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HS Code |
108331 |
| Chemical Name | 5-Amino-2-Methoxybenzotrifluoride |
| Cas Number | 328-84-7 |
| Molecular Formula | C8H8F3NO |
| Molecular Weight | 191.15 g/mol |
| Appearance | Light brown solid |
| Melting Point | 39-41°C |
| Density | 1.35 g/cm³ |
| Solubility | Insoluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Synonyms | 2-Methoxy-5-(trifluoromethyl)aniline |
| Smiles | COC1=CC(C(F)(F)F)=CC=C1N |
As an accredited 5-Amino-2-Methoxybenzotrifluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100g opaque amber glass bottle, sealed with a screw cap, labeled “5-Amino-2-Methoxybenzotrifluoride,” with handling precautions. |
| Shipping | **Shipping Description for 5-Amino-2-Methoxybenzotrifluoride:** 5-Amino-2-Methoxybenzotrifluoride should be shipped in securely sealed, chemical-resistant containers, labeled according to relevant hazard regulations. Protect from heat, moisture, and direct sunlight. Transport per local, national, and international regulations, ensuring secondary containment to prevent leaks. Handle with care and provide appropriate documentation, including safety data sheets, during transit. |
| Storage | Store 5-Amino-2-Methoxybenzotrifluoride in a tightly sealed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Protect from moisture and direct sunlight. Clearly label the container and ensure access is restricted to trained personnel. Follow all applicable local, state, and federal regulations for chemical storage. |
Applications of 5-Amino-2-Methoxybenzotrifluoride in Industrial ManufacturingAs a direct manufacturer of 5-Amino-2-Methoxybenzotrifluoride, we support a range of specialized industrial applications, supplying customers in highly regulated markets who require reliable quality, formulation transparency, and consistent supply for critical synthesis processes. Below are the principal downstream uses where this intermediate integrates into value-added manufacturing workflows. 1. Pharmaceutical Intermediate for Active Ingredient SynthesisPharmaceutical companies primarily use 5-Amino-2-Methoxybenzotrifluoride in the production of certain active pharmaceutical ingredients (APIs), where its amino and methoxy functionalities facilitate key coupling and cyclization steps in small molecule synthesis. It serves as a building block in multi-step reactions, particularly during the assembly of fluorinated heterocycles for second-generation drug candidates targeting oncology and CNS indications. End-users rely on strict in-process quality controls, requiring documented traceability from the raw material stage through to GMP API output. Industry compliance standards
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2. Agrochemical Synthesis for Active Pesticide CompoundsAgrochemical manufacturers incorporate 5-Amino-2-Methoxybenzotrifluoride in the synthesis of advanced fluorinated phenyl derivatives used in herbicide, insecticide, and fungicide actives. Its electron-withdrawing trifluoromethyl group impacts bioactivity profiles and environmental stability. Process engineers blend this intermediate in key amidation or urea-forming steps, supporting the development of broad-spectrum crop protection agents requiring validated purity. Industry compliance standards
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3. Specialty Dye and Pigment IntermediateProducers of performance dyes and pigments use 5-Amino-2-Methoxybenzotrifluoride to construct highly stable, colorfast fluorinated azo and anthraquinone dye molecules suitable for demanding textiles and plastics applications. Customers emphasize batch color fidelity and resistance to solvent migration, requiring tight control of reagent purity and isomer content. This intermediate enters formulations that impart premium brightness and fastness to fibers and films processed under robust conditions. Industry compliance standards
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4. Fine Chemical Intermediate for Electronic and Display MaterialsManufacturers specializing in liquid crystal and advanced display chemicals utilize this compound as a building block for creating fluorinated aromatic and heterocyclic structures, which are essential in high-performance liquid crystal mixtures and organic light-emitting diode (OLED) materials. End-applications demand plasma and thermal stability, so batch traceability and low metal ion content are critical. The intermediate is preferred in routes leading to improved dielectric properties and enhanced contrast ratios in next-generation displays. Industry compliance standards
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5. Raw Material for Fluorinated Polymer SynthesisIndustrial polymer developers integrate this intermediate into the synthesis of specialty copolymers, where its trifluoromethyl aromatic structure boosts chemical resistance, lowers surface energy, and modifies thermal behavior. Typical applications focus on coatings, membrane fabrication, and engineering plastics exposed to aggressive environments. Incorporation relies on supporting analytical data for stoichiometry and end-group conversion rates, underpinning consistent extrusion and post-processing properties in the finished materials. Industry compliance standards
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Within the chemical sector, certain compounds make processes more reliable and safer. 5-Amino-2-Methoxybenzotrifluoride (sometimes recognized by its molecular shorthand, AMBTF) stands out in our daily production work because of its consistent behavior across runs. Years at the reactor controls and shift schedules taught us the small details hidden behind a CAS number. In this overview, we want to walk through how this compound actually fits into real-world chemistries, why its attributes matter, and what sets it apart from similar benzenes and trifluoromethyl derivatives.
