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N-Ethylbenzylamine

    • Product Name N-Ethylbenzylamine
    • Alias NEBA
    • Einecs 202-729-1
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    935733

    Chemical Name N-Ethylbenzylamine
    Cas Number 103-49-1
    Molecular Formula C9H13N
    Molecular Weight 135.21 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 197-200 °C
    Melting Point -60 °C
    Density 0.911 g/cm³ at 25 °C
    Refractive Index 1.509 at 20 °C
    Flash Point 85 °C (closed cup)
    Solubility In Water Slightly soluble
    Smell Amine-like
    Synonyms N-Ethylphenylmethylamine
    Purity Typically ≥98%
    Storage Temperature Store at room temperature

    As an accredited N-Ethylbenzylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250 mL amber glass bottle, sealed with a screw cap, labeled "N-Ethylbenzylamine," includes hazard symbols and batch information.
    Shipping **N-Ethylbenzylamine** should be shipped in tightly sealed containers, protected from light, heat, and moisture. Ensure compliance with local and international transport regulations. Handle with care, using appropriate labeling for chemicals. Avoid shipping with incompatible substances. Use secondary containment to prevent leaks or spills during transit.
    Storage N-Ethylbenzylamine should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers. Keep the container tightly closed and properly labeled. Store at room temperature and protect from light and moisture. Use appropriate chemical safety containers to avoid leakage or contamination, and follow local regulatory guidelines for storage.
    Application of N-Ethylbenzylamine

    Applications of N-Ethylbenzylamine in Industrial Manufacturing

    N-Ethylbenzylamine plays a role as a key intermediate in several fine chemical, pharmaceutical, and agrochemical production flows. As an established manufacturer, we supply N-Ethylbenzylamine suited for exacting standards in specialized industrial settings. Below, we outline its principal application segments characterized by sector standards, recommended use levels, points of process addition, and conversion into finished goods by our clients worldwide.

    1. Synthesis of Pharmaceutical Active Pharmaceutical Intermediates (APIs)

    Manufacturers use N-Ethylbenzylamine as an intermediate in custom synthesis projects for selected cardiovascular and CNS drug actives. Its amine group confers functional selectivity during reductive amination processes and in producing substituted phenethylamines. The pharmaceutical sector requires stringent control of impurity profiles and traceability of solvent and reactant origins throughout the entirety of production. We provide batch records to facilitate audit trails in API pilot and commercial scale runs.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients)
    • 21 CFR Part 211 (Current Good Manufacturing Practice for Finished Pharmaceuticals, FDA)
    • Ph. Eur. Monographs for relevant APIs
    • USP General Chapter <1086> Impurities in Drug Substances

    Typical usage ratio

    • 0.15–0.30 molar equivalents relative to the key aldehyde intermediate, tailored according to the desired conversion rate and impurity target

    Downstream process integration

    • Added during reductive amination or alkylation reaction step in cGMP-compliant synthesis trains, typically after protection/deprotection of sensitive groups

    Final product types

    • Cardiovascular drug intermediates
    • Central nervous system (CNS) precursor compounds
    • Amine-functionalized pharmaceutical actives
    • Small-molecule target compounds requiring specific amine scaffolds

    2. Agrochemical Intermediate for Herbicide and Pesticide Formulations

    Crop protection chemical manufacturers use N-Ethylbenzylamine as a building block in the synthesis of substituted anilines and phenylurea herbicides. Its molecular structure enables selective N-alkylation reactions, contributing to environmental fate or bioactivity tuning in agroactive molecules. All supply for this segment meets regulatory dossier requirements regarding residual solvents, elemental impurities, and source traceability for registration submissions in regulated jurisdictions.

