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HS Code |
661231 |
| Iupac Name | 2-[2-Hydroxy-3-(2,4-xylylcarbamoyl)-1-naphthylazo]phenol |
| Cas Number | 53721-16-3 |
| Molecular Formula | C25H21N3O3 |
| Molecular Weight | 411.45 |
| Appearance | Orange to red powder |
| Melting Point | approx. 220°C |
| Solubility | Soluble in organic solvents like ethanol and acetone, poorly soluble in water |
| Absorption Maximum | Typically around 510-520 nm |
| Usage | Analytical reagent, dye intermediate |
| Storage Conditions | Store in a cool, dry, well-ventilated area away from direct sunlight |
As an accredited 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is supplied in a 25 g amber glass bottle, sealed with a red cap, featuring a hazard label and product details. |
| Shipping | The chemical 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol should be shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. It must be clearly labeled, accompanied by its Safety Data Sheet (SDS), and transported according to local and international regulations for hazardous or potentially hazardous chemicals. |
| Storage | Store **2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-naphthylazo]phenol** in a tightly sealed container, in a cool, dry, and well-ventilated area away from light, moisture, and incompatible substances such as strong oxidizing agents. Avoid heat sources and ignition. Clearly label the container and ensure restricted access to trained personnel. Use secondary containment to prevent spills or leaks. |
Applications of 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol in Industrial ManufacturingAs an established manufacturer, we specialize in the production and supply of 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol for a range of advanced industrial processes. Below, we detail practical downstream sectors where this specialty compound delivers specific functional value, elaborating on industry compliance, integration into manufacturing, recommended addition rates, and end-use product types. 1. High-Performance Metalworking Fluid ColorantsFormulators of metalworking fluids rely on precise colorant systems to distinguish fluid types and monitor additive depletion. In this application, our compound acts as a hallmark azo dye, valued for its intense, stable color and chemical resistance during high-shear, thermally demanding metal machining operations. Manufacturers incorporate this dye at controlled points in their process to achieve batch-to-batch identification, maintain visual QC standards, and support machine operator safety. Industry compliance standards
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2. Analytical Test Reagents for Metallurgical LaboratoriesIn the metallurgical laboratory sector, our material serves as a distinctive azo complexing agent, providing colorimetric changes during spot and titration testing for metal ion identification. Laboratories utilize precisely formulated blends containing this compound to achieve rapid, visible assessment of trace metals in alloy quality control, mining exploration, and wastewater monitoring, directly contributing to reproducible, accredited routine analyses. Industry compliance standards
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3. Specialty Pigments for Industrial CoatingsThis compound forms the chromophore core of certain high-durability industrial coating pigments, where it contributes not only deep color but also enhanced resistance to light, chemicals, and temperature. Coating producers depend on it for batches that require consistent shade stability during baking, UV-curing, and extended outdoor exposure, meeting the demands of protective finishes in automotive, appliance, and architectural metalwork production. Industry compliance standards
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4. Color Reference Standards for Certified Calibration ToolsManufacturers of certified color comparators and calibration tiles use this compound as a reference chromogen where stringent reproducibility and lot-traceable documentation are essential. Its spectral absorbance and photostability provide a trusted benchmark for spectrophotometer calibration, ensuring that industrial process instruments remain within regulatory tolerance for color-critical production lines such as consumer plastics and paints. Industry compliance standards
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5. Trace Dyes in Industrial Leak Detection FluidsSpecialized leak detection fluid producers incorporate this compound due to its vivid hue, rapid dispersibility, and detection by simple visual or photometric means. It enables quality assurance teams to pinpoint micro-leaks in process lines or liquid-handling equipment during commissioning or preventive maintenance. Industry compliance standards
Typical usage ratio
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Competitive 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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Working directly in the manufacturing of specialty azo compounds all these years offers a front-row seat to the constant evolution in chemical applications, especially in high-performance dyes and advanced pigment industries. Our experience with 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol, recognized by many as a highly consistent and purposedly engineered molecule, has shown its staying power as demand shifts toward products that handle advanced requirements in textiles, plastics, and colorants under ever-changing conditions.
This compound is all about controlled molecular architecture. Designed around a naphthylazo backbone attached to a xylylcarbamoyl group, its distinctive structure shapes not only its unique chromatic profile but also confers excellent fastness properties and compatibility. Unlike many alternatives on the market, performance here is grounded in chemical consistency, not just surface appearance. We spend years ironing out the synthesis, purification, and handling procedures, having seen firsthand how minor process variations can change shade, solubility, and light resistance.
