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Trifluoro-P-Tolunitrile

    • Product Name Trifluoro-P-Tolunitrile
    • Alias 4-(Trifluoromethyl)benzonitrile
    • Einecs 210-836-7
    • 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

    272272

    Productname Trifluoro-P-Tolunitrile
    Casnumber 402-46-0
    Molecularformula C8H4F3N
    Molecularweight 171.12
    Iupacname 4-methyl-2-(trifluoromethyl)benzonitrile
    Appearance White to off-white crystalline powder
    Boilingpoint 193-194 °C
    Meltingpoint 44-47 °C
    Density 1.286 g/cm3
    Solubility Insoluble in water, soluble in organic solvents
    Purity Typically ≥98%
    Synonyms 2-(Trifluoromethyl)-4-methylbenzonitrile
    Smiles CC1=CC=C(C#N)C=C1C(F)(F)F

    As an accredited Trifluoro-P-Tolunitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250g of Trifluoro-P-Tolunitrile is supplied in a sealed amber glass bottle, labeled with hazard warnings and product information.
    Shipping Trifluoro-P-Tolunitrile should be shipped in tightly sealed containers, clearly labeled, and protected from moisture and heat. Transport must comply with relevant chemical regulations, using approved packaging materials. Handle with care, and ensure appropriate documentation accompanies the shipment. Store away from incompatible substances during transit to minimize risks.
    Storage Trifluoro-P-Tolunitrile should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers and acids. Keep the container tightly closed and protected from moisture. Use appropriate chemical-resistant containers and avoid prolonged exposure to light or heat to maintain chemical stability and minimize hazards.
    Application of Trifluoro-P-Tolunitrile

    Applications of Trifluoro-P-Tolunitrile in Industrial Manufacturing

    Trifluoro-P-Tolunitrile serves as a specialty intermediate, supporting advanced synthesis and manufacturing processes across multiple chemical industry segments. Our direct experience supplying leading industrial producers ensures our applications knowledge reflects precise downstream integration, current compliance, and authentic operational parameters.

    1. Pharmaceutical Active Ingredient Synthesis

    Pharmaceutical manufacturers employ Trifluoro-P-Tolunitrile as a key building block in the synthesis of trifluoromethylated aromatic compounds, essential for modern APIs with enhanced metabolic stability. This intermediate is well-established in the preparation of anti-inflammatory agents and oncology molecules, and the selection of this nitrile supports efficient introduction of trifluoromethyl units during stepwise organic synthesis. Process engineers control purity and trace residuals to meet demanding pharmacological requirements, integrating this nitrile into multi-step reactions under cGMP conditions for precise conversion and high yield.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice Guidance for Active Pharmaceutical Ingredients)
    • US Pharmacopeia (USP) monographs for relevant APIs
    • EU GMP directives (EudraLex Vol 4)
    • FDA 21 CFR Parts 210/211 for drug manufacturing controls

    Typical usage ratio

    • Applied at 1.0-1.8 molar equivalents relative to starting aromatic amines; dependent on the desired API yield and reaction step count; adjustments based on specific pathway and final API requirement

    Downstream process integration

    • Introduced during trifluoromethylation phases of multi-step organic synthesis
    • Participates in Grignard reactions for chain extension and functionalization
    • Used in continuous-flow batch reactors with in-line quality monitoring
    • Subject to solvent switching and in-process crystallization before API coupling

    Final product types

    • Trifluoromethylated anti-inflammatory drug intermediates
    • Oncology research compounds
    • Specialty aromatics for cardiovascular drug candidates
    • Patent-protected small molecule pharmaceuticals

    2. Agrochemical Active Intermediate Production

    Major agrochemical manufacturers use Trifluoro-P-Tolunitrile in producing advanced herbicides and fungicides with improved environmental profiles. Its role centers on introducing stability and selective bioactivity in phenyltriazole and pyrazole derivatives. Agrochemical engineers optimize the process to maximize trifluoromethylation efficiency and minimize off-spec byproducts. The material often enters high-pressure reactors configured for continuous throughput, where strict protocol ensures downstream product performance and environmental safety compliance.

