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4-Nitrophenyl Phenyl Ether

    • Product Name 4-Nitrophenyl Phenyl Ether
    • Alias 4-Phenoxynitrobenzene
    • Einecs 221-838-5
    • 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
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    Specifications

    HS Code

    566007

    Chemical Name 4-Nitrophenyl Phenyl Ether
    Cas Number 101-46-2
    Molecular Formula C12H9NO3
    Molecular Weight 215.21
    Appearance Pale yellow solid
    Melting Point 70-73°C
    Boiling Point 352°C
    Density 1.28 g/cm3
    Solubility In Water Insoluble
    Flash Point 196°C

    As an accredited 4-Nitrophenyl Phenyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 25g bottle of 4-Nitrophenyl Phenyl Ether is packaged in an amber glass container with a secure screw cap and warning label.
    Shipping 4-Nitrophenyl Phenyl Ether should be shipped in tightly sealed containers, protected from light and moisture. It must be labeled as a hazardous chemical and packaged according to applicable regulations for toxic organics. Ensure secondary containment to prevent leaks and adhere to local, national, and international transportation guidelines for hazardous materials.
    Storage 4-Nitrophenyl Phenyl Ether should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers and acids. Ensure the storage environment is free from sources of ignition, and label the container clearly. Handle with appropriate personal protective equipment to avoid inhalation, ingestion, or skin contact.
    Application of 4-Nitrophenyl Phenyl Ether

    Applications of 4-Nitrophenyl Phenyl Ether in Industrial Manufacturing

    4-Nitrophenyl Phenyl Ether serves as a specialized intermediate and process additive across several distinct industrial manufacturing sectors. Our company supplies this material in consistently high purity, supporting application requirements ranging from advanced polymer synthesis to fine chemical workflows. Below, we outline major downstream uses with implementation guidelines, regulatory benchmarks, integration points, and typical finished product types to assist technical and procurement teams in evaluating its role in their manufacturing lines.

    1. Monomer Intermediate for High-Performance Polyaryletherketones (PAEKs)

    Leading manufacturers use this compound as an electrophilic building block during polycondensation to produce polyaryletherketones such as PEEK, PEK, and PEKK. Its nitrophenyl structure enables precise aromatic substitution, influencing polymer chain rigidity and heat resistance. During production, feed ratios and reaction conditions require tuning to achieve polymer specifications, especially for aerospace, electronics, and high-temperature mechanical components.

    Industry compliance standards

    • ASTM D6262 and D7026 (PEEK grade resin requirements)
    • EN 2286 (aerospace polymer performance); ISO 9001:2015 (polymer QC management); RoHS/REACH (heavy metal and SVHC limits)

    Typical usage ratio

    • 10–30% molar proportion of total di-aryl ether feed; adjusted based on desired copolymer characteristics.

    Downstream process integration

    • Charged as a key monomer during melt or solution polycondensation—introduced post drying and prior to nucleophilic aromatic substitution step with bisphenols.

    Final product types

    • PEEK engineering pellets, glass-filled PAEKs, thermoplastic composite tapes, injection-molded aerospace parts.

    2. Advanced Liquid Crystal Polymer (LCP) Synthesis

    Producers of high stiffness liquid crystal polymers utilize this raw material as a matrix precursor to introduce both flexibility and controlled nitro functionality into backbone architectures. Its reactivity profile assists in tuning melting behavior, mechanical strength, and chemical resistance, factors critical for high-frequency electronic connectors and miniaturized device housings.

    Industry compliance standards

    • UL 94 V-0 (flammability); IEC 61249-2-21 (halogen-free LCP types for electronics); ISO 14001 (environmental performance in electronic material manufacturing)

    Typical usage ratio

    • 5–18% mass fraction in di-aryl ether monomer input; further tailored according to melt flow and thermal distortion targets.

    Downstream process integration

    • Added following solvent charging and basification in aromatic nucleophilic substitution reactors, before polycondensation proceeds under inert conditions.

    Final product types

    • High-speed connector insulators, LCP-based film substrates, microelectronics encapsulation components.

