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HS Code |
952274 |
| Chemical Name | 2,4-Bis(Trifluoromethyl)Benzyl Alcohol |
| Cas Number | 328-79-8 |
| Molecular Formula | C9H6F6O |
| Molecular Weight | 246.13 |
| Appearance | White to off-white solid |
| Boiling Point | 225-228°C at 760 mmHg |
| Melting Point | 54-58°C |
| Density | 1.47 g/cm3 |
| Refractive Index | 1.405 |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Smiles | C1=CC(=C(C=C1CO)C(F)(F)F)C(F)(F)F |
| Pubchem Cid | 1493372 |
As an accredited 2,4-Bis(Trifluoromethyl)Benzyl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, screw cap, labeled, 25 grams; includes hazard symbols, chemical name, formula, and handling instructions for laboratory use. |
| Shipping | 2,4-Bis(Trifluoromethyl)Benzyl Alcohol is shipped in tightly sealed containers, protected from moisture and direct sunlight. It is transported as a chemical substance with appropriate hazard labeling, following regulations for flammable, irritant, or environmentally hazardous materials as needed. Handling requires appropriate personal protective equipment and adherence to safety protocols during transit. |
| Storage | **2,4-Bis(Trifluoromethyl)Benzyl alcohol** should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and incompatible materials such as strong oxidizers. Protect the chemical from direct sunlight and moisture. Use and store only in areas designed for handling organic solvents, ensuring proper labeling and secondary containment to prevent spills. |
Applications of 2,4-Bis(Trifluoromethyl)Benzyl Alcohol in Industrial Manufacturing2,4-Bis(Trifluoromethyl)Benzyl Alcohol serves as a specialty aromatic alcohol utilized by compounders and formulators in advanced chemical manufacturing. This material is valued for its electron-withdrawing trifluoromethyl substituents, contributing unique reactivity profiles and stability in target molecule synthesis. As a direct manufacturer, we supply this intermediate to multiple well-defined downstream sectors, supporting their compliance, formulation, and process requirements with consistent quality control and technical support. 1. Advanced Pharmaceutical Intermediate SynthesisIn pharmaceutical intermediate production, this compound functions as a key building block during the synthesis of API precursors, specifically in the development of fluorinated drug candidates requiring electron-deficient aromatic systems. Research and commercial API manufacturers integrate this alcohol in alkylation, esterification, and etherification reaction steps to introduce tailored fluorinated benzyl fragments, essential for increasing bioavailability and metabolic stability of certain active molecules. The material enters directly into multi-step batch reaction platforms under GMP or cGMP frameworks, demanding rigorous trace impurity control. Industry compliance standards
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2. Custom Agrochemical SynthesisAgrochemical manufacturers deploy 2,4-Bis(Trifluoromethyl)Benzyl Alcohol during the production of high-performance crop protection agents, particularly where tailored fluorinated benzyl groups enhance biological activity against target pests or increase compound persistence. The alcohol acts as an intermediate for the preparation of novel phenyl-benzyl derivatives via oxidative coupling or substitution reactions. Adoption must align with local environmental and safety compliance frameworks given the downstream placement into regulated crop protection products. Industry compliance standards
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3. Specialty Polymer Additives and Monomer SynthesisPolymer manufacturers utilize this benzyl alcohol derivative to introduce trifluoromethyl-substituted aromatic units into specialty polymer chains, enhancing hydrophobicity, chemical resistance, and dielectric properties. The compound serves as a monomeric building block or chain stopper during solution or emulsion polymerizations, especially for advanced engineering plastics and functional elastomers. Stringent process oversight ensures that residuals comply with end-use electronics, automotive, or coating industry specifications. Industry compliance standards
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4. Liquid Crystal and OLED Intermediate ManufacturingProducers in the display materials industry employ 2,4-Bis(Trifluoromethyl)Benzyl Alcohol as a precursor for novel fluorinated aromatic intermediates incorporated into advanced liquid crystal and OLED molecules. The compound’s high electronic stability supports functionalization through alkylation or etherification, critical for precise molecular engineering of optical properties. Stringent control over contaminant profiles and batch-to-batch consistency is required due to the final use in sensitive optoelectronic devices. Industry compliance standards
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5. Fine Chemicals and Analytical Standards PreparationChemical analysis laboratories and contract research organizations purchase this alcohol to synthesize traceable reference compounds and fine chemical standards. Its well-characterized trifluoromethyl-modified structure is valuable in creating calibration solutions and process monitoring controls for fluorinated aromatic compound quantification by GC-MS or LC-MS. Batch reproducibility, purity certification, and documentation are critical for fit-for-purpose use in accredited analysis protocols. Industry compliance standards
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Every synthesis batch tells its own story, and in our experience, 2,4-Bis(Trifluoromethyl)Benzyl Alcohol (often referenced by chemists as 2,4-BTFMBA or under CAS Number 328-86-3) stands out for the transformations it helps make possible. As chemists who spend every workday sweating the details of reaction yields, impurity control, and batch-to-batch reliability, we bring a hands-on understanding of where this compound fits and why it stands apart. Years behind the glass, scaling up from pilot glassware to real production vessels, have delivered a clear perspective: reliable quality and robust supply have never mattered more.
