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HS Code |
574455 |
| Cas Number | 720-94-5 |
| Molecular Formula | C8H8F3N |
| Molecular Weight | 175.15 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Melting Point | -2 °C |
| Boiling Point | 204-206 °C |
| Density | 1.23 g/cm³ at 25 °C |
| Purity | Typically ≥98% |
| Flash Point | 85 °C |
| Solubility | Insoluble in water; soluble in organic solvents |
| Refractive Index | 1.502 |
| Synonyms | 3-Amino-4-methylbenzotrifluoride, 3-Amino-4-methyl-α,α,α-trifluorotoluene |
As an accredited 3-Amino-4-Methylbenzotrifluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of 3-Amino-4-Methylbenzotrifluoride is packaged in a sealed amber glass bottle with hazard labeling and tamper-evident cap. |
| Shipping | 3-Amino-4-Methylbenzotrifluoride is shipped in tightly sealed containers, protected from moisture and direct sunlight. It should be handled as a hazardous material, following all applicable international and local regulations for chemical transport. Ensure labeling is clear, and material safety data sheets (MSDS) accompany all shipments for safety and compliance. |
| Storage | 3-Amino-4-Methylbenzotrifluoride 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 oxidizing agents. Protect from moisture and direct sunlight. Proper chemical labeling and secondary containment are recommended to minimize the risk of leaks or accidental exposure. Store at room temperature unless otherwise specified. |
Applications of 3-Amino-4-Methylbenzotrifluoride in Industrial Manufacturing3-Amino-4-Methylbenzotrifluoride is a key chemical intermediate applied across several specialized industrial segments. As a dedicated manufacturer, we support high-purity, controlled synthesis and supply for distinct downstream sectors which require precise integration and regulatory assurance. 1. Agrochemical Active Ingredient SynthesisIn the agrochemical sector, manufacturers use 3-Amino-4-Methylbenzotrifluoride as a crucial intermediate for synthesizing complex active compounds, particularly in the formulation of selective herbicides and fungicide molecules. Its trifluoromethyl group offers enhanced stability against environmental degradation, supporting modern crop protection agents. The material enters condensation and coupling reactions with chlorinated acids or isocyanates to form bioactive structures. End-use companies adjust feed ratios according to the specific molecular targets and efficacy data from greenhouse and field studies, with process parameters influenced by local and export efficacy trials. Industry compliance standards
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2. Pharmaceutical Intermediate ProductionPharmaceutical synthesis employs 3-Amino-4-Methylbenzotrifluoride as a key precursor in the manufacture of specialty APIs with fluorinated aromatic systems. Process chemists utilize this intermediate to introduce electron-withdrawing groups that enhance active molecule pharmacokinetics. Presence of the para-amino and meta-methyl substituents facilitates regioselective reactions in benzimidazole, quinoline, or pyridine API synthesis pathways. Process design considers batch consistency, traceability, and cleaning validation, aligning feed rates with yield needs and minimizing process impurities. Industry compliance standards
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3. Specialty Dye and Pigment ManufacturingAdvanced pigment and dye producers incorporate this aromatic amine to create high-performance colorants for plastics, synthetic fibers, and inks. The strong electron distribution from its trifluoromethyl group modifies final chromophore behavior, particularly for shades demanding elevated UV and solvent resistance. The input joins diazotization and coupling syntheses performed under rigorously controlled temperature and pH windows. Color intensity and application method dictate the proportional charge of this intermediate in dye mass, especially for custom polymers and specialty coatings. Industry compliance standards
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4. Fluorinated Polymer Additive SynthesisProducers synthesizing specialty polymers and engineering plastics use this amine as a monomeric building block for high-performance additives. Its unique structural attributes deliver improved fire resistance, chemical stability, and dielectric properties in end-use resins. Manufacturers carry out amination, acylation, or condensation reactions in precise stoichiometric ratios, introducing the additive during chain extension before extrusion or compounding steps. Output requirements for electrical, transportation, or membrane materials control the exact feedstock-to-resin ratio, validated against application-specific QC benchmarks. Industry compliance standards
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5. Electronic Chemical Synthesis3-Amino-4-Methylbenzotrifluoride finds use in the electronics industry as a precursor for synthesizing specialty chemicals essential to liquid crystal displays (LCDs) and semiconductor processing. Its highly stable fluorinated structure leads to intermediates with critical purity and dielectric properties required for advanced electronic device fabrication. Process chemists couple the compound via nucleophilic aromatic substitution and subsequent fluorination or cross-coupling reactions, with feeder variances guided by required final layer thickness or functional group placement in the molecule. Industry compliance standards
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In the course of manufacturing fine chemicals, consistent quality and repeatable performance come from deep experience with each compound. 3-Amino-4-Methylbenzotrifluoride, commonly referenced by its model number or synonym 2-(Trifluoromethyl)-p-toluidine, has long proven its value for specialty applications that call for stability, selectivity, and reliability in downstream reactions. We have seen its practical benefits stretch across sectors, including pharmaceuticals, agrochemicals, and materials development, with demand growing as customers explore new molecular scaffolds and performance requirements in their own research.
