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HS Code |
808747 |
| Product Name | 3-Fluoro-5-(Trifluoromethyl)Benzyl Alcohol |
| Cas Number | 886762-19-2 |
| Molecular Formula | C8H6F4O |
| Molecular Weight | 194.13 |
| Appearance | Colorless to pale yellow liquid |
| Purity | ≥98% |
| Smiles | OCc1cc(F)cc(C(F)(F)F)c1 |
| Inchi | InChI=1S/C8H6F4O/c9-6-1-5(4-13)2-7(3-6)8(10,11)12/h1-3,13H,4H2 |
| Storage Temperature | 2-8°C |
| Synonyms | 3-Fluoro-5-(trifluoromethyl)benzyl alcohol |
As an accredited 3-Fluoro-5-(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, 25 grams, with a secure screw cap; labeled with chemical name, concentration, hazard pictograms, and handling instructions. |
| Shipping | The chemical **3-Fluoro-5-(trifluoromethyl)benzyl alcohol** is shipped in tightly sealed, inert containers to prevent contamination and minimize exposure to moisture or air. Packages comply with applicable regulations and safety standards, typically transported at ambient temperature with proper labeling and documentation for safe handling and tracking during transit. |
| Storage | Store 3-Fluoro-5-(trifluoromethyl)benzyl alcohol in a tightly sealed container in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and sources of ignition. Keep separate from incompatible materials such as oxidizing agents and strong acids. Use secondary containment if possible. Label the container clearly and follow proper safety and chemical hygiene practices when handling. |
Applications of 3-Fluoro-5-(Trifluoromethyl)Benzyl Alcohol in Industrial ManufacturingAs the original producer of 3-Fluoro-5-(Trifluoromethyl)Benzyl Alcohol, we focus on its applications across multiple specialized chemical sectors. Each industrial scenario requires precise compliance, formulation expertise, and process control to deliver consistent quality in downstream manufacturing. The following section outlines its genuine market uses with detailed technical context for industrial buyers, R&D teams, and process engineers. 1. Active Pharmaceutical Ingredient (API) Intermediate SynthesisThis raw material serves as an essential building block in the manufacture of several active pharmaceutical intermediate compounds, especially those belonging to the class of fluorinated aromatic medicines. Its unique structural attributes support regioselective synthesis and stable pharmacophores during the multi-step organic processes required for targeted APIs, including selective serotonin reuptake inhibitors (SSRIs) and other neurological treatment candidates. Production lines integrate this material in the early stage aryl functionalization, ensuring that the regulatory quality attributes are consistently met from intermediate to finished drug substance. Industry compliance standards
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2. Advanced Agrochemical FormulationThe compound is utilized by agrochemical manufacturers seeking improved molecular stability and enhanced bioactivity in new-generation crop protection actives. Its fluorinated aromatic structure enhances UV resistance and environmental persistence, addressing contemporary challenges in fungicide and herbicide development. Chemical process engineers use this benzyl alcohol as a non-chlorinated nucleus for the safe construction of fluorinated rings within selective crop protection formulas, leveraging compatibility with specific modern emulsification and granulation techniques. Industry compliance standards
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3. Custom Liquid Crystal Monomer Synthesis for Display TechnologiesSpecialty electronics manufacturers rely on this compound’s fluorinated benzyl structure to enhance dielectric anisotropy and thermal alignment properties in the production of tailored liquid crystals for advanced display panels. Its integration into monomer mixtures supports improved operational temperature ranges and sharper electro-optic responses for next-generation OLED and LCD devices. The compound’s purity and precise electronic characteristics matter greatly when targeting uniform film quality and molecular orientation during downstream preparation. Industry compliance standards
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4. Fluorinated Coating Resin ModifiersIndustrial coatings producers introduce this benzyl alcohol as a customized modifier to increase chemical and environmental durability of specialty polyurethane and epoxy resin systems, commonly used in high-value architectural, automotive, or aerospace coatings. Its fluorinated structure enhances surface release, stain resistance, and hydrophobicity, meeting rising demand for long-life protective surfaces. Downstream processors engineer resin blends using this raw material to meet project-specific environmental exposure criteria and regulatory requirements. Industry compliance standards
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5. Fluorinated Aromatic Building Block for Specialty PolymersMaterials scientists and advanced polymer manufacturers exploit this molecule as a source of controlled aromatic fluorination, designing specialty fluoropolymer backbones that demand both high thermal stability and altered refractive indices. Target applications include extreme performance films, wire jacketing, and engineered plastics for chemical processing equipment. Process engineers select the compound to achieve property enhancement while supporting scalability in continuous polymerization lines and post-polymer functionalization. Industry compliance standards
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3-Fluoro-5-(trifluoromethyl)benzyl alcohol stands out in the crowded field of fine chemical intermediates. We manufacture this compound under controlled environments, putting focus on each reaction parameter and reagent quality. Delivering a high-purity end product challenges basic assumptions; every batch reveals something new, and only experience hones the process. We track each lot from the fluoride source through to the final benzyl alcohol spectrum, learning from even the slightest impurity spike or yield drop.
