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HS Code |
271856 |
| Name | 2,4-Dichlorobenzylamine |
| Chemical Formula | C7H7Cl2N |
| Molecular Weight | 176.05 g/mol |
| Cas Number | 89-97-4 |
| Appearance | White to off-white crystalline solid |
| Melting Point | 52-55 °C |
| Boiling Point | 272-273 °C |
| Density | 1.36 g/cm³ |
| Solubility In Water | Slightly soluble |
| Purity | Typically ≥98% |
| Storage Conditions | Store in a cool, dry, well-ventilated place |
| Flash Point | 158 °C |
| Odor | Slightly amine-like |
As an accredited 2,4-Dichlorobenzylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A tightly sealed, amber glass bottle containing 100 grams of 2,4-Dichlorobenzylamine; labeled with hazard warnings and handling instructions. |
| Shipping | 2,4-Dichlorobenzylamine is shipped in tightly sealed containers, protected from moisture and direct sunlight. It should be clearly labeled as a chemical substance and handled by trained personnel. Transportation must comply with local regulations regarding hazardous materials, ensuring safe storage and prevention of spills or leaks during transit. |
| Storage | 2,4-Dichlorobenzylamine should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizing agents and acids. Protect the chemical from moisture, heat, and direct sunlight. Ensure appropriate labeling and restrict access to trained personnel. Use suitable secondary containment to prevent spills or environmental contamination. |
Applications of 2,4-Dichlorobenzylamine in Industrial ManufacturingAs a direct manufacturer specializing in 2,4-Dichlorobenzylamine, we support key sectors with consistent material quality and technical guidance. Our chemical integrates into challenging downstream processes by meeting strict regulatory demands and allowing precise formulation control. The following scenarios illustrate real-world uses and our in-depth application knowledge for industrial partners. 1. Agrochemical Intermediate for Herbicide SynthesisLeading crop protection product manufacturers utilize 2,4-Dichlorobenzylamine as a key amination component in the synthesis of substituted herbicidal actives, such as selective phenoxyalkanoic acid derivatives. Chemists incorporate it into the multi-step process, primarily during condensation reactions, resulting in intermediates critical for high-selectivity formulations targeting broadleaf weeds. Integration at this stage ensures molecular integrity, traceability, and batch consistency as demanded by regulatory-approved finished goods. Industry compliance standards
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2. API Intermediate in Pharmaceutical ManufacturingPharmaceutical API producers rely on this amine as a nucleophilic agent or building block in multi-step syntheses of certain active ingredients, particularly for compounds in the antimicrobial and antihypertensive classes. Its defined purity and controlled reactivity allow precise incorporation during heterocyclic ring closure or alkylation steps, contributing to bioactive pharmaceutical intermediates (APIs) manufactured under current Good Manufacturing Practice. Process validation and traceability are critical for registration dossiers. Industry compliance standards
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3. Synthesis of Specialty Dyes and Pigment IntermediatesDye and pigment producers use this material for its controlled aromatic reactivity, especially in the manufacture of chlorinated benzylamine intermediates leading to specialty azo or phthalocyanine pigments. The compound acts as a precursor or blocking agent during sulfonation, diazotization, or coupling steps, enabling fine-tuning of chromatic, solubility, and fastness attributes for demanding end-user requirements in textile, plastic, and ink applications. Industry compliance standards
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4. Stabilizer Component in Polymer Modification2,4-Dichlorobenzylamine serves a specialized role in advanced polymer processing as a stabilizer and building block for additive systems in certain engineering plastics, providing enhanced chemical and thermal resistance. Downstream compounders introduce it into the polycondensation or chain transfer stages to achieve property modification without compromising regulatory compliance in sensitive application areas, such as automotive or electronics. Industry compliance standards
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5. Chemical Intermediate for Biocide and Preservative FormulationsManufacturers of industrial biocides and preservatives use this amine to construct molecular backbones for halogenated antimicrobial agents. It interacts during halogenation or amidation steps, producing intermediate actives later formulated into preservatives for paints, oils, and household disinfectants. The integration guarantees consistent performance, batch reproducibility, and conforming residual limits aligned with end-market safety standards. Industry compliance standards
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Competitive 2,4-Dichlorobenzylamine prices that fit your budget—flexible terms and customized quotes for every order.
