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HS Code |
871992 |
| Iupac Name | 2-Bromoaniline |
| Cas Number | 578-57-4 |
| Molecular Formula | C6H6BrN |
| Molar Mass | 172.02 g/mol |
| Appearance | Light yellow to brown solid |
| Melting Point | 27-30 °C |
| Boiling Point | 240-242 °C |
| Density | 1.6 g/cm³ |
| Solubility In Water | Slightly soluble |
| Refractive Index | 1.643 |
| Flash Point | >110 °C |
| Pubchem Cid | 10383 |
As an accredited 2-Bromoaniline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Bromoaniline is packaged in a 100g amber glass bottle, tightly sealed, labeled with hazard symbols, and chemical identification details. |
| Shipping | 2-Bromoaniline is shipped in tightly sealed containers, typically made of glass or approved plastic, and cushioned to prevent breakage. It must be labeled as hazardous, handled per regulations for toxic and irritant substances, and stored away from incompatible materials. Transport follows local and international chemical safety guidelines to ensure safe delivery. |
| Storage | 2-Bromoaniline should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible materials such as strong oxidizers and acids. It should be kept out of direct sunlight and protected from moisture. Ensure proper labeling and store separately from food and feedstuffs to prevent contamination. |
Applications of 2-Bromoaniline in Industrial Manufacturing2-Bromoaniline supports multiple value chains across chemical, pharmaceutical, and specialty materials segments. Its chemical reactivity and amine group underpin diverse downstream syntheses, serving as a crucial intermediate for advanced products. We highlight application cases focusing on distinct sectors utilizing technical-grade material. 1. Synthesis of Agrochemical IntermediatesAgrochemical producers employ 2-bromoaniline as a core substrate for constructing various active herbicide and insecticide molecules, including aniline-derivative frameworks. Our technical material directly enters the amination or coupling stages to introduce halogen and amine substituents critical for target biological properties. Formulators adjust loading according to molar conversion and target impurity thresholds to comply with export pesticide technical and environmental requirements in regulated markets. Industry compliance standards
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2. Pharmaceutical API SynthesisDownstream pharmaceutical companies integrate 2-bromoaniline into multistep API syntheses, particularly for heterocyclic and aromatic ring construction in oncology, anti-infective, and CNS drugs. Our material meets purity and specification needs for regulated API synthesis, with controlled trace metals and UV-Vis characteristics. The amine reactivity enables Buchwald–Hartwig or Suzuki couplings, facilitating N-aryl or diaryl amine targets as per drug master file requirements. Industry compliance standards
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3. Dye and Pigment ManufacturingColor chemical producers utilize 2-bromoaniline as a pivotal feedstock in the synthesis of brominated azo and anthraquinone dyes. It serves as a diazotization precursor or as a nucleophile for constructing chromophores with tailored optical spectra. Batch color development relies on consistent batch reactivity and minimized by-product formation to achieve stable tonality and fastness for textile and plastic applications. Industry compliance standards
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4. Specialty Polymer AdditivesManufacturers of engineering plastics and specialty resins introduce 2-bromoaniline as a modifying monomer or chain terminator in high-temperature polymers such as polyarylamides. This modification delivers improved thermal stability, flame retardance, and tunable mechanical profiles essential for electronics and automotive segments. Sourcing strictly controlled grade ensures batchwise consistency and compliance with industry-specific additive migration and toxicology regulations. Industry compliance standards
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5. Fine Chemical Synthesis—Fluorinated Compound IntermediatesFine chemical producers benefit from incorporating 2-bromoaniline as a halogenated aromatic amine backbone in the stepwise construction of trifluoromethylated and other fluorinated intermediates. The raw material undergoes selective nucleophilic substitution or palladium-catalyzed cross-coupling, essential for assembling advanced building blocks for agrochemicals, electronics, and specialist chemistries. Process design requires strict control over halide exchange and catalyst-poisoning impurities. Industry compliance standards
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6. Rubber Chemical AcceleratorsRubber manufacturers integrate 2-bromoaniline in accelerator and antidegradant synthesis, where its electron-rich aromatic amine unit modulates vulcanization kinetics and crosslink network formation. Quality consistency is crucial for both tire and industrial rubber applications due to strict migration and extractables testing. The material is employed for condensation with aldehydes or ketones to build ultra-accelerator structures, with process monitored for amine impurity carryover. Industry compliance standards
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Years of hands-on production have taught us the value of paying attention to every step that brings 2-Bromoaniline out of the laboratory and into the hands of chemists. This compound may appear straightforward in textbooks—a brominated aromatic amine with the formula C6H6BrN—but every batch reveals its story. In our manufacturing process, the purity, color, and moisture content receive close scrutiny. Labs and factories nationwide rely on its consistency, because even slight variations in purity can throw off a reaction or compromise the results in agricultural or pharma applications. We see old and new customers alike returning for this chemical, since they know where the product comes from matters.
