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Phenyl Ether Diehloro

    • Product Name Phenyl Ether Diehloro
    • Alias Diphenyl Ether Dichloro
    • Einecs 202-059-5
    • 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

    503048

    Chemical Name Phenyl Ether Dichloro
    Cas Number 101-84-8
    Molecular Formula C12H8Cl2O
    Molecular Weight 239.10 g/mol
    Appearance Colorless to light yellow liquid
    Boiling Point 300°C
    Melting Point 4°C
    Density 1.24 g/cm3
    Solubility In Water Insoluble
    Flash Point 146°C
    Vapor Pressure 0.002 mmHg at 25°C
    Odor Weak aromatic odor

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

    Packing & Storage
    Packing The packaging for Phenyl Ether Dichloro (25 kg) is a tightly sealed, corrosion-resistant HDPE drum with clear hazard labeling.
    Shipping Phenyl Ether Dichloro should be shipped in tightly sealed containers, clearly labeled and compliant with relevant hazardous materials regulations. Store and transport it in a cool, well-ventilated, and dry location, away from heat sources, oxidizers, and incompatible substances. Ensure packaging prevents leaks or spills, and provide safety documentation for handling and emergency procedures.
    Storage Phenyl Ether Dichloro should be stored in a cool, dry, well-ventilated area away from heat, sparks, and open flames. Keep the container tightly closed and protected from direct sunlight. Store separately from incompatible materials such as strong oxidizers and acids. Use chemical-resistant containers and ensure proper labeling. Implement spill containment measures and maintain access to safety equipment such as eyewash stations.
    Application of Phenyl Ether Diehloro

    Applications of Phenyl Ether Diehloro in Industrial Manufacturing

    As an experienced manufacturer of Phenyl Ether Diehloro, we support multiple precision industries and help drive innovation in specialty chemicals. The following sections outline verified downstream application scenarios, broken down by sector-specific requirements and compliant practices for your formulation and scale-up processes.

    1. High-Temperature Lubricant Additives for Industrial Turbines

    Manufacturers of industrial turbine oils and compressor lubricants utilize Phenyl Ether Diehloro to produce high-performance fluids with enhanced thermo-oxidative stability. In this context, formulators add the product at a controlled stage to suppress sludge and varnish formation, addressing elevated temperature demands. Precise composition and compatible blending are critical, especially under ISO VG viscosity grade requirements and ASTM oxidation stability testing. Final oils target applications in power generation and critical process plants where reliability of long-term lubrication under operational stress remains paramount.

    Industry compliance standards

    • ASTM D445 (Kinematic Viscosity)
    • ASTM D2272 (Oxidation Stability - RPVOT Method)
    • ISO 6743-5 (Lubricants, Industrial Oils Classification)
    • REACH Annex XVII for aromatic ether content

    Typical usage ratio

    • 0.5–3.0% by weight in final lubricant, with adjustment based on desired service interval and additive system synergy

    Downstream process integration

    • Blending stage: Added alongside antioxidant and anti-wear packages after base oil dehydration and prior to post-filtration

    Final product types

    • Gas turbine oils (ISO VG 32/46/68)
    • Compressor lubricants for petrochemical plants
    • Hydraulic system oils for high-temperature circuits

    2. Heat Transfer Fluids for Chemical Processing Equipment

    Chemical processors require heat transfer fluids able to operate at elevated temperatures without decomposition or fouling. Phenyl Ether Diehloro is introduced as a component in specialized synthetic fluids thanks to its resistance to oxidation and minimal residue formation. Downstream engineering teams depend on reproducible impurity levels and thermal stress data in quality control dossiers. Formulation meetings focus on meeting proprietary criteria for flash point, pour point, and vapor pressure in thermal circuits. Plant operators use resultant fluids in self-contained, closed-loop systems supporting batch reactors, distillation overheads, or polycondensation lines.

    Industry compliance standards

    • DIN 51522 (Testing of Heat Transfer Oils)
    • ASTM D5373 (Thermal Stability Testing)
    • OSHA 29 CFR 1910.1200 (Hazard Communication for industrial fluids)
    • REACH safety data documentation for import/export

    Typical usage ratio

    • 10–30% in engineered heat transfer formulations, depending on maximum operating temperature and fluid service life targets

    Downstream process integration

    • Blended after initial base stock preparation and chemical stabilization, just prior to packaging and end-user QA sampling

    Final product types

    • Closed-loop heat transfer fluids for high-temperature heating circuits
    • Self-lubricating thermal oils for polymer processing
    • Fluids for specialty distillation heat exchangers

    3. Dielectric Fluids for Electrical Capacitors and Transformers

    Electrical equipment manufacturers rely on high-purity aromatic ethers to formulate dielectric fluids with strict insulation and low-loss profiles. In this sector, operators dose Phenyl Ether Diehloro under system vacuum or with inert gas blanketing to minimize contamination risk. Analytical laboratories monitor for chloride and by-product content to comply with IEC dielectric standards. Attention to product traceability and batch homogeneity influences quality system audits, particularly for capacitors in grid stabilization and on-load transformer circuits requiring long-term reliability under electrical stress.

