|
HS Code |
388739 |
| Chemicalname | 2-(2,2,2-Trifluoroethoxy)phenol |
| Casnumber | 351-82-8 |
| Molecularformula | C8H7F3O2 |
| Molecularweight | 192.13 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boilingpoint | 203-205 °C |
| Density | 1.32 g/cm³ |
| Refractiveindex | 1.461 |
| Purity | Typically ≥98% |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Flashpoint | 95 °C |
| Synonyms | 2-(Trifluoroethoxy)phenol; o-(2,2,2-Trifluoroethoxy)phenol |
| Smiles | C1=CC=C(C(=C1)O)OCC(F)(F)F |
| Inchikey | QMUMCVXEXDLNRO-UHFFFAOYSA-N |
As an accredited 2-(2,2,2-Trifluorethoxy)-Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25-gram amber glass bottle with a secure cap, labeled “2-(2,2,2-Trifluorethoxy)-Phenol,” includes hazard symbols and handling instructions. |
| Shipping | 2-(2,2,2-Trifluoroethoxy)-Phenol is shipped in tightly sealed containers, protected from light, moisture, and incompatible materials. It is typically transported as a liquid under ambient conditions. Appropriate labeling and documentation are provided in compliance with chemical safety regulations to ensure safe handling during transit and delivery to laboratories or industrial facilities. |
| Storage | 2-(2,2,2-Trifluoroethoxy)-Phenol should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight. Keep it in a cool, dry, and well-ventilated area, segregated from incompatible substances such as strong oxidizers and bases. Properly label the container and ensure access is limited to trained personnel, following all relevant safety and regulatory guidelines. |
Competitive 2-(2,2,2-Trifluorethoxy)-Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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From years of producing specialty chemicals for global formulators, our team knows the demand for fluorinated building blocks rises every year. Among these, 2-(2,2,2-Trifluorethoxy)-Phenol stands out with a balance of reactivity and select characteristics that suit the evolving needs of fine chemical production. This compound, carrying the model identifier TFEP-2024, runs as a staple ingredient for professionals aiming to streamline synthesis and improve both stability and selectivity in their processes.
Reliability in a chemistry lab begins at the manufacturing plant. Our approach follows well-established synthesis routes anchored in OECD-compliant batch records, with a focus on minimizing impurities like other trifluorinated ethers or monochlorinated by-products. Over years of scale-up trials from gram to multi-ton, we have refined the process parameters—temperature regulation, pressure control, and solvent recovery—to keep lot-to-lot variance in check. Customers who use TFEP-2024 report minimized chromatography clean-ups and fewer false starts in their downstream reactions. This translates directly into less waste, improved lab safety, and lower raw material costs for users.
In the plant, TFEP-2024 has proven stable in storage at ambient temperatures if kept sealed from atmospheric moisture. Our analytical team runs every lot through NMR and GC-MS, confirming a purity above 99.5% by area normalization. A water content of less than 0.05% and no significant traces of phenolic or ether impurities mark the baseline for any container we release. Production batches demonstrate reproducibility in refractive index and specific gravity, so laboratories incorporating this molecule experience predictable physical parameters. Analytical certificates and stability data remain available for customer review. Our technical managers engage with customers evaluating the product for pharmaceutical, agrochemical, or advanced material synthesis, ensuring that regulatory filings draw on robust primary data.
Chemists in R&D environments often face challenging synthetic transformations. TFEP-2024 owes its popularity to the trifluoroethoxy group, which pushes electron density away from the aromatic ring, creating a moderately activated but less nucleophilic phenol. This feature helps steer reactions away from over-alkylation or undesired polymerization—a key advantage for those developing API intermediates or specialty polymers. Customers working in crop-protectant development lean on TFEP-2024 to fine-tune the bioactivity profile of phenolic derivatives, making lead optimization less risky. In comparison with similar ethers, this material brings better hydrolytic stability and improved performance under basic reaction conditions.
Producers of phenolic intermediates may recall the notorious handling required by conventional phenol or cresol derivatives: frequent discoloration, volatility, and reactivity headaches. The presence of the trifluoroethoxy group on TFEP-2024 curbs these issues by limiting unwanted oxidative decomposition. We’ve received feedback from medicinal chemists who noticed less darkening and fewer extraneous peaks in HPLC chromatograms compared to unsubstituted or monofluoro derivatives. This means the compound presents fewer side reactions and allows for easier downstream processing. Furthermore, TFEP-2024 behaves with more predictability under anhydrous and anoxic conditions, making it a preferred anchor for iterative synthetic stages.
Our teams work directly with bulk users to identify process bottlenecks that might stem from inconsistent starting materials. TFEP-2024 emerged as a sustainable solution, both for single-step transformations and multi-stage syntheses that require phenolic activation with minimal rearrangement. Over multiple campaigns, we observed shorter purification runtimes and a lower incidence of persistent side-products. Our chemists highlight that replacing standard phenolic feedstocks with this fluorinated analog improved overall process throughput and minimized downtime for equipment cleaning.
Working with TFEP-2024 in a kilogram or tonnage scale brings confidence due to its manageable volatility and low risk of uncontrolled hydrolysis. Site audits by process engineers have shown the substance maintains stability throughout extended runs on both glass- and steel-lined reactors. Our real-world experience demonstrates that, whether charged into a Grignard reaction or used as an acylation partner, TFEP-2024 introduces minimal foaming or pressure spikes—critical for safe, automated plant operation. Supply chain professionals find that our packaging, chosen for chemical inertness and clean transfer, reduces fugitive loss and supports just-in-time manufacturing.
