|
HS Code |
508520 |
| chemical_name | 2,5-Dichloroaniline |
| cas_number | 95-82-9 |
| molecular_formula | C6H5Cl2N |
| molecular_weight | 162.02 g/mol |
| appearance | Light yellow to beige solid |
| melting_point | 53-56°C |
| boiling_point | 266°C |
| density | 1.38 g/cm3 |
| solubility_in_water | Slightly soluble |
| flash_point | 132°C |
| refractive_index | 1.632 |
| pubchem_cid | 7286 |
As an accredited 2,5-Dichloroaniline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 2,5-Dichloroaniline is packaged in a 100g amber glass bottle with a tightly sealed screw cap and hazard labeling. |
| Shipping | 2,5-Dichloroaniline should be shipped in tightly sealed, chemical-resistant containers, clearly labeled and compliant with hazardous material regulations. Transport is typically by ground, using UN 2811 (toxic solid, organic) classifications. Packages must be protected from moisture, heat, and physical damage, following all applicable safety, environmental, and documentation requirements. |
| Storage | 2,5-Dichloroaniline should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition and incompatible materials such as strong oxidizers. The storage area should be clearly labeled, secure, and equipped to contain spills. Avoid exposure to moisture, heat, and direct sunlight to maintain chemical stability and minimize degradation. |
Applications of 2,5-Dichloroaniline in Industrial Manufacturing2,5-Dichloroaniline serves as a critical intermediate in several high-value industrial syntheses. As an experienced chemical raw material manufacturer, we supply consistent-grade product for tightly regulated downstream applications. Below, we detail industry-specific usage, regulatory references, formulation ratios, process integration, and the final product landscape for genuine sectors that depend on this intermediate. 1. Synthesis of Herbicide Intermediates for Agrochemical ManufacturingThis material functions as a key precursor in the synthesis of selective herbicides, notably those within the chloroacetanilide and phenylurea classes. Manufacturers integrate it through targeted amination or acylation steps, achieving precise molecular substitutions required by specific herbicidal actives. Compliance with pesticide intermediate purity and traceability standards is mandatory, as residual by-products strongly impact field safety. Final herbicide actives are formulated via further methylation, carbamoylation, or cyclization, depending on the crop protection spectrum. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Manufacturing of Pigments and Dyes for Specialty ColorantsThis compound is a vital raw input for synthesizing various azo and condensation dyes. It acts as a coupling agent in the diazotization step, influencing shade, fastness, and dispersion properties in the end pigment formulation. Strict impurity controls and batch traceability are crucial to prevent unwanted tints and to ensure compliance with downstream textile, plastics, or coatings standards. Ratio and integration depend on chromophore requirements, with minor deviations significantly affecting final color performance. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Synthesis of Pharmaceutical IntermediatesOur raw material is employed by API manufacturers for specific chlorinated aromatic scaffolds in drug synthesis, including intermediates for certain antimalarial and anti-infective classes. Identity, purity, and trace impurities control must align with pharmacopoeial monographs and cGMP production requirements. The ratio in each step is optimized per synthetic route and regulatory file, with gravimetric dosing to guarantee batch reproducibility. The molecule is typically introduced in early-stage aromatic substitution or as a nucleophile in multi-step syntheses. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Production of Polymer Stabilizers and AdditivesThis chemical is selected for manufacturing certain hindered amine stabilizers and UV absorber intermediates, which enhance weatherability of engineering plastics and coatings. Integration depends on polymer compatibility, additive migration, and meeting regulatory exposure limits for end-use. Usage ratio varies with targeted stabilizer loading in the masterbatch or additive concentrate, and the synthesis must eliminate residual monomers and colored impurities before downstream blending. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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As a chemical manufacturer handling the process from synthesis through final quality checks, our team knows every step inside and out. Years on the production line have shown us what matters in 2,5-Dichloroaniline, a chlorinated aromatic amine that plays a critical role in dye manufacturing, agrochemical synthesis, and specialty chemical applications. Customers in these fields need repeatable purity, consistent supply, and transparency from the source. We have learned to approach each delivery not simply as a job to fill, but as a demonstration of reliability to those who count on our chemistry for their own operations.
