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HS Code |
413934 |
| Chemicalname | 2-(Dimethylamino)ethyl benzoate |
| Casnumber | 102-16-9 |
| Molecularformula | C11H15NO2 |
| Molecularweight | 193.24 |
| Appearance | Colorless to pale yellow liquid |
| Meltingpoint | -5°C |
| Boilingpoint | 265-267°C |
| Density | 1.035 g/cm3 |
| Solubility | Soluble in organic solvents, slightly soluble in water |
| Refractiveindex | 1.534 |
| Flashpoint | 120°C |
| Pubchemcid | 8217 |
As an accredited 2-(Dimethylamino)Ethyl Benzoate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of 2-(Dimethylamino)Ethyl Benzoate is supplied in a sealed amber glass bottle with a tamper-evident cap and labeling. |
| Shipping | 2-(Dimethylamino)Ethyl Benzoate is shipped in tightly sealed containers, protected from light, moisture, and sources of ignition. It should be handled by trained personnel using appropriate protective equipment. Standard shipping regulations for hazardous chemicals apply, and all transport must comply with local, national, and international guidelines for flammable or irritant substances. |
| Storage | 2-(Dimethylamino)Ethyl Benzoate should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect it from moisture, direct sunlight, and sources of ignition. Ensure proper labeling and follow all local regulations for hazardous chemical storage to maintain safety and chemical stability. |
Applications of 2-(Dimethylamino)Ethyl Benzoate in Industrial Manufacturing2-(Dimethylamino)ethyl benzoate serves several specialized industrial applications because of its unique physicochemical properties and compatibility with advanced chemical processing. Our manufacturing covers high-purity, large-scale supply of this intermediate, supporting compliance and customization for production lines in pharmaceuticals, local anesthetics, veterinary active ingredients, fine chemical synthesis, and analytical reagents. 1. Local Anesthetic Formulation for Topical PreparationsManufacturers utilize 2-(dimethylamino)ethyl benzoate as the key intermediate for benzocaine-type derivatives in topical anesthetic creams, gels, and patches. Production lines integrate this compound in the synthesis route to provide fast-acting numbing for over-the-counter and hospital use. Quality control focuses on minimizing residual solvents and achieving precise esterification conversion. This raw material enables batch-to-batch consistency, crucial for sensitive regulatory audits in regulated markets. Industry compliance standards
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2. Intermediate in Active Pharmaceutical Ingredient (API) SynthesisThis compound functions as a foundation intermediate for pharmaceutical companies producing various APIs related to esters and amides. Process chemists use it in multi-step synthesis, leveraging its reactivity to introduce tertiary amine and ester functionalities. Manufacturers implement strict in-process controls and impurity profiling to align with pharmacopoeial monograph standards for downstream actives used in injectable and oral dosage forms. Secure supply of our high-purity material enables continuous API production without cross-contamination or batch rejection risks. Industry compliance standards
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3. Precursor in Veterinary Pharmaceutical ManufacturingAnimal health companies incorporate 2-(dimethylamino)ethyl benzoate as a main building block in the synthesis of veterinary anesthetic and analgesic agents tailored for livestock, companion animals, and aquaculture. Dedicated production suites handle grading and segregation for veterinary use, while QA systems track full batch traceability. Specialized process steps enhance purity standards, especially for injectable or topical veterinary solutions, reflecting the diversity across cattle, swine, equine, and pet applications. Industry compliance standards
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4. Reagent and Reference Standard Production for Analytical LaboratoriesProducers of chemical reference standards and laboratory-grade reagents use the compound as a matrix or calibration spike in analytical chemistry. Its predictable response in chromatographic assays makes it suitable for instrument testing, method validation, and QC calibration curves. Analytical reagent producers ensure high batch purity and minimal side products, meeting stringent analytical method requirements. Material labeling and documentation assist customers in global compliance and laboratory accreditation audits. Industry compliance standards
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At our manufacturing plant, we have worked hands-on with 2-(Dimethylamino)Ethyl Benzoate for years. This compound, also known as DMABE or Benzoic acid 2-(dimethylamino)ethyl ester, stands out as a staple intermediate in the world of specialty chemicals. We produce it to a standard of purity that supports both laboratory investigations and broader industrial synthesis. Over time, customers from pharma, fragrance, and polymer sectors have reached for DMABE to drive forward projects that require reliability and trace-level impurities far below standard thresholds.
Many chemists and product developers come to us having experienced issues with batch reproducibility. DMABE has a unique profile that demands tight controls during manufacturing. Each lot must reflect careful attention to raw material quality, reaction parameters, and purification techniques. We know this because, through trial and feedback, minor deviations in temperature or solvent purity can lead to colored byproducts or fishy odors—issues that translate into extra purification steps for end-users.
To get consistent results, we rely on high-grade solvents, robust distillation lines, and strictly maintained reactors. We monitor for water traces and other residuals that can spell trouble for downstream processes like amidation, esterification, or even analytical uses. It is not enough to simply meet an assay spec; DMABE used in local anesthetic synthesis, or as a polymer modifier, often needs residual solvent content and UV-transmittance in the right range for further transformation. The goal has always been minimal fuss for our industry partners, who need assurance batch after batch.
