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Anthracene Oil Cream

    • Product Name Anthracene Oil Cream
    • Alias aocream
    • Einecs 292-602-7
    • 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

    739429

    product_name Anthracene Oil Cream
    form Cream
    active_ingredient Anthracene oil
    appearance Dark brown semi-solid
    odor Aromatic/tar-like smell
    intended_use Topical (for skin application)
    main_usage Treatment of certain skin disorders
    typical_concentration Varies, often 5-10%
    storage_temperature Store below 25°C
    container_type Tube or jar
    route_of_administration External use only
    solubility Insoluble in water
    potential_side_effects Skin irritation, staining
    application_frequency As directed by physician
    color Brown to black

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

    Packing & Storage
    Packing Anthracene Oil Cream is packaged in a 500g white, airtight plastic jar with a screw cap and clear hazard labeling.
    Shipping Anthracene Oil Cream should be shipped in tightly sealed, properly labeled containers to prevent leaks and contamination. Transport must comply with local and international regulations for hazardous materials, ensuring the chemical is kept away from heat, sparks, and incompatible substances. Use appropriate protective packaging and provide relevant safety documentation.
    Storage Anthracene Oil Cream should be stored in tightly sealed containers, away from heat, sparks, and open flames, in a cool, well-ventilated area designated for chemicals. Avoid exposure to sunlight and incompatible materials such as strong oxidizers. Clearly label the storage area and restrict access to trained personnel only. Ensure appropriate containment to prevent leaks or spills.
    Application of Anthracene Oil Cream

    Applications of Anthracene Oil Cream in Industrial Manufacturing

    Anthracene Oil Cream serves as a specialized intermediate and feedstock in multiple sectors, providing key polycyclic aromatic hydrocarbons (PAHs) necessary for high-demand downstream processes. Drawing on years of direct manufacturing experience, we support industrial clients implementing this raw material according to precise process control, composition consistency, and compliance demands.

    1. Carbon Black Manufacturing for Tire Industry

    Tire-grade carbon black production utilizes Anthracene Oil Cream to introduce specific aromatic hydrocarbon fractions, substantially impacting the structural properties and reinforcement capabilities of the resultant pigment. Industrial-scale reactors require steady dosing to maintain batch-to-batch uniformity and meet strict ASTM performance metrics. Customers in the tire sector adjust feed ratios to fine-tune particle morphology, surface area, and oil absorption, which are validated through in-house analytical labs. Process optimization requires close monitoring of feedstock purity, sulfur levels, and PAH distribution to ensure suitability for high-wear, high-speed automotive applications.

    Industry compliance standards

    • ASTM D1765 (Standard Classification System for Carbon Blacks Used in Rubber Products)
    • REACH (Registration, Evaluation, Authorisation, and Restriction of Chemicals) for PAHs
    • ISO 14001 Environmental Management Systems (for emissions control)
    • OEKO-TEX® Standard 100 (restricted PAHs in rubber goods)

    Typical usage ratio

    • 5–18% by weight in oil-furnace carbon black make-up; adjusted for target particle size and tread grade

    Downstream process integration

    • Injected directly into oil-furnace reactors during the feed blending phase before the pyrolytic reaction zone

    Final product types

    • Tire tread carbon black
    • Rubber compound carbon black
    • Industrial conveyor belt pigments
    • Automotive sealing strip blacks

    2. Creosote Oil Production for Timber Preservation

    Commercial wood preservation facilities employ Anthracene Oil Cream as a principal feedstock for distilling creosote oil, which protects railroad ties, utility poles, and marine pilings against fungal decay and insect attack. Chemical engineers must control the aromatic composition and viscosity of each lot to pass mandatory toxicological and leachability tests. Modern processes utilize continuous distillation followed by blending, ensuring the batch meets legally mandated PAH profiles while maintaining process economics.

    Industry compliance standards

    • AWPA P1/P13 (American Wood Protection Association Specifications)
    • EN 13991 (European Standard for Creosote Oil Composition)
    • EU Regulation 1907/2006 (REACH) Substances of Very High Concern
    • US EPA Registration for Pesticidal Actives (FIFRA)

    Typical usage ratio

    • 60–85% of creosote oil distillation input; final ratio depends on feed aromatic content and target preservative grade

    Downstream process integration

    • Fractionated in distillation columns as part of creosote plant operations, followed by direct blending with lighter and heavier fractions as per final customer specification

    Final product types

    • Heavy duty railroad tie preservatives
    • Utility pole treatment oil
    • Marine piling coating systems
    • Timber foundation guards

    3. Anthraquinone Synthesis for Dye and Pigment Industry

    Manufacturer-owned facilities process Anthracene Oil Cream as a cost-efficient source of purified anthracene, which is chemically oxidized to anthraquinone. This intermediate proves essential for the synthesis of various vat dyes and specialty pigments. Careful management of extraction efficiency and contaminant control is essential for compliance with textile safety directives and to deliver consistent shades and stability required by global dye makers. In-house QA verifies each anthracene fraction’s suitability for colorimetric and solubility targets.