    Industry compliance standards

    • FAO/WHO specifications for pesticide technical material
    • ISO 9001:2015 for quality management in agrochemical manufacturing
    • REACH registration and substance evaluation for EU market entry
    • China Pesticide Registration (ICAMA) for domestic supply

    Typical usage ratio

    • Ranges from 2 to 5 wt% relative to total reaction mass; modified based on the reactivity of core aromatic feedstocks and specific herbicide class requirements

    Downstream process integration

    • Dosed during the nucleophilic substitution stage of pesticide intermediate synthesis
    • Uses jacketed stainless-steel reactors for temperature-sensitive transformations
    • Follows in-line phase separation and solvent removal before next step
    • Feeds into microfiltration or distillation prior to formulation blending

    Final product types

    • Triazole-based herbicides (e.g., foliar and pre-emergence products)
    • Fungicidal actives for grain and horticultural use
    • Pesticide intermediates with extended field persistence
    • Synthetic building blocks for new crop protection formulations

    3. Electronic Chemical Fine Synthesis

    Producers in the electronics materials sector utilize Trifluoro-P-Tolunitrile for synthesizing highly pure trifluoromethyl aromatic monomers used in advanced photoresists and high-performance liquid crystal display materials. Chemical engineers rely on its consistent reactivity profile to maintain purity, which directly influences pattern fidelity and device reliability. All operations are conducted under strict contamination controls, with inline analytical methods ensuring each lot meets electronic-grade specifications for downstream blending or polymerization.

    Industry compliance standards

    • SEMI C3 standards for special process chemicals in semiconductor manufacturing
    • ISO 14001 environmental management for chemical manufacturing plants
    • RoHS Directive for hazardous substance limits in electronic materials
    • JEDEC quality specifications for constituent chemicals in display production

    Typical usage ratio

    • Added at 0.5–1.2 wt% relative to total batch size in monomer synthesis; adjustment based on the delivery of target substitution level on the aromatic ring

    Downstream process integration

    • Processed under inert atmosphere within closed-loop reactors
    • Enters the aromatic trifluoromethylation step prior to subsequent polymerization
    • In-line purification to electronic grade standards before monomer isolation
    • Bulk transfer to photoresist or LCD substrate assembly operations

    Final product types

    • Microelectronic-grade photoresists
    • Organic semiconductors for display panels
    • Functionalized monomers for specialty polymer electronics
    • LCD masking and pattern transfer chemicals

    4. Performance Polymer Additive Synthesis

    Specialty polymer manufacturers turn to Trifluoro-P-Tolunitrile as a precursor for introducing trifluoromethyl groups into high-durability polymers. Its use in modifying aromatic polyamides, polyimides, and specialty thermoplastics drives enhancements in chemical resistance, thermal stability, and dielectric properties. Process controllers measure and dose the compound during controlled addition steps, monitoring for complete conversion and minimization of residuals to support demanding downstream mechanical and electrical specification targets.

    Industry compliance standards

    • ISO 9001:2015 quality management for polymer production
    • ASTM D3418 for polymer transition temperature measurement
    • UL 94 flammability standard for thermoplastics
    • REACH SVHCs exclusion for European market sales

    Typical usage ratio

    • Used at 0.8–2.5 wt% of total monomer blend in functional polymer synthesis; increased ratios deployed for target-specific properties upon customer request

    Downstream process integration

    • Charged during high-temperature condensation reactions for polyimide chain extension
    • Blended into pre-polymer solutions in agitated glass-lined vessels
    • Feeds directly into extrusion or casting processes for molded parts
    • Pre-polymer stage monitoring for molecular weight and end-group fidelity

    Final product types

    • Fluorinated polyimide films for electronics and aerospace
    • High-temperature-resistant engineering thermoplastics
    • Modified polyamides for automotive parts
    • Specialty insulation and sealing components for electrical assemblies

    5. Dye and Pigment Intermediate Manufacturing

    Advanced dye and pigment producers employ Trifluoro-P-Tolunitrile while synthesizing high-performance azo and anthraquinone colorants that demand exceptional solvent resistance and fastness properties. The material reacts in controlled aromatic substitution processes that define the final pigment’s tint and dispersion profile. Technical staff closely monitor intermediate formation and subsequent coupling reactions to guarantee both spectral accuracy and batch homogeneity in coloring applications for plastics, inks, and synthetic fibers.

