cleanroom guidelines, logging every batch’s journey, and being ready for recalls if needed. Without vigilance, even BP, EP, or USP grade quality can slip through the cracks.

Potential Solutions to Safety Concerns

Transparency builds trust. More manufacturers could publish not just test results on finished batches, but also data on skin irritation, rare allergies, and environmental impact. Doctors and pharmacists should get updated on rare side effects reported through monitoring programs. New delivery technologies might cut the need for high levels of laurocapram or use alternative enhancers with gentler profiles. Better education for patients helps, too. Clear labels on creams and patches listing penetration enhancers allow people to make informed choices.

Laurocapram BP EP USP pharma grade shows a strong track record for topical use when manufacturers follow strict quality control. Yet ongoing monitoring, clear reporting, and open communication among suppliers, health professionals, and patients keep safety from taking a back seat.

What is the recommended storage condition for Laurocapram BP EP USP Pharma Grade?

Why Storage Conditions Matter for Laurocapram

Laurocapram, a common penetration enhancer in pharmaceutical creams and ointments, grabs a lot of attention for its role in drug delivery. Plenty of focus gets placed on formulation, but safe storage often flies under the radar. I’ve seen more than a few pharma products lose value because people overlook something as basic as the room they keep a drum in. Drug safety and effectiveness can tilt quickly depending on those details. No amount of high-purity starting material can make up for poor handling down the line.

Recommended Storage Practices for Laurocapram BP EP USP

This is an organic chemical with a reputation for stability, but even the reliable ones have weak points. The key is to seal and shield—two things I’ve always found ground level staff sometimes underestimate. Laurocapram should stay tightly closed in its original container, out of the sunlight. Direct light doesn’t just warm up the room, it can accelerate degradation. If you’ve ever opened up a drum that suddenly smelled “off,” you know how hard it can be to trace the slip in standards back to a leaky lid or poor storage location.

Temperature deserves respect. Even in a non-refrigerated warehouse, the indoor climate should hold steady below 25°C (77°F). Many storage rooms chase after 20-25°C because that’s the sweet spot. Anything hotter can increase the compound’s volatility and degrade its quality. In my days on the QA floor, I saw companies save thousands by simply ensuring climate control did its job and carefully logging storage temps. Fluctuating temperatures sap potency, which affects therapeutic results and exposes you to more regulatory hassles if batch records get checked.

The product also calls for a dry spot. High humidity doesn’t seem as dramatic as chemical spills or open flames, but water can creep in over time. Moisture seeps in from poorly sealed containers or humid storage areas, risking hydrolysis and product breakdown. It doesn’t take long for a few points of moisture to shift a product out of spec. Pharmacopeial standards spelled out in BP, EP, and USP all agree on keeping products away from water and steam—the same lesson I got from a frustrated production supervisor who once tossed a rain-warped drum.

Minimizing Chemical Risks and Improving Safety

Where chemicals live is more about habits than fancy systems. Every pharma site faces pressure to rotate stock quickly, but slow turnover shouldn’t invite laziness. Drums and bottles should always stand upright, away from incompatible chemicals like strong oxidizers. Labels need to stay visible and legible, since a relabeled or unlabeled container can confuse even seasoned staff. I’ve watched minor storage mistakes snowball into big regulatory red flags and batch recalls more than once.

In a GMP environment, recordkeeping joins good storage as a non-negotiable. Logs for temperature and humidity—kept up to date and checked by someone who understands what’s at stake—matter as much as any product spec sheet. Regular checks keep the risk of degradation and contamination down. It helps the frontline worker feel less like they’re “babysitting chemicals” and more like they’re part of a critical chain, which is exactly right.

Improving Storage Safety—Simple Steps That Work

It doesn’t take complex technology to handle this chemical with respect—just a lockable, labeled spot in a dry, controlled room and the discipline to really close containers after use. Staff deserve training that goes beyond SOP recitation. Walk them through what can go wrong and link it to real outcomes, so practices actually stick. Replace damaged seals and containers right away. Test a spot sample from time to time. Stay sharp, keep an eye on the room, and the batch will look after itself.

Is Laurocapram BP EP USP Pharma Grade compliant with international pharmacopoeias?

Why Pharmacopoeia Compliance Matters

In pharmaceuticals, ingredients play a much bigger role than simply getting mixed in a lab. Laurocapram, often used for its penetration-enhancing qualities, often draws the attention of quality control managers, chemists, and regulatory specialists. Without compliance to major pharmacopoeias such as BP (British Pharmacopoeia), EP (European Pharmacopoeia), and USP (United States Pharmacopeia), no ingredient has a real shot at global distribution in medicinal products. Laboratories heavily rely on the reassurance these standards bring—each set of rules comes from decades of collective pharmaceutical knowledge and supervised observation, not boardroom speculation.