Unlike synthetic shortcuts common in commercial scale-ups, our method prioritizes selectivity at the aromatic ring. The fluoro and trifluoromethyl groups must be positioned exactly where science needs them, plain and simple — misplacement tosses out an entire batch. All solvents and catalysts get certified for contaminant levels before use. Separations use column chromatography lined with inert materials, not just for cosmetic purity but because even trace metal residues can wreck late-stage reactions, particularly in pharma and crop-protection sectors. This hands-on oversight turns every bottle that leaves our production floor into a signature of real-world quality, not a marketing claim.
Specification sheets don’t tell the whole story. The technical details — clear, colorless liquid or low-melting solid; NMR, GC-MS, and HPLC spectra — matter little if the product’s performance falters. Our 3-fluoro-5-(trifluoromethyl)benzyl alcohol generally maintains GC purity greater than 99.5%. We tightly monitor water content, halide residuals, and aromatic byproducts all the way down to black trace bars on an analytical report. Staff in our lab invest their expertise in verifying these numbers for each barrel or flask. No automated process replaces that human scrutiny — it’s the backbone of reliability.
We’ve watched this alcohol carve out a place in pharmaceutical intermediate synthesis and agrochemical development. Its chemistry allows chemists significant flexibility in downstream derivatizations. The 3-fluoro and 5-trifluoromethyl functionalities open pathways that unsubstituted benzyl alcohols simply can’t. In medicinal chemistry, designing candidates with improved metabolic stability or specific biological targets often requires tools like this. Agrochemical innovators also draw paths through its structural motifs, building new scaffolds for herbicides and insecticides that would have been difficult, if not impossible, with older starting materials.
Reactions involving this compound don’t play by textbook rules. Experienced chemists in our facility know that the electron-withdrawing groups on the ring alter reactivity patterns for both electrophilic and nucleophilic substitution. Every solvent, every stirring speed, even the order of addition can tip the final product yield and purity. We’ve tested a range of synthetic applications – reductive amination, acylation, ether formation – in-house so we speak from experience, not theory. That hands-on work means we pick up on subtleties no standard method or externally sourced compound ever reveals.
Ordinary benzyl alcohols lack both the fluorine and trifluoromethyl groups that give this molecule its edge. The presence of these groups does more than change a line on a certificate of analysis. They fundamentally alter the compound’s lipophilicity and electronic properties. This alcohol’s increased hydrophobicity plays a part in bioavailability for pharmaceutical intermediates. In process chemistry trials, it resists unwanted side reactions that plague other aromatic alcohols, especially under oxidizing conditions. Process engineers here have tested it head-to-head with standards: in oxidation trials, traditional precursors lost significant yield to over-oxidation or side formation, while the fluorinated compound gave sharper, more predictive behavior.
No two production runs look the same in this business. Impurities creep in — sometimes through the glassware, sometimes through trace moisture in a supposedly dry solvent. Experienced colleagues recognize the signs long before problems reach the customer. Our habit is to check and recheck the basic physical parameters — density, boiling point — on every lot, because consistency across batches means true reliability. Quality failures don’t disappear on paper; we pursue the root cause until the numbers line up. Lessons from previous missteps inform every tweak to our protocols, reinforcing that there’s no shortcut to trust.
Many of our customers push the edge of drug and agricultural technology. Their applications draw on our expertise with this unique alcohol, seeking input on solvent best-practices or reaction optimizations. The bench chemists here don’t turn away from hard questions — more than one custom process owes its success to these gritty conversations. We’ve learned that success is cumulative; the smallest insight during a late-night troubleshooting session can change the trajectory of a project months down the line.
3-Fluoro-5-(trifluoromethyl)benzyl alcohol calls for careful handling all the way from our reactors to the end user. Our storage area keeps temperature and humidity within narrow bands because uncontrolled variables degrade sensitive chemicals quickly. Bulk containers use inert linings, and we test every drum on arrival and before shipment to ensure the material remains within spec. Distribution logistics draw on years of experience with regulatory compliance in international shipments — every consignment moves with complete documentation, checked by staff who’ve walked the warehouse floors and know the substances first hand. If a delay threatens product integrity, we reroute, not just for business reasons but because those losses cost future trust.
Manufacturing organofluorines demands vigilance when it comes to environmental and personal safety. The trifluoromethyl group opens new opportunities in chemistry, but handling requires respect for both acute and chronic hazards. Our site features fume hoods, local scrubbers, and a culture of daily safety checks. Nobody on our team cuts corners at the expense of health; protocols come from experience, having seen what even minor lapses can trigger. Waste streams get early-stage treatment — neutralizations and distillations happen before the regulatory paperwork ever reaches an outside auditor. That diligence means our products reach industry innovators without leaving a problematic footprint at home.
User feedback loops aren’t a formality. We keep the phones and email open, listening to both praise and complaints — details about solubility quirks, reactions running off course, or unexpected color changes in the product inform every production improvement. Chemists who synthesize and purify this compound can recite the five or six most common customer troubleshooting stories out loud, not because they’re rehearsed, but because real product stewardship means remembering exactly where earlier mistakes happened. Over the years, tweaks based on those customer calls have leveled up our processes, not just kept the status quo.
