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HS Code |
319131 |
| Product Name | 2-Methyl-3,4,6-Trifluoro Benzoic Acid |
| Chemical Formula | C8H4F3O2 |
| Molecular Weight | 190.11 g/mol |
| Cas Number | 886498-15-3 |
| Appearance | White to off-white solid |
| Solubility In Water | Low |
| Storage Temperature | Store at 2-8°C, protect from light |
| Purity | Typically ≥98% |
| Smiles | CC1=C(C(=C(C(=C1F)F)C(=O)O)F) |
| Inchi | InChI=1S/C8H4F3O2/c1-3-4(9)6(8(12)13)7(11)5(10)2-3/h2H,1H3,(H,12,13) |
| Hazard Statements | May cause skin and eye irritation |
As an accredited 2-Methyl-3,4,6-Trifluoro Benzoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g package features an amber glass bottle with a secure cap, labeled "2-Methyl-3,4,6-Trifluoro Benzoic Acid, 100g." |
| Shipping | 2-Methyl-3,4,6-Trifluoro Benzoic Acid is shipped in tightly sealed containers under dry, cool conditions to prevent contamination and degradation. It is packed according to international chemical transport regulations, labeled with hazard information, and accompanied by safety documentation. Handle with appropriate precautions and store in a ventilated area upon arrival. |
| Storage | 2-Methyl-3,4,6-Trifluoro Benzoic Acid should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and bases. Protect from moisture and light. Proper chemical labeling, secondary containment, and access limited to trained personnel are recommended to ensure safety and chemical stability. |
Applications of 2-Methyl-3,4,6-Trifluoro Benzoic Acid in Industrial Manufacturing2-Methyl-3,4,6-Trifluoro Benzoic Acid serves as a specialized intermediate in several industrial segments, particularly in the development of advanced agrochemicals, pharmaceutical actives, high-performance coatings, and specialty chemical synthesis. Below, we detail the targeted application fields with the associated compliance, formulation, process integration, and end-use product forms as currently adopted by industry leaders. 1. Agrochemical Active Ingredient SynthesisCrop protection compound manufacturers utilize this acid as a key intermediate for producing fluorinated herbicides and selective insecticides. Its molecular structure supports building highly targeted actives with improved environmental behavior and crop selectivity. Raw material introduction typically occurs in the fluorination and ring-functionalization stage, critical for downstream biological activity modulation. Industry compliance standards
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2. Pharmaceutical Fine Chemical IntermediatesAPI manufacturers employ this compound in multi-step synthesis of targeted fluoro-aromatic drugs, especially within anti-inflammatory and antiviral class discovery. The acid group and unique fluorination profile are essential for facilitating site-selective coupling, contributing to bioisostere strategies in modern medicinal chemistry. This material is primarily introduced during the aromatic framework setup. Industry compliance standards
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3. High-Performance Fluorinated Resin and Coating AdditivesAdvanced coating producers use this acid to achieve targeted fluorination of specialty resin systems. It enables modification of polyimide and polyether ether ketone (PEEK) backbones, optimizing chemical resistance, dielectric features, and weather durability in final coatings and films. It is dosed precisely during imide synthesis or resin backbone modification stages. Industry compliance standards
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4. Specialty Monomer and Fine Chemical ProductionChemical synthesis firms incorporate the acid as a functional building block in the design of custom monomers for electronics and specialty adhesives. Its unique substitution pattern aids the synthesis of high-value specialty chemicals, especially those requiring enhanced electron-withdrawing or hydrophobic properties. Integration most often occurs during early monomer formation stages in cGMP or custom synthesis settings. Industry compliance standards
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Every specialty chemical brings its own challenges and rewards. In our experience, synthesizing 2-Methyl-3,4,6-Trifluoro Benzoic Acid reveals just how important precision and control can be in a chemical manufacturing setting. Our production process for this specific fluorinated benzoic acid variant has evolved to match the growing needs of industries involved in pharmaceuticals, agrochemistry, and advanced materials. With the model number MF-6783, this compound stands apart in the lab because of its unique trifluoromethyl substitution pattern and methyl group placement.
We select raw materials with high scrutiny, since even minor contamination can disrupt downstream applications. The structure—with three fluorine atoms at positions 3, 4, and 6 on the benzene ring and a methyl group at position 2—gives it different chemical behaviors from other benzoic acids. These characteristics make it suited to niche applications where electron density and steric effects need fine-tuning. As a manufacturer, we track these parameters closely, since customers frequently look for consistency that trading intermediaries can’t guarantee. They want samples straight from a facility where the chemists understand what every slight tweak in temperature and reaction time can mean for the end result.
