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3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile

    • Product Name 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile
    • Alias TFMBS-ACN
    • Einecs 697-720-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    478136

    Productname 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile
    Casnumber 1261624-45-8
    Molecularformula C10H8F3NO2S
    Molecularweight 263.24
    Appearance White to off-white solid
    Purity Typically ≥98%
    Solubility Soluble in DMSO, methanol, and ethanol
    Storagetemperature 2-8°C (refrigerated)
    Smiles C1=CC(=CC(=C1)C(F)(F)F)CS(=O)2CC2C#N
    Inchikey JPZJOIORHZWVOT-UHFFFAOYSA-N

    As an accredited 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle containing 25 grams of 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile, sealed with a screw cap and labeled for laboratory use.
    Shipping 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile is shipped in tightly sealed containers under dry, cool conditions to prevent moisture absorption and degradation. Standard shipping uses compatible, inert packaging materials, with clear labeling for chemical and hazard identification. Handle according to all relevant regulations; expedited or temperature-controlled shipping is optional if required for stability.
    Storage Store **3-(Trifluoromethyl)benzylsulfonyl acetonitrile** in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizing agents. Avoid exposure to moisture. Clearly label the container, and use proper personal protective equipment when handling. Recommended storage temperature: 2–8°C (refrigerated) unless otherwise specified by the manufacturer.
    Application of 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile

    Applications of 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile in Industrial Manufacturing

    As the direct manufacturer of 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile, we supply to a targeted range of global industries where this specialty intermediate supports precise synthesis with predictable reactivity. The following sections detail distinct downstream applications, practical formulation methods, processing steps, and end-use profiles based on current industrial demand.

    1. Active Pharmaceutical Ingredient (API) Synthesis: Trifluoromethylated Heterocyclic Drugs

    Pharmaceutical producers use this nitrile-sulfonyl building block to construct advanced trifluoromethylated heterocyclic cores for next-generation small molecule therapeutics. The compound enables site-specific introduction of the trifluoromethyl group, impacting bioactivity and metabolic stability. During the multi-step API synthesis, this intermediate enters as a key precursor through nucleophilic addition or condensation reactions, usually under basic or polar aprotic solvent conditions. Its application depends on the molecular design strategy and regulatory pathway of the target drug.

    Industry compliance standards

    • ICH Q7 and ICH Q11 for API manufacturing
    • Good Manufacturing Practice (EU GMP, US cGMP 21 CFR Parts 210/211)
    • Relevant monographs in USP, Ph. Eur, JP, ChP for intermediates (as required)
    • REACH Registration for European market access

    Typical usage ratio

    • Ranges from 0.1 to 0.7 molar equivalents per target API batch, based on stoichiometry and molecular scaffold requirements
    • Adjustment depends on step yield, coupling efficiency, and specific process residues set by pharmaceutical quality teams

    Downstream process integration

    • Charged in the intermediate or penultimate step during convergent or linear API assembly
    • Participates in tandem reactions such as Michael addition or nucleophilic aromatic substitution, followed by isolation using preparative crystallization or column chromatography

    Final product types

    • Trifluoromethylated pyridone APIs for anti-inflammatory agents
    • Heterocyclic kinase inhibitor actives
    • Pharmaceutical reference standards for regulatory filings and clinical studies

    2. Agrochemical Intermediate: Synthesis of Fluorinated Herbicides

    Major agrochemical manufacturers incorporate this intermediate as a strategic block in the multi-step synthesis of next-generation fluorinated herbicides. Its strongly electron-withdrawing trifluoromethyl group enhances target compound selectivity and persistence in crop protection agents. The material is introduced via acetonitrile functionalization or sulfonylation reactions, typically in anhydrous, inert atmosphere processes to control moisture-sensitive coupling stages.

    Industry compliance standards

    • ISO 9001 for quality management in agrochemical synthesis
    • FAO/WHO specifications on technical-grade pesticide intermediates
    • European Union Regulation (EC) No 1107/2009 on plant protection product approval
    • Chinese National Standards (GB 3796, GB 4839) for agrochemical raw materials

    Typical usage ratio

    • Added at 5–15% weight-to-weight of the target technical grade product, depending on the complexity and molecular structure of the final herbicide
    • Exact input guided by product-specific process development data and residue tolerance analysis

    Downstream process integration

    • Blended during the core skeleton assembly phase before oxidative or reductive modification
    • May be followed by hydrogenation or halogen-exchange under controlled temperature and inert gas blanket to prevent decomposition

    Final product types

    • Selective trifluoromethylated sulfonylurea herbicides
    • Novel aryl-based pre-emergent weed control actives
    • Intermediates for safener and synergist molecules

    3. Advanced Materials: Monomer for Fluorinated Polymers

    Producers of specialty polymers utilize this intermediate as a functional monomer or chain-end modifier for high-performance fluoropolymers used in membranes and electronic films. Its sulfonyl group supports ionic conductivity while the trifluoromethyl substituent boosts thermal stability and chemical resistance, enabling engineered polymers intended for harsh industrial and electronic environments.

