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2-Amylanthraquinone

    • Product Name 2-Amylanthraquinone
    • Einecs 215-687-4
    • 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

    494387

    Chemical Name 2-Amylanthraquinone
    Cas Number 635-15-8
    Molecular Formula C19H18O2
    Molecular Weight 278.35
    Appearance Yellow crystalline powder
    Melting Point 109-111°C
    Boiling Point 468.8°C at 760 mmHg
    Solubility In Water Insoluble
    Density 1.17 g/cm³
    Purity Typically ≥98%
    Synonyms 2-Pentylanthraquinone
    Flash Point 234.4°C
    Structure Anthraquinone core with a 2-pentyl group
    Ec Number 211-220-0
    Storage Temperature Store at room temperature

    As an accredited 2-Amylanthraquinone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 100-gram amber glass bottle with a secure screw cap, featuring a hazard-labeled, white chemical-resistant label displaying 2-Amylanthraquinone.
    Shipping 2-Amylanthraquinone is typically shipped in tightly sealed containers made of compatible materials to prevent contamination and degradation. It should be stored and transported in a cool, dry, well-ventilated area, away from incompatible substances. Handle with proper protective measures, adhering to all relevant regulations and safety guidelines for chemicals during shipping and handling.
    Storage 2-Amylanthraquinone should be stored in a cool, dry, well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep the container tightly closed and clearly labeled. Store separately from incompatible substances, such as strong oxidizers and acids. Ensure the storage area has spill containment measures and complies with local regulations for chemical storage. Avoid moisture exposure.
    Application of 2-Amylanthraquinone

    Applications of 2-Amylanthraquinone in Industrial Manufacturing

    2-Amylanthraquinone is a specialized derivative used by industrial producers for its catalytic and functional properties. Below are the primary sectors utilizing this raw material, with manufacturing details reflecting regulatory compliance, operational dosing, process entry, and end-use products. All use case information aligns with actual downstream operations, based on customer production feedback and quality audits.

    1. Pulp and Paper Delignification Catalysts

    Manufacturers in the pulp and paper sector rely on 2-Amylanthraquinone as a pulping catalyst to accelerate the delignification phase in alkaline processes. This compound allows producers to reduce cooking time and lower wood or fiber loss. Mills incorporate it directly into kraft or soda pulping solutions, optimizing both softwood and hardwood feedstocks for chemical pulping.

    Industry compliance standards

    • TAPPI T 236 (Kappa number determination)
    • ISO 302 (Pulp—Determination of Kappa number)
    • REACH registration for process chemicals
    • US FDA 21 CFR 176.170 (Paper/paperboard in contact with aqueous and fatty foods, where applicable)

    Typical usage ratio

    • 0.01% – 0.1% w/w based on oven-dry wood or pulp input mass
    • Adjustment depends on fiber source, pulping conditions, and desired yield

    Downstream process integration

    • Added to white liquor before or during cooking stage
    • Monitored via liquor/pulp ratio control and end-point chemical analysis
    • Removed during washing and bleaching subsections

    Final product types

    • Sulfate (kraft) pulp for packaging, printing, and tissue
    • Soda pulp for specialty filter papers
    • Dissolving pulp for viscose fiber precursors

    2. Hydrogen Peroxide Anthraquinone Process (HAP) Working Solution

    Producers of hydrogen peroxide with the anthraquinone auto-oxidation route select this compound as a working agent in the organic phase of the production cycle. Substitution with 2-Amylanthraquinone enhances production yield and selectivity, especially under high-throughput continuous plant conditions. The material becomes an electroactive carrier in the hydrogenation and oxidation steps.

    Industry compliance standards

    • Good Manufacturing Practice (GMP) for chemical plant operation
    • ISO 9001 (Quality Management Systems for chemical manufacture)
    • Responsible Care® for environmental and process safety
    • REACH compliance for anthraquinone derivatives

    Typical usage ratio

    • 10% – 15% w/w in working solution (organic phase containing a mixture of anthraquinones and solvents like 1-octanol, trioctyl phosphate, etc.)
    • The exact percentage is tuned based on recycling efficiency and desired peroxide output

    Downstream process integration

    • Functionalized in organic phase during hydrogenation/oxidation cycles
    • Regenerated and recycled inside the closed-loop process stream
    • Monitored for isomeric stability and impurity buildup by in-process QC

    Final product types

    • Technical grade hydrogen peroxide (35% – 70%)
    • Electronic grade H2O2
    • Food grade hydrogen peroxide after refining and stabilization

    3. Dye Intermediate for Synthetic Colorants

    Manufacturers of vat and disperse dyes use 2-Amylanthraquinone as an intermediate in multi-stage syntheses. Its alkylated backbone enables selective substitution and oxidation to produce colorants for textile and specialty plastics. The material is reacted with halogens, sulfonic acids, or amines under high-temperature conditions in closed reactors.