AMBTF arrives on our line as a crystalline solid, pure white to slightly off-white in color. The compound’s molecular structure—trifluoromethyl group at the 4-position, methoxy at 2-position, and amine at 5—delivers a particular mix of reactivity and selectivity. People often ask why the trifluoromethyl ring is important: it puts a strong electron-withdrawing pull on the benzene, which shifts the amine’s base strength and changes the molecule’s solubility profile. These subtle properties affect not just synthesis yield, but also the purification steps, solvent choices, and waste treatment plans we need on our production floor.
The AMBTF we produce belongs to the model grade TFA-AMB-98, which means the material hits a purity standard at 98 percent minimum. We keep lot-to-lot purity within tight variance—measured by HPLC and NMR—since downstream customers rely on its clean handoff for their syntheses. Moisture control remains vital, so we keep Karl Fischer titration in the QC loop; too much water tends to shift reaction profiles and lowers batch quality, especially if one tries to scale up amide or urea intermediates. Every container ships nitrogen flushed to preserve integrity, since even low-level oxidation can color the solid and complicate its handling in sensitive pharma reactions.
Our main buyers use 5-Amino-2-Methoxybenzotrifluoride as an intermediate for producing fine chemicals, agrochemical actives, and some specialty pharmaceuticals. The amine group gives a functional handle for coupling or acylation, especially useful in heterocyclic or sulfonamide synthesis. The aromatic methoxy also enables regioselective substitution, which puts us on stable footing for introducing more polar or reactive groups without over-reacting and dumping valuable material. Many producers chase this molecule as a starting point for fluoroalkylated aromatic systems, which take advantage of both the chemical robustness and lower metabolic vulnerability in drug development candidates.
Working in the plant, operators notice another key difference: AMBTF’s physical properties make it easier to dose and mix, compared to close relatives like unsubstituted 2-methoxyanilines or certain fluoronitrobenzenes. It pours cleanly, doesn’t cake out in humid air as quickly as some anilines, and handles mechanical vibration well in automated feeders. Safety teams value its relatively high flash and melting points—meaning spill risks can be mitigated with less urgency compared to more volatile solvents or lower-boiling intermediates.
Plenty of synthetic shops work with basic aniline derivatives, which can share broad reaction profiles. Yet, AMBTF brings a big advantage because the trifluoromethyl both improves selectivity and tunes the compound’s chemical stability. This is not just an academic property: actual batch performance changes. If a facility swaps a standard methylated aniline for AMBTF in a stepwise route, operators end up with cleaner product streams out of their reactors, reducing post-reaction scrubbing cycles. Lower impurity profiles in our AMBTF-labeled shipments help customers avoid costly downstream purification or repeated recrystallization—one of those plant-level headaches chemical engineers fight every day. The methoxy position specifically shields the 2-position from unwanted electrophilic attack, letting teams run conditions a bit hotter or for longer, without as much byproduct formation as, say, para— or meta- substituted analogs.