    Industry compliance standards

    • ISO 9001 and ISO 14001 for polymer synthesis and environmental management
    • RoHS Directive (EU) 2011/65/EU for restricted substances in electronics
    • ASTM D3835, D4565 for polymer physical performance and quality
    • REACH compliance for EU supply

    Typical usage ratio

    • From 0.5% up to 7% by weight in copolymerization feeds, according to target polymer backbone and copolymer performance
    • Markup varies from minor chain-functionalization to primary monomer input in custom formulations

    Downstream process integration

    • Introduced during melt-state or solution polymerization as a co-monomer, often alongside comonomers like vinylidene fluoride or tetrafluoroethylene
    • May be grafted post-polymerization via reactive extrusion or post-polymer functionalization

    Final product types

    • Fluorinated ion-exchange membranes for fuel cells
    • High-durability protective films for electronic substrates
    • Specialty coatings for corrosion resistance in industrial fluid systems

    4. Organic Electronics: Synthesis of Electron-Deficient Building Blocks

    Manufacturers of organic semiconductors and functional dyes employ this sulfonyl acetonitrile derivative as a tailored precursor in the creation of electron-deficient molecular frameworks, crucial for charge-transport and band-gap engineering. Its integration allows fine-tuning of optoelectronic properties, supporting the production of functional molecules for next-generation OLED, OPV, and sensing devices.

    Industry compliance standards

    • IEC 62899-201 for printed electronics process materials
    • RoHS compliance for device and material supply
    • International Union of Pure and Applied Chemistry (IUPAC) recommendations for organic electronic materials
    • Internal company specifications for electronic-grade purity (e.g., <100 ppm metals, solvent residue limits)

    Typical usage ratio

    • Normally 1–5 mol% of total reactant feed in molecular assembly steps for electron-acceptor design
    • Specific dosage adapted for required band-gap lowering and morphological compatibility with device stacks

    Downstream process integration

    • Introduced at the condensation or coupling stage during small-molecule or macromolecule synthesis
    • Derivatization typically followed by purification via preparative HPLC or vacuum distillation to achieve device-grade purity

    Final product types

    • Electron-transporting layers for OLED displays
    • Acceptors in organic photovoltaic (solar cell) active layers
    • Fluorinated organic dyes for sensors and thin-film transistors
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    Certification & Compliance
    More Introduction

    Introducing 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile: a Reliable Choice for Precision Synthesis

    Our Approach to Specialty Chemical Production

    In the ever-shifting world of fine chemicals, consistency and credibility don’t materialize from promises. They take shape in the real work of manufacturing, batch after batch, rooting out impurities, checking product performance, and learning from feedback. We manufacture 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile from scratch, not just as a commodity but as a response to the exacting demands of advanced laboratories, custom synthesis groups, and forward-looking industrial R&D.

    Experience shapes every step of our process. We start with carefully selected raw materials, backed by robust supplier relationships and QC records spanning years. Reliability becomes more than a number on a datasheet; it means our chemists know each intermediate and understand precisely where things can go wrong or right. This is how we maintain tightly controlled specifications batch after batch.

    Commitment to Consistent Performance

    Consistency doesn’t happen by aiming for the lowest standard. Our facility features closed systems that shelter this compound from moisture and oxidative air. Staff in our labs don’t just follow checklists; they track subtle parameters—color before crystallization, exotherm timing, odor shifts, filter tests—because we’ve found those cues matter just as much as instrument readings. Our batches typically run with high assay, low moisture, and clean NMR profiles.

    Every time we produce it, our QC team tests for key identifiers: proton NMR, fluorine NMR, purity by HPLC and GC, and trace elemental impurities. We recognize that sharp, single-spot TLC and robust solubility profiles not only keep downstream chemists on track but can actually prevent days of rework or failed reactions.

    Specifications and Analytical Approach

    From a manufacturing perspective, the quality of 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile shouldn’t be something you discover only after arrival in your fume hood. Our specifications are defined by practical experience with demanding applications. Assay, melting point, water content, and chromatographic purity are never theoretical standards. We’ve fine-tuned our synthetic pathway over repeated campaigns, not just by chasing numbers but by chasing real-world yields in actual customer labs.

    For instance, our material typically tests above 98% purity by HPLC, with most lots displaying single-peak GC analysis. Melting point and spectral data are published as part of our batch release protocols. The process doesn't stop at one method; we rely on cross-verification using NMR, FTIR, and MS as internal cross-checks. This approach prevents surprises during large-scale runs or process validation work on our customers’ end.