Creating 2-Methyl-3,4,6-Trifluoro Benzoic Acid isn’t just about swapping in a few extra fluorines or moving a methyl group. The interplay between substituents changes how the molecule interacts with reagents, solvents, catalysts, and even analytical equipment. Compared to benzoic acids with fewer or non-contiguous fluorines, processing this compound often requires extra measures to handle its higher reactivity and increased volatility. Our distillation columns, glass reactors, fume hoods, and purification lines all get more use when this substance is on our production calendar.
Some customers have noticed the differences first-hand. In drug discovery projects, for instance, they see greater metabolic stability and altered binding profiles in molecules derived from this acid than in those derived from less-fluorinated versions. In crop protection, the differences in fluorine placement produce changes in bioavailability, which downstream R&D staff use to develop formulations that withstand environmental stressors. Our role has been to provide a product that matches these narrow requirements. With each batch, QA pulls random samples to check parameters like melting point, purity as determined by HPLC and NMR, color, moisture content, and known impurity levels. Consistency here matters more than speed.
Producing this compound in our reactors requires more than off-the-shelf protocols. Over the years, we’ve learned what happens when solvents aren’t dried properly, or when subtle shifts in pressure go unchecked. For instance, subpar management of fluorinating agents can leave unwanted byproducts, impacting chromatographic purity and ultimately the downstream performance of derivatives. We’ve refined our process to minimize over-fluorination and side reactions, knowing that even small batch-to-batch variations can ripple through R&D or production lines using this acid.
We monitor temperature profiles and reaction times with tight tolerances, relying on calibrated sensors and supervised batch records. Our quality review includes cross-checking spectral data against reference standards developed with internal and external labs. And our purification steps – typically centered around controlled crystallization and solid-phase extraction – reflect input from customers who’ve seen how an impurity at 0.1% can cause a reaction to fail or a formulation to separate. Most resellers and generic catalogs can’t offer that sort of tailored, repeatable performance.
It’s easy to throw together a datasheet, but we appreciate what those numbers mean in practice. We provide 2-Methyl-3,4,6-Trifluoro Benzoic Acid from pilot and production lines with lots ranging from a few kilograms up to hundreds. Our HPLC purity standards reach 98.5% for the principal peak, with byproducts flagged and quantified to help customers avoid surprises. Standard particle sizes support both manual handling in R&D and automated dispensing in manufacturing environments.
Smaller or less experienced suppliers might not pinpoint how changes in particle size or form factor (crystalline, amorphous) can affect everything from solubility in formulation work to shelf stability in storage. In our labs, we conduct routine stability studies at elevated temperature and humidity to give a clear picture of how the acid will perform in the real world, not just under ideal conditions. Moisture can matter, especially when mixing into pre-activated systems or creating specialty esters, so we test lots for water content using standard Karl Fischer titration.
Some uses for this compound won’t show up on a general distributor’s product page. Downstream applications in medicinal chemistry rely on selective fluorination to tune absorption and distribution in biological systems. Our direct customers use the acid as a building block in small-molecule libraries, benefiting from the predictable behavior and reactivity imparted by this substitution pattern. They often email us about scale-up runs, comparing pilot batches to research quantities, so we focus on minimizing batch-to-batch variation that could throw off reaction kinetics in larger runs.
Agrochemical developers find utility in the molecule’s distinct profile. The molecular properties derived from its methyl and trifluorinated arrangement enable more stable intermediates or tailored active ingredients in herbicides and pesticides. These chemists know the pitfalls of unpredictable raw material composition. One reason we design our packing and logistics chain around minimizing exposure to ambient humidity and heat: even short-term storage lapses can alter the acid’s physical state and thus its downstream effectiveness.
Polymer and advanced material R&D teams sometimes pursue new monomers or performance additives based on this compound’s stability and reactivity. Our team tracks feedback from these customers, who expect the acid to behave identically even after weeks of storage or after transport by air and sea. We test each batch for residual solvents, recognizing how trace impurities could poison catalyst beds or undermine the reproducibility of lab-scale synthesis.
The specific arrangement of fluorines and methyl group creates subtle but important differences from other benzoic acids, even those just one atom away in structure. In practical testing, we see shifts in melting point, solubility profiles in common organic solvents, and greater polarity effects than with compounds fluorinated only at single positions. These differences alter both the chemistry and logistics of using the acid in tightly-regulated industries. For example, synthetic pathways that work with 3,4-difluorobenzoic but fail or plateau in yield with the trifluorinated acid.
We support customers looking to compare our MF-6783 acid with traditional benzoic acids or even other fluorinated analogs. Our in-house team runs trials in parallel on pilot lots, looking for variances in reaction time, catalyst load, and product isolation yield, so those who order from us know what might happen in their own processes. Relying on a direct relationship with the manufacturer means fewer data gaps or untracked changes in chemical provenance, reducing the headaches of analytical troubleshooting later.