    Industry compliance standards

    • OECD GLP (Good Laboratory Practice) for active substance development
    • FAO/WHO JMPR Pesticide Specifications
    • EU REACH Registration (EC No. 1907/2006) for chemical intermediates
    • ISO 9001:2015 Quality Management Systems for batch traceability

    Typical usage ratio

    • 0.20–0.35 mole per mole of aryl halide or chloroformate precursor, determined by the desired substitution level in the target herbicide core

    Downstream process integration

    • Metered to alkylation or carbamoylation reactors following initial substrate activation; controlled by inline GC or HPLC for endpoint monitoring

    Final product types

    • Selective phenylurea herbicides
    • Substituted aniline-based insecticides
    • Pesticide intermediates for further formulation
    • Aromatic heterocycle precursors for crop protection actives

    3. Polymerization Catalyst Promoter in Specialty Coatings

    In the specialty polymers industry, formulators utilize N-Ethylbenzylamine as a cocatalyst or promoter for epoxy resin curing systems and for adjusting the reaction profile in isocyanate-based adhesives. It contributes to reactivity modulation, ensuring reproducible gel and set times in complex resin systems for industrial coatings and electrical encapsulation compounds. Our material routinely undergoes additional purification and QC release testing for compliance with critical end-use sectors.

    Industry compliance standards

    • ISO 9001:2015 certified manufacturing
    • ASTM D3960 for Volatile Organic Content in coatings
    • REACH compliance for non-listed SVHCs
    • UL 94 (for electrical encapsulation applications)

    Typical usage ratio

    • 0.6–1.2% by weight of total resin solids, adjusted based on ambient cure requirements and end-use durability criteria

    Downstream process integration

    • Dispersed into prepolymer blends at batch make-up; introduced before exothermic addition of curing agents or crosslinkers

    Final product types

    • Industrial epoxy coatings (anti-corrosive/structural)
    • Polyurethane-based adhesive systems
    • Electrical potting and encapsulant compounds
    • Protective floor and pipeline resins

    4. Fine Chemical Intermediate for Fragrance and Flavor Synthesis

    In aroma chemical manufacture, N-Ethylbenzylamine serves as a precursor for the synthesis of complex benzyl- and alkyl-substituted compounds used in perfumes and food-grade flavors. Regulatory controls demand strict limits on prohibited residuals and verification against recognized flavor and fragrance safety assessments. Analytical release includes GC-MS confirmation of structural integrity and contaminant profiles relevant to this industry.

    Industry compliance standards

    • IFRA Standards (International Fragrance Association)
    • FEMA GRAS Substances list (U.S. Food Chemicals Codex)
    • EU Regulation (EC) No 1334/2008 for flavoring substances
    • ISO 17025-accredited analytical verification

    Typical usage ratio

    • 0.10–0.25 molar equivalents in alkylation or reductive amination steps, varied by required odor or flavor profile of target molecule

    Downstream process integration

    • Added to fine chemical reactors in early-stage alkylation; purity tracked to ensure absence of reaction byproducts impacting final sensorial quality

    Final product types

    • Benzyl-substituted musk fragrances
    • Alkyl aromatic flavoring agents
    • Perfumery intermediates
    • Custom compounded fragrance raw materials

    5. Laboratory Reagent for Analytical Chemistry and Research

    Researchers and QC laboratories incorporate N-Ethylbenzylamine as a derivatization reagent or calibration standard in chromatographic analysis. Its application requires above-average purity and full documentation of analytical data packages. Users in this segment rely on rapid supply with miniaturized lot tracking to support method validation and cross-laboratory reproducibility.

    Industry compliance standards

    • ISO/IEC 17025 for calibration laboratory competence
    • GLP compliance for analytical methods
    • NIST traceability for reference standards
    • EPA Method 8270E (for inclusion as standard or spiking agent)

    Typical usage ratio

    • 0.2–1.0 mg/mL working solutions for HPLC/GC derivatization, calibrated per internal QC protocols

    Downstream process integration

    • Diluted in analytical sample prep as internal standard, derivatization agent, or QA recovery check; handled under controlled laminar flow with lot-specific CoA attachment

    Final product types

    • Certified reference material solutions
    • Derivatized samples for GC-MS or LC-MS analysis
    • Method validation reagents for regulatory submissions
    • Research laboratory test kits and sample prep reagents
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    Competitive N-Ethylbenzylamine prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.

