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HS Code |
663157 |
| Iupac Name | N-methyl-3-(aminomethyl)aniline |
| Molecular Formula | C8H12N2 |
| Molecular Weight | 136.19 g/mol |
| Cas Number | 10223-27-9 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 257-259 °C |
| Density | 1.015 g/cm3 |
| Solubility In Water | Soluble |
| Smiles | CNCC1=CC(=CC=C1)N |
| Purity | Typically ≥ 97% |
| Refractive Index | 1.592 |
| Storage Conditions | Store at room temperature, tightly closed |
As an accredited 3-Aminobenzylmethylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g 3-Aminobenzylmethylamine is securely sealed in an amber glass bottle with a tamper-evident cap and clear labeling. |
| Shipping | 3-Aminobenzylmethylamine is securely packaged in approved chemical containers and shipped in compliance with local, national, and international regulations. Proper labeling and documentation ensure safe handling during transit. The chemical is typically sent by ground or air freight, with temperature and hazard controls as required. Delivery timelines vary by destination. |
| Storage | 3-Aminobenzylmethylamine should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. Protect from moisture, heat, and direct sunlight. Ensure proper labeling and keep away from sources of ignition. Use appropriate personal protective equipment when handling, and store in accordance with local regulations and safety guidelines. |
Applications of 3-Aminobenzylmethylamine in Industrial ManufacturingAs a direct manufacturer, we focus on the technical value and specific downstream integration of 3-Aminobenzylmethylamine (3-ABMA) across specialty chemical sectors. Below, we outline key industrial applications distinguished by unique compliance requirements, usage ratios, processing roles, and resulting end-products. 1. Intermediates for Pharmaceutical Active Ingredient SynthesisOur clients in the pharmaceutical sector utilize 3-ABMA as a functional intermediate during the multi-step synthesis of select small-molecule drugs. It serves as a key building block for the generation of fused heterocyclic compounds and APIs where a methylaminobenzyl functionality is required for pharmacological properties, often applied in CNS-active or anti-infective categories. Formulation chemists standardize input ratios based on the targeted molecular scaffold, considering reactivity and purity thresholds according to GMP and regulatory frameworks. Reactors integrate 3-ABMA primarily at the N-alkylation or reductive amination stage, and rigorous in-process controls monitor stoichiometry to minimize impurity formation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Advanced Agrochemical Synthesis (Herbicide and Pesticide Precursors)Formulators in the crop protection industry deploy 3-ABMA as a primary amine component to introduce benzylmethylamino groups onto bio-active scaffolds for new-generation herbicides and systemic pesticides. During the multi-step synthesis of functional actives, the raw material enables the construction of selective amide or imine linkages with phenolic and aromatic carboxylic partners. Strict conformity to agricultural chemical production standards requires accurate mass balance and rigorous waste stream management across the process line. The raw material can be introduced in continuous or semi-batch modes, considering downstream catalyst tolerance and desired impurity profiles. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Dye and Pigment Intermediate ProductionSpecialty dye manufacturers utilize 3-ABMA for the synthesis of methylaminobenzyl-substituted azo and anthraquinone dyes. The material often functions as an amine coupling partner during diazotization or electrophilic aromatic substitution, enabling precise modification of color properties and solubility profiles. Producers must comply with REACH guidelines and textile chemical safety documentation, ensuring low levels of aromatic amine residues. Typical dye synthesis employs stoichiometric ratios matched to the desired chromophore structure, and reaction parameters are tightly controlled to avoid formation of regulated byproducts such as primary aromatic amines above threshold limits. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Functional Polymer Modification and Curing AgentsThe polymer and resin manufacturing sector incorporates 3-ABMA as a chain modification or curing agent in specialized epoxy and polyurethane formulations. This raw material introduces primary and secondary amine functionalities that improve cross-link density, increase mechanical performance, or enable functionalization for adhesion promotion. Its use requires adherence to industrial hygiene protocols and notification to downstream users under regulatory inventories. Typical formulations calibrate dosage based on target molecular weight and end-use property requirements. Processing lines feed 3-ABMA into pre-polymer or resin blends, and amine curing takes place under controlled exothermic conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Every batch of 3-Aminobenzylmethylamine we produce starts as a small project on the lab bench before we scale it to the reactors on our production floor. We’ve learned a lot from watching how small changes during synthesis, such as careful temperature monitoring and reagent addition speed, lead to purer material and more consistent performance. Over the years, that experience has convinced us to invest in both process automation and hands-on operator training, rather than rely solely on off-the-shelf equipment. We see the whole journey from raw material selection, through aminomethylation, to final distillation, as an ongoing cycle of improvement — one that never ends.