Our chemical engineers and QC team have seen diverse approaches in using DMABE. In pharmaceuticals, it commonly serves as a precursor to local anesthetics like dimethocaine and procaine analogs. These syntheses push for high color purity and minimal amine byproducts, both of which hinge on how the DMABE is produced and stored. For polymer chemists, DMABE acts as a modifier or reactive monomer, contributing flexibility, softening points, or anti-static properties. These applications are intolerant of side reactions from unknown trace aldehydes or acids—again, a nod to the subtleties of careful manufacturing.
Some in the fragrance space value the unique volatility profile of DMABE, especially as a building block for producing esters that blend easily yet deliver their aroma at a measured pace. These fragrances cannot afford contamination with off-odors. Our facility segments such production runs to avoid cross-contamination, preserving the olfactory signature that end-users demand. Hands-on quality controls, including chromatography and GC/MS, come into play at several steps. Even slight impurities can throw off downstream distillations or alter scent character.
Over the years, we established internal benchmarks that reflect more than just what a book or supplier sheet says. Meeting a GC assay above 99.5% is not a trophy for us—it’s the only acceptable starting point. Water content annoys anyone using DMABE for high-yield reactions, so we keep Karl Fischer levels below 0.1%. Residual solvents, particularly those like toluene or dichloromethane, get flagged and purged in repeated distillations. Color is another practical spec; we monitor for clarity and hues using both spectrophotometry and by-eye checks under controlled lighting. This reflects feedback from labs that struggled with off-color intermediates in visual-appearance-critical applications, like specialty printing inks or coatings.
Despite the straightforward molecular structure (C11H15NO2, MW 193.24), achieving ideal stability from our product comes down to packaging and shipping. DMABE can oxidize with air contact or degrade under strong light. We learned from trials: clear jugs left near sunlight develop yellow tints within weeks, so we now use UV-blocking, airtight containers for all outgoing shipments. Tamper-evident seals and inert gas headspace, proven in decades of manufacturing, prevent volatile loss and unnecessary customer complaints. Simple adjustments in logistics prevent headaches both for our QC team and for our partners at the mixing line.
Many ask what advantage DMABE offers compared to related molecules like ethyl benzoate or 2-(diethylamino)ethyl esters. From a manufacturing viewpoint, DMABE enables sharper, more predictable reactivity in certain synthesis steps. Its dual character—a benzoate ester combined with a tertiary amine tail—allows for chemoselective reactions in multi-step routes. Compared to the simple ethyl ester, DMABE provides both nucleophilic activity and the ability to participate in phase-transfer or ion-pair catalysis when conditions call for it. This opens up direct access to substituted benzoates and N,N-dimethyl tertiary amines without additional protecting group strategies. Process teams that have struggled with low-yielding side products using other esters often report smoother conversions with our DMABE.
Another difference: DMABE’s lower viscosity and moderate boiling point (around 260°C) give formulators more control when blending with solvents at scale. Traditional diethylamino esters, slightly bulkier, can gum up lines or react unpredictably with certain acids. Feedback from our large-volume polymer customers in Europe highlighted that DMABE integrates better in acrylic monomer feeds, enhancing compatibility where other modifiers lag. We take these observations seriously, logging blending issues and learning from how our material behaves in their equipment, not just in our own lab vessels. This culture of field-driven adjustment defines how we tune our process and QC checkpoints today.
On the topic of regulation and toxicity, DMABE presents lower acute toxicity compared to some lower molecular weight analogs, though every chemical demands careful handling. Our safety office monitors literature as well as in-house test results for dermal, inhalation, and environmental effects. We have upgraded ventilation and PPE protocols when handling neat material, informed both by global MSDS trends and our tracked incident reports, which have dropped dramatically over the last decade with better training and packaging. Sharing these insights transparently with downstream users supports safer workplaces all the way through the value chain.
Having open conversations with both R&D labs and plant managers shapes how we see DMABE’s role evolving. One resin development team, for example, experienced problems with amine-offgassing from other suppliers’ lots, only to trace the culprit back to insufficient distillation at a pilot plant. By sharing root cause data and best practices, we improved both our own process and theirs. Our internal logbook tracks dozens of such collaborative troubleshooting cases. Customer insights push us to adopt tighter inline detection and to develop faster shipment options for temperature-sensitive grades.
Pharma companies place a premium on trace impurity profiling, not just purity numbers. NMR, FT-IR, and mass spectrometry windows help us confirm that the product holds up to increasingly sophisticated analytical scrutiny. More than once, we’ve reworked shipment plans to ensure cold-chain storage as requested for sensitive syntheses. No off-the-shelf distribution tricks—just custom, hands-on logistics shaped by direct requests and good communication. We use every bit of technical feedback to refine specifications, avoid guesswork, and help customers avoid delays or costly re-testing.