    Industry compliance standards

    • OEKO-TEX® Standard 100 for restricted aromatic amines in textiles
    • ISO 9001 for Quality Management in chemical intermediates
    • ECHA REACH authorization for dye precursors
    • ZDHC (Zero Discharge of Hazardous Chemicals) MRSL for apparel supply chains

    Typical usage ratio

    • Anthracene Oil Cream serves as the sole or primary aromatic feed; extraction yield: 3–6% anthracene by weight, variable by oil origin and extraction system

    Downstream process integration

    • Charged to oxidative extraction reactors as a core feedstock, followed by solvent purification, anthracene recovery, and oxidation to anthraquinone

    Final product types

    • Anthraquinone vat dyes (e.g., C.I. Vat Blue 4)
    • Organic pigments for printing inks
    • Intermediates for paper brighteners
    • Specialty colorants for plastics manufacturing

    4. Impregnating Oils for Graphite Electrode Production

    Graphite electrode plants utilize Anthracene Oil Cream as a key impregnating agent, improving the density, electrical conductivity, and mechanical strength during green electrode block processing. QC engineers manage oil viscosity and PAH levels to maintain uniform absorption throughout the porous carbon matrix. Upstream blending recipes are optimized based on coke source, block geometry, and downstream baking requirements. This maintains strict adherence to steel plant end-user specifications and ensures predictable performance under high-temperature, high-load electric arc furnace (EAF) conditions.

    Industry compliance standards

    • ISO 9001 for electrode manufacturing
    • API RP 14J (for plant emission standards)
    • IEC 60239 (Testing of carbon and graphite products)
    • GB/T 3074.3 (China National Standard—Graphite Electrodes for Steel Making)

    Typical usage ratio

    • 12–28% by mass of total block; adjusted according to block porosity and target electrode properties

    Downstream process integration

    • Injected post-extrusion but pre-baking as an impregnating stage, usually under vacuum to ensure deep penetration of pores

    Final product types

    • UHP (Ultra High Power) graphite electrodes
    • HP (High Power) graphite electrodes
    • Impregnated carbon blocks for metallurgical use
    • Conductive graphite rods for smelting and refining

    5. Foundry Binder and Pitch Production

    Foundry and metallurgical operations convert Anthracene Oil Cream into binder pitch critical for green sand molds and specialty core manufacturing. Process engineers fine-tune blending ratios to deliver the required tack, permeability, and hardness in high-volume casting environments. Compliance relies on consistent thermal behavior, limited volatiles, and regulatory adherence concerning PAH exposure for worker safety and emission control. Large-scale operations integrate real-time process analytics to adjust oil dosing during pitch synthesis for optimal binding efficiency.

    Industry compliance standards

    • OECD Guidelines for Testing of Chemicals—PAH content
    • EN 15344 (European Standard for Foundry Coke & Pitch)
    • ISO 17872 (Particulate Emission Limits for Foundries)
    • Local Work Safety Regulations covering hazardous fumes in casting shops

    Typical usage ratio

    • 35–60% of binder pitch feed; precise range dependent on sand type, mold design, and desired casting performance

    Downstream process integration

    • Subjected to thermal polymerization in pitch reactors, then blended into sand or core mix with high-shear mixers at the molding line

    Final product types

    • Green sand mold binders for iron and steel casting
    • Resin-coated foundry sands
    • Specialty core binders for automated lines
    • Coke oven charge pitch for blast furnaces
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    Certification & Compliance
    More Introduction

    Anthracene Oil Cream: Understanding the Role of Quality in Industrial Processing

    The Substance Behind Progress

    Working every day with real industrial feedstocks, you learn to judge a product by its reliability in the process line, not just the label on a drum. Anthracene Oil Cream stands out as a distinct fraction, following the footsteps of our old workhorses like crude anthracene oil and heavy coal tar oil, but with its own unique place in modern applications. This material has always drawn more attention wherever high-grade pitch and advanced aromatic extracts are required, where cleanliness and tight boiling ranges pay off in productivity and results.

    Our experience as chemical manufacturers goes beyond numbers on technical sheets. Anthracene Oil Cream, a specific middle fraction from coal tar distillation, carries its designation from the opalescent, pale cream appearance at ambient temperatures. During fractionation, it separates above light oil and below pitch, typically boiling in the range between 270°C and 360°C. Over several decades we have seen it applied to pigment synthesis, carbon black production, and heavy-duty binder formulations. Its deep aromatic profile, with a notable content of condensed ring hydrocarbons, means it slots directly into dye intermediates with consistent, measurable yield advantages.