Through years of refining our process, we stick to a few core choices. The most sought-after model comes as a crystalline or powdered product, with purity levels routinely verified by gas chromatography and titration—most lots meeting or outpacing 99% by GC analysis. Faintly yellow to pale brown, the material's color signals clean production. A trace of color might point toward side-reactions or left-behind impurities; removing these translates directly to fewer headaches later.
Moisture always tests under half of one percent. In the context of large-scale processing or fine organic synthesis, excess water will diminish shelf-life, trigger unexpected reactions, and generally waste time. Every month, our lab brings in fresh reference samples, updating procedure and making sure workers catch drift in the spec. Rather than relying just on certificates, our team understands what good material smells like, how it should flow in a scoop, or how a sample should behave as it heats or dissolves.
The main advantage of 2-Bromoaniline stems from its reactivity. Out of the various halogenated anilines, the bromine at the ortho position offers a balance between activity and selectivity in synthetic pathways. Fluoro- and chloroanilines share similar frameworks, but bromine takes part more readily in cross-coupling reactions like Suzuki and Buchwald–Hartwig installations. In many agrochemical and pharmaceutical applications, downstream groups can be added or swapped with the help of 2-Bromoaniline's reliable reactivity profile.
As a direct precursor for dyes, pigments, or more substituted aromatics, this compound sidesteps some regulatory headaches often tied to its nitro or iodo cousins. Regulations tend to focus on persistent pollutants or higher-toxicity substances, and as such, production and waste treatment for bromo derivatives offer less red tape. That's a tangible, day-to-day advantage in permitting and export.
2-Bromoaniline doesn't just pass through a single market segment. Each week, drums leave our warehouse headed toward custom synthesis labs, polymer manufacturers, and pigment facilities. The breadth of use owes itself to the slightly electron-withdrawing character from the bromine atom—rendering selective reactivity at the amino group and touching everything from herbicide APIs to OLED materials.
Inside a batch reactor with proper mixing and control, 2-Bromoaniline stands up to the high-temperature processes demanded by large-scale chemical transformations. Its low volatility cuts down on losses, and the primary amine functionality survives where substituted analogues may lose activity. We've seen customers run reductive aminations, cross-couplings, and double-substitution reactions with the same lot. The chemical’s behavior in solvents from toluene to DMF guarantees utility across platforms.
For research scientists working on intermediates for active pharmaceutical ingredients, the consistency of our material translates to repeatable syntheses. Regulation has pushed for tighter impurity profiles, especially in pharma, which means our process must deliver few by-products and minimal heavy metal residues. Technicians keep in close contact with chemists downstream, knowing the cost of a failed run more than outweighs any savings from less rigorous quality checks.
The pigment and polymer markets prefer products with a predictable melting range and a steady particle size—factors that smooth the way for downstream blending and ensure a uniform final color. We pay attention not only to molecular purity but also to how the product pours and spreads, habits shaped as much by practice as by protocol.