From our experience, 2,5-Dichloroaniline offers a unique backbone for more complex molecules due to its dual chloro groups on the benzene ring at the 2 and 5 positions. This subtle difference from isomers like 2,4-dichloroaniline allows for selective downstream reactions during coupling and substitution. Formulators in pigment manufacturing see first-hand how easy it is to fine-tune color strength and fastness by starting with the right isomer.
Every production campaign begins with a charge of monochloroaniline and precisely controlled chlorination. We monitor reaction conditions carefully—temperature, agitation, timing. Experience has taught us that impurities like over-chlorinated or under-chlorinated byproducts often lurk where controls drift; this is why solid in-process testing is critical. It keeps our product on spec, with purity routinely above 99%. Customers in fine chemical and pharmaceutical intermediates flag any off-target isomer content at detection limits, so we put double emphasis on crystallization and filtration steps. Batch records show that consistency here reduces rework and customer complaints downstream.
As those responsible for what leaves the plant, attention goes well beyond raw assay numbers. Color, moisture content, particle size distribution, and even the method of drying change the way the material behaves outside our factory. We ship in flake or powder form depending on the end user’s preferences. Dye chemists report fewer issues with dusting when the flake form arrives solid and free-flowing. Agrochemical producers prefer a finer granule that mixes more rapidly in batch reactors.
Waste and yield also weigh on us more directly than for distributors. A small loss in the separation stage rings much louder at the manufacturing level; it means lost revenue or reprocessing time, and it sometimes signals a deeper process issue. Maintaining a narrow melting point range and minimizing trace impurities means scrutinizing each step from raw materials, monitoring equipment health, and having seasoned technicians who spot a deviation before it hits the analyzer.
After processing, the product finds its way primarily into the production of azo and anthraquinone dyes, which go into textiles, printing inks, and plastic coloration. Our regular conversations with dye makers underscore the importance of process-friendly amines. They look for solubility, resistance to oxidation, and very low catalyst-poisoning impurities. By making purity our main focus, we have built a reputation for reliable dye performance instead of recipe failures.
Other end users approach us from the crop protection sector. They use 2,5-Dichloroaniline to build herbicidal and fungicidal actives, where byproducts from incomplete reactions can affect field safety and application rates. We share our analytical reports each lot, as transparency here means our partners’ regulatory approvals go smoother. Uncommon uses arise as well—requests from specialty chemical labs developing new polymer or rubber additives. Each has their own requirements for melting point, trace contaminants, and supply cadence, which we meet by direct dialogue rather than relying on generic paperwork.
Some new customers arrive after working with closely related compounds, such as 2,4-dichloroaniline or 3,4-dichloroaniline. They often expect similar properties and run into trouble when substituting without considering positional effects on reactivity. Years of feedback have taught us how subtle positional changes matter in chemical synthesis. The 2,5-isomer often reacts with different regioselectivity under coupling or alkylation conditions, leading to different product yields or color hues.
Handling characteristics differ between isomers as well. For example, 2,4-dichloroaniline tends to cake and absorb moisture faster, complicating storage and formulation in humid climates. In our own stores, segregating bags of each isomer and watching for cross-contamination has become routine after seeing how even minor mixing affects downstream analytics. Product purity, even by isomer ratio, becomes a testament to how carefully we run our lines.
Making 2,5-Dichloroaniline at commercial scale is a disciplined balance between safety, cost, and environmental compliance. Chlorination operations must avoid over-chlorination that creates trichloroanilines, which are harder to remove and can trigger regulatory alarms. Our process wastes get routed to on-site treatment before discharge or solvent recovery, a policy born from both regulation and hard lessons in emission control. We constantly invest in making these operations cleaner and more efficient, as discharge limits tighten year by year.
Staff expertise anchors each stage of the process. Newer team members learn quickly how to interpret reaction coloration, spot subtle odors that signal side reactions, and respond with corrective actions. Batch logbooks fill up with handwritten notes that feed into later process improvements. The pride comes not from theoretical compliance, but from each successful shipment that earns repeat business from a satisfied technical team on the other end.
Small glitches still occur—leaks in chlorination lines, a stray rise in chiller temperature, a lab result showing unexpected byproducts. Rapid feedback loops and direct communication across teams keep us honest. Customers ask about our corrective actions, and we keep nothing behind closed doors. Transparency may take more effort, but it keeps trust high and recall risk low. Daily walks through the plant floor and shift changes keep everyone accountable and alert for mishaps before they scale up.