    Industry compliance standards

    • GMP for dye synthesis (where exported for European/US use)
    • REACH Annex VII for identified dye intermediates
    • ZDHC (Zero Discharge of Hazardous Chemicals) Manufacturing Restricted Substances List for textile applications
    • ISO 9001 for batch traceability

    Typical usage ratio

    • Used as a core structure in 1:1 stoichiometry with halogenating/sulfonating agents
    • Final loading typically 2% – 8% based on target dye’s total molecular weight

    Downstream process integration

    • Charged to reactor as primary anthraquinone-source precursor
    • Subjected to multi-step functionalization and separation phases
    • Quality assessed by HPLC and spectrophotometry of the crude product

    Final product types

    • Vat dyes (e.g. blue and violet grades) for cotton and cellulosic textiles
    • Disperse dyes for polyester and acetate fiber finishing
    • Color masterbatches for engineering plastics

    4. Semiconductor and Electronics Photoresist Components

    Certain electronics and microfabrication operations adopt 2-Amylanthraquinone derivatives for photoactive layer synthesis in photoresists and functional coatings. Its absorption and stability profile support precise pattern development under UV exposure. The raw material undergoes halogenation or esterification as required by each photolithography process design.

    Industry compliance standards

    • IEC 62474 (Material Declaration for Products of and for the Electronics Industry)
    • RoHS 2 Directive 2011/65/EU (where applicable)
    • ISO 14001 Environmental Management Systems for electronics chemical production
    • SEMATECH guidelines for semiconductor fab materials

    Typical usage ratio

    • 0.5% – 3% w/w in photoresist formulations, depending on desired layer thickness and photoreactivity
    • Adjusted per patterning resolution and substrate compatibility

    Downstream process integration

    • Incorporated into liquid photoresist premixes under controlled agitation
    • Dispensed via spin coating or spray methods onto silicon or metal substrates
    • Baked and patterned during downstream photolithography steps

    Final product types

    • Positive and negative photoresists for IC fabrication
    • Thin film coatings on display glass and LEDs
    • Photomasks and microelectronic sensor arrays
    Free Quote

    Competitive 2-Amylanthraquinone prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    2-Amylanthraquinone: A Proven Solution in Pulp Bleaching

    Proudly Manufactured, Reliably Supplied

    After years of refining production techniques and demanding top-tier consistency, our plant has built up a solid reputation as the source for high-purity 2-Amylanthraquinone. Many in the pulp and paper sector have faced frustration with irregular supply and off-spec material. Our team recognizes the pressure this places on mill operations, so we pay close attention to each batch’s color, solubility, and purity, controlling every detail from raw material handling through finished packing. We’ve stood in facilities watching operations grind to a halt from chemical inconsistencies; those setbacks cost time, money, and trust. Those headaches drive us to deliver product that runs the first time, every time.

    Beyond Basic Anthraquinones—What Sets 2-Amylanthraquinone Apart

    Not all anthraquinone derivatives perform the same role in pulping. Conventional anthraquinone, without modification, executes key redox reactions but can lack subtle benefits in certain cooking environments. 2-Amylanthraquinone, by contrast, strikes a better balance between catalytic activity and ease of recovery. Our process ensures a product that shows higher selectivity, smoother integration, and less volatility compared to standard anthraquinone or even 2-methylanthraquinone. The amyl group substitution doesn’t just tweak the molecule—it changes its interaction inside the digester, particularly under variable alkalinity and temperature. This translates to more controlled degradation of lignin with far less effect on carbohydrate fractions. Our years of customer collaboration have proven again and again the material difference in final pulp brightness and yield.

    Specifications Based on Real-World Feedback

    We’ve learned that a mill’s success often depends on subtle differences in reagent quality. The color of our 2-amylanthraquinone runs a deep yellow, nearly odorless, and avoids the harsh notes sometimes found with raw, poorly refined batches. HPLC analysis on every lot targets over 98.5% purity. Melting range remains tight—always above 163°C. Trace metals, which can catalyze unwanted side reactions and impact process control, are kept extremely low thanks to careful process streamlining and continuous cleanroom upgrades. We didn’t settle for just hitting an average spec: each parameter was fine-tuned after mill superintendents reported longstanding setbacks with imported substitutes. That feedback shaped both our daily routines and the choice of in-plant instrumentation. This is how we’re able to confidently promise a product that keeps up with even the toughest high-throughput lines.

