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HS Code |
339050 |
| Product Name | 3-Amino-5-Chlorobenzotrifluoride |
| Cas Number | 328-73-2 |
| Molecular Formula | C7H5ClF3N |
| Molecular Weight | 195.57 g/mol |
| Appearance | Off-white to light brown solid |
| Melting Point | 45-49°C |
| Density | Approx. 1.46 g/cm3 |
| Purity | Typically ≥98% |
| Solubility In Water | Insoluble |
| Synonyms | 3-Amino-5-chloro-α,α,α-trifluorotoluene |
| Structural Formula | ClC6H3(NH2)CF3 |
As an accredited 3-Amino-5-Chlorobenzotrifluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g package of 3-Amino-5-Chlorobenzotrifluoride comes in a sealed, amber glass bottle with a secure, chemical-resistant cap and proper hazard labeling. |
| Shipping | 3-Amino-5-Chlorobenzotrifluoride is shipped in tightly sealed containers to prevent leaks or contamination. It should be transported in compliance with local regulations for hazardous chemicals, typically labeled as corrosive or irritant. Protect from moisture, heat, and direct sunlight. Ensure proper documentation accompanies the shipment for safe and legal transport. |
| Storage | 3-Amino-5-Chlorobenzotrifluoride should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers and acids. Keep away from moisture and ignition sources. Use secondary containment if necessary and properly label the storage container. Handle with appropriate personal protective equipment to prevent exposure. |
Applications of 3-Amino-5-Chlorobenzotrifluoride in Industrial Manufacturing3-Amino-5-Chlorobenzotrifluoride serves as a key intermediate in the synthesis of various specialty and performance chemicals. As a direct manufacturer, we supply this raw material to downstream producers with extensive application experience across multiple high-value industrial tracks. Each scenario below reflects established sector-driven usage, showing how 3-Amino-5-Chlorobenzotrifluoride integrates into differentiated manufacturing environments. 1. Agrochemical Synthesis: Herbicide IntermediateLeading crop protection producers employ 3-Amino-5-Chlorobenzotrifluoride for the development of modern selective herbicides, taking advantage of its amino and chloro functional groups that enable efficient coupling during the assembly of active molecular backbones. This intermediate enters production lines after initial nitration and reductions, acting as a precursor to complex substituted aniline derivatives that address weed resistance in major agricultural markets. Formulators control purity and side reactions according to regulatory needs, and adjust input levels based on the molecular target’s design and performance thresholds. Industry compliance standards
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2. Pharmaceutical Intermediate: Synthesis of Fluorinated Active CompoundsSpecialty pharmaceutical manufacturers utilize 3-Amino-5-Chlorobenzotrifluoride as a building block for synthesizing fluorinated aromatic amine scaffolds, which serve as intermediates in active pharmaceutical ingredients (APIs) targeting central nervous system and inflammation therapies. Chemists exploit the electron-withdrawing trifluoromethyl group to fine-tune activity and improve metabolic stability in the drug design phase, introducing this raw material during early-stage molecule construction. Industry compliance standards
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3. Dye and Pigment Manufacturing: Trifluoromethylated Azo Compound ProductionProducers in the fine dye and pigment sector depend on 3-Amino-5-Chlorobenzotrifluoride during the production of advanced azo dyes and pigments. Its unique substitution pattern allows manufacturers to synthesize pigments with enhanced lightfastness and solvent resistance, making them practical for demanding textile, plastic, and ink applications. The raw material undergoes diazotization and subsequent coupling tailored to create chromophores exhibiting superior performance under industrial usage. Industry compliance standards
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4. Specialty Chemical Additives: Fluorinated Materials for CoatingsManufacturers in the surface coatings domain incorporate 3-Amino-5-Chlorobenzotrifluoride into synthesis schemes to obtain specialty monomers and crosslinkers imparting chemical resistance, low surface energy, and weatherability to paints, varnishes, and protective films. This intermediate allows integration of perfluoroalkyl segments through condensation or nucleophilic substitution steps, resulting in enhanced processing and end-use characteristics crucial for aerospace, electronics, and industrial asset protection. Industry compliance standards
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5. Advanced Material Precursors: Fluorinated Polymers and ElastomersProducers of high-performance fluoropolymer materials apply 3-Amino-5-Chlorobenzotrifluoride as a functional building block for the synthesis of fluorinated aromatic units within specialty elastomers and engineering plastics. The raw material enables controlled introduction of trifluoromethyl groups, which translates to improved dielectric properties, thermal stability, and chemical inertness in the resulting polymer chains for critical equipment and insulation applications. Industry compliance standards
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In a lab and manufacturing floor packed with structures and formulas, the compound 3-Amino-5-Chlorobenzotrifluoride often draws the expert’s attention. We don’t just see a chemical name—we see a combination of properties and possibilities grown out of years of hands-on work. The structural formula, featuring an amino group, a chlorine atom, and three tightly bonded fluorine atoms on the ring, has created steady demand among dye makers, pharmaceutical innovators, and others who want a dependable and reactive building block. I’ve watched this product carve a niche in chemical synthesis circles because chemists value reactivity and the reliability of supply.