    Applications Shaped by Innovation

    Real chemistry doesn’t wait for textbook examples. Our 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile acts as an indispensable building block for medicinal chemistry, agrochemical research, and specialty polymer design. Medicinal chemists look to this scaffold for introducing trifluoromethyl groups and sulfonyl moieties into candidate molecules, greatly influencing potency, metabolic stability, and molecular recognition. Researchers focused on crop protection leverage the unique electronics and sterics, using this intermediate to deliver tools that resist degradation in harsh field environments.

    Material scientists and polymer engineers have also highlighted the value of this compound when evaluating high-performance polymer backbones. We’ve seen researchers create copolymers with tailored properties, all tracing back to the reliable sulfonyl and CF3 motifs we introduce. Our product’s consistent purity and traceability reduce ambiguity in these explorations, making scale-up calculations and property predictions far more reliable than off-brand or re-bottled alternatives.

    What Sets Our Material Apart?

    We don’t want to rely on catchphrases like “high quality” without substance. The differences between genuine manufacturer-grade 3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile and reprocessed or trader-sourced alternatives stem from real history and discipline. Our product is manufactured by direct synthesis, always from precursor verification through final packaging under inert gas.

    We never blend or relabel to extend shelf life or “improve” perceptions. Every lot can be traced to a known production date, complete with full analytical documentation. Our team knows where pitfalls lie in purification—solvent carryover, incomplete sulfonylation, side-product removal—because we invest not just in equipment, but in operators who truly understand each function of the process.

    Those who only resell or redistribute usually fall short on technical feedback. Over the years, we’ve helped resolve stuck reactions, optimized solubility for formulation, and replaced failed lots from importers that introduced poorly characterized byproducts. When an end user struggles with odd off-gas, haze formation, or color drift in subsequent coupling reactions, they contact us directly. We listen, investigate, and adjust production or handling protocols if required—something distant traders seldom do.

    Supporting Downstream Productivity

    End-use performance matters. One example from our customer partners demonstrates the real-world consequences of material differences. A mid-scale pharma program ran into persistent decomposition issues while scaling a key synthetic step. After analysis, we traced the root cause not to their conditions, but to microimpurities in their third-party acetonitrile derivative. Our material replaced it on the next batch, and reaction yield climbed from 48% to consistent numbers in the low 70s, saving them weeks of troubleshooting.

    We’ve supported university spinouts working on bench-top route development. By providing thorough CoA documentation, and details about spectral signatures or peculiarities encountered at scale, these groups can anticipate checkpoint decisions before pilot-scale expense becomes a concern. This transparent exchange avoids hold-ups that often occur with resellers, who lack both insight and access to production records.

    Safe Handling and Real-World Storage Advice

    Years of hands-on handling have shown us where literature stops and practical experience takes over. We always recommend indoor, cool, and dry storage, but we also recognize the need for safe packaging. We supply in glass or approved fluoropolymer containers sealed under inert conditions. There’s no mystery about shelf-life because we have tracked stockroom stability, complete with interim testing and aging data.

    Some competitors offer this product in repurposed or non-inert containers. Our experience shows increased formation of discolored solids, acidic hydrolysis products, or odor changes in these situations. Our internal aging results point to stable, fully acceptable product profiles over more than 18 months, provided they stay sealed—giving our clients confidence their material will not unexpectedly compromise a run months after purchase.

    Practical Solutions to Real Challenges

    Manufacturing this compound at scale isn’t about hitting yield numbers in a textbook. The commercial push for greener processes, regulatory scrutiny concerning residual solvents, and customer pressures for faster turnaround challenge even well-run operations. We’ve addressed these by investing in in-process monitoring, improving solvent recovery, and maintaining detailed impurity profiles for every lot. This detail has allowed our customers in regulated industries to satisfy audits and respond to increasingly strict documentation demands.

    Recently, a customer expressed concern over batch-to-batch API precursor variability stemming from unknown process residues. By opening our books—sharing all possible trace contaminants and details detected at the single-ppm level—we earned their trust and saved them regulatory headaches. Other suppliers with limited traceability simply could not respond on this level, often falling short at the crucial moment.

    Facing Regulatory Scrutiny Head-On

    Real compliance comes from preparation. As regulatory bodies keep raising the bar on traceability and supply chain transparency, documentation matters as much as the chemistry itself. We maintain full electronic batch records, readily available impurity libraries, and GHS/REACH-compliant SDS for each release. Our clients in both pharma and agrochemical sectors routinely require not just the minimum specification, but also full impurity breakdowns. By building this preparation into our manufacturing DNA, we can avoid scrambling to respond to audits, field complaints, or inspection requests.