We produce 3-Aminobenzylmethylamine under a factory batch number, never under private label. Our product features a clear yellowish liquid form, consistent with the expectations for a monoamine with the formula C8H12N2. Routine GC-MS and HPLC analysis guide every release; our typical purity specification exceeds 98%. Moisture content, methylamine residuals, and aromatic byproducts get tracked in-house as part of every lot review, and full COAs flow straight from our lab. During the last two years, we tightened our controls around color and odor thresholds, since several pharmaceuticals clients told us about reaction interferences caused by isomeric contaminations.
Customers often turn to 3-Aminobenzylmethylamine because it serves as a reliable building block for more complex compounds in both pharma and fine chemical synthesis. Over years, you notice certain patterns. A batch distilled too fast leads to higher byproducts that stall downstream hydrogenation. Subtle shifts in pH during workup trigger differences in shelf stability for derived intermediates. These aren’t abstract technical footnotes — they shape the reliability of every multistep reaction that follows. Our engineers swap notes with formulators up and down the supply chain, discussing not just test methods, but what really matters for how amines deliver in the flask.
A lot of plant managers tell us they appreciate the robust nature of our 3-Aminobenzylmethylamine under various conditions. Where some aromatic amines show progressive darkening or viscosity changes after drum transfer, ours keeps a stable profile for months after delivery, thanks to how we handle antioxidant quenching and microfiltration. We track feedback on issues like drum corrosion and variation between shipments. Any time a user detects a new impurity or color shift, our QC team grabs retained samples and runs them again, searching for the subtle things that can tip an entire process off balance.
Practical differences stand out most clearly on the shop floor. We notice customers compare our 3-Aminobenzylmethylamine to bulk benzylamine or o-toluidine, searching for the right match in amination steps. 3-Aminobenzylmethylamine’s bifunctional nature, with an aromatic amine and a methylated side chain, gives it multiple pi-bond and alkyl sites for derivatization. The product lets chemists tune hydrophobicity and reactivity in one stroke — giving process developers more elbow room in designing target molecules.
Some suppliers blend in excess carrier solvents to make filling simpler, but that’s not our path. We stick to neat product whenever possible, since years of discussions with scale-up managers convinced us that every additive downstream multiplies purification headaches. Clear record-keeping gives downstream teams the confidence to move fast with their own process development, since they don’t lose days chasing artifact peaks on their chromatography.
Storage and handling also separate high-purity aromatic amines from run-of-the-mill stock. Poor-quality batches from intermediates with similar profiles, such as N-methylbenzylamine or xylene-derived amines, sometimes degrade under ambient humidity and elevated summer temperatures. Our product’s tightly controlled water content and stabilized pH profile minimizes this risk. We maintain our amine under nitrogen blanket wherever practical, not out of regulatory obligation, but because our export customers found it preserved shelf life by over a quarter.
You don’t gain a reputation for quality overnight. Over a decade of producing 3-Aminobenzylmethylamine, we’ve encountered practically every challenge in the book. Incoming lots of precursor often vary by more than spec sheets indicate; we keep multiple vendors on hand and never hesitate to blend lots until internal analytics clear the path for scale. Market swings, once driven by tweaks in agricultural demand for methylamines, now come from generics programs and specialty coatings that ride the cycles of global manufacturing. We’ve had to respond by shifting batch sizes and investing in real-time analytical technology so release delays don’t bottleneck the process.
Our records show purity matters, but stability counts just as much. Early on, regulatory clients flagged batches that met specification, but failed on aging curves. Turns out, unintentional byproducts — some below the detection limit of standard tests — trigger downstream problems in epoxide and imine formation. We took those lessons into our process, strengthening purification beyond what commodity suppliers usually target. It’s not the same as scaling up from catalog chemistry; every customer’s use case leaves a trail of feedback we bake into standard operating procedures. That’s how we keep the curve moving upward.
Chemists and buyers want a supplier who does more than fill barrels. Every season, we host plant visits and technical audits — not to show off, but to open up the lines of communication between production chemists and process engineers. Technical support looks different here: we spend time in customers’ formulation labs, tracing what happens when 3-Aminobenzylmethylamine goes from drum to reactor. Nothing substitutes for standing by while a kilo-scale experiment runs, watching for clues like off-gassing or color shift, and asking operators what they wish we’d do differently.