    3. Crosslinking Agent in Specialty Epoxy Resins

    Epoxy resin manufacturers leverage the dual aromatic and nitro groups of this material to create specialty crosslinking agents for thermoset systems, especially in the production of printed circuit boards, electrical laminates, and adhesives requiring precise glass transition temperatures and electrical properties. Its role is especially valuable in achieving tight process windows for advanced electronic packaging.

    Industry compliance standards

    • IPC-4101 (laminate material standards for PCBs); UL 796 (printed wiring board safety); REACH Annex XVII (SVHCs restrictions in electronic chemicals)

    Typical usage ratio

    • 0.5–3.0% by mass (relative to total epoxide content); rate adjusted based on desired crosslink density and thermal stability.

    Downstream process integration

    • Dosed into the blending tank during hardener premix preparation, prior to epoxy-amine reaction, ensuring homogenous dispersion and activation during cure cycles.

    Final product types

    • FR-4 laminates, high-frequency rigid boards, encapsulation resins, specialty adhesives for microelectronics assembly.

    4. Intermediate in Agrochemical Synthesis (Herbicide and Fungicide Actives)

    Major agrochemical producers employ this aromatic ether as a core fragment in multistep syntheses to assemble active ingredients for advanced crop protection agents. Its nitrophenyl group serves both as a reactive intermediate for further coupling and as an electron withdrawing group to fine-tune biological activity in sulfonylurea and triazole families.

    Industry compliance standards

    • FAO/WHO Specifications (technical material quality); ISO 9001 (production / QC systems for actives); US EPA 40 CFR part 180 (pesticide residue limits)

    Typical usage ratio

    • 0.8–4.5% by mass in final catalyst or coupling steps; levels optimized per specific reaction pathway and desired impurity profile.

    Downstream process integration

    • Introduced as a coupling partner in aromatic substitution steps—typically added immediately after initial halogenation or sulfonation, fully consumed during synthesis before workup.

    Final product types

    • Technical-grade herbicide actives, formulated emulsifiable concentrate (EC) and water-dispersible granule (WDG) products, crop protection intermediates.

    5. Intermediate for Pharmaceutical API Synthesis (Anti-Inflammatory Drugs)

    Several leading pharmaceutical manufacturers rely on this nitrophenyl ether in the preparation of complex, multi-ring intermediates for non-steroidal anti-inflammatory agent (NSAID) APIs. Within these protocols, it acts as an activated SNAr partner, supporting ring closures and heterocycle formation under controlled reaction temperatures and pH. This usage demands strict analytical controls for carryover and regulatory compliance at every stage.

    Industry compliance standards

    • ICH Q7 (GMP for APIs); United States Pharmacopeia (USP) monographs for intermediates; EMA guidelines for process impurities and solvent residues

    Typical usage ratio

    • 0.6–2.2 equivalents per coupling substrate; prescription refined in pilot batch scaling based on desired product purity and reaction conversion rates.

    Downstream process integration

    • Dosed during intermediate-stage SNAr reactions—primarily before final cyclization or heteroatom substitution—remains under closed-system control until full conversion is confirmed via HPLC.

    Final product types

    • Advanced API intermediates, final crystal forms of NSAIDs, pharmaceutical-grade intermediates for anti-rheumatic and analgesic drug production.

    6. Additive in Functional Dye and Pigment Precursors

    Specialty dye and pigment producers incorporate this compound as a functional ether bridge in the synthesis of high-stability azo and anthraquinone dyes. Its nitrophenyl group directs substitution and stabilizes color fastness, enabling downstream pigment processors to achieve vivid, long-lasting hues required for demanding fiber and coating applications.

    Industry compliance standards

    • OEKO-TEX Standard 100 (textile dye safety); EN 71-3 (migration of elements in toy pigments); ISO 105-C06 (color fastness to laundering in textiles)

    Typical usage ratio

    • 3–12% mole fraction of active dye-building blocks; selection depends on chromophore intensity and substrate compatibility goals.

