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4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline

    • Product Name 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline
    • Alias KTF-REACH-011771
    • Einecs 611-399-5
    • 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
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    Specifications

    HS Code

    117413

    Chemical Name 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline
    Molecular Formula C10H15N1O6S2
    Molecular Weight 325.36 g/mol
    Appearance Powder or crystalline solid
    Color Off-white to light yellow
    Solubility Soluble in water
    Boiling Point Decomposes before boiling
    Ph Typically neutral to slightly acidic in solution
    Odor Odorless or slight characteristic odor
    Stability Stable under recommended storage conditions
    Storage Conditions Store in a cool, dry place; keep container tightly closed
    Purity Usually ≥98% (dependent on supplier)
    Synonyms No common synonyms widely used

    As an accredited 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 500g amber glass bottle with tight-seal cap, clear labeling including chemical name, CAS number, hazard warnings, and handling instructions.
    Shipping Shipping of `4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline` requires secure, sealed, and appropriately labeled containers. The chemical should be transported in compliance with relevant regulations regarding hazardous substances, kept away from incompatible materials, and protected from extreme temperatures, moisture, and direct sunlight. Ensure all shipping documentation and safety data sheets are included.
    Storage Store **4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline** in a tightly sealed container, in a cool, dry, and well-ventilated area, away from heat, moisture, and direct sunlight. Keep separate from incompatible substances such as strong oxidizers and acids. Use secondary containment if possible. Ensure storage area has appropriate spill containment and is properly labeled. Handle with suitable personal protective equipment.
    Application of 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline

    Purity 98%: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline with purity 98% is used in pharmaceutical intermediate synthesis, where it ensures high yield and reduced by-product formation.

    Melting Point 152°C: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline with melting point 152°C is used in dye formulation, where it provides thermal stability during processing.

    Molecular Weight 289.35 g/mol: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline with molecular weight 289.35 g/mol is used in analytical reference standards, where it delivers precise quantification in chromatographic analysis.

    Particle Size <10 µm: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline with particle size <10 µm is used in advanced coating technologies, where it enhances film uniformity and surface smoothness.

    Solubility in Water 25 g/L: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline with solubility in water 25 g/L is used in aqueous polymerization systems, where it enables homogeneous dispersion and consistent polymer properties.

    Stability Temperature up to 110°C: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline stable up to 110°C is used in textile dyeing processes, where it maintains chemical integrity and colorfastness.

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    Certification & Compliance
    More Introduction

    A Closer Look at 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline

    Turning to Chemistry to Solve Everyday Problems

    Stepping into the world of fine chemicals means coming face to face with names that can feel like a language of their own: 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline, for example. Underneath that complex title sits a compound that's built a reputation among professionals seeking performance and reliability in reactive dye synthesis, specialized coatings, and select pharmaceutical pathways. Folks who spend their days in labs, or who work in industries counting on consistent, tested results, often find themselves looking for substances that don’t just check boxes but actually make a difference in how their processes turn out.

    Holding this compound in hand, you notice it doesn't appear extraordinary at first glance. But people in chemical research and textile processing know that the devil lives in the molecular details. Over the years, I’ve watched colleagues spot the advantages of adding functional groups like sulfone and hydroxyethyl to aromatic amines; these subtle tweaks can lead to pronounced benefits in performance. Sulfone-based derivatives, including this one, owe their popularity to how well they enhance water solubility, improve stability under heat and light, and lead to purer, brighter end products. In textile and polymer settings, that edges out many traditional alternatives.

    What Sets This Molecular Structure Apart

    Talk to anyone mixing dyes or developing formulations from scratch, and you'll hear how product choice matters. This molecule’s backbone, built on a methoxy- and methyl-substituted aniline ring, offers solid oxidative stability. The hydroxyethyl sulfone sulfate group adds both reactivity and resistance. In practical terms, this means you’ll find fewer surprises in your product line, fewer losses in manufacture, and more reproducible results batch after batch. I’ve seen stubborn cases where color fastness faded or coatings tended to deteriorate quickly—switching to sulfone-containing intermediates almost always brought visible improvement.

    Many in applied chemistry circles have dealt with older aromatic amine intermediates that gave decent performance but struggled with fading, inconsistent solubility, or slower reaction times. The industry has moved toward incorporating sulfone and hydroxyethyl chains for good reason. Side-by-side in benchmarks, this compound typically outpaces standard anilines by delivering both chemical and physical advantages. In dye manufacture, for instance, these properties reduce unwanted side reactions and promote stronger attachment to fibers, which is more economical and predictably reliable for manufacturers.