Part of our responsibility lies in addressing environmental concerns linked to chemical residues. The synthetic pathway for TFEP-2024 leverages reagent recovery and closed-loop solvent management, keeping emissions well within permitted thresholds. By maintaining a cycle that reclaims over 90% of process solvents, we shrink the total carbon footprint per ton produced. Chemical waste, especially halogenated by-products, remains routed into high-temperature oxidation streams to achieve best-practice mineralization standards. We engage with regional authorities to update our discharge permits and regularly publish third-party-verified sustainability data. Customers told us that shifting to TFEP-2024 reduced their own hazardous waste profile, earning them better marks in internal and external audits.
Years in operation have taught us that true product value hinges on responsive customer engagement. New users onboarding TFEP-2024 in scale-up or pilot plant settings routinely share process data. This feedback loop led to incremental upgrades—better particle sizing, improved shipment tracking, and optimized bulk pack formats. Our internal helpdesk responds within a business day to technical, compliance, or document requests, abating common user frustrations seen with global supply chain interruptions. Regulatory support extends to providing validated analytical methods and impurity profiles, backing customers throughout registration with health or environmental agencies.
Contract manufacturers, pharmaceutical firms, and specialty coatings developers continue to migrate toward TFEP-2024 after pilot-scale assessment. Not long ago, a European pharma group successfully replaced a monochloro-substituted phenol, reporting improved process yields and less hazardous waste per campaign. Input from an East Asian electronic material producer revealed that TFEP-2024 allowed them to bypass an entire re-crystallization step, cutting production times by over 15%. Each year, we review comparative studies that highlight cost savings from less downtime and reduced chemical inventory holding. Our records, reflecting thousands of tons delivered across three continents, reinforce trends that adopters see consistently—improvements in product purity, shelf life of finished goods, and easier regulatory compliance.
Introducing any new raw material brings challenges for both supplier and user. Some early adopters found material carried higher upfront costs compared to base phenol. Drawing on accumulated experience, our purchasing team secured multiyear contracts for critical fluorinating reagents, slashing variable costs and fostering secure stocking buffers even during times of regulatory or shipping headwinds. Another concern involved compatibility with legacy catalyst systems—here, our synthetic chemists partnered with clients, sharing bench data and literature references to support transitionary trials. Over dozens of plant trials, most end users found TFEP-2024 meshed well within existing process parameters, requiring little if any modification of reagent or timing setpoints.
Contact with regulatory environments in different territories deepened our commitment to robust documentation. TFEP-2024 batches come with full traceability—starting from raw materials inward, through finished product checks. Our compliance record with REACH, TSCA, and similar frameworks stands on a portfolio of well-archived analytical data and regular audits by both government and third-party verifiers. Experience has shown that presenting regulators with detailed impurity and stability data defuses questions during product approval or import inspection. Users in regulated markets trust TFEP-2024’s full disclosure on heavy metals, residual solvents, and specification drift across delivery windows.
Last mile delivery can make or break a production campaign. Our logistics coordinators maintain relationships with vetted haulers familiar with fluorinated materials, reinforcing careful transport and on-time delivery. Climate-controlled storage in key hubs avoids hot or cold excursions, lessening risks associated with crystallization or excessive headspace gas evolution. Internal audit teams perform quarterly stress tests on supply pathways, looking for vulnerabilities from regulatory, customs, or market disruptions. End users appreciate advance warning if routes shift or carrier capacity tightens. Our supply reporting tools equip procurement planners with forward visibility, letting them calibrate order volumes relative to planned growth.
Major product shifts require buy-in from technical and operational teams. Our support staff provides on-site demonstrations, SOP documentation, and start-up troubleshooting for companies trialing TFEP-2024 for the first time. Through this hands-on approach, users learn best practice transfer techniques, potential points for contaminant exclusion, and safety monitoring aligned to site protocols. Occupational hygiene teams rely on manufacturer-supplied data for dermal, inhalation, and ingestion hazard classifications, supporting robust workplace risk assessments. We keep training refreshed to address updated regulatory limit values and evolving workplace expectations.
The push for performance-enhanced fluorinated compounds shows no signs of slowing, and real-world inquiries shape our innovation pipeline. By collaborating with research teams at universities, biotech startups, and multinational firms, we continue exploring ways to boost downstream reactivity, lower energy inputs, and capture new value from TFEP-2024’s molecular structure. From high-purity API intermediates to specialty performance coatings, we see requests for even tighter impurity native control and scalable green synthesis options. Pilot campaigns under our roof now explore solvent alternatives, continuous-flow production, and automated batch records—core to cheaper, cleaner, and scalable chemical manufacturing.
Consistent feedback from formulators, process chemists, and QA officers challenged us to make TFEP-2024 not just another item in a catalog, but a tool that brings real operational advantage. This experience translates to improved user confidence and return on investment in their own labs. Instead of battling quality and stability concerns common among generic phenols and ethers, innovators choosing TFEP-2024 focus their energies on true chemistry rather than supply headaches. By sticking to rigorous in-house controls, transparent documentation, and close collaboration up and down the supply chain, we continue to ensure that this advanced phenolic ether fits seamlessly into modern synthetic workflows.