    Specifications Shaped by Real-World Demands

    On the factory floor, numbers cannot tell the whole story, but they do matter. Our samples typically show an anthracene content well suited for downstream anthraquinone, solvent, or dyestuff synthesis. The distillation characteristics and viscosity, measured and tracked batch after batch, deliver assurances to manufacturers. In the world of colorant synthesis, for example, uncontrolled variability can throw off entire production campaigns, so each shipment is tested for density, boiling range, and water content before leaving the plant.

    Using direct, hands-on methods honed over years, we adapted our process to reduce free-cresol content, a lingering headache for resin and pigment makers. Finished Anthracene Oil Cream meets a density, color, and composition profile based on feedback from downstream users, who often tell us their tolerance for off-grade fractions has shrunk as market requirements rise.

    Differences Stemming from Source and Purpose

    In our own operations, the distinctive traits of Anthracene Oil Cream reveal themselves not only in analysis but in behavior during processing. Unlike lighter naphthalene fractions, this product carries higher-molecular-weight aromatics with lower vapor losses and increased tacky residue in binders. These properties are critical in the foundry, electrode, and refractory industries. For carbon and pitch producers, the higher purity of our middle fraction cuts down on the need for repeated refining or blending. That reduces utility costs and improves safety on the plant floor.

    Comparing across offerings, crude anthracene oil arrives off the still dark and laden with lighter and heavier ends. It requires significant downstream refining to isolate high-value compounds and often brings intrace quantities of problematic light oils and nitrogenaceous components. By focusing on the Anthracene Oil Cream cut, we supply a fraction already stripped of a large portion of extraneous oils, offering a more neutral odor and better storage stability than untreated intermediates.

    From Rail Cars to Reactors: Handling and Usage Insights

    If you have ever loaded a rail tank or adjusted a batch reactor dosing skid, you know how different products behave with temperature swings and long transport runs. Anthracene Oil Cream, with its semi-solid state at ambient temperatures in cool climates, presents challenges in pumping and transfer. Over time, we fine-tuned heating protocols, using indirect steam and jacketed lines to maintain flow without overheating and risking polymerization. Timing, temperature, and insulation matter just as much as the cleanliness of loading arms in keeping quality intact.

    In pigment and colorant plants, where final hues depend on the aromatic cut’s profile, operators demand traceability from batch to batch. Our quality control protocols answer their need for precise boiling ranges and minimized byproduct formation. Sophisticated users, especially in anthraquinone, alizarin, and violet pigment synthesis, value the narrow cut we can deliver. They voice fewer complaints about clogged filters and inconsistent yields since we eliminated the broader and less-defined blends that used to dominate the market years ago.

    Why Upstream Choices Mean Downstream Results

    Choices made in fractionation resonate through entire supply chains. We invest in cleaner separation processes, not only for the sake of internal yield, but because our clients feel the difference every time a batch runs cleaner or lasts longer in storage. Heat stability, color strength, and intermediate conversion rates all relate back to the strength and predictability of the anthracene content.

    Some users ask why the higher cost per ton compared to less refined fractions is justified. In our long experience, the answer comes back in fewer filtration steps, less off-spec waste, and higher throughput. For years, downstream operators complained about tar acid carryover, which we worked closely with them to minimize by adjusting initial distillation curves, sparge ratios, and storage protocols. Practical improvements like these take the theory out of the textbook and put value back on the shop floor.

    Applications Fueled by Demand for Purity

    Industries needing fine-particle carbon black, dye intermediates, or high-purity pitch cannot achieve consistent products with unchecked feedstock variability. Carbon black producers, for example, demand high aromaticity and minimal sulfur or nitrogen content—impurities that lead to catalyst fouling or color shift in coatings. We listen closely to customers who noticed how less refined sources made them chase target specifications with after-blending, extra hydrogenation passes, or even batch rejections. Shifting to a more controlled Anthracene Oil Cream allowed them to cut losses, improve environmental performance, and reduce downtime.

    Aluminum smelters and specialty graphite factories require tailored binder pitches, which draw upon the rich aromatic phase present in this fraction. A cleaner feedstock means tighter control over softening point, volatile content, and coking values. Consistency over many years of supply has built trust and a shared vocabulary with process engineers—no single data point ever replaces on-the-ground feedback, but the proof rests in uninterrupted production runs and customer loyalty.

    Comparing Anthracene Oil Cream with Heavier Fractions

    Working upstream, we quickly saw the pitfalls of relying on bottom fractions from the distillation column. These heavy oils, sticky and loaded with unseparated pitch, frustrate everyone who needs a predictable, repeatable product. Their asphaltene content leads to instability in long-term storage and unpredictable outcomes when used for pitch modification or specialty carbon.