People deserve straight answers about what goes into their products. Our job doesn’t stop when the invoice gets paid. If a batch reacts differently in a new process, we dig into archived samples, checking for small deviations that might have crept in at the raw material or process aid stage. Some of our best process improvements started with frank conversations following a failed run overseas. By chasing the root cause, not hiding behind “meets spec” certificates, we rebuild trust every time.
Short lead times matter more than ever. The last few years saw customers working with reduced inventory and compressed project timelines. We responded by integrating just-in-time production planning, making sure freshly manufactured material — not months-old stockpile — heads directly to loading docks. This cut down on time in warehouse environments, minimizing risks of product degradation from oxygen or ambient light. Where regulatory timelines demand it, we provide rapid QC turnaround, scanning every drum with in-house spectroscopy before release.
Questions surface around handling and safety too. Each time new research turns up a previously unknown toxicological pathway for related amines, our safety group checks implications for process practices and downstream labeling. Many buyers now expect transparent records not just on batch data, but regarding routes of synthesis and waste minimization. We share details about our post-synthesis clean-up, treatment of residual organics, and practices to cut fugitive emissions — not because a regulation says so, but because we believe confidence flows from openness.
Day-to-day QC work often separates a specialist manufacturer from a job shop. On our production lines, GC, NMR, and TOC instruments run batch checkpoints, scanning for target peaks and hidden outliers. We empower our staff to flag not just out-of-spec results, but “weird” runs, even if they still check the right boxes. These interventions kept minor problems, like low-concentration p-toluidine crossover, from ever entering the distribution chain. We document every intervention, folding them back into SOP adjustments and staff training, so causes do not repeat.
Disposal and stewardship concern many partners. Our long-term relationships with waste handlers and local environmental bodies led us to upgrade secondary containment and invest in real-time air monitoring. In-house recycling of mother liquors and distillation residues now keeps much of what once left the site as hazardous waste within the closed process stream. Buyers in Europe and North America often want to know details about steps like these due to local disclosures; we’ve made the effort to provide that transparency in customer files.
Shipping chemicals across borders brings its own challenges. We comply with local export requirements and take care in packaging selection, following customer requests for drum sizes and lining materials based on planned storage duration and climate. Our facilities register every batch ahead of time, making documentation accessible for customs and end-user reviews. Many receiving points in hot or humid zones ask for extra monitoring, so our logistics group provides shipping logs complete with temperature trackers.
What we notice in export logistics is that reliability means more than getting something from point A to point B. Tracking small failures, like drum leaks or condensation during transport, led us to switch over from steel to HDPE drums with induction-sealed liners for most shipments. We learned that coatings or pharmaceutical partners demand certificate chains, proving uninterrupted handling, so we keep digital logs and visual records for every order of 3-Aminobenzylmethylamine, ready to share with any customer or auditor.
Chemical manufacturing changes as downstream expectations change. Calls for greener production, solvent recovery, and renewable feedstocks have not gone unheard. We’ve run trials substituting biomass-derived methyl donors, exploring enzyme-based conversion to reduce process temperature. Progress takes iteration, and not every trial delivers at industrial scale. Still, as the market pushes for lower carbon footprints and traceable sources, our team doubles down on R&D that balances cost, safety, and sustainability — without sacrificing consistency or quality.
Feedback loops close the distance between supplier and user. Some of our partners share data on side reactions and catalyst loading, revealing weak spots we never anticipated. Others run scale-ups in entirely different solvents, which gives us insight into the robustness and adaptability of our 3-Aminobenzylmethylamine compared to mainline options. Openness and knowledge-sharing strengthen everyone’s process — we’ve seen improvements in waste minimization and overall process yield simply by staying curious about problems in the field.
Continuous investment in training, equipment, and feedback has shaped how we see 3-Aminobenzylmethylamine production. Process pressures evolve, and even as market demands shift, we keep learning from every kilogram delivered and every process issue unpacked together with users. Each lot reflects not just starting materials and stainless steel, but the collective effort of chemists who care about results in the drum and the reaction vessel alike.
Whether it heads into a critical intermediate, a new research project, or a mainstream production recipe, our 3-Aminobenzylmethylamine stands on the lessons learned from countless production runs, customer collaborations, and technical challenges solved along the way. The trust we earn comes not from a single sale, but from years of showing up, listening, and striving to deliver a little better every time.