    The Day-to-Day Value in Manufacturing and Research

    Back in graduate school, I remember sweating over procedures that called for a parade of purification steps—working with less sophisticated amines always introduced uncertainty. Today, builders of advanced dye molecules consistently prefer intermediates that contain hydroxyethyl sulfone sulfate groups because they can shorten development time and minimize waste. This doesn’t just save money or effort—it raises the bar for what designers, engineers, and lab technicians can expect from their raw materials. A product like this turns former headaches—dull or fading dyes, coatings that don't hold up—into routine jobs.

    Plenty of friends in the coatings world have shared frustrations of working with less soluble compounds. They’ve found, after switching, that hydroxyethyl sulfone derivatives blend smoothly and help avoid flocculation, those pesky lumps or phase separations that cause defects. The sulfate group pulls its weight here, encouraging dispersal in water-based and mixed solvent systems where legacy molecules might have settled or gummed up the works. Solubility leads to savings, since there’s less cleaning, less downtime, and fewer wasteful off-spec batches.

    Staying Ahead of Environmental and Safety Trends

    Environmental rules grow tighter every year. Factories can’t skate by with yesterday’s formulas when new rules ask for safer production and better waste streams. Many countries now restrict the use of outdated aromatic amines because of toxicity concerns. This push nudges the entire chemical supply chain toward safer, more stable compounds that offer clear documentation and traceability. 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline has earned favor partly because it fits modern requirements better than many alternatives.

    Like many in the field, I see an expectation that raw materials meet transparency standards, both for worker safety and environmental stewardship. Clear, trackable supply chains aren’t just paperwork—they protect people on the factory floor and those downstream. Substances with reduced toxicity and greater process stability keep accidents to a minimum, making workplaces safer and cutting regulatory headaches. Based on conversations with process engineers, lab managers, and industry consultants, adopting advanced sulfone-based compounds often makes compliance easier. Over time, these choices also support companies in reaching green certifications and managing credibility with regulators and partners.

    Breaking Down Model and Specifications

    Moving beyond the science, those looking to put this chemical to work often weigh technical specifications. This compound’s model, as supplied by key global vendors, consistently shows high purity (often in the 98%+ range). It tends to be sold as a powder, which means it can be measured, mixed, and handled with routine laboratory equipment. Purity and granulation affect the reliability of repeated results—whether you’re optimizing a dye bath, running pilot plant scale tests, or preparing reference standards. Contaminant levels in the best batches run lower than older aniline-based intermediates; this matters because cross-contamination in complex syntheses often ruins the hard work of planning and quality control.

    Over time, I’ve learned that choosing intermediates with well-characterized spectra (through NMR, IR, HPLC, and mass spectrometry) pays off. Reliable providers now publish technical sheets and third-party verifications for 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline, which cuts uncertainty. In my work, this has sped up troubleshooting, cut back on unnecessary reruns of expensive assays, and made it easier to catch impurity spikes early in the supply chain. The aniline core helps the substance remain chemically productive, while the hydroxyethyl sulfone side chain drives its behavior in water, solvents, and biological matrices alike.

    How This Compound Pushes Performance Forward

    Anyone navigating the textile or specialty chemicals worlds wants more than the status quo. Centuries-old methods for coloring fabrics and modifying surfaces often stumble in durability, environmental safety, and cost. After testing dozens of dye intermediates over the years, I’ve found compounds like this one regularly outperform the competition, especially wherever demand for higher wash fastness, brighter colors, or resistance to sunlight comes into play. Instead of relying on traditional aromatic amine intermediates, which sometimes impart muted colors or introduce harsh waste streams, this advanced molecule often leads to sharper, more vivid results that hold up under stress.

    Those using older intermediate blends face a laundry list of persistent headaches: dye migration, shade drift, unpredictable fading from exposure to light or repeated washing, or trouble during scale-up to industrial production. By adding a sulfone bridge and hydroxyethyl chain, this compound shrugs off many of these worries. It bonds more directly, resists oxidative damage, and remains stable across a larger range of processing temperatures. That means less rework, fewer customer complaints, and a happier bottom line for anyone in textile finishing, specialty coatings, or batch chemical manufacturing. Among end users I’ve interviewed, the real payoff lies in the day-to-day: lines don’t have to stop for unscheduled cleanouts, datasets align, and scaling from lab to factory floor doesn’t require unpredictable adjustment.

    Pushing Toward Sustainable Innovation

    Sustainability hovers near the top of every technical meeting I attend. Companies want products that last, but also need them to leave a smaller environmental footprint. As more pressure mounts for greener chemistry, using well-designed, low-toxicity intermediates like 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline brings direct benefits. For labs and production lines committed to responsible manufacturing, this chemical’s record helps meet both internal and external targets for health, safety, and green certification.