Through years of manufacturing, every run we make of 3-Amino-5-Chlorobenzotrifluoride gets checked against strict purity standards. The model we put out offers a typical appearance as a pale, crystalline solid. Purity levels consistently hit or exceed 99%, backed by GC analysis and spot-checked with HPLC on customer request. Trace moisture and volatiles have come into play before, but we knock these out with our final drying steps under vacuum. The batch consistency means our customers don’t second-guess their purchases. You don’t want to adjust your process every time you open a new drum, and that’s something we understand because we’ve run pilot syntheses on our floor using these same lots.
We know the effects of consistent melting point, residual solvent content, and trace metals on downstream reactions. Decades of running reactors, from kilogram to tonnage scales, taught us that each impurity profile creates different headaches or smooth sailing for scale-up teams. We communicate openly about what’s present, how we kept the side reactions down, and why the latest update in our crystallization parameters improves flow in your process.
The heart of 3-Amino-5-Chlorobenzotrifluoride’s value has nothing to do with product brochures and everything to do with what customers achieve on their own benches. Our own intermediates department cuts their teeth on aromatic amines and understands the surprising versatility of benzotrifluoride derivatives. Customers from the herbicide field rely on our material to introduce a rigid, electron-deficient aromatic core and derive new classes of actives. They find the electron-withdrawing trifluoromethyl group resistant to oxidative stress, and this contributes to active stability in outdoor environments.
Pharmaceutical researchers knock out new molecular scaffolds by modifying the amino or the chloro positions, using our product as a springboard for Suzuki couplings, nucleophilic aromatic substitution, or further halogenation. The ring system delivers enough synthetic flexibility—our internal tech team has tested Mannich reactions and acylations with ease, reporting reliable yields. Dye chemists draw on the vivid interactions created by the amine and chlorine groups, forming pigments and colorants with good resistance to fading and harsh processing conditions.
Every batch we dispatch keeps its moisture below 0.2% by weight; we learned early that higher moisture levels can affect both long-term storage and certain reactions. Every specification we define stems from our own plant’s experience, not guesswork or generic data sheets.
Many labs and factories don’t think about risks until an incident occurs—our team won’t let that happen. Years of direct handling taught us the material doesn’t pose the volatility risks you’d see in lower-molecular-weight trifluoromethyl aromatics, but it calls for solid PPE practices. Dust control became a focus ever since an early incident with a leaking drum. We take dust suppression and ventilation seriously, especially during granule charging or powder transfers. Our drums always receive one final wipe-down before loading, since chlorinated aromatics, if not managed, can lead to contamination of equipment or product.
Customers know to store this material in tightly sealed, moisture-resistant containers, always kept cool and away from direct sunlight. Thermal stability remains robust up to the levels relevant for their most common reactions. End users rarely face hazardous decomposition under normal usage, but we make sure they have the real-world disposal and cleanup experience-based advice—not just what regulations say, but what actually works to minimize odor, stains, and trace contamination.
