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HS Code |
695314 |
| Cas Number | 5361-93-1 |
| Molecular Formula | C8H11NO |
| Molecular Weight | 137.18 g/mol |
| Iupac Name | 3-methoxybenzylamine |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 229-231 °C |
| Melting Point | -32 °C |
| Density | 1.08 g/cm³ |
| Refractive Index | 1.539 |
| Solubility In Water | Soluble |
| Flash Point | 103 °C |
| Smiles | COC1=CC=CC(=C1)CN |
| Inchi | InChI=1S/C8H11NO/c1-10-8-4-2-3-7(5-8)6-9/h2-5H,6,9H2,1H3 |
| Synonyms | m-Anisylamine; m-Methoxybenzylamine |
As an accredited 3-Methoxybenzylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 3-Methoxybenzylamine is packaged in a 100 mL amber glass bottle with a secure screw cap and chemical safety labeling. |
| Shipping | 3-Methoxybenzylamine is typically shipped in securely sealed containers, such as glass bottles or HDPE drums, to prevent leaks and contamination. It should be packed in accordance with local and international regulations for the transport of chemicals, often labeled as corrosive or irritant, and kept away from incompatible substances during transit. |
| Storage | 3-Methoxybenzylamine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition and incompatible substances such as strong oxidizers or acids. Protect the chemical from moisture and direct sunlight. Ensure that storage is compliant with local safety regulations and that appropriate spill containment is available nearby. |
Applications of 3-Methoxybenzylamine in Industrial Manufacturing3-Methoxybenzylamine is an essential intermediate in multiple high-value downstream chemical sectors. As a direct manufacturer specializing in this raw material, we work closely with formulation chemists and production managers to meet demanding quality, regulatory, and performance requirements. Below we detail core application scenarios where this compound plays a decisive role in both synthesis and formulation, including actual usage concentrations, industrial compliance frameworks, and end product categories. 1. Pharmaceutical Intermediate for Active Pharmaceutical Ingredients (APIs)Pharmaceutical synthesis remains the principal application for 3-methoxybenzylamine, primarily as a building block in the production of selective antihypertensives and neuroactive molecules. Manufacturers typically introduce this amine through amide or imine formation steps, facilitating key transformations during API assembly. The compound’s use complies with stringent global pharmacopeial and regulatory frameworks. Actual dose levels in API synthesis are carefully calculated based on target molecule stoichiometry, with excess adjusted to drive the main condensation or reductive amination accordingly. Industry compliance standards
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2. Synthesis of Agrochemical Active IngredientsThis compound features prominently in the fine chemicals sector for fungicide and herbicide manufacture. Technical product formulations leverage its reactivity in nucleophilic addition routes to construct complex heterocycles or substituted benzene derivatives, integral to agroactive profiles. Agrochemical plants maintain batch records under global crop protection and environmental norms, with process controls tuned to maximize the selective amination efficiency and minimize impurity formation. Industry compliance standards
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3. High-Performance Polymer Additive SynthesisDownstream polymer manufacturers use 3-methoxybenzylamine as a monomeric modifier or as an intermediate to functionalize polyamide and polyimide chains, imparting thermal resistance and improved electrical properties. The additive’s precise role depends on whether it reacts via direct polymerization or as an end-group functionalizer in block copolymers. Formulators must observe sector-specific material safety and quality regimes, as product purity and batch consistency directly influence polymer performance in application-specific testing. Industry compliance standards
Typical usage ratio
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4. Fine Fragrance and Aroma Chemical SynthesisA small but significant volume of 3-methoxybenzylamine is consumed in the specialty chemicals sector for the manufacture of fine fragrance ingredients, particularly those with powdery, woody, or balsamic scent notes. Synthesizers employ amine-derivatization reactions to yield key aroma molecules, integrating the raw material into complex multistep processes governed by food-grade and safety regulations. Batch traceability and specification adherence remain central as downstream formulations see direct use in regulated consumer products. Industry compliance standards
Typical usage ratio
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5. Specialty Dye and Pigment Precursor ManufactureIndustrial dyestuff producers select this compound for the synthesis of chromophoric amines required in high-stability dyes, especially those targeting textile and inkjet applications. The raw material acts as an essential reactant for azomethine or phenazine dye structures, with batch reactivity tuned to color performance and substrate affinity. Regulatory frameworks for textile and graphic applications dictate both material purity and trace heavy metals, placing additional demands on production QC. Industry compliance standards
Typical usage ratio
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As a chemical manufacturer, the value and applicability of a specialty amine like 3-Methoxybenzylamine run much deeper than the numbers on a spec sheet. Our daily reality centers around batches, precise measurements, and the assurance of continuous quality. With 3-Methoxybenzylamine, the focus sits on more than meeting a checklist—it’s about producing a chemical that performs exactly as needed in active pharmaceutical ingredients, advanced materials, and agrochemical research.