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    Certification & Compliance
    More Introduction

    N-Ethylbenzylamine: A Manufacturer’s Perspective on Precision and Consistency

    A Culture Focused on Quality

    Over the years in chemical manufacturing, I’ve learned that reliability doesn’t just come from what you buy—it’s rooted in what you build. N-Ethylbenzylamine is a clear example of this principle in action. Our production team brings deep knowledge of amine chemistry to every batch, and we keep a sharp eye on the details, especially when small changes in purity or moisture can disrupt downstream processes. Dedicated purification systems and a disciplined quality-control routine guide our daily work, not because these are buzzwords but because they stop headaches later on. By maintaining a consistent output with N-Ethylbenzylamine, we support customers who value predictable performance over cheap shortcuts.

    What N-Ethylbenzylamine Brings to the Table

    We produce N-Ethylbenzylamine (C9H13N) in bulk because manufacturers who depend on amines need more than minimum standards. Every lot in our facility comes through direct batch synthesis and refined purification. This is not a byproduct operation—it’s a flagship line where process improvement is ongoing. Each drum ships with robust documentation covering not only GC purity but also moisture content and residual solvents. In the lab, our mainstay is a clear, water-white liquid that avoids the dark tints you sometimes see with competitors’ materials, especially from stockhouses or unclear supply chains.

    If a customer requests 99.5% or higher purity, we make it happen. If your process is extra sensitive to trace byproducts or color bodies, we already provide testing for those. There’s a noticeable difference between engineered production and resold commodity grades. We take it personally when off-flex amines end up in circuits meant for precision work.

    Specifications and Models That Reflect Real Use

    We keep several grades on hand for different fields. High-purity N-Ethylbenzylamine, single-digit ppm water, and “pharmaceutical-intermediate quality” lots each see use in different industries—electronics, crop protection, dyes, and more. Each application has its own pains: pharmaceutical customers often request residual solvent profiles and packaging in high-density containers with nitrogen-blanketing to block oxygen ingress. Our electronics-grade customers ask for documentation covering trace metals. We regularly update our filtration and post-distillation protocols to trim those numbers as much as real-world constraints allow.

    It isn’t uncommon for a customer to call after switching suppliers and run into trouble because a supposedly similar material exhibited higher yellowing or unexplained side reactions. We’ve gone into older reactors ourselves, sampling material as it’s being filled, to confirm color indices and exclude possible contamination from supply line residues. In our experience, tight process control always beats last-minute reprocessing or rework. The further downstream a problem appears, the more expensive—sometimes catastrophic—the fix becomes.

    How N-Ethylbenzylamine Outperforms Alternatives

    Some engineers ask, “Can I substitute another alkylamine and expect the same results?” We’ve seen many try. In alkylation chemistry, N-Ethylbenzylamine’s steric properties sometimes allow it to function as a more selective nucleophile compared to its methyl- or isopropyl-benzyl analogues. Where N-methylbenzylamine shows a tighter molecular profile and can lead to slightly higher byproduct formation, especially in overalkylation regimes, N-Ethylbenzylamine often leads to cleaner conversions and simplifies product isolation. Certain coupling reactions in pharma scale-up show greater reproducibility with our material than with grades sourced from traders who mix returns and recycled stocks.

    Aniline derivatives can, in a pinch, cover some chemistry, but their oxidative stability rarely matches what you get from a dedicated batch of N-Ethylbenzylamine. The fact that the chain is ethylated rather than methylated or longer still gives an ideal balance. Customers working with UV-sensitive frameworks, for instance, ask for documented photostability data before they run a single reaction. Since chain branching can impact volatility and side-reactivity, our customers avoid switching makes or models lightly.

    Usage Grounded in Practice

    Chasing theoretical yields without considering practical constraints costs manufacturers dearly. We’ve worked alongside customers who explain the difference the right amine makes in their reactors. In crop science intermediates, a poorly-defined amine fraction sometimes causes just enough crosstalk to invalidate entire batches. In pharmaceutical pilot plants, an unaccounted-for trace byproduct can defeat otherwise promising syntheses, especially once scale surpasses a hundred kilograms. We routinely provide “process validation sample” runs and invite clients to tour our plant, because openly showing the work breeds trust faster than promises.