This compound is more than a chemical name on a label. With two trifluoromethyl groups para to each other on a benzene ring and a benzyl alcohol group, its real advantage lies in its chemical stability, lipophilicity, and electron-withdrawing characteristics. Unlike some bulk intermediates, which we routinely see mixed with undefined isomer content or variable color and odor, the batches we run of 2,4-BTFMBA always show high purity and low moisture content, ready for critical downstream synthesis.
We produce this compound using multi-step fluorination and reduction steps, and every liter that leaves our site carries the result of dozens of adjustments to temperature, solvent composition, and purification methods. It remains colorless or nearly so, with a faint aromatic odor—the sort of details a chemist learns to trust, even before checking the GC report. Every bottle comes with specifications matched to real-world needs: controlled residual solvents, tight GC purity (≥99%), and consistently low acid or base number.
Unlike lower-tier benzyl alcohols, which sometimes suffer breakdown during scale-up or extended storage, the presence of the two CF3 groups delivers notable resistance to oxidative side-reactions. No unnecessary stabilizers, no need to fuss with scavengers during later reactions. Our long-term storage at ambient conditions delivers steady color and composition profiles even six months after bottling, which helps our customers keep their processes predictable.
Plenty of questions have come our way over the years: “What separates this from standard benzyl alcohol or other fluorinated analogs?” That answer sits in a combination of physical and chemical behaviors. Not every process tolerates substitutions or improvisation; the electronic effects and bulking delivered by two trifluoromethyl groups make a measurable difference. In our polymer chemistry customers' work, this translates to improved hydrophobicity and tighter control over chain termination steps. In pharmaceutical R&D applications, electron-withdrawing effects can alter the biological compatibility of synthesized target molecules. These aren’t minor tweaks on paper—these are differences chemists observe in pilot trials and full-scale runs.
Our R&D team returns time and again to its compatibility. Where some benzylic alcohols invite side-reactions in coupling steps or catalytic hydrogenations, 2,4-BTFMBA’s stability helps push reactions to higher conversions with less purification burden at the end. One well-noted feature compared to 4-(Trifluoromethyl)benzyl alcohol or other mono-substituted analogs: double substitution brings about a marked increase in melting point and lower volatility. That matters both for storage safety and for precision dosing in flow reactors, as our scale-up partners in specialty polymer projects often request.
Other benzyl alcohols, especially those with halogens or electron-donating groups, can show more susceptibility to oxidation, discoloration, and corrosive breakdown. We have run stress tests—exposing samples to elevated temperature, light, and alkaline or acidic conditions. The 2,4-BTFMBA outperforms standard analogs every time. We’ve even had customers report back fewer issues during column chromatography purification, owing to this compound’s unique polarity profile. Such experiences inform our Statement of Quality: every production year, tweaks learn from last year’s real-world feedback.
Producing 2,4-Bis(Trifluoromethyl)Benzyl Alcohol is no minor undertaking. The trifluoromethylation step is intricate, and our teams have been through every permutation—from batch-wise additions to continuous flow fluorination—to maximize yield while keeping byproducts in check. The reduction and isolation are choreographed to avoid formation of hazardous intermediates, protect worker safety, and guarantee product stability. Many producers still chase short-term yield above all else; we’ve found that thorough process monitoring at every step gives fewer surprises and much lower environmental burden.
In our facility, quality comes through rigorous in-process control. Every crude intermediate and final batch undergoes NMR, HPLC, and Karl Fischer analysis. Solvent residues and metal traces get checked well below market-typical specifications. Our plant automation cuts manual errors, but it’s often the eyes and judgment of an experienced operator that catch an off-odor, unexpected cloudiness, or signs of micro-contamination. With each campaign, we refine the cycle further. These are not boxes to check for compliance—they reflect lessons learned the hard way, and every customer benefits.
Scaling up multi-step organofluorine chemistry requires patience, and safety can’t be shortchanged. Our staff trains annually in fluorine handling and waste mitigation. We recover and recycle much of the spent fluorinating agents, feeding back into a lower-waste loop. That effort also factors into our product pricing, and we choose transparency: you pay for what the job requires, and not a cent more for flash. Integrity on the floor today buys trust for the next campaign.
End uses for 2,4-Bis(Trifluoromethyl)Benzyl Alcohol keep expanding. Initial demand came from pharmaceutical research, especially for advanced intermediate synthesis. Over the last decade, coatings and advanced materials specialists joined the mix, chasing trifluoromethyl group effects in their search for greater chemical and temperature resistance. We hear from our customers in Japan, Europe, and North America that our product lets them push past conventional property limits in specialty polymers, surfactants, and optical materials.