Contents and contaminants define the daily work of our operators. When comparing 2-Bromoaniline to materials like 4-Bromoaniline or its nitro-derivatives, the difference appears most strongly in performance at the reactor. Ortho- substitution brings in steric effects that impact the flexibility for multistep synthesis. This means that even with the same starting aromatic ring, properties shift under actual working conditions: solubility, thermal stability, catalytic compatibility, and yields all adjust to the geometry enforced by the ortho bromine.
Our team handles the earliest steps of aniline bromination up through the final refining and packing. Dealing directly with end-users, issues get resolved before they grow. Sometimes a solvent incompatibility shows up in an initial sample; the head of production will run checks and tweak the recrystallization method—or adjust the filter aids to avoid carry-through into the final batch. Data and hands-on diagnosis blend seamlessly; paperwork and on-the-floor skill both matter.
Nobody wins by cutting corners. Chemical manufacturing, especially for companies interested in exporting to the EU, North America, or Japan, runs best when specs don’t just hit the legal minimum. Packing methods at the warehouse ensure the compound doesn’t arrive clumped or stained. End-users see the value each time a shipment lands ready to load into reactors rather than needing further dry-down or cleanup.
Waste remains an inevitable part of chemical production. Even so, improvements in reactor design, more selective bromination, and routine solvent recovery ensure a safer, more sustainable product. Regulations on emissions and worker protection have evolved, and steady adaptation means waste streams leave the site with full documentation and proper treatment. Over time, our operators have learned the tricks of minimizing off-color by-products, which matters because even tiny traces can matter in fine chemistry.
Those considering alternatives inevitably ask about 2-Chloroaniline, 4-Bromoaniline, or even the entire suite of amino-aromatics. Beyond cost or supply cycles, choosing a starting material determines the chemistry you can pursue. A molecule as subtle as 2-Bromoaniline might look like a mere tweak on paper; when scaling up to a 4000-liter vessel, those small changes spell big differences.
Cost and lead time can’t be ignored. While some aromatic amines spike seasonally, the precursors for 2-Bromoaniline track broad global demand for bromine and aniline. In the last three years, bromine prices have danced with energy and mining sectors, pushing us to lock in raw material contracts and stock critical intermediates. Relationships with bromine suppliers matter just as much as testing and logistics. If off-spec bromine arrives, output drops and rework eats margin.
Comparing with iodo- or nitro- analogues, 2-Bromoaniline holds steady because iodine derivatives cost far more and bring additional disposal issues. Nitro compounds may deliver higher yields in certain coupling reactions but at the price of more hazardous waste and greater health scrutiny. As green chemistry standards tighten, bromoanilines enjoy a sweet spot among regulatory, technical, and cost overlays.
Some labs gravitate to 4-bromo- derivatives for cleaner substitution on the ring, and rightly so if para reactivity fits the recipe. Our regular process reviews have shown that ortho instructions—when you really need that positional relationship—are best achieved with a specialist’s input. Newer chemistries in pharmaceuticals or advanced materials keep exploiting this subtle difference in arene substitution patterns.
Up close, the hazards of aromatic amines aren’t theoretical. Every person on the floor receives practical training, not just compliance lectures. 2-Bromoaniline brings issues common to its chemical class, including acute and chronic toxicity. Spills, exposure from dust, and vapors call for solid protocols rather than luck—double shifts without a slip come from attentive staff and fresh supplies of PPE. Chemical engineers and managers make sure respiratory and skin protection remain standard, and production layouts minimize unnecessary handling at every stage.
Ventilation inside work areas reduces inhalation risk, and local exhaust keeps fumes from drifting beyond controlled points. Packing lines pass through dedicated airlocks and filtration. Daily air and surface sampling verify the environment stays inside the recommended exposure limits. Ongoing government reviews mean staying ahead of labeling, disposal, and record-keeping. For all its value, the compound demands respect—for workers, the community, and end-users downstream.