    We invest both in documentation and in training our staff. Factory tours often reveal the difference between operations that treat compliance as a checkbox and those where operators understand why each parameter needs close control. This depth of understanding travels with every shipment right to the point of use. Our packaging, labels, and batch traceability don’t just keep audits happy; they ensure confidence during each critical process step.

    Direct Dialogue with End-Users: True Technical Support

    Our connection with customers isn’t managed through call centers or form replies. Whether you’re dealing with a scale-up or simply spotting oddities during analysis, our technical staff responds directly—often the same chemists who developed the production method in the first place. Practical field support means more than sharing a spec sheet. We walk through potential troubleshooting fixes, interpret spectral noise, or guide solvent swaps in language that makes sense to practicing chemists.

    As new research topics arise—enabling chemistries using strong electron-withdrawing groups, finding low-toxicity intermediates, or tailoring ligand architectures for catalysis—true partners value a manufacturer who listens and evolves. Feedback from your bench shapes our continuous improvement projects. We adjust purification, run controlled salt-screening tests, or optimize particle size based on client experience, not just by committee or distant sales team surveys.

    Environmental Responsibility in Manufacturing

    Our approach goes beyond the narrowest legal interpretations. We recover and recycle solvents where safe and feasible, and track environmental emissions for each campaign, reporting these internally to ensure ongoing improvement. Our solvent use and waste minimization procedures don’t just protect the local environment; they also lead to less potential cross-contamination. You get a cleaner product, and communities near our production sites benefit from cleaner operations.

    Partners in Europe, North America, and Asia have increasingly required detailed Environmental, Health, and Safety documentation as part of their procurement diligence. Because our chemical synthesis and effluent treatment are run with clear procedural discipline and full record-keeping, third-party auditors recognize the difference between a true chemical manufacturer and someone who’s just pushing molecules through a warehouse.

    A Manufacturer’s Perspective on Product Improvement

    Continuous improvement gets thrown around in our industry, but actual changes take real commitment. Through close work with leading academic and industrial R&D groups, we have been able to tune both process scale and purity. For example, our shift to greener sulfones and use of non-chlorinated solvents didn’t just happen because of outside regulation, but because we heard from end users that cleaner product provided sharper reactivity and less odor during application.

    In a landmark development, we invested in dedicated crystallization and filtration equipment, eliminating a recurring organosulfur side impurity. This step reduced downstream odor during scale-ups and substantially improved customer satisfaction scores. Another improvement followed client concerns about particulate contamination; in response, we transitioned to finer microfiltration and improved container design, leading to cleaner NMR baselines reported across dozens of R&D groups.

    Bridging Research and Industry: The Real-World Impact

    Our history with innovation doesn’t just stem from production lines. Collaboration with university groups pushed us to adjust our analytical suite, adding advanced LC-MS methods to detect microunknowns long before scale-up. By working with spinouts and high-throughput screening groups, we’ve gained insight into bottlenecks that never surface in routine catalog purchase. These partnerships keep us grounded in reality and always adapting to both new research needs and global market shifts.

    End users comment on the improved batch repeatability after switching from generic sources to our directly produced material. Whether this enables more reliable structure-activity relationship studies or prevents unwanted byproducts in scale-up, the results speak for themselves. Bridging gaps between bench-top chemistry and pilot-scale manufacturing has driven our improvement culture and positioned us as a technical partner rather than just a vendor.

    The Value of Manufacturer-Direct Supply

    Unlike intermediaries who often cannot answer basic technical questions, direct manufacturer relationships enable rapid feedback, tailored advice, and the ongoing trust of researchers and production specialists. Our end users recognize this value, often referencing rapid solution speeds to problems, and commenting on the confidence that comes with full traceability and production history. This transparency means if a lot turns out suboptimal—which happens even with the best practice—we resolve it with material from the next campaign or offer root-cause analysis, not excuses.

    Conclusion: A Product Built on Dedication, Not Just Chemistry

    3-(Trifluoromethyl)Benzylsulfonyl Acetonitrile stands as more than an entry on a catalog page. Its impact derives from the expertise, rigor, and direct involvement of dedicated manufacturing teams who solve problems, anticipate new needs, and never stop improving. For researchers, synthesis engineers, and process development groups working in high-pressure, innovation-driven environments, these differences matter.

    The challenges of advanced research and synthesis don’t break for comfort or convenience, and neither does our commitment to real partnership. Working directly with a manufacturer brings access to deeper knowledge, swifter response, and evolving technical solutions—all supporting both your success and the responsible use of the world’s chemical resources. We invite those who value reliability, transparency, and hands-on support to experience the advantage that only a dedicated manufacturing partner brings.