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HS Code |
203990 |
| Chemicalname | 2-Methyl Anthraquinone |
| Casnumber | 84-54-8 |
| Molecularformula | C15H10O2 |
| Molecularweight | 222.24 g/mol |
| Appearance | Yellow crystalline powder |
| Meltingpoint | 162-164°C |
| Boilingpoint | 389°C |
| Solubility | Insoluble in water, soluble in organic solvents |
| Density | 1.29 g/cm³ |
| Purity | Typically >98% |
| Synonyms | 2-Methylanthracene-9,10-dione |
| Odor | Odorless |
| Storagetemperature | Store at room temperature |
| Refractiveindex | 1.696 |
As an accredited 2-Methyl Anthraquinone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Methyl Anthraquinone is packaged in a sealed 500g amber glass bottle with a secure screw cap and hazard labeling. |
| Shipping | 2-Methyl Anthraquinone is shipped in tightly sealed, labeled containers to prevent moisture and contamination. It should be stored in a cool, dry, well-ventilated area away from incompatible substances. During transport, handle with care, following appropriate regulations for chemical shipping to ensure safety and prevent environmental release. |
| Storage | 2-Methyl Anthraquinone should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and sources of ignition. Keep the container tightly closed and properly labeled. Store away from strong oxidizing agents and incompatible materials. Use corrosion-resistant containers, and ensure storage areas are equipped with measures for spill containment and easy access to emergency equipment. |
Applications of 2-Methyl Anthraquinone in Industrial ManufacturingAs a direct manufacturer specializing in fine chemical intermediates, we supply 2-Methyl Anthraquinone (2-MAQ) in industrial-grade specifications for diverse application sectors. Below, real application pathways are detailed with focused compliance standards, formulation ratios, processing stages, and end product types to assist technical teams in project and procurement decisions. 1. Hydrogen Peroxide Production (Anthraquinone Process)2-Methyl Anthraquinone serves as a primary working quinone in the anthraquinone auto-oxidation process to manufacture hydrogen peroxide on a commercial scale. Its physicochemical properties ensure high selectivity and yield, supporting the cyclical redox operation pivotal for continuous peroxide synthesis. Selection and loading are tailored to balance hydrogenation efficiency against solvent compatibility and catalyst lifetime. Downstream operators integrate our material in specialized reaction systems demanding rigorous process monitoring and compliance with environmental and product safety standards. Industry compliance standards
Typical usage ratio
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Final product types
2. Dye and Pigment Intermediate ManufacturingThis raw material is valued as a critical building block for high-performance disperse and vat dyes, specifically enhancing color fastness, resistance to photodegradation, and compatibility with synthetic fibers. Its methyl substitution pattern introduces stability for downstream azo coupling and sulfonation reactions. Operators persistently monitor for residual intermediates to meet textile application safety benchmarks and product coloration criteria. Material input is traced through closed-loop batch synthesis or continuous dye manufacture lines. Industry compliance standards
Typical usage ratio
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3. Pulp and Paper Industry (Pulping Catalyst)Within the alkaline pulping industry, 2-Methyl Anthraquinone acts as a highly effective delignification accelerator, added to kraft and soda pulping processes to boost fiber yield, reduce kappa number, and lower rejects. The precise dosage is determined by wood species, chip size, and desired final pulp characteristics. Downstream systems incorporate material dosing devices linked to digester input circuits, and compliance focuses on paper chemical purity, product traceability, and environmental emission norms. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Organic Synthesis for Pharma Intermediate ProductionChemical synthesis plants employ this compound as a core intermediate for advanced functionalization steps in pharmaceutical manufacturing. Selectivity of its methyl-anthraquinone scaffold supports generation of anti-tumor and anti-parasitic agent precursors, with stringent documentation to align with cGMP and multi-stage reaction tracing. Batch traceability, impurity profiles and isolation steps all undergo oversight to meet validated pharmaceutical route requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
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5. Specialty Agrochemical Intermediate Synthesis2-Methyl Anthraquinone is utilized in the production of advanced agrochemical actives, where the methylated backbone provides a platform for targeted substitution and functionalization. Downstream manufacturers use it for ring-integration and acylation in process-controlled vessels. The application focuses on formulation safety in line with agricultural regulatory regimes, and every batch undergoes pesticide precursor risk assessment and trace impurity screening before onward synthesis. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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At our facilities, producing 2-Methyl Anthraquinone means more than following a formula. There are practical challenges and demands that push each of us on the shop floor, in the lab, and along the supply lines to do better with every order. We know this chemical has built its value by delivering reliability, especially for industries counting on consistent purity and physical form. Plenty of talk gets tossed around about technical grades or appearance, but those who shake hands with the actual material understand it comes down to process control and deep respect for where, why, and how the chemical will serve.
