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HS Code |
617464 |
| Product Name | DL-Alpha-Methylbenzylamine |
| Chemical Formula | C8H13N |
| Molecular Weight | 123.20 g/mol |
| Cas Number | 3886-69-9 |
| Appearance | Colorless to pale yellow liquid |
| Density | 0.925 g/mL at 25°C |
| Boiling Point | 184-186°C |
| Melting Point | -60°C |
| Refractive Index | 1.520-1.522 |
| Purity | Typically ≥ 98% |
| Solubility | Miscible with most organic solvents, slightly soluble in water |
| Storage Conditions | Store in a cool, dry, well-ventilated place |
| Pka | 9.3 (for the amine group) |
| Smiles | CC(C1=CC=CC=C1)N |
| Synonyms | 1-Phenylethylamine |
As an accredited DL-Alpha-Methylbenzylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250 mL amber glass bottle with tamper-evident cap, labeled "DL-Alpha-Methylbenzylamine," hazard symbols, and manufacturer details. |
| Shipping | DL-Alpha-Methylbenzylamine is shipped in tightly sealed containers, protected from light and moisture. Packages comply with relevant regulations for handling amines. During transit, it is labeled as a chemical substance, with proper documentation for safe handling and emergency procedures. Shipping is typically restricted to qualified carriers for chemical materials. |
| Storage | DL-Alpha-Methylbenzylamine should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and incompatible substances such as oxidizing agents. Keep the chemical away from sources of ignition and store it at room temperature. Ensure proper labeling and avoid moisture contact to maintain stability and ensure safe handling. |
Applications of DL-Alpha-Methylbenzylamine in Industrial ManufacturingDL-Alpha-Methylbenzylamine serves as a key intermediate in several chemical synthesis routes. The following real-world applications demonstrate its relevance in pharmaceutical, agrochemical, and fine chemical sectors, with an emphasis on regulatory alignment, proportional usage, process integration, and end-use characterization for industrial procurement and formulation teams. 1. Synthesis of Chiral Pharmaceutical IntermediatesDL-Alpha-Methylbenzylamine plays a prominent role in the resolution and preparation of enantiomerically pure amine compounds, especially during the manufacture of active pharmaceutical ingredients targeting central nervous system indications. Industrial processors employ it as a resolving agent or precursor for asymmetric syntheses pivotal to APIs like Selegiline and Labetalol. This amine enables reliable imine formation and reductive amination, supporting precise chiral control in compliance-driven environments. Industry compliance standards
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2. Agrochemical Precursor ProductionMany manufacturers employ DL-Alpha-Methylbenzylamine as a nucleophile in the synthesis of selective herbicide intermediates and fungicidal active compounds. Its chemical structure supports efficient Mannich reactions, contributing to the development of pre-plant herbicide actives for industrial use. Downstream production emphasizes traceability and precise content control to meet global agrochemical registration standards. Industry compliance standards
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3. Fine Chemical Reductive Amination ReactionsChemical processors integrating reductive amination protocols depend on DL-Alpha-Methylbenzylamine as a primary amine source for the preparation of structurally complex amines. The compound’s reliable nucleophilicity and compatibility with catalytic hydrogenation systems facilitate the manufacture of specialty aroma compounds, advanced intermediates, and high-value reagents in fine chemical production plants. Industry compliance standards
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4. Preparation of Polymerization Catalysts and LigandsWithin the specialty polymer sector, chemists utilize DL-Alpha-Methylbenzylamine to prepare organometallic ligands and catalyst precursors. Its role centers on the modification of transition metal complexes, optimizing polymerization behaviors for certain engineering plastics. The performance of polymerization catalysts hinges on amine-derived ligand purity and consistent incorporation, with manufacturers focusing on tight analytical and contamination controls throughout production. Industry compliance standards
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Inside the chemical plant, DL-Alpha-Methylbenzylamine takes on a workload that few other amines match. We produce this compound through our own controlled synthesis lines where quality sits above all else. The product’s CAS number tells a clear story to those who know: 3886-69-9 refers not to just a chemical, but a backbone for many synthesis strategies. Under the direct supervision of our experienced teams, every batch meets strict standards for purity and performance. We regularly test for chiral purity, moisture level, and residual solvents, not because standards demand it, but because downstream partners trust us for it.
In its production, we prefer direct reductive amination methods, minimizing byproducts and side reactions. We keep to carefully measured temperature profiles and controlled addition rates. Any deviation reduces consistency, and customers in the pharmaceutical and agricultural synthesis space notice such shifts right away. Consistency, in our experience, takes more than recipes; it takes a willingness to stop a reactor, investigate, and recalibrate when off-spec readings come up. This is not a corner-cutting business.
Most of our output for DL-Alpha-Methylbenzylamine settles around 98-99% assay for both enantiomers together, with water content kept below 0.2% whenever possible. We run gas chromatography on every lot. Over the years, scaling up from lab production to hundreds of kilograms in a month, we learned the difference half a percent makes for downstream yields. When we field questions from custom synthesis partners, they seldom ask for a glossy brochure. Instead, they ask for raw chromatograms, analytic certificates, or practical insight into how our batches handle under real-world conditions.