    Industry compliance standards

    • ISO 18314 for analytical colorimetry in pigment evaluation
    • Oeko-Tex Standard 100 for textiles and dye safety
    • EN 71-3 for migration of certain elements in toy dyes
    • ASTM D3134 for pigment dispersion stability in polymer matrices

    Typical usage ratio

    • Ranges from 1.2–3.5 wt% in aromatic substitution step; exact ratio determined by the chromophore structure and pigment class

    Downstream process integration

    • Dosed during the key aromatic nitrilation or coupling phase
    • Feeds into heated synthesis reactors with in-line pH and conversion monitoring
    • Subsequent processing steps include filtration, drying, and blending for end-use compatibility
    • Quality checks for shade strength and dispersion before bulk packaging

    Final product types

    • High-fastness azo dyes
    • Fluorinated pigments for industrial paints and plastics
    • Specialty dye intermediates for printing inks
    • Synthetic fiber colorants with enhanced wash and light stability
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    Competitive Trifluoro-P-Tolunitrile prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Introducing Trifluoro-P-Tolunitrile: Field Experience and Application Insights

    Our Hands-On Approach in Manufacturing Trifluoro-P-Tolunitrile

    Trifluoro-P-Tolunitrile, carrying the molecular formula C8H4F3N, sits among the core aromatic fluorinated intermediates produced at our facility. Since the demand for high-purity intermediates drives many organic synthesis processes, our team treats each production batch as a distinct project. In the years we have spent scaling synthesis of this compound, we have seen demand shape up from different corners of the industry, most notably pharmaceuticals and agrochemical research. This compound offers a unique trifluoromethyl group at the para position, giving it physical and chemical properties not easily found in typical aromatic nitriles.

    Our production runs have continuously refined Trifluoro-P-Tolunitrile’s purity profile. We target material free of residual solvents, off-spec byproducts, and excessive moisture. Our colleagues in synthesis spend time with analytical teams running advanced chromatography and NMR, confirming that what leaves the reactor fits the standards required by formulators and downstream integrators. Efficient separation and purification have allowed us to consistently deliver product within defined purity brackets, with single-digit ppm impurity benchmarks achievable through controlled processing. Handling sensitive fluorinated intermediates in bulk, we have gained a strong appreciation for the impact minor process shifts can have on both stability and downstream reactivity.

    The Edge of Para-Substitution and Trifluoromethyl Chemistry

    Our main differentiator in Trifluoro-P-Tolunitrile lies in the para-positioned trifluoromethyl group on the aromatic ring. This feature lends stability under a variety of harsh synthetic conditions, owing to the electron-withdrawing effect that the trifluoromethyl group provides. Colleagues developing next-generation drug scaffolds regularly note that such electronic effects can modulate reactivity in coupling, cyclization, and further substitution steps. Over repeated manufacturing cycles, we have witnessed how this structure gives our clients versatility—providing platforms for researchers formulating antitumor agents, CNS candidate molecules, and several classes of proprietary agrochemicals.

    Researchers favor Trifluoro-P-Tolunitrile when seeking nitrile building blocks with enhanced metabolic stability. Meta and ortho substituted analogues often display less predictable behavior during scale-up. By sticking with the para isomer accompanied by a trifluoromethyl substituent, we have seen customers report lower toxicity profiles and improved environmental persistence, essential metrics both in pharmaceuticals and in crop protection. This insight, based on conversations with formulators and years of batch history review, pushes us to maintain high consistency in our own synthesis.