Our typical production batches of 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol average assay values that go above 98% on a dry weight basis, with controlled residual moisture—strictly monitored every shift, every batch, because trace water and byproducts alter handling and shelf life. Chemists in downstream sectors share repeated feedback: tight purity windows translate to fewer surprises when incorporating into final blends, and onsite technical teams appreciate knowing exactly what arrives with each drum.
What sets this product apart, in our daily reality at the plant, is reproducibility. We deploy highly monitored recrystallization sequences, using proprietary solvent combinations, to chase out intractable side-products that have haunted legacy producers. The color index specification stands sharper batch-to-batch because of this continual refinement. Across analytical data, our routine spectrophotometry matches not just the required lambda maxima, but also achieves pronounced color saturation and fade resistance. We learned the hard way, on faded textile lots and disappointed compounders, how unforgiving the end market can be to even small deviations.
In the field, 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol gets called upon in specialty dye formulations—deep fiber coloring, masterbatch polymer colorants, and some niche cosmetics—where stability, depth, and brightness can carry more weight than broad cost-per-kilogram metrics. From talking with our partners in dye houses, we know the expectations: a hue that stands up to repeated washings and temperature spikes, granules that disperse evenly without leaving gritty residues, and chemical compatibility that prevents precipitation or instability in diverse matrices.
We see end-users working this molecule into complex blends, precisely because it resists photodegradation and maintains brilliance under harsh process conditions. It’s not a beginner’s pigment for simple applications. Customers with small-batch fabric lines, engineered polymer producers, and technical coatings specialists trust it because it withstands the optical and chemical scrutiny their products face. Our feedback loops with R&D groups—right at the interface between factory and development—allow us to nimbly adjust process parameters to fine-tune solubility curves or optimize particle size for better uptake and dispersion.
Having tested and compared a wide range of azo compounds through in-house QC and collaborative testing with trusted clients, differences between products often come down to micro-level details that are only noticeable in real application trials. Less refined batches, sometimes sourced from trading channels or secondary producers, may come at lower up-front expense but carry penalties in terms of purity, presence of tarry by-products, and batch inconsistency. We stay away from shortcuts, knowing that saving a fraction in crude separation usually creates headaches later—agglomeration, uneven dyeing, and unexpected off-hues that propagate throughout downstream processes.
Many competitive offerings lack the consistent batch signatures that result from systematic process monitoring. In the synthesis of 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol, side-products like over-condensed azo derivatives or incomplete coupling products can wreak havoc if even trace levels cross downstream. Unlike bulk commodity dyes, which tolerate greater impurity spreads, this molecule benefits from painstaking impurity control. Over years of scrutiny, we dialed in filtration, crystallization, and washing steps specifically for this product, sidestepping variations that typically show up as small differences in color intensity or fading seen after just a handful of cycles at end-use.
We back our claims with customer validation data, blind tests, and continuous feedback from development partners. High-purity batches mean reduced impurity build-up in expensive process equipment, less need for continuous tank cleaning, and lower risk of off-color complaints. Some alternatives, even those advertised as “technical grade,” tend to leave sludge or cause nozzle clogs during blending, both of which cost valuable production time in the real world. Our process doesn’t eliminate these headaches by magic; it’s the result of decades spent listening to coating applicators, fiber spinners, and pigment dispersers who rely on steady performance every day.
As manufacturers, we work inside an industry under increasing regulatory and stakeholder scrutiny for both environmental stewardship and operator safety. Throughout the production of this azo compound, we closely monitor each step to handle and minimize waste, VOCs, and residual solvent release. Adopting advanced recovery techniques that reclaim and reuse solvents gives us both economic and environmental edge. There’s no shortcut for maintaining paper-trail transparency—each batch carries complete documentation, not only because regulations demand it, but because our partners need the full picture on the materials they receive.
Testing across anticipated application environments is a non-negotiable part of our new batch validation. Exposure to ultraviolet light, harsh pH ranges, and thermal cycling goes beyond routine shelf-life assurance. We need to know how degradation products form, not just in storage but inside a customer’s process or during recycling. After extensive in-house and third-party analysis, our 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol samples report negligible heavy metal content, and meet or surpass most international limits on restricted aromatic amines.