    We see N-Ethylbenzylamine used mainly as a selective alkylating agent, a building block for chiral compounds, and as a chemical base in sensitive syntheses. Each field has its quirks. In specialty polymers, unexpected amine impurities can trigger color formation or viscosity swings. In electronics, trace levels of non-amine contaminants—sometimes undetectable in standard grades—stop certain etching or surface activation steps from working properly. In every case, experience shows that rigorous control of amine source stops the process drift before it begins.

    Responsible Sourcing, Not Shortcuts

    Responsible manufacturers never treat cost as the main variable. Customers who rely on N-Ethylbenzylamine know their own risks: an unreliable batch can mean regulatory headaches, failed production runs, or field performance issues months down the road. As upstream partners, we continuously refine our processes, update analytical methods, and invest in dedicated equipment to minimize cross-contamination. While some traders assemble inventory from a patchwork of sources, we track every lot from raw benzyl chloride through final drum loading. Traceability isn’t a slogan here; it is a way of working that reflects decades of lessons learned the hard way.

    Our relationships with benzyl chloride and ethylamine producers go back years, and we audit upstream partners for process consistency and material handling. It is common for traders to circulate older or off-spec product. As producers, we reject any lot that falls outside our stability or color standards. Sourcing only from longstanding partners who follow strict material segregation stops surprises in the warehouse—and, more importantly, in the customer’s reactor.

    Team Expertise Built on Real Experience

    The technical team that runs our N-Ethylbenzylamine line has spent years in the field, not just behind spreadsheets or in sales offices. From process chemists specializing in amine synthesis to operators certified in hazardous material handling, our staff brings day-to-day realism to every improvement effort. We’ve torn down pumps to check for ring closure issues, walked the floor with clients during problem-solving sessions, and invested in in-line monitoring technology based on what our users were finding—not what sounded good on a brochure.

    What marks our approach is the refusal to cut corners with unnecessary stabilizers, plasticizers, or recycled input streams. Customers sometimes notice a waxy film or an off-odor in “bargain” material and only later trace spoilage to inferior production practices. Our in-house analytical capability (FTIR, GC, moisture analysis) stops these problems before they reach a drum. We encourage technical partners to visit, sample, and validate production in person.

    Controlling Every Step from Raw Feedstock to Final Delivery

    We believe there is no substitute for full lot traceability. Sophisticated customers often demand batch-level data down to the source of each raw material drum. In our experience, trouble rarely originates in the reactor—it’s usually a flaw in feedstock (benzyl chloride or ethylamine) or overlooked during packaging. We monitor storage tank turnover rates to avoid temperature cycling that triggers amine decomposition. Every delivery includes the latest certificate of analysis, with customer-specific test data on request. Customers in crop protection and pharma often audit our controls, sometimes bringing their own test panels. This level of transparency is what sharpens our edge.

    We’ve automated much of the filling and packaging, but human oversight still plays a major role. Contrary to what automation vendors sometimes claim, electronic eyes catch only what they’re told to see. Our supervisors regularly open finished containers, sample headspace for unwanted volatiles, and double check clarity. These extra steps don’t earn much attention or marketing copy, but they make all the difference when a shipment lands halfway across the world.

    Feedback Loops That Drive Continuous Improvement

    There’s no hiding behind middlemen here. If a customer reports a deviation in analysis or shelf life, our technical leads take it seriously, running stability checks and even pulling archived reference samples from cold storage for head-to-head comparison. Once, a client flagged a slow color change in field-packed drums in a humid climate. Our team traced the problem to a slight tweak in a packaging supplier’s process. Adjusting the container resin and adding an oxygen scavenger solved it promptly—and we updated all documentation for future orders.

    We encourage even seemingly minor feedback. If a batch runs smoother, purifies more easily, or stretches raw material farther, we want to know. Periodic customer surveys and site visits keep us aware of what’s happening downstream—not just in the lab, but in real-world operations where pressure, temperature, and cleaning cycles turn “nice-to-have” features into essentials.

    Developing for Today’s Regulatory Environment

    Customers working in regulated sectors face strict requirements for documentation, impurity profiles, handling records, and shipping. We keep robust, up-to-date files on every lot, ready for customer audit. Increasingly, buyers need not just a purity number but full documentation of analysis, packaging integrity, and supply chain ownership—sometimes extending to environmental responsibility and carbon tracking.