Another recurring theme is packaging downsizing. For years, DMABE shipped in drums meant for bulk users. Researchers pointed out that even 1-liter or smaller glass bottles with PTFE liners could slash waste and improve handling. We invested in more flexible filling lines, adjusted our labeling and tracking, and tracked incidents—resulting in fewer spills and easier storage options for those running pilot studies or custom syntheses. Our investment reflects what actual users asked for, not just theoretical supply chain arguments.
We know paperwork matters as much as chemical properties. Customers told us horror stories of failed audits based on incomplete CoAs or mismatched batch numbers from brokers. Our move to in-house batch certs, blending live data from QC logs alongside production tracking, grew out of these stories. If a regulatory or internal audit calls for route-of-origin details or impurity maps, we offer direct data—not templated third-party notes. This lets customers pass their due diligence confidently, whether for internal records, customer-facing audits, or regulatory filings. Our aim is to make sure our product is as credible on paper as it is in practice.
Documentation evolves with requests, too. Sometimes, an inquiry for trace element analysis, or a request for extra stability data under storage conditions unique to a distant climate, has led us to update both data formats and analytical targets. We quickly learned the value of proactive compliance. Customers in regulated markets, particularly pharma and fine chemical segments, do not compromise on traceability. These interactions forced us to digitize batch logs, computerize CoA generation, and tighten standard operating procedures.
Manufacturing comes with real-world constraints. As we scaled up DMABE output, waste minimization and raw material reuse became more than environmental checkboxes. Reclaiming spent benzoic acid, optimizing distillation to recover reusable solvents, and designing for water minimization took center stage. Customers now ask for formal statements on process efficiency and environmental footprint. Our response: we publish actual energy usage and solvent recovery figures, drawn from internal metering and validated by outside audits, when asked. These numbers shape not just our purchasing power with raw material providers, but also the bids and contracts our customers submit further down the line.
The push for green chemistry affects every molecule. With DMABE, research into alternative synthesis routes has focused on replacing legacy chlorinated solvents and finding catalytic alternatives that cut waste. We have trialed salt-free catalytic transesterification and monitored trace environmental emissions extensively. Each small step pays off with lower regulatory risk and, in some cases, reduced manufacturing costs. Our approach rests on fact: incremental improvements, real energy savings, transparent emissions reporting to stakeholders. As attention on global supply chains increases, being able to prove the sustainability of a product in hard numbers is what sets trusted producers apart from brokers who lack direct oversight.
Shipping and storage have real-world impacts on how DMABE performs once it reaches users. Even small lapses in temperature control or seal integrity can cascade into lost productivity in customer labs. In our early days, containers returned from customer sites sometimes showed subtle changes in color or odor. Investigating alongside clients, we improved not just our own filling lines and container specs, but also coaching materials shared with warehouse teams and transport partners.
These days, we use dark, airtight fluoropolymer-lined jugs for DMABE. Each is flushed with inert gas and labeled with batch-specific recommendations for storage conditions. Transport routes are tracked closely, especially in the hottest months. Experience has shown that pre-loading a shipment onto temperature-controlled trucks, even for short hauls, pays dividends when it comes to reliability. Feedback loops with our logistics partners have turned up actionable details we would have missed from the factory floor alone—like the need for extra strapping to prevent vibration cracks during overseas container transit, or the subtle effects of ultrasonic scanners at ports on certain bulk packagings.
What sets a committed manufacturer apart is not secretive process tricks but the willingness to learn from user experience. At various trade shows and through roundtable discussions with academic and industrial researchers, we have compared DMABE approaches, process tweaks, and shipment tricks. Chemists who run hundreds of syntheses a week give priceless feedback on how small changes in impurity or packaging affect their yields and timelines. Our engineers adjust, often in ways that would never appear in a paper spec—from purging trace dissolved gases from solvent feeds to modifying line cleaning schedules after shutdowns.
These conversations lead to real improvements in flow rates, packaging ergonomics, and carrier choice. For instance, one recurring suggestion asked for smaller bottle formats for research teams with space constraints. In response, we developed a new capping technology with better seal longevity and added insulation. This was not a marketing goal—it came directly from ongoing dialogue and firsthand frustrations shared by those using DMABE in the field.
No single production run looks like the last. Regulations, customer processes, and technical needs shift constantly. By keeping every learning—from failed small-lot tests to scale-up wins—front and center, we deliver DMABE that reflects not just chemical formulas but the reality of its journey from our plant to the user bench. We see DMABE not only as a compound in a bottle, but as the product of shared experience, feedback, and technical pride. Our doors remain open to those looking for improvement, joint troubleshooting, or just a second set of eyes on an ongoing project. We value real relationships above standard sales scripts because nothing replaces direct input from people who handle, blend, or transform DMABE every day.
The chemical industry is built on practice, attention to detail, and continuous communication. Every kilogram of DMABE that leaves our facility reflects that belief and becomes a quiet part of countless research, production, and development stories worldwide.