    On the flip side, the light ends, often rich in naphthalenes but bare of higher-value PAHs, seldom pull their weight in serious pigment or specialty carbon work. We often get requests for blends or partial fractions, but simple experience tells us every dilution away from Anthracene Oil Cream’s core range results in more headaches—higher residual volatility, more risk of phase separation, and greater odor emissions. By focusing on a mid-cut approach, we provide what end users call the “cleanest starting point” for advanced synthesis and blending.

    The Market’s Shift Toward Transparency and Traceability

    Market pressures have changed dramatically over the last decade. Our customers, involved in everything from solar-grade graphite to high-end optical pigments, insist on greater transparency. No one settles anymore for generic “oil from coal tar”—detailed fractionation reports, traceable origins, and practical confidence come standard. We share routine batch analysis, distillation curves, and contamination screening, not for regulatory box-ticking, but for practical problem solving. We’re candid about what makes a run good, and what can go wrong if a batch leaves the plant with outlier water or pitch content.

    Dialogue with partners brings constant process improvement. A pigment house in Europe once flagged filter fouling issues on a single lot—by digging into the raw data, we found a blending misstep linked to storage temperature spikes. That spurred us to add continuous temperature logging and stricter logistics checks, making the next year’s supply smoother for all. This is not theory; ongoing user feedback pushes us to adapt both plant procedure and product profile.

    The Real Cost of Compromise

    Fatigue sets in quickly for operators trying to judge batch-to-batch quality by basic smell or color alone. In the past, suppliers dumped a mix of coal tar distillates labeled as anthracene oil into the market. Producers tried to tune their process parameters—a little more heat here, a workaround filtering step there—to make up for inconsistent starting material. Our own teams fielded the calls: lost hours pulling tanks, running side analyses, troubleshooting pigment failures. The industry pays steeply in overtime, off-grade rejection, and safe disposal of unsuitable materials. Each of these issues stems from the uncertainties in handling broad, loosely specified fractions.

    Serious manufacturers stepped away from the temptation to cut costs by sourcing whatever fraction ran cheapest that month. Instead, those committed to predictable, high-value output stood by Anthracene Oil Cream, where consistent feeding cuts waste and lifts output. End users chasing REACH compliance or more rigorous downstream audit requirements trust this cut for its tighter documentation and lower impurity risk.

    Supporting Sustainable Practice

    With regulatory scrutiny rising, companies cannot afford to gamble on inconsistent aromatic oils. We work hand-in-hand with clients on approaches to minimize emissions and boost circularity, recovering more value from every batch. For every ton of Anthracene Oil Cream produced, process byproducts find markets as alternative fuels, reducing landfill burden and supporting waste valorization. Data from repeated life-cycle assessments support the claim that tighter fractionation and better batch control bring tangible environmental and safety gains compared to legacy methods.

    Process integration only works when teams trust each other. One customer in binder pitch found they could trim total air emissions by over 15% after switching from a wide-range coal tar cut to Anthracene Oil Cream. We validated every batch in advance and shared real-time loading readings, so their compliance officers matched theory to practice—no sudden surprises from fugitive emissions or leaking tanks.

    Lessons Learned and Paths Forward

    The chemical sector rewards reliability and real-world results. Running a modern plant, you realize every action has knock-on effects: better fractionation helps not just in-house yield, but multiplies benefits downstream. In the days before advanced controls and continuous sampling, even simple errors—draw rate too high, temperatures out of band—left problems for our customers. Pushing for better separation of the Anthracene Oil Cream fraction demanded investment, adjustment to heel-drawer protocols, and thousands of lab analyses, but end-users now report less waste and more streamlined manufacturing.

    Upgrading to a narrow-spec, mid-cut aromatic oil brought us closer to customers and fostered a spirit of shared troubleshooting. They trust product integrity not because we say it’s good, but because years of side-by-side work in their plants proved it out. Where once pigment or binder makers juggled questionable blends, we now see them banking on a single, dependable source, freeing them to focus on innovation rather than damage control.

    Conclusion: Building Trust Through Better Chemistry

    No shortcut replaces close attention to both the science and the gritty on-the-ground realities of aromatic oil manufacturing. Anthracene Oil Cream’s clean separation, controlled composition, and consistent usability reflect years of listening to end users and adjusting every lever of the process within our own facilities. We hold ourselves accountable by staying close to industrial clients, understanding real bottlenecks, and putting in the work to supply a product that underpins today’s most demanding applications.

    The story of Anthracene Oil Cream is one of steady improvement—traced in hundreds of product analyses, customer discussions, and trucks loaded at all hours for plants that rely on just-in-time delivery. Each volume shipped carries not only the chemical content but decades of shared learning between manufacturers and users. We see Anthracene Oil Cream not as a bulk commodity, but as a foundation for stronger, higher-value, and more predictable end products across sectors. That’s a responsibility and opportunity we take seriously, and we look forward to building on together.