Years of supplying related aromatic amines, such as 3-Aminobenzotrifluoride and 3-Amino-5-chlorotoluene, gave us perspective that you can’t get from a catalog comparison table. By swapping hydrogen for the trifluoromethyl group, we watch reactivity fade in some cases, but selectivity and stability gain ground. The presence of the CF3 group at the para-position to the amine increases hydrophobicity and chemical robustness. Compared to the toluene analog, the trifluoromethyl compound resists oxidative degradation both in air and under chemical stress.
Some customers assume trivial differences between chloro and fluoro substitutions at the ring positions; having actually run multi-stage syntheses, we experienced shifts in rates of nucleophilic aromatic substitution and product isolation purity just from such minor changes. In processes where the end goal is a fluorinated pharmaceutical candidate, these small structural tweaks can spell the difference between a failed and a successful scale-up. By focusing on 3-Amino-5-Chlorobenzotrifluoride, you get a predictable intermediate whose properties remain stable across a range of reaction conditions—something not always true for other isomers or non-fluorinated analogs.
We run our own continuous synthesis units. We’ve experimented through the learning curves with local environmental rules, worked through scale-up pitfalls, solved stuck-filtration issues, and responded to downstream user feedback fast. Scaling a reaction from flask to tonne means more than just multiplying up the quantities—the thermal, mixing, and safety issues multiply as well. Many labs come to us with custom requests, and we’ve integrated changes on the basis of direct product performance, not just theoretical yield calculations.
Through lab trials, we mapped out optimal charge rates of chlorinating agents, minimized colored byproducts by controlling temperature ramps, and monitored downstream color pick-up to support pigment users. Quality control holds refer to actual product runs, and when anomalies crop up, we talk about them plainly, drawing from incidents encountered in our own plant.
Our support reaches beyond large-scale supply. Customers frequently bring novel transformation proposals based on their molecular design goals. In one example, an agrochemical developer achieved new structure-activity profiles by substituting the amine with various ureas after chlorination, all starting from our product. Pharmaceutical teams run direct arylation or install new side chains with Buchwald-Hartwig couplings. We don’t just ship and forget the lot; we discuss solvent choices, reaction pH, and even custom drying requirements learned from ten years of supporting the same production chains.
From the earliest lab experiments to the final packed goods, we keep records of process changes and outcomes. If something doesn’t work as a customer expects, our team reproduces the conditions, often running parallel tests on our own scales. We don’t take shortcuts or rely on theoretical projections—we use the actual compound, under real-world conditions, to help solve process or formulation challenges.
Sustainability in halogenated aromatic production carries unique complications. We focus on reducing side streams and using the minimum effective excess of raw materials. By designing our processes to reduce chlorinated solvent waste and recover spent acids, we cut down the environmental burden on both our site and downstream. We also invest in air and effluent treatment to minimize the release of persistent organics. Technicians receive regular in-house training on best practices for spills, drum handling, and emergency responses.
From daily logbooks to random inspection records, we believe documentation should benefit not only authorities but also the safety culture of the plant. Our packaging engineers learned to reinforce drums for international shipping, anticipating tough containerized transport. This mindset—doing what works from repeated experience, not just what appears in a spreadsheet—comes from years of moving the product ourselves, not outsourcing the risk.
Demands in agricultural chemistry have moved towards actives that resist breakdown by weather, sunlight, or soil bacteria. Molecular design teams now gravitate to fluorinated compounds like ours, knowing from published and in-house stability tests how trifluoromethyl incorporation extends shelf life and slows biodegradation. In dyes and advanced polymers, customers emphasize lightfastness and chemical resistance, supported by the electronic effects of the CF3 group plus chlorine.