We manufacture what our documentation lists as the “2-MAQ” model of 2-Methyl Anthraquinone, using a closed-system approach to minimize environmental variables and human error. Many processes in the market stick with open-batch methods that can leave too much to chance—moisture swings, contamination, inconsistent reduction. We moved away from those years ago after seeing the impact on downstream yields and sudden out-of-spec shipments. Closed-system production delivers a finer, flaky crystalline powder with a characteristic pale yellow color. Depending on the time of year and shipment routes, we adjust cooling and screening conditions to reduce caking and clump formation, as some plants using fluidization notice immediate changes in filtration schedules with clumped feeds.
Our typical purity sits easily above 98 percent by HPLC, with only trace by-products. We track the methylanthraquinone isomer distribution carefully, since excess 1-methyl forms, which sometimes come through from uncontrolled isomerization, disrupt the material’s effectiveness. The melting point tests land reliably around 180-184°C, but those numbers only tell a small piece of the story. Customers sometimes ask why these few percent matter. Running a continuous operation, especially in applications like papermaking or dye synthesis, even tiny shifts in purity cause foam, fouling, filter press overload, or downtime events. Less clean material means wasted time—everyone feels that cost somewhere.
In the papermaking industry, 2-Methyl Anthraquinone helps fiber pulping. We supply to mills that run alkaline and neutral sulphite processes, using this compound to speed up lignin removal and improve fiber separation. With prices for fiber and chemicals always shifting, the efficiency boost from high-purity 2-MAQ lets mills squeeze out better yields and cut steam or caustic loads. We’ve tested alternative anthraquinones and newer organic relays, but few deliver the stability under harsh pH and temperature, or the same selectivity during delignification. Once you drop lower-purity or impure material into the line, foam starts showing up, heat exchangers pick up scale, and fiber recovery drops.
In dye and colorant work, where bright, consistent shades carry value into textiles, leather, or plastics, our 2-MAQ offers a reliable intermediate. Technicians crafting quinizarin or anthraquinone-violet rely on isomeric stability, as off-isomers impact final color fastness and wash resistance. Years working with coloring plants taught us how unpredictable reaction kettle residue gets when the feedstock varies. There’s always someone trying to save a penny and swap in a cheaper or untested batch—results only reinforce that high, stable purity pays for itself through fewer stoppages, washes, and rework.
Recently we’ve seen new demand bubbling up from specialty segments—photographic chemicals, catalyst promoters, pesticides, and solar cell manufacturers. Here the focus lands on trace impurity control, especially with metals and halides, where regulatory requirements tighten each year. Having in-house analytical tools lets us report down to single-digit ppm for iron, copper, and other usual suspects. Experience says that without this focus, even a well-built chemical won’t make the grade against the new benchmarks for technical performance and environmental compliance.
Competitors in the global market source intermediates anywhere costs run lowest. They often rely on outside contractors for each manufacturing stage. We watch closely as customer complaints surface—unexpected color, odd odors, hidden water content. Our process brings raw materials and final packaging under one roof, with quality checkpoints at each step. This degree of control keeps batch variations to a minimum. We also keep historical sample libraries to track lot performance over time, so if a downstream process flags an issue, we pull reference data and troubleshoot fast.
Some companies tout higher technical grades, but we see the full cycle. Products labeled “technical” or “industrial” regularly fail spot tests because quality systems break down at suppliers who don’t use enough inline monitoring. For us, investment in modern chromatographic testing, cleanroom-scale packaging, and digital batch tracking means less troubleshooting for customers, not more paperwork for us. Our machine operators know the material as well as our QC chemists—any sign of contamination or unexpected crystal size prompts immediate review and sometimes quarantine, even before analytical results arrive. You don’t maintain a customer base these many years by chasing volume over dependability.