Sourcing knowledge spans generations in chemicals. Tightly controlled batch records form the backbone of quality management. Each lot of 2-Bromoaniline comes with direct traceability back to its origin—reactors, lots of bromine, and personnel who oversaw the critical steps. This paperwork isn’t just a regulatory box to tick, but a living record for troubleshooting, improvement, and customer assurance.
Innovations in plant automation and SCADA systems support this traceability. Over the last five years, our plant integrated reaction monitoring and automated sampling to catch anomalies earlier. For our customers, these steps reduce the number of failed syntheses, allowing tighter production plans and faster project turnarounds. In cooperating with users’ QA teams, sharing real-time data points means surprises shrink and confidence in the product grows.
Every chemical production involves choke points. Large-scale bromination can bring inconsistent yields if mixing or temperature drifts. Troubleshooting here often means revisiting the fundamental chemistry, not just equipment. Careful adjustment of reagent ratios, improved quenching methods, or tighter cooling curves head off side-products before they appear at the isolation stage. Technicians often recognize when a run is sliding off-spec, making a call that slow-and-steady delivers better materials than pushing the reactor too fast for the shift schedule.
Raw material quality decided more than 60% of our historical process hiccups. Sourcing only high-purity aniline and bromine, screening each new lot, means more reliable production. The global chemical supply chain faced frequent disruptions through shifting trade policies and port bottlenecks. Our decision to diversify supplier bases paid off, reducing the odds of downtime or quality slippage.
Freight and storage run hand in hand. Proper packing—tight-sealed drums, low-oxygen stores, careful stacking—avoids caking and contamination during transport. Temperature flutters affect the crystals’ texture, so climate-controlled storage spaces receive top priority. These ‘hidden’ steps matter because mistakes at this late stage show up directly as extra work for buyers. Feedback from repeat customers shaped these approaches, so improvements flow back from end-use to the plant floor.
Chemical manufacturing faces pressure to move toward more sustainable output. 2-Bromoaniline, like many valuable intermediates, poses its own environmental questions—energy intensity, hazardous by-products, and solvent waste all demand answers. Stepwise process improvement over the last decade trimmed solvent use per ton produced and cut emissions to air and water. Newer brominating agents and buffered extraction methods support cleaner workups, while regular audits keep these changes on track.
The shift to lower-carbon energy sources at the plant means less indirect pollution. We collaborate with utility providers to incorporate energy-efficient infrastructure—LED lighting, modernized steam boilers, and heat recovery all shrink the company footprint. On the waste front, investments in better on-site incineration and secondary treatment facilities allow us to process residues and reduce what ultimately leaves as disposal.
End-users increasingly ask about lifecycle impacts and the traceability of raw materials. Genuine answers come only from honesty in discussion and willingness to show the full production picture. For 2-Bromoaniline, sharing data on input selection, waste stream reduction, and emissions creates a template for future product lines. The path toward more responsible manufacturing continues with each round of feedback and each regulatory update.
From custom syntheses for pharmaceuticals to day-to-day production in dye and material factories, 2-Bromoaniline fills a crucial niche. Decades of manufacturing reveal that the product’s real value emerges in everyday challenges: ease of use at the plant, transparency in the supply chain, and reliability under regulatory scrutiny. By investing in training, equipment, and long-term customer relationships, we build a reputation that carries forward beyond any one batch.
Lessons learned in production carry over into how we handle customer service and after-sales support. Where unexpected issues surface—whether a scale-up mishap or a discrepancy in a purity test—engineers engage directly with partners to find durable solutions, not excuses. This approach stands at the foundation of our business and shapes our reputation in the chemical sector.
Transparency about process limitations, open sharing on test results, and readiness to adjust when real-world data call for it make chemical manufacturing a long-term partnership between producer and user. 2-Bromoaniline, produced with this philosophy, becomes more than just a reagent. It offers a tool for innovation, grounded in trust earned through every delivered shipment.