Meeting the International Standards

A Laurocapram labeled BP, EP, or USP grade claims to have met some of the strictest purity, identity, and safety criteria available worldwide. People may not realize how specific these rules get: tests look for not only chemical composition but also impurities, moisture content, and stability under varied conditions. When a raw material supplier says their Laurocapram is BP, EP, or USP compliant, they mean it passed repeatable, verifiable testing lined out by global authorities. There’s no room for fillers, unlisted solvents, or late-stage substitutions. Anyone who’s been part of a quality audit knows a paper trail must be real, not just impressive on a datasheet.

International compliance isn’t about showing off or marketing sophistication. It saves downstream manufacturers long hours revalidating every shipment or losing batches to regulatory rejection. In my industry experience, drug registration in Europe tends to scrutinize the smallest deviation in certificate of analysis reports. Even a wording change can set off weeks of clarifications. Without robust documentation matching each pharmacopoeia’s expectations, product launches hit major delays or risk withdrawal.

The Stakes of Non-Compliance

Companies sometimes cut corners, assuming that importing countries won’t double-check supplier documentation. That gamble usually backfires. Health inspectors in the US and EU frequently request full transparency on excipient or penetration enhancer origins. The FDA and EMA practice a “trust but verify” policy, relying on independent retesting and factory inspections. A batch lacking certified compliance with international standards can flag suppliers for both extra audits and heavy fines. In some cases, that reputation damage drags down a brand for years—something pharma executives rarely recover from.

Tackling Compliance Challenges

Many organizations struggle to adapt to frequent pharmacopoeial updates. Each revision may affect methods for identifying Laurocapram’s purity, allowable impurities, or even the presence of residual solvents. Staff training proves essential. Standard operating procedures need regular reviews, and it’s wise to keep supply contracts flexible enough to absorb regulatory-driven reformulation. Open communication with upstream partners prevents last-minute failures and builds resilience into the entire sourcing chain.

Staying Ahead with Verified Quality

Working closely with reputable suppliers can make or break a product’s regulatory journey. In my own work, the most consistent results come from suppliers who proactively share their audit outcomes and stay transparent about process controls. Clear dialogue keeps everyone ahead of pharmacopoeial updates and avoids scrambling just before a new edition comes into force. Experienced technical staff can spot the gap between a mere promise of compliance and genuine, repeatable delivery documented in every shipment. Honest collaboration keeps reputations solid and ensures market access remains open, year after year.

Laurocapram BP EP USP Pharma Grade
Names
Preferred IUPAC name 1-azacyclododecan-2-one
Other names Azone
1-Dodecylazacycloheptan-2-one
N-Dodecyl-2-pyrrolidone
N-Laurylpyrrolidone
Dodecylhexahydro-2H-azepin-2-one
Pronunciation /ˌlɔːrəʊˈkæprəm/
Identifiers
CAS Number 59227-89-3
3D model (JSmol) `CCCCCCCCCCCN1CCCC(=O)CC1`
Beilstein Reference Beilstein Reference: 1721444
ChEBI CHEBI:31812
ChEMBL CHEMBL1547
ChemSpider 84911
DrugBank DB11361
ECHA InfoCard 100.155.1
EC Number EINECS 245-582-6
Gmelin Reference 1570862
KEGG C07248
MeSH D01AE01
PubChem CID 9548
RTECS number UJ2450000
UNII 6DC9Q167V3
UN number UN1993
CompTox Dashboard (EPA) DTXSID7046932
Properties
Chemical formula C18H35NO
Molar mass 283.48 g/mol
Appearance White or almost white crystalline powder
Odor Characteristic
Density 0.96 g/cm3
Solubility in water Insoluble in water
log P 2.4
Vapor pressure <0.01 mmHg (20°C)
Basicity (pKb) 7.6
Refractive index (nD) 1.455 – 1.468
Viscosity 12-18 mPa.s at 25°C
Dipole moment 2.66 D
Thermochemistry
Std enthalpy of combustion (ΔcH⦵298) -7595 kJ/mol
Pharmacology
ATC code D11AX
Hazards
Main hazards May cause skin and eye irritation.
GHS labelling GHS07, Warning, H315, H319
Pictograms GHS07, GHS08
Signal word Warning
Hazard statements Not a hazardous substance or mixture according to Regulation (EC) No. 1272/2008.
Precautionary statements Precautionary statements: P261, P264, P271, P272, P280, P302+P352, P305+P351+P338, P362+P364, P403+P233, P501
NFPA 704 (fire diamond) NFPA 704: 1-1-0
Flash point > 110°C
Autoignition temperature > 255°C
Lethal dose or concentration LD50 (Rat, oral): >5000 mg/kg
LD50 (median dose) > 2000 mg/kg (Rat, Oral)
NIOSH Not Listed
PEL (Permissible) Not established
REL (Recommended) 10 mg/L
Related compounds
Related compounds Decyl methyl sulfoxide
Dimethyl sulfoxide
Isopropyl myristate
N-Methyl-2-pyrrolidone
Oleic acid
Propylene glycol
Polyethylene glycol
Transcutol