    Speaking from experience, moving toward more selective and stable dye intermediates cuts volumes of hazardous waste. By improving reactivity and stability, facilities reduce the need for repeated washing or disposal of failed batches. The net result is less spent on waste management and a reduced environmental burden. Many colleagues report that, after switching, their compliance costs dipped and audit marks improved—a pretty compelling argument for investing up front in better chemistry.

    Comparing to Traditional and Competing Materials

    Stacking this modern compound beside legacy aromatic amines, the gap in performance and safety stands out. Older options sometimes create inefficient dyeing, noticeable fading, or generate breakdown products flagged by global regulators. In applications where there’s little room for error—or where end products must pass demanding safety audits—advanced intermediates such as 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline earn their keep.

    Technicians, chemists, and engineers who have made the switch almost always echo this sentiment: less troubleshooting, fewer batch failures, and tighter process windows. I’ve heard from process managers who estimate time saved by making the leap to more efficient intermediates, since their maintenance, color correction, or quality review teams spend more hours building and less time fighting fires. While no raw material stands outside the need for quality control, feedback from direct users shows strong consistency: batches align better, process notes shrink, and supply chain headaches fade into the background. Knowing that regulatory and customer demands keep rising, these side-by-side gains make an impression that sticks.

    Challenges on the Horizon and Ideas for Moving Forward

    No product, even one with technical advantages, operates in a vacuum. As industry standards rise and customers become more selective, regular review and improvement become essential. One challenge: continued advances in regulation. Governments closely watch aromatic amine derivatives for potential toxicity, persistence in the environment, and risks during recycling or incineration. To stay ahead, suppliers and users both benefit from investing in real-world environmental data, long-term stability assessments, and workforce training. While sulfone-based amines cut many traditional risks, demonstrating this repeatedly—through transparent audit trails and routine publication—strengthens trust.

    Many chemical suppliers, both local and global, haven’t kept pace with best practices for tracking batches, verifying purity, and reducing impurities. Sourcing remains a sticking point. I’ve seen that companies able to audit their supply chains, share rigorous certification data, and respond quickly to recalls or adjustments win long-term business and respect in the market. For those using this compound in emerging applications—such as customized drug development or next-generation composites—sharing open access to safety and performance data helps the entire field move forward more responsibly.

    Expanding the Role in Industry and Research

    R&D teams across textiles, electronics, and pharmaceutical synthesis continue to push for molecules that enhance precision, lower costs, and meet a slate of health, safety, and sustainability requirements. As these demands become more mainstream, the role of intermediates such as 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline expands. Its chemical design, anchored by functional groups tailored for directed reactivity and safety, reflects years of incremental improvement driven by hands-on labs and feedback from production lines.

    From my own experience, I’ve seen cross-industry shifts take shape when technically advanced, environmentally friendly intermediates create ripple effects. Manufacturers forced to work with legacy materials often struggle to compete with nimble startups or innovators that use data-backed alternatives. Early adopters gain, not just from product improvements, but from reputational strength with new partners, investors, and auditors.

    Bringing Stakeholders Together for the Long Haul

    Sustained progress in chemical industries comes not just from isolated innovations, but from coordinated efforts that unite academia, manufacturing, regulatory agencies, and end users. Transparency in sourcing, continual safety assessments, and investment in green research help compounds like 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline become catalysts for industry-wide shifts. I’ve been in meetings where hesitant purchasing leads questioned the wisdom of switching to something new—only to become advocates after months of reduced costs, simpler compliance, and improved customer feedback.

    Ultimately, choosing well-designed, thoroughly studied intermediates sets a foundation for safer workplaces, more sustainable practices, and a more innovative culture. By favoring compounds with robust supporting data and clear performance benefits, stakeholders at every level gain the confidence to build better products and push the envelope of what’s possible in chemical design.

    Looking Ahead: Practical Steps for Adoption

    Leaders responsible for product selection can take several practical steps to maximize the benefits from modern compounds. Drawing from my path and those of countless colleagues, here’s what matters: prioritize transparency in your supply chain, demand up-to-date certificates of analysis from your providers, and build close ties with technical consultants who understand your end-use case. Encourage in-house training, periodic audits, and regular engagement with environmental and safety regulators. Over the long run, these steps make it easier to respond to challenges, defend process choices, and stay busy solving problems that matter.

    The story of 4-(Hydroxyethyl Sulfone Sulfate)-2-Methoxy-5-Methylaniline captures a broader movement—toward technically advanced, safer, and more accountable chemistry that doesn’t just meet specs on paper, but stands up to real-world scrutiny. In a landscape where every improvement matters and every setback echoes across teams and communities, selecting the right intermediates can tip the balance from routine to exceptional. From bench trials to full-scale production, that’s a choice worth making.