We take pride in how our production plant manages AMBTF, since regulatory agencies pay close attention to halogenated intermediates. Most of our solvent choices—toluene, acetonitrile, and sometimes dimethylformamide—reflect the need to capture, recycle, or responsibly dispose of process streams. Fume extraction and personnel protective equipment in our house come not because the compound gives off noxious fumes, but because we never take shortcuts on exposure margins or allergic risk. Operators use glove-box isolation for kilogram-level weighing, and local dust filtration never gets skipped, preventing fine powder drift—important for compounds with high vapor-phase mobility in case of accidental heating.
From a manufacturing standpoint, an advantage often overlooked comes down to batch residue management. Unlike similar halogenated aromatics that can gum up cleanup cycles, AMBTF’s powdery character rinses well, meaning we spend less time between runs on costly vessel decontamination. This lowers cross-contamination potential, which downstream pharma clients in GMP settings depend on. We document every cleaning step, not only for our internal audits but also to give confidence to regulators and inspectors that the process remains robust throughout scale-up.
No matter the product, reliability starts with rigorous documentation and batch tracking. From raw material procurement to final packaging, our internal ERP system ties each AMBTF output lot with full analytical runs. Reference standards for identification come from long-standing international suppliers; our own QC standards feature proton NMR, HPLC, and IR fingerprinting. If a customer requests a material transfer report, we provide instrument traces for their verification—no argument, no red tape. We take these steps because chemical formulas alone don’t guarantee consistent yields; real-world lots sometimes face unknown side reactions or seasonal purity dips if feedstocks are off. Repeat testing, both random and batch-based, catches anomalies before the product leaves our site.
AMBTF’s purity and identity checks tie back to two factors: our in-house spectroscopic control, and the hands-on experience of plant chemists troubleshooting if a batch looks off. If analytical peaks shift or show unexpected tails, the material does not leave the loading dock, full stop. By enforcing this in daily operations, we catch the rare but disruptive plant-level errors, like line contamination or improper solvent removal, that would otherwise pass unnoticed until later production stumbles. Regular skills training and rotating laboratory responsibilities mean testing gets fresh eyes constantly; this significantly reduces human error.
AMBTF doesn’t always have the steadiest global supply chain, especially when upstream fluorochemicals or methoxylated aromatics tighten in price or availability. We co-locate basic fluorination and methoxylation upstream processing to stabilize supply. Downstream users count on our forecast transparency; we don’t overpromise on tight raw material cycles. Realism matters. Ambitious delivery claims can wreck production schedules if procurement teams end up chasing delayed cargos. Consistent quality stems from consistent feedstock streams—anything else forces process adjustment, often at the customer’s risk. For this reason, we run quarterly audits of our key input suppliers and maintain close-of-quarter raw material stockpiles. These actions buffer us and our clients against sudden market whipsaws or port disruptions.
Shipping logistics for AMBTF must respect not just domestic chemical transit regulations, but also international air and sea restrictions on fluorinated compounds and aromatic amines. Our packaging group committed to steel or HDPE drums with double gasket seals, ensuring moisture and oxygen do not sneak in. Temperature exposure is monitored during transit, so solidification or caking does not appear at client sites. If a shipment ever arrives compromised—a rare but possible occurrence—replacement moves immediately, with quality assurance and 24/7 shipments set to reduce further disruption. We track feedback loops with every major downstream producer to know where gaps may open and to close them before yielding lost operating days or delayed launches for our buyers.
In every technical conversation with downstream users, AMBTF’s stability and handling always come up. One recurring challenge in broader industry circles is cost justification—why not use cheaper nitro or methylated aromatic intermediates instead? In practical use, many partners realize the time and effort saved from lower byproduct burdens and easier workup steps outweigh up-front price differences. AMBTF’s track record of reliable conversion and moderate handling risk means less time spent adjusting to new impurity profiles, less training needed to handle volatile dusts, and fewer plant shutdowns for cleaning or reconfiguration.