Consistency begins long before we package a drum. Starting with high-purity aromatic substrates, we monitor every stage of the synthesis and purification process. By maintaining a highly controlled environment in our reactors and separation units, we keep the water content and byproduct formation at bay. We routinely hit GC purities above 99 percent and hold a narrow range in specification for amine content, moisture, and appearance—not just on paper, but backed up by in-process and batch release testing.
From our perspective on the plant floor, we see how differences in trace impurity levels or residual solvents can have downstream consequences for a customer. In years of producing 3-Methoxybenzylamine, subtle shifts during hydrogenation, poorly controlled isolation, or use of substandard feedstock have come back to haunt process yields and scalability. These headaches magnify in kilo and ton-scale campaigns. This is why we make our product in fixed, repeatable cycles, and track every reaction parameter directly in our digital production records. We do not outsource. What comes out of our reactor is what customers receive.
We manufacture 3-Methoxybenzylamine with a molecular formula of C8H11NO and a molecular weight verified batch by batch. The material comes as a clear, colorless to slightly pale liquid under normal storage conditions. While many suppliers don’t take measures against amine discoloration and oxidation, we minimize oxygen ingress and cap all drums with inert-gas to protect against nitrosamine formation or color shifts. The faint amine odor tells you you’re dealing with a fresh batch.
Every batch receives tight control for GC purity (minimum 99 percent), moisture content (rarely above 0.2 percent), and absence of related benzylamine impurities. We actively check for possible aromatic ring halides, sulfates, and chlorinated by-products. As a result, customers using this amine for pharmaceutical research or as a synthetic intermediate can trust the reproducibility of their own transformations—and their batch records show it. That commitment comes straight from our lab work; we have seen pharma clients waste months troubleshooting a single contaminant from a poorly made amine. By fixing the root cause upstream, we save countless headaches down the value chain.
Across dozens of pharmaceutical, agrochemical, and fine chemical programs, 3-Methoxybenzylamine shows versatility as a robust building block. It steps up as a protected amine group, a nucleophilic partner in cross-coupling, or as a key intermediate for substituted heterocycles, as seen in certain antihistamine and central nervous system drug scaffolds. For crop protection and pigment dye producers, the compound’s selective reactivity enables synthesis of active acids and specialty colorants where a methoxy-protected amine side chain can be selectively unmasked or functionalized at later stages.
From our conversations with industrial chemists, we know the actual usability of 3-Methoxybenzylamine depends not only on its chemical structure, but on purity and stability over time. Batches suffering from oxidation, water carryover, or amine discoloration rarely pass muster for advanced process development. We keep ongoing communications with several labs who routinely send us feedback on how each lot performs in bench-scale, pilot, and production campaigns. It is not uncommon for us to adjust drying steps, filtration protocols, or bottling logistics based on their input. These relationships keep us in tune with industry standards and regulatory expectations, especially when a new impurity limit pops up in draft guidelines or when trace nitrosamines become a concern for regulatory filings.
Comparing our 3-Methoxybenzylamine to basic or secondary benzylamines on the market exposes critical differences. Most traders move generic, multi-source benzylamines to pad margins or expedite shipments, but overlook key quality characteristics: stability under storage, freedom from UV-induced decomposition, and color retention over longer supply chains. Technical grade variants often come with unknown levels of related aromatic amines, or with vague traceability about solvent carryover—factors that directly affect subsequent reactivity and toxicological profiles in regulated products.
Our manufacturing focuses on batch-to-batch repeatability and transparent provenance. This means end-users see exact lot records, impurity profiles, and stability studies with each shipment. Several global firms have come to us after trying commodity sources for early proof-of-concept runs, only to hit a wall when malformed batches upend their scale-up. Because we record every synthesis, drying, and storage detail, returning clients know they’ll get 3-Methoxybenzylamine ready for their downstream process with no surprises—and we can reproduce each lot on demand should they need more material for a regulatory or clinical submission.
Our experience tells us that purity, batch homogeneity, and targeted impurity profiling stand as the bedrock of reliable 3-Methoxybenzylamine supply. Chemists working in regulated industries don’t just want molecules; they demand reproducibility and documented traceability. That’s why we invest more resources in process optimization than in sheer volume. Working at scale, we routinely see how minor tweaks in stir rates, cooling profiles, or even storage drum coatings lead to measurable differences in the finished amine. We chase process changes with in-process control samples, and multiple labs—internal as well as customer-based—keep us honest with third-party confirmation of assay and trace analyses.
Our lab teams have worked through problematic residues, adjusted extraction sequences, and even custom-tailored the storage and packaging protocol based on unique client needs. In one instance, a crop science client needed exceptionally low ppm levels of a specific halide impurity for a new synthetic route. Our production team analyzed each upstream modification, found source contamination points, then switched purification steps. These on-the-ground changes meant the client avoided a lengthy and costly purification exercise. The difference in product quality speaks for itself when you see transparent liquid and analytical certificates confirming both compliance and shelf-life stability, batch after batch.