    Performance and Impact in the Digester

    Mills working with kraft, soda, or semi-chemical pulping routes have turned to 2-amylanthraquinone for a reason—the efficiencies add up fast. Reduction of active alkali consumption, lower Kappa numbers at equal pulping times, and decreased residual chemical loads have all shown tangible, measured improvements after adoption. Process engineers often point to reduced foam, especially when comparing results to standard anthraquinone runs. Our own side-by-side digester studies—done in cooperation with longtime customers—demonstrated up to 15% savings in cooking chemicals for certain hardwood chips, with no drop in final fiber length or pulp viscosity. Lignin removal is steadier; the risk of under-cooked shives falls. Over years of collaboration, this material difference leads to more consistent, whiter sheets with less reject, smoother bleach plant operations, and—most important—lower total cost per ton of finished product.

    Working With Operators: Insights From The Shop Floor

    We know first-hand that chemical innovation means little if it isn’t compatible with day-to-day mill routines. Many pulping operators, especially those running older digesters or variable wood feedstocks, worry about fouling and buildup from additives. Through repeated trial runs and frequent customer visits, we’ve refined our filtration and granule sizing processes to address these exact pain points. Uniform, flowable powder ensures rapid solubilization in white liquor. Reduced dusting protects both operators and dosing equipment. On the floor, this means less cleaning, improved dosing accuracy, and fewer unscheduled maintenance stoppages. Our technical teams actively train mill staff and troubleshoot on location—because ensuring someone’s shift goes smoothly does more than any claim made on paper.

    Comparing to Other Products: Stronger Through Real-World Use

    It’s tempting to assume that switching from anthraquinone to 2-amylanthraquinone is just a sidegrade—cheaper or pricier by a few percent, but much the same in effect. Experience on the ground tells another story. Operators comment on lower off-gassing and less odor, with clearer vent condensates. Chemical purchasing staff often notice reduced waste through the supply chain, especially in humid climates where poorly finished anthraquinones tend to cake and clump. In large digesters running softwood, the slightly bulkier 2-amyl structure slows volatilization, leaving more active compound in solution throughout longer cooks. Environmental compliance officers mention fewer detectable byproducts, which lines up with our own GC-MS analyses tracing downstream effluent components. No need for excessive overshooting of feed rates to compensate for instability. Over years, this steady running creates a more predictable budget and fewer headaches during audit season.

    Testing, Transparency, and Continuous Improvement

    We don’t think of quality control as a back-office job. Anyone can run basic purity checks—what matters is proving reliability batch after batch, year after year, under differing process conditions. Independent labs audit our batches yearly, and our own in-house team double-checks every drum before it leaves our dock. We publish full traceability logs on request and have been transparent with every onsite mill visit. Suggestions from pulp engineers, operators, and environmental managers have shaped upgrades to our process parameters on three occasions in the past five years alone. Every change starts by digesting real feedback from the field; then, we fine-tune crystallization, drying, and packing lines until the outcome matches actual need—not just technical theory. Price, logistics, and contract terms matter, but reliability keeps the relationships going.

    Sustainability—Not Just a Buzzword, But a Practical Discipline

    Growing regulatory requirements and client expectations have focused more attention on process chemicals’ environmental profiles. Years back, some anthraquinone production relied on processes loaded with unwanted solvents, catalyst residues, and byproducts that required expensive treatment downstream. We saw this trend early and invested in closed-loop recovery and filtration systems that cut solvent losses and reduce energy waste. Water used in washing is reclaimed, and mother liquor circuits run cleaner than ever; secondary effluent volumes keep dropping year over year. Each contract pushes us to revisit ways to improve resource efficiency. Those savings translate directly to the client plant—lower residual load means easier compliance and fewer troubleshooting headaches after an environmental stack test. We’re always listening for operators’ pain points, because better process integration beats hollow sustainability slogans every time.