Feedback from synthetic chemists who scale reactions from milligrams in research to multi-kilo cGMP lots mentions one thing over and over: AMBTF allows more predictable process validation. The tight physical profile and modest hygroscopicity translate directly into less rerunning of validation batches. Our technical support extends to troubleshooting, not just selling. Technical documents, process guidance, and impurity profile explanations supplement standard COAs. We aim to grow these partnerships beyond a simple supply contract by actively soliciting feedback—if AMBTF causes yield drops, coloring, or scale-up surprises, we investigate and change procedures, not just send apologies. For us, working closely with chemists and engineers leads to process tweaks that make the next shipment easier to handle, verify, and dose.
R&D teams in our facility focus both on consistent AMBTF output and developing new application ideas. We keep an ear to improvements in catalytic, nucleophilic, and reductive amination chemistry, which might open new practical uses for AMBTF’s functional group profile. Internal trials compare reaction efficiency and process waste generation to older intermediates, reinforcing where the compound outperforms or needs workarounds. We’re in ongoing discussions with formulation chemists to adapt AMBTF for new, less hazardous solvent systems, where environmental regulations squeeze traditional process windows. Whenever advances in reactor design or online analytics appear, our process staff run trials to see if product isolation or crystallization steps simplify. Our goal is less waste, higher throughput, and more repeatable downstream reactions for chemical partners.
AMBTF’s narrow liquid-solid phase window presents a dose challenge if bulk storage gets exposed to higher summer warehouse temperatures. Our long-term solution came in the form of climate-controlled storage silos and scheduling seasonal production batch releases before ambient heat reaches critical points. Smaller, better-sealed packaging reduces lumping concerns—one of the trickier issues for batch transfer lines. For customers in tropical climates, we recommend warehouse cooling not just for safety, but to keep measured dosing accurate and reduce rework. This type of simple plant fix saves time and money, especially compared to redissolution steps for caked material.
Another operational challenge comes from accidental cross-contamination in multipurpose plants. AMBTF’s solid, chalky texture makes sweep cleaning more effective, but plant staff must stay vigilant with visual inspection and residue detection, since airborne fine dusts may escape conventional filtration longer than anticipated. We devised split-ventilation upgrades in drum unloading rooms, drawing dust down and out before accumulation. Operators and maintenance teams committed to this change after seeing visible reductions in line cleaning time and improved air quality readings. Small changes pay off at scale.
Anytime we bring on new staff or scale production, health protection for operators stays central. AMBTF earned a moderate hazard profile, but repeated exposure through skin or inhalation triggers sensitization risk. We conduct annual safety retraining and track both environmental air and surface levels around unloading hoppers and drum filling stations. On the floor, everyone wears fitted gloves and filtered masks—not only during hand transfer, but also in machine maintenance, where dust can be trapped in hard-to-reach auger housings.
If an accidental spill occurs (as sometimes happens on a frenetic shift), operators use dedicated spill kits and non-sparking tools, shoveling AMBTF solids into double bags for incineration. All spills are logged, and incidents become training case studies for further prevention. The culture pushes prompt reporting without blame, because early detection is the only way to fix procedural gaps before they threaten batch quality or operator health. Periodic medical surveillance is offered at no cost for staff regularly exposed to substituted aromatic amines, since long-term effects still get active research and regulatory scrutiny.
Ambitious as it sounds, our daily approach to AMBTF tries to bend toward practical improvement at every step: cleaner processes, safer handling, and steady supply. Other products in the same chemical family offer alternate reactivity, price, or regulatory standing, but AMBTF’s blend of chemical stability, predictable physical profile, and process-friendly morphology has won repeat adoption in recent years, especially where high-spec API, agro, or specialty industrial feedstock work converges with modern environmental expectations. Improvements continue as we track new regulatory and process trends; open operator feedback, and sustained partnership with downstream users push our own standards forward. In focusing on these details—from cleaning protocols to upstream raw material control—we create not just a product, but a chemical process backbone that customers can build around, campaign after campaign.