Shifting regulatory landscapes and tighter end-user specifications have nudged us to keep improving. Years back, high humidity sometimes left micro-caking in finished lots. Even a small damp patch in a transport drum kicked off questions from long-time customers. To address this, we overhauled drying and anti-caking steps. This wasn’t about ticking a box for food or pharma standards—it was about listening to customers who’d faced repeated filter media blinding in continuous lines due to subtle changes in physical characteristics. True consistency grows out of day-to-day observation and fine-tuning, not just meeting a number on a certificate.
Shipping and storage remain parts of the journey where many quality programs falter. Our standard packaging uses laminated moisture barriers, but we also work with clients to adapt to their unique warehousing and handling environments. Tropical storage in coastal areas versus dry, temperate layouts in northern regions demand different moisture control—and that means not only adjusting desiccant loads, but also batch inventory rotation and customer training. We don’t dodge these questions with technical jargon; we invite site visits, share sample retention reports, and sometimes redesign the transport protocol altogether after field experience points out a better way.
Plenty of alternative anthraquinones and synthetic analogs exist; each offers pros and cons. Classic anthraquinone often costs less in bulk, but performance in pulping drops off when pushing for cleaner, more energy-efficient operations. Derived catalysts and more oxidized variants have their niche. Sometimes these suit firms focused only on preliminary colorant synthesis or lower-volume specialty chemicals. Inside busy plants processing tons of raw fiber or running long dye campaigns, every side-stream and byproduct stacks up, forcing cleanup, disposal, and new batch scheduling. Substitution brings its own headaches—filter efficiency, side-reaction risks, fouling rates, and end-of-pipe compliance.
We’ve run comparison trials with 1-methyl anthraquinone and several halogenated analogs in both lab settings and pilot lines. In nearly every metric—handling safety, air sampling for off-gassing, end-of-week residue checks—2-MAQ’s stability and simple physical behavior win out. Customers switching away due to price swings quickly come back after facing complaints about product off-odors and failed batch release. It doesn’t take long for careful users to realize that higher spec means real-world savings—not just in the chemical cost, but in operational reliability.
Biobased alternatives continue to receive research interest, especially as industries push for greener chemistry. Our own R&D team has tested lignin-derived and biogenic anthraquinones. So far, shelf life and batch variations pose challenges; end-users still request conventional 2-Methyl Anthraquinone for critical path processes. We stay in close communication with university groups and pilot developers because the future of manufacturing always evolves, but so far, traditional synthesis routes keep the edge on dependability and transparency in impurity profiles.
Making chemical manufacturing work at scale is about details. Our operators don’t rely on paperwork alone—color, crystalline size, even odor signal if something veers off course, often before a machine flags an issue. QC teams and production operators share feedback loops with sales and service teams. News of an upset schedule, unplanned shutdown, or a positive run feeds right back into daily briefings. We encourage line workers to bring even small deviations up for review, which gives us a leg up in batch-to-batch uniformity. This isn’t a matter of preference; it safeguards both our partners’ operations and our own reputation with regulators and customers.
We maintain detailed records of each batch, including environmental readings, equipment calibration checks, and even operator notes about weather extremes that sometimes impact starting material quality. Our investment in process automation and real-time analytics doesn’t replace hands-on experience; rather, it backs up intuition with hard data. These systems became especially important as our customer base grew to include industries outside papermaking—each use case brings its own quirks, but the lessons from one area guide us when challenges crop up in others. Avoiding breakdowns and ensuring consistency isn’t theory here; it’s learned from direct contact with both successes and failures over years in the field.
Supply disruptions and global political factors remain ever-present threats. We handle raw material logistics with a blend of contract farming for feedstock and trusted chemical suppliers, bypassing short-term market spikes that hurt smaller operators. This protects both us and our customers from quality surprises and delays forced by unreliable third parties. We learned during past disruptions—whether port delays, export restrictions, or transportation accidents—that building a chemical from the ground up gives us flexibility to keep shipments flowing when the unexpected happens.
2-Methyl Anthraquinone as a compound has faced regulatory scrutiny like many industrial organics used widely in manufacturing. Years ago, there was growing pressure to reduce persistent organics and effluent loads from chemical plants. We responded not by cutting corners or using untested alternatives, but by tightening internal recovery, emission capture, and effluent treatment. In practical terms, this meant new investments in solvent reclamation, off-gas scrubbers, and on-site wastewater purification—resulting in cleaner operations and minimized regulatory conflicts. Regulators come for site checks regularly; we welcome these visits as they help maintain focus and keep us competitive for customers who now face the same audit pressures at their own sites.