Pharmaceutical chemists visit our site to inspect drum seals, sample storage, and witness how each run gets its traceability code. Few details escape our notice. Anyone who has had a failed hydrogenation run or lost yield to an impure amine building block knows why this matters. Mistakes build up if the starting material comes with side impurities or variable water levels, so our cleanroom protocols and strict distillation columns become silent partners in every client's project.
This amine crops up most commonly as a chiral auxiliary and in intermediates for both fine and agrochemical production. Bulk buyers use it to introduce the α-methyl group for selectivity in further transformations. We see it pressed into service on pilot plant scales, sometimes as key input to chiral separations. Peptide synthesis chemists sometimes use derivatives of our product for constructing backbone segments that might otherwise prove intractable.
The racemic nature gives it flexibility in early-stage research, where screening rapid analogs matters more than immediate enantioselectivity. Later, some customers move to the L- or D- enantiomer once a lead compound proves promising, but the DL-form enables faster progress and cost-saving during these initial studies. Our manufacturing partners chasing agricultural or fine fragrance intermediates—those who scale up quickly and need ready supply—consistently report better throughput with a dependable source of DL-Alpha-Methylbenzylamine.
During custom manufacturing projects, nearly every kilogram we ship enters new territory. One buyer relies on it for reductive amination steps to finish antihistamine intermediates; another incorporates it for specialty flavors in aromatic aldehyde chemistry. For both, knowing the product will not introduce unknowns into their process turns into repeat orders and long-term partnerships.
There are times the choice falls between the DL-form and one pure enantiomer. Working directly with those applications, we help partners weigh economics, chemical properties, and intended use. The racemic DL-Alpha-Methylbenzylamine brings both efficiency and value during exploratory or bulk syntheses. Chiral specialty applications—a single enantiomer in a drug precursor, for instance—demand a degree of selectivity that the racemic product cannot match.
Compared with benzylamine, the extra methyl group at the alpha position changes reactivity just enough to affect condensation and reduction outcomes. In our hands, batches of methylbenzylamine regularly outperform simple benzylamine for creating substituted amphetamine derivatives, APIs, and even certain step-growth polymers. The main lesson we share with partners: not all amines stand up to the same process conditions. Choosing between methylation patterns affects yields, side product formation, and downstream separations.
Compared with alpha-methylbenzylamine’s single-enantiomer forms, the DL batch offers general-purpose value. Chiral resolution steps or asymmetric synthesis later can get tricky without a consistent, cost-controlled DL supply behind them. We have found through joint development projects that jumping straight to enantio-pure products rarely pays off for early-scale or pilot-stage work. Reliable racemic material supports discovery runs and proof-of-concept studies where volume, not enantiopurity, limits progress.
As we scale up runs of DL-Alpha-Methylbenzylamine, process headaches teach us value you will never find in a chemical catalog. Amine distillation is never trivial: batch-to-batch control means tuning not just temperature and pressure, but sometimes even distillation column internals to avoid polymer fouling. Over time, our plant teams learned where glassware swaps out for stainless steel, which sensors to trust, and which paperwork genuinely tracks roots of problems.
Customers have pushed for double the output, leaner waste generation, and new grading standards. We reorganized drying and storage protocols to fight moisture pickup. Using molecular sieves right before final fill, then running Karl Fischer titration for verification, cut down on downstream surprises. Until you’ve spent months fine-tuning a methylbenzylamine plant, you never realize how fast one leaky valve or poorly stored drum can undo days of careful work.
Like other amines, this one absorbs water and CO2 if left open to air. Early on, we swapped to nitrogen-blanketed storage, implemented strict drum rotations, and installed desiccants in every shipping container. Complaints about clumping or discolored product dropped sharply. These are the kinds of fixes that look easy from the outside but require years of customer feedback and plant experience to really get right.
Amines can bring out quirks in downstream reactions. Our own customers have shown us where DL-Alpha-Methylbenzylamine triggers exothermic hotspots or causes material carryover if not properly phased. Technical teams on both sides meet to tune reaction charges, venting, and solvent swaps within multi-ton synthesis lines.
We supply not just material but direct advice—how best to introduce fresh product, whether to age it, how to purge it, and what types of handling minimize risk of amine darkening. Many applications in API and fine fragrance synthesis demand strict color and odor controls. Running pilot-scale purification in-house, we dial in the cleanest base material ready for client reactors. Any failure to control side impurity levels or off-odor can turn a promising campaign into a costly setback. Picking the right hydrogen donor and proper phase separator for methylbenzylamine cases often keeps production running hours ahead of schedule.