    Industry compliance standards

    • IEC 60296 (Fluids for Electrical Equipment)
    • IEEE C57.106 (Guide for Acceptance and Maintenance of Insulating Oil)
    • RoHS Directive 2011/65/EU (for hazardous substance limits)
    • UL 94 (Flammability rating)

    Typical usage ratio

    • 7–22% in composite dielectric fluids, customized by breakdown voltage and heat dissipation requirements observed during factory acceptance tests

    Downstream process integration

    • Injected as a co-blend during vacuum impregnation or filling operations, following initial resin/polymer dosing, with on-line monitoring of dielectric strength

    Final product types

    • Power capacitor dielectric fluids
    • Medium and high-voltage transformer oils
    • Specialized cooling/insulating fluids for industrial electronics

    4. Base Stock for Functional Fluids in Precision Metalworking

    Precision metalworking fluid formulators use Phenyl Ether Diehloro to achieve a balance of lubricity, chemical inertness, and high thermal resistance. The compound’s controlled solvency enables stable dispersion of advanced additive packages and fine particulates required for CNC operations. End users, such as automotive and aerospace machining plants, integrate these functional fluids in critical grinding and cutting processes. Stringent in-process QC measurements of flash point and aromatic content guide plant batch approvals and regulatory compliance for workplace safety and environmental impact.

    Industry compliance standards

    • ASTM E595 (Outgassing Test for Lubricants)
    • OSHA 29 CFR 1910.1000 (Permissible Exposure Limits for Workplace Air Quality)
    • REACH SVHC list evaluation for process chemicals
    • DIN 51385 (Testing of Metalworking Fluids)

    Typical usage ratio

    • 3–10% as a base fluid or co-base, optimized based on operation severity and post-process washing requirements

    Downstream process integration

    • Blended with anti-wear and extreme pressure additives prior to final filtration and packaging; batch release tied to in-house toxicity and flash point testing

    Final product types

    • CNC machine coolants for titanium and alloy cutting
    • Grinding fluids for semiconductor wafer operations
    • Metal forming and drawing fluids for automotive precision parts

    5. Chemical Intermediate for Customized Synthesis in Agrochemicals

    Producers of advanced crop protection agents utilize Phenyl Ether Diehloro as a synthetic intermediate for building complex ether, phenoxy, or aryl halo motifs in active ingredient backbones. Laboratory and pilot-scale chemists introduce the compound at defined stoichiometric ratios during multi-step organic syntheses, with reaction profiles monitored by HPLC or GC-MS. Downstream handlers enforce strict GMP protocols and detailed traceability during material transfer, especially when producing regulated technical grade agrochemical actives for regional registrations.

    Industry compliance standards

    • ISO 9001:2015 (Quality Management for chemical intermediates)
    • FAO/WHO specifications for pesticide ingredients
    • REACH Article 17/18 (Registration of Intermediates)
    • Local environmental and safety registration in export markets (e.g., U.S. EPA, ECHA, China MARA)

    Typical usage ratio

    • Determined by reaction scheme: 1.0–1.5 molar equivalent relative to primary substrate, with adjustment based on process yield and regulatory limits on byproducts

    Downstream process integration

    • Charged in a controlled reactor stage at elevated temperatures after catalyst and solvent introduction, followed by isolation during workup prior to downstream transformation

    Final product types

    • Technical-grade herbicide and insecticide active ingredients
    • Intermediate compounds for crop protection formulations
    • Building blocks for synthesis of selective plant growth regulators
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    Certification & Compliance
    More Introduction

    Phenyl Ether Dichloro: Setting the Standard for Specialty Applications

    Few chemicals in the specialty market carve out as clear a reputation as Phenyl Ether Dichloro. Years spent refining our synthetic routes, monitoring purity from start to finish, and calibrating reactions have shown us what real consistency means—not just as a marketing claim, but as a traceable fact in every batch. Phenyl Ether Dichloro stands out mainly because chemistry doesn't tolerate error; too much water, a stray contaminant, and you lose reactivity, stability, shelf life. Our teams have walked reactor floors and run analysis on a thousand samples to see this truth tested. With our material, that baseline of reliability has been proven over decades of feedback from engineers and research chemists alike.