We take part in ongoing dialogue with regulatory bodies and industrial consortia, sometimes serving as a pilot site for new compliance protocols. Each new adjustment—a tweak to water treatment flows, addition of closed-system handling for powders, or digital batch tracking—rolls out following field and in-house evaluation. Real accountability in manufacturing happens in each shift, each QA signoff, each filled drum.
Chemical manufacturing doesn’t end at the reactor or filter press. Running one of the few vertically integrated lines for this compound in the region, we control source raw materials, finished forms, and packaging. In today’s supply chain climate, that control matters more than ever—too many stories circle through the industry about interrupted supplies, variable lead times, or unexplained changes in material properties. When customers depend on us, the only acceptable answer is full batch traceability and clear production histories for every shipment.
From first raw input through final packaging, our teams perform multiple quality holds and inspections, including both automated checks and hands-on visual inspections. No shipment leaves until QA and logistics sign off on documentation, drum integrity, labeling, and final sampling. Downstream partners know the name and face behind each lot shipped and reach out directly when any anomaly arises. Reliability is as much about openness as it is about unbroken supply.
Customers tell us often that the greatest value from a manufacturer comes in those moments when things don’t go as planned—results that look different, measurements that drift. Years of open problem-solving mean our support doesn’t stop at dispatch; technical advice, rapid analysis, and substitution guidance are part of every long-term relationship we build. Complications are inevitable in chemical operations; how a partner responds separates those who see themselves as suppliers from those who commit as real manufacturing partners.
Through more than a decade of producing this molecule at scale, real progress emerges not from theoretical gains, but from repeated cycle improvements based on hands-on operator feedback and observations. Common challenges—control of particle size, prevention of moisture pickup, optimization of filtration—rarely get solved with one sweeping innovation. They take persistent tinkering, attention to every modification, and a willingness to reset protocols when a process drift creeps in.
Our operators flag filtration residues and viscosity changes before routine analysis detects them. Maintenance teams adapt equipment on the fly, installing new seals or modifying agitation profiles to adapt to changes in seasonal humidity or raw material lots. Continuous improvement takes place not in clean conference rooms but in noisy, sometimes uncomfortable production environments where muscle memory and training save batches and prevent costly reprocessing.
Every new analytical technique—adopted after months of side-by-side validation—feeds back into the mainline process. Only after repeated confirmation do new methods become standard, making every future lot more predictable. This attitude and workflow mean we can openly share technical know-how with advanced clients, offering more than just a spec sheet and hoping for the best.
Chemists, lab managers, and plant technicians often reach out for advice, especially for first-time integration of 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol into complex dye systems or polymer projects. Based on years of feedback and on-site trials, the following pointers come up repeatedly: keep product stored in tightly sealed containers, away from direct sunlight and moisture. Divide stock into manageable portions to avoid frequent exposure of the main supply. Always pre-test both small-scale and initial bulk trials to confirm expected dispersion and compatibility.
End-users in masterbatch production and textile dyeing often report best results after conducting pre-wetting and slow initial mixing to fully incorporate the powder and avoid “color shock” or residue buildup. Our technical service team regularly supports clients by reviewing application data, suggesting adjustments in process parameters, and troubleshooting any issues that arise from local water quality or mixing energy. Feedback from our partners builds into every batch iteration—real-world use isn’t just a data point, but a guide for ongoing improvement.
Protective equipment during handling remains a must for all fine powders. Proper extraction and workspace hygiene not only reduce worker exposure but safeguard against rare cross-contamination events that jeopardize batch consistency. Training operators in safe, repeatable procedures supports both people and process integrity.
Every year brings new requirements, expanded test protocols, and evolving customer expectations. We keep our focus trained on technical excellence, transparency, and support—not because it’s written in a mission statement, but because it defines how we sustain long-term partnerships. Companies choosing 2-[2-Hydroxy-3-(2,4-Xylylcarbamoyl)-1-Naphthylazo]Phenol from our line know they receive material born from hard-earned experience and relentless attention to detail, supported by a team ready to listen, adapt, and respond.
We see firsthand how shifting regulatory landscapes, raw material volatility, and rising end-use demands continue to reset the bar for specialty colorants and advanced pigment compounds. There’s no static endpoint; every improvement, every customer project, and every hiccup caught early feeds back into manufacturing. Feedback from real chemists, operators, and industries around the world keeps our process moving and pushes us forward.
Crafting a product for high-performance, long-life applications starts and ends at the source—with persistent manufacturing discipline fueled by a culture of technical problem-solving and shared accountability. Our commitment holds through each lot, every delivery, and at every point where our material meets a new challenge in the real world.