    Downstream process integration

    • Added as a nucleophilic aromatic substrate in the dye intermediate synthesis kettle, prior to coupling with diazonium salts or anthraquinone units during batch dye manufacture.

    Final product types

    • Reactive dyes for cellulose fibers, high-performance pigment dispersions, organic colorants for industrial coatings and inks.
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    Certification & Compliance
    More Introduction

    Introducing 4-Nitrophenyl Phenyl Ether: A Reliable Solution Forged from Experience

    Understanding the Value of 4-Nitrophenyl Phenyl Ether in Modern Chemistry

    Working every day on production floors and in the quality labs, we recognize how much hinges on the reliability of each chemical that leaves our site. 4-Nitrophenyl Phenyl Ether, identified by model number 589-89-1, stands out as a vital building block in fine chemistry and research applications where precise performance matters. Our experience manufacturing this intermediate spans more than a decade, through operational adjustments and process upgrades to meet customer demands for purity and consistency. We do not see this product as just another item in a catalog. It reflects daily stewardship of processes, raw material selection, and a commitment to safe, responsible manufacturing.

    Key Features Backed by Practical Know-How

    Our 4-Nitrophenyl Phenyl Ether comes as a pale yellow crystalline powder—no artificial colorants, no impurities from shortcut synthesis. Our inspection teams spot-check each lot, taking samples straight off the line to measure melting point and residual solvent. We consistently achieve purity levels no less than 99% by HPLC, and we take extra steps to guard against trace metals and degradants that can compromise downstream processing. Every gram is benchmarked to internal reference standards, and we log performance data over the long-term, making our batches traceable back to the day and time of preparation.

    Unlike traders or brokers who may focus on paperwork, our plant teams weigh each raw input, run reactors under tightly controlled temperature and pressure, and check in-process samples for precise conversion rates. We invest in proper waste treatment and safeguard containment controls, so unwanted byproducts won’t end up in the final drum. The process for 4-Nitrophenyl Phenyl Ether is not forgiving of inattention; overheating leads to darkening and off-spec material, while insufficient purification leaves behind hard-to-remove starting material. Experience has shown us that attention to fine detail early in production pays off for users later in synthesis—higher product purity means fewer rejections and less downstream rework.

    Applications Grounded in Everyday Practice

    Researchers and chemical formulators use 4-Nitrophenyl Phenyl Ether in various contexts. We often fill orders for labs synthesizing electronic materials, liquid crystal displays, and certain pharmaceutical intermediates. The electron-rich ether linkage and nitro-substituted aromatic ring make this molecule a useful scaffold for further derivatization, often serving as a starting point for more advanced targets. In the real world, that means organic chemists building up custom libraries count on this product to deliver reproducible properties batch after batch. It shows up in the synthesis of functionalized biphenyls and, occasionally, in specialty dye development. Our supply teams work closely with research clients to ensure that reorders draw from the same base process, so a new shipment matches up to what worked in the last experiment. We’ve learned that swapping suppliers mid-stream often introduces small but critical shifts that derail projects, so our customers keep coming back for the stable supply chain.

    Scale can matter as much as purity. We produce multi-kilogram batches but can accommodate small research quantities packed down to grams or tens of grams, avoiding cross-contamination and keeping costs reasonable. Our plant lines are dedicated to aromatic ethers during campaign runs, so there is no overlap from unrelated compounds. Clients working in pharmaceutical synthesis, where cross-contact with other active materials spells trouble, rely on this separation of equipment.

    Why Consistency Matters in This Product Line

    We have seen the impact that inconsistent product quality has on downstream chemical reactions. Even minor deviations in color or trace impurity content can throw off chromatography results or, worse, lead to failed reactions and costly delays. We remember an incident years ago in which a customer’s yield dropped significantly after switching to a generic product from elsewhere—the role of trace iron as a reaction poison was eventually traced back to residuals in the 4-Nitrophenyl Phenyl Ether. Since then, we redoubled efforts on both metal analysis and supplier qualification. Every raw material shipment into our plant undergoes verification, and we conduct periodic impurity stress testing. This extra effort is not an afterthought; it’s a lesson from the trenches that keeps projects running on time for those relying on our product.