Our facility produces 3-Amino-4-Methylbenzotrifluoride under controlled conditions, with regular batch validation and tightly monitored impurity profiles. Typical appearance is a pale to off-white crystalline solid, a physical trait rooted in careful raw material selection and controlled purification. Molecular formula stands at C8H8F3N, with a molecular weight around 175.15 g/mol. Our analytical team maintains gas chromatography and HPLC verification, ensuring that each lot meets the agreed standard for assay—in our experience, customers count on an assay level above 99 percent by GC, and water content well below 0.5 percent by Karl Fischer titration. We have also dialed in melting point and residue parameters to support pharmaceutical syntheses, which depend on consistent melt behavior for subsequent transformations and to avoid unpredictable by-products in scale-up runs.
Storage and handling rely on real-world understanding of how this amine responds to ambient conditions. The product remains stable at ambient temperature for extended periods, but stacks best away from direct sunlight. Teams who deal with transfer and metering appreciate the low dusting and light odor, a feature that eases handling in batch reactors and custom blends. The crystalline nature reduces static and loss during processing—these traits matter on the production floor when keeping material reconciliations tight.
Sourcing for 3-Amino-4-Methylbenzotrifluoride used to be thin. Early on, we heard from chemists in pharma labs and crop protection sites about the trouble getting lot-to-lot reproducibility, especially when changing raw material suppliers. Some small-batch producers skimmed on post-reaction cleanup, which led to colored or odorous product and could cause major setbacks downstream. When developing our own route, we put effort into optimizing purification, never skimping on the work-up, and our plant continues to invest in better recovery and waste treatment methods. Direct feedback from our customers, who sometimes run kilo lots for months at a stretch, helped us refine protocols. Often, a minor impurity influences hydrogenation catalysts or makes recrystallization unpredictable, so our QA team remains on top of identifying even trace-level by-products.
Large pharma partners demand full traceability as part of their GMP programs. Our records go back to raw material lots and all intermediary process controls. This practice doesn’t just serve audits; it keeps our plant teams aware of process changes and makes troubleshooting far faster for specialty runs or validation batches.
This trifluoromethylated aromatic amine has carved out its place in early-stage medicinal chemistry, as well as multi-kilogram API manufacture. The electron-withdrawing trifluoromethyl group not only shields reactive sites from unwanted side reactions but also imparts metabolic stability to the structures where it’s introduced. Over time, we’ve seen customers use it as a core intermediate in building up more complex heterocycles, particularly in kinase inhibitors and advanced intermediates for neuroactive agents. 3-Amino-4-Methylbenzotrifluoride grants chemists the leverage to build libraries of analogs quickly. Its methyl group on the ring helps shift the electron density, giving a subtle but important advantage in regioselective functionalizations. Medicinal chemistry groups value these tunable features as they refine leads for selectivity and pharmacokinetic properties.
From our plant’s experience, the purity baseline needed for high-yield coupling reactions increases as the complexity of the target increases. We monitor not just organic purity but also metallic contaminant levels, since some late-stage transformations—especially palladium-catalyzed ones—stall even with low ppm of certain metal residues. To support this, we adopted a more stringent post-work-up wash and filtration protocol, and this has paid dividends for our regular customers who move from screening-lot scale to pilot campaigns.
The agrochemical sector leans on reliable intermediates for scale-up synthesis. When a competitor’s batch arrived with high residual solvents or color bodies, their technical groups came to us for a cleaner, more easily handled product. In active ingredient synthesis, where trifluoromethyl groups bring weather resistance and improved bioactivity, 3-Amino-4-Methylbenzotrifluoride steps in as a go-to substitution partner. We have observed direct use in constructing herbicidal and fungicidal actives, particularly those that demand ortho- or para-activated fluorinated scaffolds.