Customers today ask about everything from the full supply chain to end-of-life disposal. Our open-book approach on raw material sourcing, waste minimization, and closed-loop handling gets positive feedback from partners who also must prove transparency in their finished products. Some customers in highly regulated sectors require full dossiers traceable to each batch, including impurity reports and environmental safety data. We built this traceability not for marketing copy, but because our customers live with strict reporting demands—and seeing how clean data streamlines both audits and market access makes the effort worthwhile.
Production around the world often lags in wastewater and atmospheric emission handling. By taking a harder line on solvent use and waste management since the early 2010s, we delivered a knock-on benefit—reducing community impact and operational headaches alike. Tight control on waste makes plant maintenance simpler, reduces insurance stress, and demonstrates to authorities and local communities that chemical manufacturing need not pollute to remain profitable.
Nobody wins by treating chemicals as simple commodities. With 2-Methyl Anthraquinone, we’ve seen too many cases where end users buy unseen, hoping for “good enough,” only to spend more cleaning equipment, scrapping off-color product, or rebooting entire shifts because of an off-spec shipment. The cost of doing things right—in raw material, quality control, and people—is obvious to us and, with time, becomes obvious to those customers who try other vendors seeking a quick deal. Stability, trust, and technical backup create value far beyond what appears on the invoice. We stand by this approach because it’s proven itself through tight seasons and in periods of booming demand.
Long-term partnerships with both suppliers and customers bring insight money can’t buy. Fielding tech support calls late at night or troubleshooting a customer’s processing challenge builds more than business—it creates resilience and breeds shared problem-solving. Our internal data shows that most improvements in either process or product result from active feedback, not management edict. Practitioners using 2-Methyl Anthraquinone daily supply the best ideas for improvement, and we devote resources to piloting and adopting those suggestions.
Outside opinions sometimes claim chemicals are “mature” segments with little room for betterment. We see every new customer specification, process upfit, or regulatory change as a chance to revisit plant practices with fresh eyes. Nearly every major advance in batch consistency, impurity reduction, or shipping protection tracked back to a partner raising a pointed question or a new regulation setting a tighter bar. Real progress comes by listening as much as from innovating.
Rising energy costs, environmental expectations, and customer demands for transparency force constant improvement. We’ve dealt with fluctuating natural gas inputs and seek ways to integrate recovered heat and renewable sources into the process line. Each efficiency gain, from improved distillation column insulation to closed-loop water circuits, brings value at the plant and credibility in the market. Attempts to cut corners or outsource critical process steps show up in the final product—customers notice faster than most sellers realize.
Digital transformation brings both opportunities and headaches. New process control software and lab automation reduce some human error, but require ongoing retraining and troubleshooting. Merging these tools with operator intuition keeps us on top of both legacy and next-generation production needs. The best equipment will fail without people who understand the subtle signals chemistry gives off during day-to-day operation.
Looking at the road ahead, we see potential for new demand in novel electronics applications, energy storage, and cleaner processing chemistries. Some segments will demand even higher purities and tighter control on trace metals or halogens. Others will focus on documented supply chain sustainability. Our approach stays the same: control what we can, trace what we can’t, and stay honest about real-world performance and risks. Customers bring new challenges; we meet them by keeping every nerve with the actual manufacturing process, not distant paperwork or marketing.
Traders, brokers, and sales agents may memorize certificates, but living with 2-Methyl Anthraquinone day in and day out gives us a unique vantage. Each production run links the experience of our people, historical data, technical skill, and hands-on troubleshooting. We’re not interested in generic praise or promises. Our value comes from practical results—materials that work as expected, every time, across changing regulatory climates and evolving user needs. When a process needs adapting, we don’t spin stories or blame partners; we trace issues, work openly with users, and iterate for better performance. This keeps both our honor and our partners’ businesses on strong footing.
Years of direct engagement with users—across pulp mills, dye vats, R&D labs, and specialty chemical plants—taught us that 2-Methyl Anthraquinone’s true worth reveals itself in problem prevention, not promises. Our manufacturing ethic grew shaped by these lessons. Every day, we put that ethic to work in delivering not just a compound, but a partnership built on respect for details, transparency in quality, and shoulders that carry responsibility all the way from raw input to finished product. That’s what makes us a manufacturer worth knowing.