Working to pharmaceutical and agricultural safety standards, we take storage and transport triggers seriously. This means identifying which inhibitors fit longest shelf-life without interfering with customer chemistry or regulatory filings. We constantly review drum labels, MSDSs, and on-site storage configurations because feedback from field engineers, not just paperwork, drives process improvements. Toxic exposure, spill response, and operator safety weigh on every drum that leaves our gate.
Lab curiosity only tells part of the DL-Alpha-Methylbenzylamine story. Our real learnings come downstream, where real chemists test product limits. One crop protection firm traced unexpected yield drops to residual metal contamination and fine-tuned their process with us. Years of feedback from pharmaceutical partners shapes every spec adjustment and process tweak. No amount of simulated bench-scale work stands in for joint troubleshooting with factory engineers or seeing a promising pilot run stumble on a “minor” impurity that turns out to make all the difference.
As process collaborators, we recognize that even one batch of amine with slightly off-target specs generates cascading issues: failed chiral resolutions, color changes in final product, unanticipated side products. In one pharmaceutical pilot, rapid stability checks for our methylbenzylamine avoided a week-long production halt. Real metrics from the field—yield, color, cleanup times—determine which tweaks last and which overhauls fail. Listening beats theorizing every day.
Larger orders come in as global R&D budgets push for fast analog synthesis and pilot campaigns. Reliable, scalable production of the DL-form delivers broad-spectrum value: it keeps up with project tempo and pricing targets, while chiral separation steps can often run downstream if a lead project advances. As enantiopure drugs and fine chemicals demand precision, the racemic format still feeds the foundation of discovery pipelines and bulk intermediates.
With supply chain disruptions a reality, direct-from-plant procurement of reliable amines insulates customers from market shocks. Plant leadership coordinates closely with shipping and QC, reducing delays and holding buffers on key raw materials. Forecasting demands isn’t just about sales: it involves tracking feedstock volatility, labor patterns, and even new regulation from global authorities. Only by holding material ready and adjusting for seasonal or policy shifts can we maintain trust with partners relying on just-in-time production.
Every chemical manufacturer faces scrutiny over wastewater, process emissions, and energy consumption. On the DL-Alpha-Methylbenzylamine lines, solvent recovery and waste minimization drive both cost savings and compliance. By moving several distillation steps to closed loop and installing upgraded scrubbers, we have cut hydrocarbon losses and reduced operator exposure. Waste outputs from early runs—once measured by the barrel—now drop to trace levels per campaign.
Partnering with environmental engineers, we commit to continuous tracking of raw material efficiency and secondary product capture. While each plant faces different standards and equipment ages, field data steers our investments. If a flaw arises—an unexpected off-gas, an abnormally high solvent residue—it doesn’t turn into a regulatory fine or a rejected batch. It gets logged, traced, and forms the root of next months' operations review.
A pure manufacturing route matters. Customers sometimes share their experience with blended or repackaged methylbenzylamine bought through multiple hands: inconsistent batch histories, higher rates of failed reactions, and no access to real-time technical support. Coming direct from the plant, our product keeps an auditable record—a full chain of custody, in-depth analytic data, and fast answers when downstream issues flare up.
Resellers cannot offer real-time advice when C18 column separations show ghost peaks or peptide couplings unexpectedly stall. The difference is clear when time comes to troubleshoot: plant-based technical support knows the underlying synthetic steps, not just the test results. When a customer runs up against a new impurity, our process chemists get on the call, review prior batches, and track whether a fix needs deploying on our end or if it’s only a change needed in the client’s line. Avoiding third-party mishandling, moisture pickup, or cross-contaminated drums keeps project timelines intact. The low failure rates in our client QC labs bear this out.
Market movements don’t happen in a vacuum. Demand for the DL-form changes as pharmaceutical, agricultural, and flavor & fragrance sectors grow or reallocate budgets. Price fluctuations often correlate with benzylamine feedstock costs, regional energy rates, and global transportation lags.
We watch how large pharmaceutical projects shift between racemic and enantiopure intermediates. Earlier phases often lean on robust racemic batches like ours because they lower cost and accelerate screening. Projects that clear phase II or move toward regulatory approval require much tighter control—leading to some customers reviewing both DL- and chiral product specs with us, right down to byproduct residuals and trace metal profiles. At every step, our investment in people, plant, and process pays off in both supply stability and the long-haul confidence clients need to advance new products.
Direct plant experience puts us in a position to share how real-world issues shape process choices and outcomes for DL-Alpha-Methylbenzylamine. From raw feedstock volatility to batch control, each challenge has formed a core part of our manufacturing approach. Product quality is not just an abstract idea, but a hands-on result of the work our teams do every day—testing, troubleshooting, and restarting lines when a spec wavers.
Our customers work in competitive environments where downtime, off-grade batches, and template support cost money. By investing in our own manufacturing, we deliver not just material, but committed partnership as industry needs evolve. The lessons gleaned from thousands of kilos shipped, hundreds of plant inspections, and ongoing technical dialogue with top industry partners shape every new batch of DL-Alpha-Methylbenzylamine that leaves our site.