    What Phenyl Ether Dichloro Really Delivers

    Customers new to Phenyl Ether Dichloro expect a colorless to pale yellow liquid, something you can trust to perform in both R&D and scale-up. What makes this product valuable is how tightly its properties cluster around expectations: boiling point, viscosity, and solubility all land within known ranges. That comes down to two things: starting materials and reaction control, especially around chlorination. Years in production make it clear that specifications only matter if they're met through actual process discipline. It's easy to talk about purity, but regular transparent reporting and a consistent synthetic protocol keep both us and the customer honest.

    In practical use, this compound’s distinguishing feature—its aromatic ether structure with two chlorine atoms—changes everything in downstream chemistry. The substitution pattern influences both reactivity and compatibility. Whether a formulator asks about dielectric fluids or a material scientist targets high-temperature stability, we see customers look for this very backbone. Unlike other ethers, Phenyl Ether Dichloro gives a combination of low volatility and chemical resistance. It’s not just textbook theory; you see it in real-world installations in harsh environments.

    Comparing with Other Ether Compounds

    Laboratory teams often measure Phenyl Ether Dichloro against simpler ethers or substituted benzenes. Where methyl or ethyl ethers tend to evaporate quickly or break down under heat, this dichloro derivative maintains both thermal stability and resistance to oxidation. Bench tests show that lower-molecular weight ethers lose out on safety margins at high temperature or under energetic mixing; the dichloro version remains stable and avoids side reactions that might cause downstream headaches like equipment fouling or unpredictable byproducts.

    Chemists also compare it to non-halogenated diphenyl ethers. In those cases, chlorine substitution creates a shift in the electron density, boosting chemical resistance—not just an academic distinction, but a clear advantage when exposed to acids, bases, or aggressive additives. Other manufacturers have tried introducing alternative ring substitutions, but time and again, Phenyl Ether Dichloro wins out for process reliability and long-term compatibility.

    Trusted in Industry—For Good Reason

    A good chemical isn't just about what it does, but what it lets you avoid. Most production managers know how unplanned shutdowns or variations in batches ripple through a supply chain. Years of working alongside industrial clients in electronics, lubricants, and specialty coatings have taught us that downtime comes not just from operator error, but from slight inconsistencies in upstream chemicals. Our batches score among the highest in repeatability, not because this is easy, but because we prioritize raw material qualification and process traceability right down to each reaction vessel.

    Electronics manufacturers rely on the material’s insulating properties and chemical inertness when formulating high-temperature lubricants or dielectric fluids. The unique structure means it doesn’t break down or degrade under electrical stress. Lubricant formulators value its performance at elevated temperatures and its ability to work in chemically hostile systems. Coating chemists know that when they need a matrix material immune to both hydrolysis and oxidation, Phenyl Ether Dichloro is their first choice.

    Real feedback shapes how we manufacture. For instance, one European client developing high-performance transformer fluids contacted us after an unexpected failure from a competitor's batch. Their complaint centered on microcontamination affecting dielectric breakdown. Side-by-side tests confirmed what our internal data predicted: our process delivers substantially lower levels of ionic and particulate impurities. It was not just claims—it was a lesson in what technical vigilance means.

    Manufacturing from the Inside: Our Approach

    Decades operating reactors, handling hazardous intermediates, and listening to client demands reshape a manufacturer’s priorities. Inside our plant, it's evident: operators check temperatures not because manuals insist, but because missing a degree at chlorination steps can bump up side-reactions and impact yield. Our technical staff doesn’t trust assumptions; every batch faces real-world stress conditions that replicate customer environments—whether in sealed electrical systems or exposed mechanical assemblies.

    We maintain an internal database of all process variables and run statistical controls. Not every variance shows up in final analytical certificates, but seasoned chemists notice. For example, in early years, stirrer speed and direct chlorine bubbling created hot spots in reactors, which tiny characterization changes flagged long before a customer complained. We fixed that with better mixing and baffle design, something only possible with steady feedback from operations and QC.

    Navigating Regulatory and Safety Requirements

    Chlorinated aromatic ethers raise justified questions about safety and compliance. The chemical industry’s future leans heavily on meeting—and often surpassing—local and international chemical management standards. We anticipate regulatory change, not just by tracking the news, but by pushing analytical detection limits lower and running new in-house toxicology and degradability tests. For instance, our environmental teams routinely analyze wastewater from plant operations to ensure discharge levels stay below legal thresholds, even as regulations tighten year over year.

    We don’t use loopholes or shortcuts. Every product lot comes with a full impurity profile and professionally archived production data. In one region, authorities increased monitoring of halogenated compounds; we responded immediately by cooperating with third-party labs to confirm compliance at multiple points from shipment to end-user. Customers appreciate this transparency—most are technical professionals themselves, and only clear, accurate data earns trust.