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Walking through our production lines, it’s clear how much effort goes into making each batch of 2,4-Dichlorobenzylamine. Over the years, this compound has become a backbone for customers working in pharmaceutical intermediates, agrochemicals, and dye intermediates. Quality matters for both us and those down the line. With decades of hands-on synthesis, we have refined the process, adjusted to new technologies, and found solutions for bottlenecks common in the early days.
2,4-Dichlorobenzylamine stands out because of its stable properties and versatility in downstream chemistry. In our plant, we see how it emerges from precise reactions, using strict control on temperature, pH, and purity. This compound doesn’t just fill a catalog slot—it’s a material we know inside and out. Instead of just processing another chemical, we've learned to track and tune every variable so customers always get consistent material.
The typical product follows purity levels greater than 99%, ensured by gas chromatography and HPLC. We ship it as a crystalline powder, usually off-white, which is the natural appearance for high-purity 2,4-Dichlorobenzylamine. The molecular formula, C7H7Cl2N, calls for vigilance throughout synthesis. Every run encounters minor deviations—this is normal even under strict engineering—but the real skill is catching them early and correcting before the final step.
Each order, small or industrial-scale, goes through batch testing. Our team inspects particle sizing, moisture content, and checks for residual solvents that may linger from earlier synthesis. Regulations and registration details for overseas shipments sometimes change, so we constantly update our production files to avoid hold-ups or discrepancies in logistics. Our lab team refers to the same methods every time, using retention times and melting points as signals of an acceptable lot.
We keep our warehouse turnover tight, never storing for long periods, and use secure, lined drums for shipping due to reactivity with certain plastics. This matters for customers in regions with high heat or humidity. All deliveries carry full analysis reports, reflecting today’s demand for traceability and accountability in supply chains.
Most of our output reaches industries building complex molecules—herbicides, fungicides, and intermediates for some cough lozenges and antiseptic agents. Many buyers already know the routine steps where 2,4-Dichlorobenzylamine fits into their own reactors. What’s less obvious from outside: purity and physical consistency can affect conversion rates or reaction yields further downstream. We have spent years tracing these hidden effects by collaborating with customers and cross-referencing analytical data.
Our clients often use this amine for coupling reactions, amide formation, and as a protected amine block in scaffolds. At certain points, some routes demand a sharper melting profile, while others focus on color stability. Our staff studies how trace impurities alter downstream performance, sometimes costing hours in cleaning or troubleshooting if missed. It’s why our QC teams never focus on just the number—they also check how each lot behaves in real bench chemistry.
Across different end-uses, our team hears feedback from labs, plants, and procurement staff adjusting to ever-tougher regulatory climates. The revised REACH guidelines in Europe or EPA requirements in the US often mean our samples need retesting, even when internal standards haven’t shifted. We see this as a chance to refine, not just a paper chase.
Many customers ask how 2,4-Dichlorobenzylamine differs from other benzylamine derivatives—such as 3,4-dichloro, 2,6-dichloro, or unsubstituted benzylamine. In bulk manufacturing, positions of chlorine atoms dramatically alter reactivity and downstream applications. For instance, 2,4-substitution offers improved electron-withdrawing effects compared to the 2,6- or 3,4-positions, which controls the availability and nucleophilicity of the amine group.
Compared to the unsubstituted version, 2,4-Dichlorobenzylamine brings higher selectivity in many modern synthesis schemes. In some reactions, the compound gives fewer byproducts. Over the past years, development chemists have relied on this selectivity, especially in multi-step synthesis where clean conversion from step to step is mandatory. Even a few tenths of a percent difference in purity can impact later-stage yields, so we keep analysis robust enough to catch even rare impurities.
Some of our long-standing partners in crop sciences spotlight the way 2,4-Dichlorobenzylamine unlocks reaction pathways not available to similar amines. For example, certain coupling reactions proceed under milder conditions, extending catalyst life and reducing waste treatment bills for the final product. We collect feedback and field reports after every product launch and use that as a checkpoint for process updates.