    Direct Experiences in the Plant: Quality, Reliability, and Safety

    From a plant operator’s perspective, working with Trifluoro-P-Tolunitrile comes with considerations that separate it from other aromatic nitriles—especially in terms of both handling and containment. The volatility profile is distinct. Our staff monitor process temperatures closely; the trifluoromethyl group not only affects boiling points but also how the compound behaves under reduced pressure distillation. We have invested in closed-loop vapour recovery and control systems, after early scale-up batches revealed trace emissions risks. The operational changes we adopted help minimize loss and support compliance with increasingly stringent environmental standards.

    On a typical production day, our maintenance crew inspects gaskets and valve seats exposed to Trifluoro-P-Tolunitrile, since fluorinated organics can interact with elastomer components differently than the simpler benzonitrile or toluonitrile products. Material compatibility remains a daily topic, and our experienced mechanics suggest periodic upgrades after noting swelling on certain seal materials not up to the rigors expected in long operations.

    Applications Grown from Real Manufacturing Output

    Clients from medicinal chemistry programs have provided valuable feedback on Trifluoro-P-Tolunitrile’s consistent performance in palladium-catalyzed reactions and Grignard transformations. At our plant, we receive requests for batches tailored for these specific end-use conditions. Our process engineers meet regularly with R&D partners to align quality to actual laboratory feedback. This dialogue led us to optimize dryness levels and particle sizing for easier handling in gloveboxes and automated reagent dispensers.

    On the agrochemicals side, researchers leverage our reliability in batch-to-batch delivery for pilot studies on new herbicides and insecticides. Several collaborators employ our Trifluoro-P-Tolunitrile as a key intermediate in multi-step synthetic routes. Feedback from pilot plants downstream prompted us to implement customized filling stations, minimizing clumping and improving dispersion into blending hoppers.

    Clear Differences from Other Aromatic Nitriles

    Our production facility makes a full suite of aromatic nitriles, so we see firsthand how Trifluoro-P-Tolunitrile stacks up against related compounds like benzonitrile and p-tolunitrile. The major difference comes from the triple-fluorine substitution—offering higher resistance to oxidative conditions and a lower rate of hydrolysis compared with its non-fluorinated neighbors. During field deployment, chemists noted higher yields in cross-coupling reactions, which they credibly linked to the electron-poor character of the trifluoromethyl-substituted ring.

    Physical handling characteristics stand out as well. Trifluoro-P-Tolunitrile presents as a more crystalline solid at standard storage conditions compared to the waxier appearance of p-tolunitrile. Warehouse staff rotate drum stocks with confidence, since our product resists caking better during months of ambient storage, a valuable trait in large volume operations. Reaction isolation becomes easier with a sharper melting transition, and this has led several large buyers to switch to our product in their kilo lab scale-ups.

    End-User Voices: Feedback Driving Continuous Improvement

    We always learn from our customers’ real-world experiences, especially from those in multi-tonne production scenarios. Several projects pursuing more sustainable and less toxic herbicidal actives have switched from less stable fluorinated nitriles. Agronomists and formulation chemists wrote to us describing fewer process interruptions and reduced need for batch rework since moving to our Trifluoro-P-Tolunitrile. One key reason: the purity and reproducibility we achieve with each batch, thanks to investments in process analytics and inline monitoring.

    Pharmaceutical API developers gave us case studies showing that late-stage derivatization routes improved in selectivity compared to alternative starting nitriles. We learned after reviewing failed pilot campaigns how small changes in impurity profiles scaled up into significant costs and delays. Our tight control of residual solvents—key for meeting high-performance reaction requirements—has minimized these failures since we adopted more robust fractionation practices.