Production planners appreciate a low-maintenance raw material. This amine’s manageable melting point and shelf stability mean it stores well through the season. Field data from our customers show that the absence of colored by-products correlates with less fouling in reactors, less cleaning downtime, and smoother downstream separation steps. For users intent on minimizing environmental impact, we have tailored our process conditions to limit halogenated waste, both to comply with regulatory reporting and to keep effluent costs predictable. Such improvements don’t come all at once; our process engineers check solvent use, energy profiles, and yield optimization side by side with plant maintenance logs. Direct improvements in these steps benefit both our bottom line and that of our customers.
The structural similarities between 3-Amino-4-Methylbenzotrifluoride and compounds like 4-Methylbenzotrifluoride or Aniline might suggest interchangeable performance, but experience has shown the improvements that the amino and methyl group bring. The net result is an intermediate that resists over-oxidation and helps developers access unique substitution patterns not easily available with base aniline derivatives. The presence of the electron withdrawing trifluoromethyl group not only tunes reactivity; it ensures the resulting intermediates withstand harsher conditions, whether during high-temperature cyclizations or repeated hydrolysis in aqueous media.
Our customers in advanced polymer development and electronics appreciate this feature. The high thermal stability and resistant core minimize color change and chemical stress in manufacturing specialty coatings and engineered plastics. Labs running comparative testing against other substituted benzenes find that this product gives more reliable extension to high-molecular weight applications. In our own technical labs, we routinely track degradation rates under elevated temperature and humidity; 3-Amino-4-Methylbenzotrifluoride holds up consistently, making it a staple in surfactant and additive development where trace color and residue would cause customer rejection. This consistency means less rework and less downtime in production, contributing to lower operational costs for partners over time.
Chemical manufacturing always comes with safety rules. We’ve tested and re-tested our containment and ventilation measures because our operators work with this compound in bulk. The product’s low volatility and crystalline nature reduce airborne exposure, and our teams have commented many times on the manageable odor and lack of fume-off during open transfer. Over the years, consistent product form has helped us train new hires quickly and document emergency procedures with clear benchmarks for what normal vs. off-spec looks like in storage and transfer rooms. Maintaining a low-dust, solid material has kept spill and exposure risk low, backed up by regular personal monitoring and area air checks.
We run batch campaigns in dedicated trains with point-source extraction and regular cleanout. The process minimizes contamination with other amines and chlorinated compounds. Each campaign wraps up only after all systems check out and walkdowns confirm no lingering residues. This discipline does more than keep regulators satisfied—it cuts down batch failures and unplanned plant holdups. Customers with specialized product lines demand these steps, and we’ve learned over years that such quality controls also serve our own reliability.
Local regulators set high standards for waste and process emissions, and we take those demands seriously. Our process improvements over the years have focused on solvent choice, waste minimization, and real recovery yields, not just lab-scale window dressing. We moved to less hazardous solvents years ago, despite the cost and time to re-validate each stage, because it made sense for both environmental and worker health reasons. Our waste streams have dropped in halogen content due to in-process capture and re-use, and our monthly data show clear improvements in average effluent load versus early years of production.
Some customers rely on us for full environmental metrics, including carbon and water footprints of their raw material streams. Our data tracking gives them up-to-date numbers, all built on standard reporting so they can plan new projects with confidence. Regulatory teams from several regions have audited our process, and their feedback has prompted even further tightening of emission controls and reporting procedures. Regular site walks and staff feedback sessions keep these improvements grounded and meaningful, not just box-checking exercises.
Reaching sustainability goals does not stop at paperwork. Each step—raw material intake, main reaction, work-up, downstream isolation—offers opportunities for smarter resource use. For instance, our adoption of solvent recovery skids and reduced-cycle batch reactors stemmed from seeing actual energy bills and comparing against best-available technology analyses. Our teams track input and output daily, and plant operators propose adjustments based on their real-world observations. In some cases, slight changes in agitation or batch hold temperature have improved yield and reduced wash out, cutting both solvent use and water consumption. That feedback loop—between operations and lab staff—keeps our process up to date and focused on the best outcomes for both business and community.