Global standards for chemical intermediates keep tightening. Over the last decade, our control room teams have seen audits multiply, paperwork pile up, but also real improvements in safety and control. Mushrooms of digital technologies overlay most of our manufacturing lines now. Sensors, batch data, and event tracking all help us refine every kilogram we make. We compare historic trends to real-time numbers and pull up root-cause analysis if any shift pops up in the process.
We’ve had moments where tiny bits of chloride residuals showed up in lots flagged for Western markets—proving that checks on water sources and cleaning protocols matter just as much as final reactor tuning. Our crew meets monthly to review non-compliance logs and experiment with filtration tweaks.
Emergencies or customs delays have taught every chemical manufacturer that transparent paperwork beats cost-cutting. All our shipments carry updated safety sheets and batch records. This lets our downstream users match our reports with their quality teams without any guesswork. In some markets, older warehouse managers are still learning QR code systems, but the industry shift is clear—traceability now ranks right alongside purity on the buyer’s checklist.
Adaptation in chemical manufacturing isn't just about machinery and protocol. It's also about listening. New applications for 2,4-Dichlorobenzylamine have come from client-side R&D. Agrochemical formulators sometimes need a slightly lower moisture content or wish to test non-traditional solvents to cut processing cycles. We take these requests seriously and trial pilot batches with constant lab feedback.
Opportunities for product differentiation often come from the field, not textbooks. Recent years brought up questions about residual formaldehyde in intermediates, responding to national regulations and changing toxicity lists. We retooled part of our purification steps, invested in new activated carbon columns, and can now run 2,4-Dichlorobenzylamine production with undetectable aldehyde levels, verified by LC-MS.
Dye and pigment makers told us a handful of years ago that variations in color or trace iron contamination caused downstream batch coloration shifts and cost surprises. We recalibrated our filtration, added extra checks for trace metals, and fed back data to the origin of each batch. Process improvements like these keep much of the next month’s production accounted for by previously informal requests—feedback loops from the plant floor to our product development teams drive most major upgrades.
Producing halogenated amines like 2,4-Dichlorobenzylamine places a special responsibility on safe, responsible manufacturing. Stringent waste handling and effluent treatment transform from cost-centers into essential checkpoints. Our in-house team monitors effluent for chlorinated byproducts and verifies emissions with third-party labs during annual audits. Problems have arisen; a few years back, elevated chloride levels in wastewater meant pulling down reactors for weeks. That rough patch turned into a new, semi-automated neutralization process running today.
Recycling programs for vessels and minimizing losses in mother liquor recovery show measurable results for cost and sustainability. We’ve moved away from open-drum systems and now maintain sealed transfer lines from the synthesis suite to packaging, minimizing off-gassing or exposure. Every kilogram of waste cut from our system tracks back to a lower environmental burden for our communities.
Customers downstream feel the difference: some regions require detailed cradle-to-grave documentation. Our team can now provide production footprint, emission data, and full traceability from raw benzyl chloride all the way to the final amine stock. For contract clients needing green labeling or ISO certification, this moves us ahead of generic traders who rarely control manufacturing themselves.
This decade’s global events—border closures, chemical shortages, and sudden regulatory jumps—forced us to rethink backup plans. Maintaining stable stocks of raw materials, validating multiple suppliers, and keeping a flexible maintenance calendar all keep our production lines running when others slow down. Our warehouse in- and outflows operate on a just-in-time model, with periodic stock-taking to avoid both shortages and excess.
A few times each year, sea freight issues or port inspections have caught our shipments in limbo. From our perspective, only direct communication with end-users solves these slowdowns—no broker or distributor can fix a regulatory paperwork error as quickly as we can. We track shipments closely, provide quick documentation, and prepare technical explanations for customs or local authorities as needed.
Direct manufacturer-buyer relationships make a real difference here. Some customers have mentioned delays from distributors when handling controlled chemicals. Our sales and technical staff respond within hours to paperwork requests or test result clarification, because they’re involved from matrix blending to finished lots. Unfiltered communication—the kind where plant managers and procurement leads speak directly—means fewer surprises and a smoother handoff at every stage.