    Our technical support staff works directly with users on application troubleshooting. Sometimes a solvent switch in a downstream reaction uncovers a trace solubility issue, or a subtle byproduct interaction prompts us to refine our drying protocol. Our record-keeping system allows us to trace questions back to specific batch parameters. This helps us suggest solvent washes or post-synthesis purification steps if a customer encounters a sticking point. Rather than expecting one product spec to fit every use, we adapt production schedules and cleaning protocols if a client needs material for especially sensitive analysis or scale-up work.

    How 4-Nitrophenyl Phenyl Ether Stands Apart

    The market for aromatic ethers covers a wide range of products, yet each has its niche. 4-Nitrophenyl Phenyl Ether falls on the more specialized end due to its dual-functionality—the nitro group introduces electron-withdrawing power and modulates reactivity, while the ether link preserves thermal stability. These properties make it a preferred choice for chemistries that require controlled reactivity without sacrificing backbone strength. In practice, users often compare it with non-substituted diphenyl ethers or those carrying methyl or halogen groups. We’ve heard feedback from synthetic teams that, while unsubstituted ethers may cost less, their lack of selectivity can lead to lower yields in nuanced reactions. Others have pointed out that methylated analogs degrade under harsh conditions that our product easily withstands.

    Physical handling also sets this product apart. Some aromatic ethers suffer from fickle solubility profiles, caking, or volatile loss in storage. Regular inspections of our stockroom have shown that our strict moisture and temperature controls let 4-Nitrophenyl Phenyl Ether hold up over months without noticeable degradation. We do not cut corners with bulk storage drums—every lot rotates promptly and we avoid long-term exposure to air during repacking. Product received from our end dissolves cleanly in common solvents like chloroform, acetone, and dichloromethane. Our chemists document solubility behavior under various conditions, sharing real-world data with repeat customers so they can plan for worst-case scenarios in the lab.

    Safety rounds out the picture. Nitrated aromatics can present hazards if mishandled or stored incorrectly, but our risk management approach puts controls in every step from synthesis to shipping. Regular safety drills and equipment maintenance protect our team and our neighbors. Customers appreciate that our packaging includes spill-resistant liners and secondary containment for long-haul shipments. We support inventory managers with up-to-date transport documentation so there is no guesswork about compatibility or legal limits on movement.

    The Role of Experience in Production and Support

    Success in this line comes from investment in both people and process. Training operators to identify off-odors or subtle discoloration is a key control point, especially for fine chemicals such as 4-Nitrophenyl Phenyl Ether. Written SOPs help, but veteran technicians find things a checklist never covers—a subtle shift in viscosity during recrystallization, or a filtration rate that hints at over-milling. We listen to the feedback from staff running the equipment as much as the test results from QC. Our plant managers walk the floors and keep communication lines open between shifts to catch trends or potential raw material inconsistencies before they translate into off-spec product.

    We encourage customer feedback as well. Many practical improvements began with an offhand remark from a user frustrated over packaging or a request for more granular batch data. We know our partners rely on steady supply, timely delivery, and technical openness to keep their programs running. Surprises halt projects and waste budgets. That’s why we foster real dialogue, answering technical queries directly rather than outsourcing it to generic call centers.

    Supporting Progress in Research and Industry

    Our drive for quality does not come out of a desire for accolades but from seeing firsthand the difference that a reliable product can make. Over the past years, we have watched academic labs take on projects funded by tight grants and startups prepare for pilot-scale trials where each input dollar counts. 4-Nitrophenyl Phenyl Ether fits into these efforts as a trusted base—one that will not introduce ambiguity into experiments or result in project drift. Our ongoing support in customizing packaging, batch sizing, and documentation lets purchasing agents and laboratory personnel avoid the pitfalls of minimum order constraints or delayed customs clearance. We believe that supporting our partners’ progress is part and parcel of responsible manufacturing.