Over the years, customers from around the world have pointed to emerging regulations as a top concern. Every country’s standards differ, yet one constant remains: precision in raw material production supports better environmental control downstream. Our batch records include traceability documentation, and we audit our supply chain partners to align with regional requirements, especially those related to halogenated intermediates. By investing in closed-system handling and proper waste remediation, our site reduces both operator exposure and environmental burden.
End uses in pharmaceuticals and agriculture demand up-to-date documentation, so we work with regulatory specialists to offer safety and toxicology data compatible with ongoing reviews. Whether a batch ships inside our country or overseas, our customers rely on clarity around trace heavy metals, residual solvents, and byproduct identification. A manufacturer’s perspective on stewardship means anticipating these reviews and building confidence before a product ever leaves the warehouse.
Experience has taught us that generic solutions rarely satisfy the real needs of innovators working at the bench or on the production line. With each technical inquiry, we talk shop with chemists about reaction energetics, solvent swaps, or alternative protective group strategies. Feedback from these conversations shapes future process improvements, from analytic protocol upgrades to packing redesigns for easier storage. Repeat business from formulators, CDMO partners, and material scientists shows us their confidence in getting what they need, batch after batch.
Whether it’s supporting an academic lab running fifty grams for structure-activity relationship studies, or coordinating shipment of twenty kilograms to a multinational pharmaceutical plant, we watch for changes in purity, color, or particle morphology. Stories from customers who switched from other suppliers cite smoother scale-ups, better analytical results, and quicker troubleshooting. More than a few have saved time by avoiding false positives in QC tests that sometimes plague lower consistency suppliers’ material. Working from the manufacturing floor, our team sees these gains realized in chemical terms, not just as marketing claims.
Supply chain uncertainty plagues many in the fine and specialty chemical market. Direct purchasing from a manufacturer like us shortens the communication loop and removes layers where information or documentation could get lost. Our on-site labs allow rapid revalidation of retained samples, so any concern about batch performance can be tracked to its source and rectified. Every kilo shipped reflects the tools and care of our technicians—no outsourcing of critical batch steps, no guessing which subcontractor touched the product last.
Experienced buyers know that the best chemical won’t rescue a project if supply stalls. We maintain buffer inventory according to historical demand, forecasting against customer order cycles, and coordinate with logistics partners who share our commitment to temperature- and moisture-sensitive cargo. We’ve invested in packing materials that shield against quick temperature swings, so even locations with challenging climates receive the acid in reliable condition. Comparing this approach to experiences from some trading houses or resellers, the difference shows in how quickly questions can be answered and how predictably product arrives.
Our technical support, grounded in daily production and troubleshooting experience, carries more weight than the generic scripts sometimes offered by sales agents. We’ve advised on dozens of process development projects involving this acid, sharing lessons learned from both scale-up failures and successes. Whether customers want help with solvent selection for recrystallization, guidance on real-time analytical tracking, or insight into purification at large scale, our manufacturing team addresses these issues directly.
We run internal trials to simulate end-user problems, keeping an eye on potential side-reactions unique to this substitution pattern. Customers report that this expertise saves them weeks of back-and-forth, especially in regulated markets where both documentation and lot consistency matter. Our track record with timely, accurate problem-solving sets us apart from those who simply broker material from unknown sources.
Procurement risk in specialty chemicals rarely gets enough attention. As the manufacturer, our direct relationship with research and process teams minimizes the possibility of specification drift or hidden formulation risk. Each production record connects quality data to production date and raw material provenance. In a world where lot numbers can disappear as material changes hands, we provide detailed COAs and reserve sample vials for post-sale reference if disputes or investigations arise.
Researchers who have spent weeks on a lead candidate or product formulation value this kind of assurance. We’ve witnessed projects rescued from the brink due to timely access to full production and analytical records. Adopting this approach also reduces the legal and regulatory headache when audit time comes, a reality faced by every regulated industry we support.
As regulations change and downstream applications grow more demanding, we commit to ongoing improvements. In our production facility, every process audit and every customer feedback form becomes data for future process optimization. Sometimes, this means adjusting manufacturing batch sizes to match new application demands or fine-tuning particle size distributions for easier blending in advanced formulations. Each iteration stems from dialogue with true end users—scientists, process engineers, QC chemists—not distant market analysts or commodity brokers.
Customers looking to build reliable supply and technical advantage achieve more by working hand in hand with a manufacturer. For 2-Methyl-3,4,6-Trifluoro Benzoic Acid, our ability to control every variable from raw material to finished lot delivers an advantage in quality, security, and speed of problem resolution. We see the results in customer loyalty and project wins that extend beyond a single transaction. As new uses for this compound emerge, our team will remain ready to deliver the hands-on expertise and material confidence laboratories and production lines need to move forward with certainty.