Sourcing quality feedstocks for consistent production stands as a top challenge every season. Suppliers sometimes shift their grade of monochloroaniline, and our incoming analysis program flags issues before they enter the line. Over time, developing secondary sources and long-term purchase agreements offers stability, so customers won’t face supply interruptions during market swings. Communicating these precautions lets users plan their own inventories with less guesswork.
Temperature and agitation control have a direct impact on both product quality and yield. We have retrofitted older reactors with digital sensors and automatic recording because subtle deviations lead to off-spec batches no one wants to resell or treat as waste. Investment in process automation pays off not just in higher yields, but in tighter quality assurance data that customers often require for regulatory submissions or internal traceability.
Dust and worker exposure come up in safety meeting discussions every week. We use local exhaust and regular air monitoring, but we also design packaging to reduce air exposure—sealed liners, robust drums, and short transfer paths from drier to drum. No shortcut here pays off in the long run. A safe, healthy team makes fewer mistakes, reduces absenteeism, and protects both product and people. Staff participate in running safety drills and reviewing incident history, so even newer hires understand why every small leak matters.
Handling waste streams responsibly stands as a non-negotiable. Chlorinated residuals can’t go straight to sewer or landfill. Our plant uses a combination of neutralization, phase separation, and approved incineration partners where required. Passing external audits and reporting to environmental agencies—often more frequently than required—gives our customers added confidence that we will not cost them brand reputation or regulatory recalls in their own markets. This helps us avoid surprise inspections and builds credibility even with first-time buyers.
Every industry has distinct requirements. Dye manufacturers value particle stability and solubility, while pharmaceutical intermediates stress trace analysis and detailed documentation. Agrochemical users look for consistent delivery schedules and batch records tied to regulatory reporting. With direct conversations, we learn early about specification changes, regulatory guidelines, or new application developments. This two-way feedback has shaped our product development more than any internal brainstorming session.
We support this by making our shipping and technical support teams available for on-site visits, sample testing, and troubleshooting advice. Customers often mention how rare it is to speak directly to someone with hands-on plant floor experience instead of a middleman. Their application chemists and process operators know they can call us to troubleshoot unexpected formulation issues or alert us to changing purity standards as regulatory landscapes evolve.
Delivering on customer expectations doesn’t end at the loading dock. Follow-up calls, satisfaction surveys, and collaborative problem-solving sessions turn individual orders into multi-year partnerships. Our most enthusiastic clients help us refine batch sizes, change drum formats, and adjust drying profiles based on their own process improvements. This responsiveness shows up in long-term contracts and word-of-mouth recommendations to new users entering advanced materials or life sciences.
Consistent product performance springs from years of routine review and slowly raising the bar. Incoming raw material audits, in-process control samples, and final release testing catch deviations before they reach the customer. Whether it’s a slight off-color in a dye or a misaligned melting point in an agrochemical intermediate, we don’t rely on statistical “acceptance”—we root out small errors early for both economic return and pride in the work.
Investing in plant-level certifications, staff training, and continual process tweaks adds cost at the outset, but it protects our clients and us from disruption. As emission and product quality regulations in Europe, North America, and parts of Asia grow stricter, our own readiness brings business to us from less-prepared competitors. Customers value not just technical data, but the story behind each batch: the efforts to minimize environmental footprint, reduce waste, and build a safety culture that ensures every drum leaving our gate stands up to scrutiny.
Demand for high-specification 2,5-Dichloroaniline continues not just in traditional dye houses but also in new specialty chemical areas, research labs, and crop science innovations. We recognize that tomorrow’s requirements will likely mean even tighter impurities, more robust environmental controls, and more detailed traceability records. By staying ahead of these changes, sharing performance data, and collaborating openly with users, we continue building a business not just on commodity tonnage, but on trust and technical partnership.
To us, 2,5-Dichloroaniline is not just a commodity for resale. It’s a statement of craftsmanship, a challenge to do better with each campaign, and a product shaped by the feedback and needs of those who depend on it. Each drum, bag, or flake shipment reflects the knowledge and care of the people behind the process—chemists, operators, engineers, and support staff who see their own standards in every shipment. With steady improvements and open dialogue with our customers, we welcome new applications and continue to raise the bar for chemical manufacturing.