    The feedback loop with users means every new synthesis request or technical hurdle can drive meaningful improvements on our end. A few years back, a research outfit working on OLED component development pointed out an insolubility issue at low temperatures. Working together, we implemented new milling and drying practices, enabling a more free-flowing product that maintained dissolution rates, even when subjected to drift in environmental controls. Our response to these practical challenges stems from a blend of laboratory insight and production-scale flexibility. We take pride in being the manufacturer—not just because of the satisfaction in making a product that works, but because it sustains the growth of new technologies downstream.

    Monitoring Quality from Start to Finish

    Throughout the process, from sourcing raw reagents to the final packing stage, our quality controls keep products like 4-Nitrophenyl Phenyl Ether in line with expectations. Raw materials receive certificate-of-analysis verification, but we do not stop there—we reject any shipment that falls outside tight specifications for purity and trace volatility. Our batch reactors run under continuous monitoring, with periodic in-line checks to spot deviations in pressure, temperature, and conversion rates. Each new batch is tested not only for purity but for critical properties such as thermal stability and residual moisture content. We use modern analytical tools—HPLC, GC, NMR, and ICP-MS—to back up claims about batch-to-batch reproducibility. These results are stored digitally, easy for customers to audit upon request.

    Samples from finished lots undergo accelerated stability studies, simulating long-term storage and spot-testing for changes in melting point, color, or odor. More than once, this insight has helped us fine-tune packaging materials or tweak drying protocols to squeeze out improvements in product handling. Our warehouse staff get regular training in GMP documentation, handling procedures, and spill cleanup. These controls reinforce confidence that every drum or small bottle of our ether reaches users in the right state for instant deployment in their synthesis workflow.

    Adapting to New Demands and Regulatory Shifts

    The chemical world does not stand still. As more environmental regulations roll out and downstream manufacturers tighten standards for trace impurities or residual solvents, the bar for product quality rises. We do not rest on legacy processes or prior market standing. Periodically, we update our reactor cleaning, airflow control, and solvent recovery systems to keep pace. A few customers in regulated markets have asked for additional batch certification—whether it be for trace phthalate content, heavy metal screening, or compliance to new local norms on nitroaromatic transport. We keep our production and documentation systems ready to generate these extra certificates at a moment’s notice, drawing on existing QC data without extending lead times or passing along major cost hikes.

    Labeling and transport protocols receive similar attention. Our logistics team reviews new rules as they arise and updates all related documentation to prevent holdups. Packaging receives regular review based on user feedback about ease of handling or waste disposal. Some users have adopted solvent recovery systems—so we help by providing information on solubility and residue management, supporting closed-loop systems that improve both safety and environmental outcomes.

    Serving the Next Generation of Chemical Innovation

    As markets shift with new technologies, our facility adapts its output to serve novel fields—be it renewable materials, advanced coatings, or electronics beyond the conventional. Our teams collaborate with clients pursuing iterative synthesis, multi-step scaleups, or specialty purification techniques that draw on the core structure of 4-Nitrophenyl Phenyl Ether. Scholarly researchers, industrial formulation leads, and materials scientists all bring unique needs and questions, sometimes outside what we could anticipate from the technical literature. Our approach remains rooted in direct communication, iterative feedback, and transparent improvement cycles.

    We see a future where tighter controls, more specialized derivatives, and responsive supply chains drive forward both research and manufacturing success. The role of this product and others like it will only grow as new applications emerge. Advanced analytics, sustainable synthesis, and safety investments ensure that every order reflects lessons learned over years of real-world practice. By backing 4-Nitrophenyl Phenyl Ether with robust support, rigorous process controls, and commitment to the customers who use it, we build on a foundation of reliability and trust.

    Looking Forward

    We continue to learn from our customers and the evolving demands of science and industry. 4-Nitrophenyl Phenyl Ether is not just a line item for us, but a benchmark of what good manufacturing can accomplish with careful attention to detail, real-world feedback, and a drive to keep improving. We invite users to share their needs, technical inquiries, or feedback—knowing that together, we can shape a future of steady, trustworthy chemical supply for the next cycle of discovery and manufacturing excellence.