Even among other fluorinated benzylic alcohols, this one holds value, mostly because the 3-fluoro and 5-trifluoromethyl versions slot uniquely into organic syntheses without creating excessive byproducts. Applications that need both electron-withdrawing and lipophilic influence demand these exact positions, not a random scattering on the ring. A few grams in the hands of a competent bench chemist can lead to whole new classes of marketed pharmaceuticals or crop protectants. We’ve worked with academic teams and industrial R&D groups who need just these characteristics for a project no other compound fits. In our view, ‘close enough’ doesn’t build the next molecule on a patent application.
In our plant, control means direct accountability. Batch production logs come with signatures, and nobody walks away from a run without signing off on their input. Small details — ambient temperature shifts, impurity spikes on the chromatogram — get tracked and flagged, with records going back years. Data does more than fill binders; we use it in team reviews to troubleshoot problems as they arise, making informed calls on batch disposition. Fine chemical manufacturing doesn’t tolerate wishful thinking; a single uncontrolled parameter can sour hundreds of liters of product, wasting both material and months of labor.
Routine quality checks can only go so far. Our laboratory doesn’t settle for basic output; teams deploy advanced NMR, mass spectrometry, and specialized fluorine analytics to catch hidden impurities and subtle degradation products. Instruments stay meticulously calibrated by trained staff rather than third-party contractors, keeping the evaluations honest. Several competitive producers offer the same molecule by name but lack the diligence in confirming stereochemistry or functional group integrity on every shipment. Through persistent method development, we’ve caught pitfalls others miss — minor by-product peaks that would go undetected in less-sensitive setups.
Handling 3-fluoro-5-(trifluoromethyl)benzyl alcohol can’t go strictly by theory. As a team, we have dealt with incidents of minor leaks and spills. Decades in the plant have drilled in habits: turns of the valve, changes in pressure, shifts in storage temperature. Understanding how this compound interacts with glass versus polymer, its affinity for skin or gloves, comes from direct exposure, not reading spec sheets. Even seasoned chemists respect its ability to carry unexpected reaction partners through a synthesis, and every new hire learns how those shocks happen in real time. Training focuses as much on vigilance as routine, ensuring all staff recognize signs of trouble and act before paperwork catches up with the event.
This isn’t a story of faceless chemical vats. As manufacturers, we take pride in every step — sourcing fluorinated precursors, perfecting reaction time, tweaking distillation parameters for the weather conditions of a given season. Success comes from decades of combined experience among synthesis, QA/QR, maintenance, and logistics teams. As the plant evolved, lessons passed from founder to apprentice to current operator didn’t get lost in translation, each mistake and each breakthrough stored in the working memory of the crew, not just digital archives.
A focus on sustainability goes deeper than regulatory compliance. From the earliest pilot runs, we’ve tracked every kilogram of solvent destined for reclamation. Our plant recovers and reuses as much as possible, not as a rule forced on us but as a cost-saving and community-sustaining measure. By tuning reactor conditions for higher atom economy, and capturing and reusing fluorinated byproducts, we cut down both environmental load and raw input costs. Workers know why every drop matters, and the community around the plant sees the impact — jobs stay local, water and air quality monitors post honest numbers.
Customers choose this product for results they can measure, not just points on a spreadsheet. A pharmaceutical client building next-gen kinase inhibitors described how the compound’s fine-tuned electronics enabled a clean, high-yield substitution that rivaled nothing else available. An agrochemical R&D group reported improved shelf stability in pilot field trials, crediting the product’s unique molecular profile with resisting ambient humidity and oxidation in tropical conditions. These stories multiply with each shipped batch, and every account strengthens our commitment to hard-won quality.
We view each order as the beginning of a conversation, not the end. Sometimes that means supporting process optimization at the customer’s site, other times it requires additional purifications or custom packaging to fit a unique workflow. Our teams thrive on challenge — running special syntheses, exploring new reaction partners, documenting every mod for the record. Years spent building real partnerships with universities and manufacturers have fed back into our own process improvements, making each new engagement a test and a learning opportunity.
We live by continuous improvement, guided not by abstracts, but by shared effort on the factory floor and in the lab. We review failures at weekly meetings: an odd contaminant, an unexpected reaction, a shipment damaged by weather. By turning every oversight into a lesson, the team grows more competent and more vigilant. Procedures don’t sit gathering dust on a shelf; they evolve with every customer need, every advance in analytical science, and every challenge thrown up by this complicated, valuable molecule.
Manufacturing 3-fluoro-5-(trifluoromethyl)benzyl alcohol comes with risk, dedication, and genuine pride in the result. Each order reflects years of refinement in chemistry, logistics, and customer engagement. It’s easy for outsiders to miss the unseen decisions — solvent swaps on a rainy night, extra QC checks before export, process tweaks learned from a single stubborn impurity. To us, this compound is more than a grade or catalogue number; its value grows out of the skill, patience, and perseverance that saturate every stage of production. That’s experience the customer can trust, every time, batch after batch.