Environmental impact has become a reality for all chemical manufacturers. Instead of sacrificing purity or batch repeatability in the name of sustainability, we have focused on greener solvents for crystallization and purification steps, and we invest in energy recovery on our reaction trains. Wastewater and vent gases are minimized at each stage, with continuous feedback from our environmental controls lab. Over the past three years, our team reduced organic solvent consumption per ton of 3-Methoxybenzylamine by more than 20 percent, without degrading product quality. These improvements come directly from staff-driven process reviews.
None of these changes would have happened without direct operator input. The people who run our reactors and pack the final drums keep an eye on process drift and point out ways to recover intermediates or cut waste. Our engineers conduct regular risk assessments not only for regulatory agencies, but for our own process improvement. That approach results in a 3-Methoxybenzylamine offering unburdened by excess environmental baggage, fit for modern formulations, and in line with downstream expectations for green chemistry. We don’t ship waste to customers, nor do we pass off added purification costs. What a user gets is the result of conscious, continual review of process and environmental performance.
Several challenges have shaped our perspective as a producer. Changing global regulations for aromatic amines impact allowable impurities in pharmaceutical and agrochemical actives. As standards ratchet tighter, supply chain partners relying on wide-spec, trader-sourced 3-Methoxybenzylamine get exposed to recalls and failed audits. We stay on top of these issues. Our in-house regulatory group tracks new ICH and local requirements. When global trends force a new impurity limit for nitrosamines or aromatic ring-substituted byproducts, we adjust both analytics and primary synthesis routes.
Shipping and handling present their own hurdles. Many specialty chemical clients need fresh, stable material, but global logistics can expose drums to long transit and temperature swings. Instead of hoping for the best, we validate container types and storage conditions in our own aging studies. More recently, we’ve started smaller batch packing options for just-in-time deliveries, so customers can plan production around real inventory, not theoretical paper supply. By owning the production and the QC, we respond directly when a customer faces a throughput issue, a delay, or a special documentation request.
Our process teams understand the demands of validation, auditing, and recordkeeping in regulated manufacturing. When questions come up—such as a client needing secondary analytical confirmation, or a multinational requiring three years of traceable records for a clinical supply—we don’t outsource answers. We provide direct data, written by the chemists and engineers who made the lot. This kind of transparency saves time, cuts risk, and builds confidence through the entire chain from raw goods to final active ingredient.
The standards for both raw material purity and regulatory data tighten every year. As a chemical manufacturer, we take the long view. Strong client relationships rely on adaptive process control and direct engagement with technical teams, not vague promises or standardized technical brochures. Our work on 3-Methoxybenzylamine continues to push for lower impurity thresholds, improved storage protocols, and smarter automation in analytical testing.
Recent investments in inline NMR and advanced digital QC have reduced analytical turnaround time and helped spot new byproduct trends before they become problems in shipped material. We see requests growing for custom grades, such as low-halide, ultra-dry, or solvent-free versions tailored for highly regulated sectors. Rather than treat these as burdensome custom orders, we integrate them into our core production schedules and analytics programs. This direct engagement not only satisfies today’s clients but guides our internal R&D and continuous improvement cycles.
Supplying 3-Methoxybenzylamine is more than putting drums on a truck. Our pride lies in providing a consistent, tractable chemical that performs the same in a researcher’s fume hood as it does in a global API plant. For customers scaling up syntheses, transitioning to GMP, or working under the watchful eye of regulatory compliance, we provide a transparent pedigree—actual, verified production and analytics records, not rebranded certificates from anonymous intermediaries.
Real confidence in 3-Methoxybenzylamine supply comes from hands-on process knowledge and the ability to troubleshoot, adapt, and communicate. Our approach keeps chemists focused on discovery, scale-up, and regulatory work—rather than struggling with batch failures, non-compliant impurity results, or delayed shipments. Every operator, every chemist, and every engineer on our team knows the importance their work brings to the final product. We do not treat this amine as just another commodity. We see it as a critical node in the advancement of pharmaceuticals, materials science, and crop chemistry, and our production standards, technical know-how, and willingness to customize support that mission.
Direct manufacturing experience produces benefits that ripple through every level of the supply chain. Our practices deliver detailed traceability, accountability for every drum and batch, and real data to back up every claim. Clients receive reliably pure, stable, and fully certified 3-Methoxybenzylamine that supports their technical and regulatory requirements, without the Achilles’ heel of uncertain pedigree or uncontrolled impurities. This reliability translates straight to research output, process yields, and final product acceptance in highly scrutinized markets.
Over years of improvement, client feedback, and proactive engagement with evolving regulations, we have built a reputation for products that perform as promised. Our approach centers on process mastery, direct customer interaction, continual improvement, and complete transparency. That is how we believe 3-Methoxybenzylamine should be made, and how we commit to producing every batch that leaves our facility.