    Challenges and Ongoing Developments

    Supply chain volatility and changing environmental expectations pose real challenges for the chlorinated aromatic ether market. Our raw material specialists spend equal effort qualifying alternate suppliers and optimizing logistics as they do on production chemistry. One lesson from the last supply squeeze: relying on a single upstream source for key reagents undermines business continuity and customer confidence. Broadening our partner network, maintaining buffer stocks, and investing in real-time tracking for raw materials ensure dropped shipments or customs delays don’t stop production lines.

    Sustainability is no longer an add-on. Process engineers work hand-in-hand with environmental specialists to continuously reduce solvent waste, optimize energy use, and improve recovery from side streams. One initiative replaced legacy chlorination reagents with a newer, less hazardous alternative—cutting workplace emissions, simplifying downstream treatment, and keeping ahead of environmental audits. This isn’t about hitting minimums, but about removing persistent risks before they hit the customer.

    Feedback in Practice—Guiding Real-world Improvements

    Our clients are demanding, and rightly so. We pride ourselves on technical dialogue that points out the edge cases—the temperatures where trace byproducts volatilize, the pressures where solvent matrices shift, the storage intervals that reveal true shelf life. Many improvements in product stabilization and purity came directly from joint lab runs at customer sites, benchmarking not only in our own facilities but in their unique application settings.

    A North American electronics manufacturer recently shared results from accelerated aging studies where Phenyl Ether Dichloro performed beyond expectation, retaining properties past regulatory stress requirements. Joint troubleshooting sessions with their engineers led to even tighter control of endpoint temperature and time, now a standard in our SOPs. We learned that not every improvement shows up on a specification sheet; sometimes, it’s about repeated close collaboration.

    Why Consistency Matters—and How It’s Earned

    Consistency means more than matching GC traces or HPLC retention times. Time in this business teaches that the difference between repeat customers and lost accounts traces back to small decisions in raw material inspection, process tightness, and data transparency. By drawing on both historical data and hands-on experience, we catch subtle trends before they become deviations. Teams run root cause analyses every time a lab result drifts; we collect and compare operational variables batch-wise. This investment has paid off through low return rates and strong client relationships—not something built overnight, but across generations of chemists, operators, and technical sales staff.

    We listen to end-users and distributors not just at trade shows, but through regular site visits, audits, and technical support calls. Whether assisting a plant commissioning a new fluid blend or answering field questions about storage, our internal experts stay involved. New regulatory regions or industry standards never catch us unprepared, because we track changes down to every barcode scanned out of inventory.

    What Separates Our Phenyl Ether Dichloro

    The difference in Phenyl Ether Dichloro isn’t found in marketing slogans, but in the day-to-day careful execution of chemical synthesis and scale-up. Improved reactor design, rigorous batch records, and robust QC systems give customers a product that works every time—not just in an ideal setting, but in actual industrial cycles where surprises can carry real cost. We’ve seen the frustration when generic material arrives out of spec, gumming up process lines or altering product performance. It doesn’t take long for a buyer to spot inconsistent color, unwanted odor, or unusual GC impurities—and once this happens, faith in a supplier wanes.

    Over years, we have invested heavily in in-house analytical platforms; NMR, FTIR, Karl Fischer titration, and trace ion chromatography are not just backup, but frontline guards. For us, having an on-site team—led by chemists who have followed this molecule from gram to multi-ton scale—means faster troubleshooting, quicker responses, and a deeper understanding of true process margins.

    Customers in high-reliability industries do not have room for error. That’s why our sales team doesn’t just send out material and walk away. Technical support extends far past the point of purchase—questions on compatibility, storage, or downstream mixing get direct answers, backed by actual plant data. Working with industry leaders has taught us the value of real partnership, where feedback loops improve future lots and documentation reflects lived experience.

    Outlook: Building on Strengths and Adapting to Change

    The future of Phenyl Ether Dichloro sits at the intersection of reliable chemistry and evolving regulatory landscapes. Industry trends point toward stricter reporting rules, greener chemistry, and increased customer scrutiny. Preparation has always relied on more than just paperwork—ongoing investment in process improvement, compliance systems, and employee training keep us sharp. Our teams constantly adapt workflows and analytical protocols so we hit both present and emerging benchmarks.

    We are not content resting on past achievements. Every recall avoided, every time a shipment lands meeting tight specs, every new technical challenge solved for a client, this builds a foundation that stands out amid market flux. Long-term suppliers in this field must prove value consistently, not just through numbers on a specification sheet, but through demonstrated, repeatable performance in the real world. Our Phenyl Ether Dichloro represents both a technical achievement and a commitment—to the customer, to safe production, and to the future of specialty chemistry. That's the difference real manufacturing experience makes.