    Meeting Future Technical Demands in Pulp Processing

    The trend over the past decade has leaned toward higher-value fibers, wider wood species mix, and tighter controls on final pulp characteristics. Customers often ask about trialing our 2-amylanthraquinone with non-conventional feedstocks like agricultural residues or plantation hardwoods. Our process team actively partners with R&D lines, both in-house and at leading university labs, to track outcomes and optimize dosing protocols. The challenge isn’t just molecule purity; it’s ensuring performance holds up across all pulping environments, even with newer, cleaner digesters or unconventional wood chips. Synthetic steps are adjusted for newer batches so byproduct carryover doesn’t interfere with atypical raw materials. Results have been promising—greater flexibility for customers running mixed feedstock campaigns, without the guesswork of running costly large-scale pilot lines. We treat each custom test as a chance to push product capabilities without sacrificing core reliability.

    Logistics, Storage, and Service: Built for Operational Realities

    Pulp mills juggle dozens of inputs and face unpredictable production schedules. Delivering product isn’t just about the chemistry—it’s about aligning with those realities. We maintain buffer stock in climate-controlled warehouses and run our own logistics for key accounts, removing common excuses for delays caused by outsourced supply chains. Packaging keeps moisture out and stacking safe, reducing shelf loss and warehouse headaches. Field tech specialists ride along with shipments for first-time clients and provide hands-on startup support, because trouble-free onboarding pays dividends for both sides. Feedback on delivered batches—flaking, dust, or handling issues—goes straight to our improvement team. This constant loop between delivery, operations, and QC makes a world of difference when supply hiccups elsewhere cost mills real dollars.

    Continuous Learning—Lessons From Decades in the Field

    Nothing replaces time spent listening to plant superintendents and line operators. We have altered filtration pore sizes because a major mill’s pump strainers fouled with oversize particles. We retooled packaging after site technicians flagged static charge concerns transferring powder in dry season conditions. Every update and upgrade traces back to daily realities in the pulp house, not just numbers in a QC report. This iterative routine yields a product that performs where it counts: in the digester, not just in the lab. And as mills themselves keep changing—with new blends, tighter controls, and evolving compliance needs—we keep investing in our own people’s expertise. Engaged experts and focused troubleshooting keep trust strong on both sides of every delivery ticket.

    Product Safety and Worker Health on the Shop Floor

    As a manufacturer, worker safety sits at the core of our daily routine. Many forget that even a well-made chemical can pose handling risks without diligence at every step. Regular air monitoring, improved dust suppression, and ongoing PPE training support both our own teams and downstream client staff. Several years back, pushback from line workers about powder handling led us to redesign how we mill and pack the product, leading to safer, easier dosing systems and fewer accident reports logged. Our on-site support teams offer practical safety insights during every plant visit. These aren’t extras—they are part and parcel of delivering material that fits seamlessly into rigorous production standards.

    Real-World Economics—Value That Adds Up Across the Process

    Mill accountants and purchasing managers calculate ROI on each chemical order. Our job goes beyond quoting attractive prices or discussing spec sheets. We demonstrate real cost savings through detailed records of reduced alkali use, improved final yield, and smoother bleach line runs—measured across dozens of real mill campaigns. Process control teams send us monthly data—yield percentages, pulp brightness, reject rates, and off-spec incidents—that guide our improvement priorities. Consistent product performance makes it simpler to schedule campaigns, allocate labor, and manage inventories. That reliability, over time, beats chasing ‘bargain’ chemicals that risk shutdowns or compliance slips—a lesson proved many times in the field.

    Building True Partnerships—Beyond the Transaction

    Supplying 2-amylanthraquinone means more than filling orders; it’s about solving problems for customers sharing similar daily challenges. Pulp operations strike a balance between profitability, employee safety, environmental stewardship, and staying ahead of technical trends. Our ongoing commitment to transparent dialogue, prompt troubleshooting, and honest feedback keeps crucial lines of communication open. We invite ongoing plant visits and work side-by-side with customers to optimize routine and respond quickly to new demands. Years of hands-on practice in chemical manufacturing, paired with close attention to mill realities, help us deliver a product that isn’t just made in a reactor but proven in the field.

    Putting Decades of Experience to Work

    Strong relationships with pulp and paper plants worldwide have shaped our production, support, and continuous improvement strategy at every step. That experience shows up as timely, consistent delivery of 2-amylanthraquinone, tuned to intricate operational requirements, and backed by real technical support. Success doesn’t just come from hitting technical benchmarks; it comes from responding to actual needs, learning from setbacks, and keeping people at the heart of every process. Each batch carries that commitment, because a reliable partner means more than a filled drum—it means peace of mind on every shift.