In pharmaceutical trials, the alcohol group offers a versatile anchor for building more complex molecules. Medicinal chemists tell us the dual CF3 groups impart increased metabolic stability and unique pharmacokinetic properties to their lead compounds. Polymer customers highlight its role as an end-group modifier, yielding stronger water repellency and improved dielectric constants in finished films. Chromatography and analytical teams remark on the reproducibility batch-to-batch—a must for assay validation and regulatory filings.
Where technical support makes a difference is in the details. On the plant floor, customers want to know solvent compatibility, reaction exotherm behavior, and whether to store under inert gas. We supply not just a product, but direct lines to our process chemists, who have run the purification, sampled the output, and learned through hands-on troubleshooting. Our support has worked alongside customers to reoptimize extraction solvents, tweak catalyst loadings, and resolve filter clogging. In these exchanges, we learn as much as deliver—with those improvements building into new production runs.
Lab-scale users sometimes overlook storage stability, but scale-up chemists know every impurity introduced at the handling stage can multiply downstream. We’ve evaluated storage behavior at room temperature, refrigerated, and under nitrogen. The results: tightly capped containers at ambient conditions remain clear and stable for extended periods, without the need for antioxidant additives. Of course, the best purity always comes from smart handling. We recommend minimizing exposure to moisture and strong acids/bases, based on our own trials that found hydrolysis and discoloration accelerated in humid, acidic environments. Open communication with our logistics and storage partners closes the loop and avoids the issues that used to cost everyone time and money.
Trifluoromethylated aromatics draw extra regulatory scrutiny these days, both for environmental impact and for end-use in pharma and agrochemical applications. We monitor our synthetic steps against REACH and North American guidelines. Every batch comes with a full traceability record, and impurities are documented down to ppm level when required. We do not add unnecessary stabilizers or unidentified denaturants—clean supply without hidden risks. Waste minimization and fluorine recovery remain major priorities: new catalyst systems and solvent recycling lines in our facility cut environmental impact and long-term cost.
Sourcing of fluorinated starting materials also gets ongoing review. As handling restrictions on certain perfluoroalkyl substances grow tighter, our procurement team verifies every supplier's compliance, and we regularly audit our own waste outputs and emissions. This real-world vigilance means the value we pass through to the customer isn’t just in the bottle—it’s in the transparency and trust built up batch after batch.
Years of feedback shape every improvement. Early customers ran into issues blending our material into certain polar solvents; our response led to tweaks in drying and packaging. Later feedback showed a need for improved clarity in documentation and easier transfer from large drums—so we adjusted not just our packaging, but our internal QC reporting, now shared in full with every bulk shipment. Field visits across three continents reveal there’s no substitute for ongoing, direct exchange. Emails and lab reports can support, but walking a customer through a failing pump, or providing overnight advice on a stalled reaction, sometimes makes all the difference.
Unlike traders or brokers, our experience covers the spectrum from raw material sourcing to the final shipment. We maintain real-world batch inventories, not just “paper” stock, to ensure supply continuity and minimize customer risk. For those running 24/7 pilot lines or fighting for time in shared GMP facilities, that backup matters. After all, nothing tests a manufacturer’s mettle like a customer phone call on a Friday at 4:30 PM about an unexpected out-of-spec result. We’ve learned to answer with facts, not excuses—and to deliver real solutions, grounded in our daily work.
Market comparisons often focus on price, but in our experience, procurement teams and production chemists care more about real savings: less downtime, lower failure rates, fewer returns. Our syntheses chase consistency, and our logistics team only forwards what our own technical team would be willing to use in their next experiment. That means hands-on batch tracking, customer-facing technical notes, and process recommendations that match what we do ourselves in-house.
We’ve seen “lookalike” products in the market—sometimes adequate for coarse downstream chemistry, but failing at higher scrutiny. Chemical purity isn’t just a certificate number; it’s the ability for a product to stay within critical limits under both short- and long-term storage, to perform reliably in demanding conditions, and to avoid introducing unexpected impurities during synthesis. We’ve found that our approach—tight process control and transparency—delivers more value in the long run. This shows up in customer loyalty and repeat orders, not just in initial sales.
After years manufacturing 2,4-Bis(Trifluoromethyl)Benzyl Alcohol, we measure success by what happens after the drums leave our facility. If a customer’s synthesis hits yield targets, if a film or coating resists breakdown longer, or if a pharma route progresses that much faster, those are the milestones that build real partnerships. For us, product differentiation comes down to truth in what we promise, quick feedback on issues, and applying every lesson learned to every batch that follows.
We keep investing in small advances—better process controls, tighter solvent management, improved operator training—because each one helps keep our promise to every customer. From where we stand, in the middle of raw materials, reactors, and real chemical challenges, quality means much more than a number. It’s every gram that fits into our own trial flask as confidently as into a customer’s production vessel, delivering the kind of consistency and transparency that today’s chemical industry needs and expects.