Manufacturers like us see firsthand the importance of safe handling and transportation protocols for chemicals like 2,4-Dichlorobenzylamine. In the warehouse, labeled drums and color-coded lines help our own staff avoid mix-ups. Standard personal protective equipment, air handling, and emergency protocols set a baseline, but tailored on-site training sharpens everybody’s risk awareness.
Our in-house safety trainers coordinate with loading dock staff to repeat drills and walk through worst-case scenarios twice a year. Near-misses and incident logs don’t just live on paper; they drive changes in everything from drum stacking to shift handoff procedures. These habits seep through to our logistics partners, ensuring material stays secure all the way from our floor to customers’ doors.
Downstream, plant chemists and warehouse managers have different concerns. Some focus on segregation and local area ventilation, others worry more about combustion temperatures or spill response. Having supplied hundreds of tons of 2,4-Dichlorobenzylamine over the years, we have built a library of incident case studies and safety improvements. Adjusting packaging sizes or offering advice on optimal storage conditions comes from these lived experiences, not manufacturer’s specs alone.
We also encourage any buyer to keep open channels for technical questions or troubleshooting. Small issues caught early—a caked drum lining, an out-of-spec moisture reading—are much easier fixed with manufacturer support than through a chain of intermediaries.
The work behind 2,4-Dichlorobenzylamine doesn’t end at the reactor vessel. Continuous improvement, driven by frontline staff and real-world feedback, makes a difference in both product quality and user experience. Our team logs lessons learned from every run—tweaking batch parameters, refining purification steps, swapping out test reagents that offer clearer signals of contamination.
One lesson is constant: chemical manufacturing rewards vigilance and adaptability. Sometimes quality teams catch off-tone color that precedes a minor process hiccup—tweaking solvent ratios or drying temperature can bring future runs back in line. Unexpected filter blockage turned into a new pressure monitoring setup, and a better understanding of how raw material shifts affect product properties. These kinds of small, persistent upgrades stack up, helping us avoid big problems and maintain a reliable supply chain.
Years in the business have proven that no process stays static for long. New downstream regulations, shifting feedstock sources, or improvements in analytics force continuous learning. Our internal audits regularly identify small cost savings that don’t compromise quality, and our maintenance staff constantly proposes improvements to keep lines running safely and efficiently.
As original producers, we see daily the gap between direct sourcing and relying on layers of traders or resellers. Many customers, especially those scaling up from kilo lab to metric ton production, notice the difference. Direct purchase from a manufacturer means technical backup is always just a call or meeting away. Raw material tracebacks, full batch analytics, and historical process data are on hand—the kinds of supporting detail rarely visible on a distributor’s spec sheet.
Our staff fields calls from multinational buyers and family-run processors alike, troubleshooting issues that wouldn’t make it to attention through a third party. We’ve walked clients through scaling, customized packaging, or even alternate shipping routes when weather or port closures threaten deliveries. Years of working openly with end-users have built both trust and technical expertise that we’re proud to support.
Regulatory filings, product registrations, and safety documentation gain strength from this openness. Our records travel with every shipment—batch analysis, updated safety data, and any log of deviation for transparent review. Buyers deploying 2,4-Dichlorobenzylamine in high-stakes production value a relationship built on accessibility, clarity, and technical rigor.
Each market shift or new regulatory framework signals another turn in the chemical manufacturing journey. We’re constantly preparing for changes—whether it’s adapting to new hazard labeling, keeping up with green chemistry trends, or working with end-users seeking more sustainable solutions.
Our operators, engineers, and chemists all contribute ideas for reducing carbon footprints, further automating controls, and expanding recycling protocols. Suppliers who share these values make for stronger partnerships—and so do downstream partners pushing us to do better, ask harder questions, and share best practices.
From our side, there’s a sense of responsibility in keeping 2,4-Dichlorobenzylamine available, consistent, and safe for every application, whether in large-scale crop protection, fine chemical synthesis, lab reagents, or custom product development. The direct relationships with users, a deep well of production know-how, and ongoing improvements unite to form a solid backbone for both our team and wider industry.