We stay connected with academic and industry partners. New requests surface: can we supply kilo-lots with even tighter limits on trace halides, or offer a version that’s pre-treated for better solubility? Each of these trends, while often challenging, lets us fine-tune our reaction steps to meet laser-focused technical gaps. Our technical service team draws on our direct manufacturing experience, not just product literature, to help link end-use targets to chemical modifications achievable during plant runs.
Each batch starts with smart selection of raw materials. Over the years, we evaluated and discarded dozens of suppliers. We share batch certificates covering not only assay and physical appearance but also minor residue percentages, packed with comments from people who actually observed the product, not just data-entry staff. Regular audits mean our results line up with the reality in every drum shipped.
We welcome site visits and open-book audits because we build confidence on the facts of our process. If a problem comes up in shipment or delivery condition, we take direct responsibility, reflecting lessons learned from years of running supply chains ourselves. Defect rates run low not because we enforce this by decree, but due to technician pride and repeat training. We talk about real problems—be they drum damage, transport delays, or minor contaminations—rather than glossing these over with empty phrases.
Our formulation partners often ask: what would happen if we moved the amine or chlorine to a different ring position, or swapped in other halogens? Drawing from pilot-plant results, we share what’s possible and what bottlenecks arise. Sometime a request for a custom particle size comes from a batch that caked up during a humid summer week. Our ability to adjust crystallization, drying scheme, or particle milling methods comes directly from equipment and staff, not from an outsourcer. When a customer calls for an in-process consultation, the voice on the other end belongs to someone who personally handled the product, not just sold it.
The input we receive back from industry R&D feeds into small but meaningful manufacturing improvements. We tightened particle-size specs after one pigment maker found settling in a new formulation. We adapted packaging to minimize static charge after feedback from compounding chemists. Over dozens of projects, these marginal gains add up to real world trust in our supply.
We place high value on relationships that run across five, ten, even twenty years. Customers that have relied on us through different product cycles become partners, not order numbers. Troubleshooting, process trials, or sudden scale-up needs find us ready at short notice—and we resolve them with direct knowledge. By keeping key team members involved in daily production, accountability stays close to the ground and doesn’t vanish in a bureaucracy. Regular feedback loops keep us honest.
Each time we evaluate a new storage system, retool a drying setup, or consider a greener packaging, it starts at the shop floor. Technicians, managers, and engineers bring up improvements because they handle the product with their own hands. This culture leads us to see 3-Amino-5-Chlorobenzotrifluoride not just as a chemical output but as a technical relationship—one that hinges on shared results, iterative improvement, and learning from real operational challenges.
Industry expectations never stand still. End users adapt and innovate—which means we match this pace. We review the latest literature for synthetic advances, but it’s the regular problem-solving calls with formulation teams and the real stories of scale-up wins or sticking points that steer our planning. Technical tweaks, new safety checks, better solvent recovery strategies: these all arise from shared efforts between our chemists and customers’ own teams. It’s not one-sided—we listen when a customer’s engineers flag a handling or performance issue, then test it ourselves.
Through downturns and upturns, shifts in regulations or cost structures, we’ve kept supply steady because our know-how comes from practice. We know the headaches a lost batch or customs delay creates, so we manage forward inventory, keep robust safety stocks for long-term partners, and hold up our end of the bargain with full transparency on true production status—not sales patter.
Some see 3-Amino-5-Chlorobenzotrifluoride as an abstract chemical. Over years of plant runs and hands-on synthesis, we see a compound that connects theory with practice, enabling scientists and makers to push technical boundaries. Our knowledge is built on actual chemical reactions, real shipments, ongoing conversations, and roll-up-your-sleeves troubleshooting—not just databases and marketing texts.
Whether for scale-up in pharma, color in pigments, or stability in agrochemicals, everything we’ve learned flows back into each new batch. The trust our industry partners place in us didn’t come overnight, and it can’t be maintained with words alone. Technical expertise, process reliability, and candid, on-the-ground experience—all combine in every shipment. As chemists and manufacturers, we continue learning, tweaking, and delivering: batch by batch, drum by drum.