    Supporting Modern Chemical Research and Development

    As industrial chemists ourselves, we understand how minor differences in intermediate quality translate into major impacts in research efficiency and commercial viability. We have spent years fine-tuning every aspect of our Trifluoro-P-Tolunitrile output, from the quality of precursors sourced to the dwell times in our purification columns. Many customers value a direct line for technical consultation, and our process engineering teams field questions ranging from optimal storage conditions to precise reactivity patterns in emerging cross-coupling protocols.

    Working with regulatory agencies, we track and adapt to requirements for traceability, environmental stewardship, and worker protection. Our manufacturing history and process logs stand open to audits from partners, with batch-wise certificate and trace history provided in support of GxP and ISO-driven environments. This traceability dovetails with requests from drug development groups for documentation supporting regulatory filings, and we have adapted our lot handling to minimize compliance friction for these teams.

    Sustainability, Waste Reduction, and Future Focused Operations

    Fluorinated intermediates raise constant questions about sustainability. We manage our operations with both product demand and stewardship in mind, continuously investing to curb fugitive releases and recycle process solvents. Our recent upgrades include solvent recovery units positioned directly downstream of high-risk valves and transfer lines. Early adoption of low-impact waste treatment modules in our plant, driven by internal goals and external audits, led us to lower hazardous waste output per unit of Trifluoro-P-Tolunitrile produced.

    Many of our equipment changes were initiated after long-term operators suggested more durable surface coatings to minimize cleaning frequency. These employee-led process changes have improved both uptime and operator safety, and data from recent quarters confirm that maintenance intervals have lengthened. This hands-on experience allows us to design future production suites with practical workflow and safety in mind.

    Meeting Customer Needs Through Collaboration

    Real partnerships in modern chemical manufacturing depend on clear data exchange and transparent feedback channels. We host site visits for new customers interested in confirming our facility’s capabilities. These face-to-face meetings with procurement leads and synthetic chemists surface unexpected process optimization insights. Feedback from a pharmaceutical development group led us to modify our particle filtration step, allowing for easier integration into their automated synthesis platform.

    When end-users pursue new regulatory approvals or eco-tox studies, we provide both existing technical documentation and, when needed, custom analytical reporting developed by our in-house chemists. Close involvement in these projects helped us build skills in tailoring quality metrics to fit different market entries, cutting delays for our customers and opening new application fields for Trifluoro-P-Tolunitrile.

    Forward-Looking: Scaling, Innovation, and Adaptability

    Looking back at our journey in producing Trifluoro-P-Tolunitrile, every milestone has been reached through listening to customers and internal teams. Scale-up efforts included full pilot trials and risk assessments to minimize downtime and maximize recovery yields. Through experience, we found direct linkage between crystallization controls and reduction of unwanted isomer formation. By addressing these inconsistencies proactively, we have prevented product downgrades and maintained our standard of reliability.

    Our R&D team supports ongoing innovation, constantly monitoring literature and patent filings for new application opportunities. Sometimes these efforts lead to joint projects exploring modifications of Trifluoro-P-Tolunitrile, offering new value in next-generation pharmaceuticals or cutting-edge materials science. We invest in pilot-scale campaigns to validate new routes, always using feedback from both internal analysis and customer trials to set priorities.

    Conclusion: The Everyday Value of Experience-Driven Chemical Manufacturing

    Every kilogram of Trifluoro-P-Tolunitrile we produce is the result of lessons accumulated across years of plant operation, customer dialogue, and process evolution. Unlike trading houses or resellers, we shape the actual synthetic pathway and witness the behavior of this material every day. Our discussions with engineers, laboratory technicians, warehouse staff, and customers sharpened our perspective on what it means to deliver quality, reliability, and safety. This hands-on, deeply practical knowledge is the foundation that lets our Trifluoro-P-Tolunitrile support both leading-edge research and industrial production with confidence and consistency.

    As new chemistries emerge and global needs shift, our team stands committed to evolving our practices, capturing deeper insights, and expanding our support for the scientific community. The unique properties of Trifluoro-P-Tolunitrile will continue to find new value, not only through technical performance but through the depth of direct manufacturing experience backing every shipment.