    We keep our own documentation practices tight, providing access to test records and retaining samples according to customer agreements. When a new industry regulation appears—often with little warning—our QC group investigates the impact early, running validation tests and stress studies if the rule touches anything in our process. The most resilient organizations adapt this way, maintaining flexibility by knowing their production systems inside and out.

    How We Handle Customer-Specific Requests

    We’ve learned to work with customers, not just sell a product. Sometimes the request is as simple as a particular drum size for factory compatibility or as complex as a full run with a modified impurity profile for a unique catalyst system. We don’t ship “one-size-fits-all” lots. Instead, we talk through the real pain points with the customer’s technical team, build a clear specification and run small-scale samples before committing to a scale-up.

    Certain fields—such as advanced coatings, specialty catalysts, or emerging battery technologies—often want tight controls on non-target functional groups or isotopic composition. Others need long-term stability for warehouse storage or multi-stage logistics. We ship trial drums, support method transfer by sharing our analytical procedures, and assist customers in tuning their downstream process parameters to accommodate our material. Customers have told us they value this technical cooperation more than any published guarantee.

    Practical Insights from a Working Manufacturer

    Not every supplier can—or wants to—hold themselves publicly accountable for their output. Direct customer dialogue sometimes reveals strengths in our processes or brings hidden weaknesses into focus. As manufacturers, we stay honest about both. There’ve been times we couldn’t meet a timeline or a target impurity, and we said so plainly. We believe partnership means sharing limitations, not just successes. This approach has kept hard-won relationships alive through new plant start-ups, raw material shortages, and evolving application needs.

    Buyers often ask: What’s really important in N-Ethylbenzylamine procurement? Our experience suggests three points matter most:

    These lessons are born out of practical setbacks and real-world problem solving. We daily match our production line’s output to laboratory specifications, not marketing figures. Each deviation is tracked, discussed, fixed, and, if needed, explained to customers directly.

    Comparisons With Other Sources and Alternatives

    We often get samples of foreign-sourced or recycled N-Ethylbenzylamine for side-by-side comparison. These materials may cost less, but they bring higher water content, color instability, and inconsistent assay values. More than once, reactive side impurities (aromatic aldehydes or unreacted amines) have tripped up a customer’s scale-up. One client discovered off-odor from storage drums of non-dedicated production runs—material that had been recirculated through solvents not detailed on supplier paperwork.

    For those on the fence about alternatives, direct testing offers an answer. Most customers willing to run a true split lot trial see the value in tighter analytical specs and cleaner production cycles. Once, a large-scale batch using our grade cut customer cycle times by two-thirds over trader alternatives, simply because there were fewer downstream reworks and cleanouts. In modern manufacturing, those real-world savings outweigh even generous per-kilogram discounts.

    Building On Our Strengths—And Addressing Weaknesses

    We recognize the field is always changing. Raw materials tighten, new industrial regulations appear, and users develop new applications with stricter demands. We invest in training, update process controls, and review every audit and test run with an eye on what can be improved—not just what meets spec. That’s how we’ve brought N-Ethylbenzylamine grades up from commodity to specialized role over recent years, earning business with repeatable quality and close technical support.

    No process is ever perfect. From handling true single-container traceability to developing safer transfer methods in customer plants, we welcome outside audits, feedback, and even criticism. Our team knows that the next advance usually comes from a user’s specific frustration or generated data point, not from a supplier’s imagination. That’s how we keep pace in an industry where rewards come fast to those who listen and adapt.

    Summary: What Sets Our Approach Apart

    N-Ethylbenzylamine plays a quiet but irreplaceable role in processes across industries, from precision labs to commercial-scale reactors. Our practice is rooted in real production, clear communication, and honest assessment of both what we offer and where we’re still improving. Customers trust us not only for current supply but also for partnership in facing the inevitable demands of new chemistry, supply chain challenges, and changing industrial landscapes. We value this trust and work each day to keep earning it—batch by batch, project by project, and, whenever possible, face-to-face.