From early pilot runs to established commercial campaigns, we stay involved with customer technical teams. Some bring us custom process requests, such as very tight impurity cut-offs or alternate particle size grades. Rather than offer only shelf products, our lab develops unique QC points and batch protocols for these requests. By collaborating on technical trials, we discover together if alternative isolation or drying steps improve performance in their unique syntheses. This open-loop approach helps the industry as a whole, because a process innovation for one customer often leads to new standards that benefit all clients—we roll out what works best, and our broader base enjoys the improved product.
Direct communication with research chemists helps identify pain points, whether a sticky handling issue in formulation or a yield problem caused by a certain impurity during scale-up. Our technical support teams regularly run additional QC checks, deliver samples from production campaigns, and share down-to-minute batch history. This transparency makes it easier to diagnose issues and work out process or product modifications together. The fast feedback and openness speed up troubleshooting and build confidence, both in our product and the relationship itself.
Hard-earned know-how can’t be found in a book or a data sheet. Each improvement in process, purity, or documentation has come from real needs, voiced by real users and solved step by step in the plant. We consider this partnership approach crucial, and the widespread adoption of 3-Amino-4-Methylbenzotrifluoride in advanced synthesis owes as much to cooperation as to laboratory or engineering skill. With every new campaign, this cycle of feedback and practical improvement continues, keeping our production methods fresh and our customer relationships strong.
Price, though always important, rarely tells the full story for specialty building blocks like 3-Amino-4-Methylbenzotrifluoride. Over years of supplying kilo to multi-ton batches, we have witnessed customers learn—sometimes the hard way—that an off-spec raw material can wipe out months of R&D or commercial output. A shipment that arrives slightly off in color, moisture, or trace impurity content ripples through downstream isolation, sometimes erasing expected yields or complicating compliance with regulatory filings. We learned early to keep our documentation transparent and each lot’s certificate tied back to its real-world history in the plant: sampling data, process logs, calibration checks, and even instrument maintenance records. That approach may look exacting, but it saves time, money, and hassle over the long run.
Batch reproducibility wins trust. Over the course of long partnerships, reliability builds up a margin of safety not just for us, but for our customers’ own production and filings. Regulatory teams notice quickly when a plant logs every relevant variable and provides complete trace records. Such consistency helps our partners stay on schedule for filings, manufacturing planning, and even new product launch dates. In the end, quality beats price as a competitive advantage—and the feedback from repeat customers, who stay with the supplier that helps them avoid risk, proves it.
Shipping and storing sensitive chemicals requires more than just labeling and paperwork. In our experience, packaging matters just as much as product purity for maintaining clean chain of custody. Heavy-duty, sealed containers have eased handling, minimized spills, and kept moisture uptake low, even under long-haul transit to variable climates. Customer warehouses report that the product withstands long-term storage in normal dry conditions without clumping or cake formation. These small reliability points prevent downtime or loss, and our shipping records from decades of batches show less than 0.5 percent loss or non-conformance attributable to logistic variables.
Onsite preparation has also grown simpler as our utility teams cycle through regular training. Operators run drills using actual bulk containers and standard PPE, rather than theory classes. This approach keeps even new hires fully confident in safe transfer, weighing, and reaction charging procedures. Our shipping department works closely with production and QA to supply real-time data on location and status, minimizing waiting and idle time for both in-house and customer logistics teams.
No manufacturing process remains static. The evolution of 3-Amino-4-Methylbenzotrifluoride production reflects real lessons from years of direct plant experience, customer requirements, and advances in analytical chemistry. Each year, we’ve adjusted our cleaning, isolation, and packaging standards based on user feedback and plant-floor observation. As tighter EMA, FDA, and reach guidelines emerge, we adapt and even anticipate what’s next. Whether in solvent selection, impurity thresholds, or waste processing, practical improvement has grown out of listening and learning from every batch, every partner.
In our technical meetings, we share both what has worked and what needs re-examining. Some of the best ideas come from plant teams who spot bottlenecks, suggest new energy-saving steps, or help scalably implement lab findings into the main plant. We reward teams for innovation that leads directly to better, safer, or more consistent product. This culture helps us stay at the leading edge of specialty amine manufacture and keeps the products we supply as reliable building blocks for our partners’ progress. The story of 3-Amino-4-Methylbenzotrifluoride is not just about a single compound, but about the steady gains that come from a long-term, hands-on approach to chemical production.