|
HS Code |
130577 |
| Cas Number | 600-23-7 |
| Molecular Formula | C7H8N2O3 |
| Molecular Weight | 168.15 g/mol |
| Appearance | Yellow to orange crystalline powder |
| Melting Point | 131-135°C |
| Solubility In Water | Slightly soluble |
| Purity | Typically >98% |
| Synonyms | 2-Amino-6-nitro-4-methylphenol |
| Iupac Name | 2-amino-6-nitro-4-methylphenol |
As an accredited 2-Amino-6-Nitro-P-Cresol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Opaque amber glass bottle containing 100 grams of 2-Amino-6-Nitro-P-Cresol, tightly sealed with a tamper-evident screw cap. |
| Shipping | 2-Amino-6-Nitro-P-Cresol is shipped in tightly sealed, chemical-resistant containers to prevent leakage or contamination. It should be transported in accordance with local and international regulations for hazardous materials, stored away from incompatible substances, and handled by trained personnel using appropriate protective equipment to ensure safety during transit. |
| Storage | 2-Amino-6-Nitro-P-Cresol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep it separate from oxidizing agents, strong acids, and bases. Ensure proper labeling and avoid storage near incompatible materials to prevent hazardous reactions. Handle with care using appropriate safety precautions. |
Competitive 2-Amino-6-Nitro-P-Cresol prices that fit your budget—flexible terms and customized quotes for every order.
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In industrial chemistry, some molecules stand out for their stability and utility, and 2-Amino-6-Nitro-P-Cresol is one that many in the dyes and pigments industry have come to know well. At our facility, long production runs and high-quality control standards have shaped how we approach this compound. We don’t talk about this product as a niche specialty—manufacturers like us know it’s a key building block for a range of organic syntheses, especially in vibrant colorants for textile and leather applications.
Years ago, 2-Amino-6-Nitro-P-Cresol seemed like just another intermediate, but repeated feedback from end-users and regular process optimization changed our perspective. In our experience, the right manufacturing conditions impact purity just as much as the raw materials. We use well-calibrated reactors and controlled temperature profiles, yielding a consistent product that melts around 148–150°C. That stability is important, as batches showing out-of-range melting points or color impurities are flagged for investigation—not sent on to the next stage of use. Workers monitor reaction by-products because even slight contamination can alter the performance down the supply chain, especially for sensitive dye recipes.
Physical appearance matters a lot in this context. High-quality 2-Amino-6-Nitro-P-Cresol forms as a yellowish to yellow-brown crystalline powder, not the clumpy, off-color masses some formulations produce if short-cuts are taken. We use closed filtration systems and moisture monitoring at the drying stage, aiming for a low water content that ensures downstream blending does not introduce variability. Many customers in the dye industry test our lots before blending—making it obvious that overlooked moisture or a poor batch could halt production on their end. Over countless shifts, our operators understand how small issues in crystallization or drying can ripple outward.
In garment dyeing or leather treatments, companies rarely take risks with intermediates. One poorly characterized batch of something like 2-Amino-6-Nitro-P-Cresol may ruin a much higher value batch of dye. Factory visits confirm producers value our tighter particle size distribution and lower content of residual solvents. Instead of quoting standard grades, we ship material with a certificate listing specific spectroscopic signatures and impurity profiles. That lets chemists in the next step of production fine-tune their own purification routines—or skip extra steps when they trust our controls.
What separates this compound from similar aromatic nitro derivatives comes down to substitution pattern and resulting reactivity. The amino group at the 2-position and nitro group at the 6-position offer specific reactivity that helps in forming diverse azo dyes. During diazotization and coupling steps, this configuration guides reactivity, reducing formation of unwanted side-products. People running dye synthesis lines report better final hues and less fading in tests, especially compared to starting from non-isomeric material or less pure substitutes. We track these reports closely, looking for new process tweaks to keep up with evolving customer needs.
Downstream users in the pigment industry rely on its predictable behavior. When working with high-shear mixing for pigment dispersions, our scouts in technical support have noticed less filter clogging and a smoother slurrying step compared to off-spec competitors. These aren’t considerations most chemical traders highlight, but as the original producer, we witness how both upstream and downstream performance connect.
Producers with direct experience of reaction chemistry understand that not all cresol derivatives act the same. Take, for example, 2-nitro-p-cresol or 4-amino-2-nitrophenol—both structurally related, but each brings its own set of reactivity issues. Using less-specific materials increases cleaning time, waste disposal costs, and analytical overhead. We noticed earlier in our history, when we experimented with mixed aromatic intermediates, that process shifts often led to unwelcome surprises: inconsistent yields, altered dye shade, or even risk of incomplete product formation. Our current product’s regioselectivity cuts those problems down.
Companies new to dye manufacturing sometimes assume any nitro-cresol will suffice; old-timers know differently. In many long-standing partnerships, our clients choose 2-Amino-6-Nitro-P-Cresol to reduce batch rejection rates. Lab-scale tests might show subtle differences, but plant-scale runs amplify those variations into major process headaches. When we worked with textile finishers during the transition to more temperature-sensitive dye colors, they pointed out reduced color migration and more robust lightfastness from the dyes made using our amino-nitro cresol. The link is simple: reliable starting materials keep expensive downstream mistakes to a minimum.
Every year, requests for custom specifications arrive from partners experimenting with new dye classes. Some want even finer particle sizes for rapid dissolution, others ask for lower heavy metal traces—especially chrome, iron, or copper. Increasing demand for eco-friendly textile processing keeps us vigilant about contaminants, so we clean reactors and manage solvent use carefully. Our technical team works closely with plant managers to balance requests without losing efficiency; tighter specifications in one area often come at the cost of process throughput, so we use extra refining only when customers confirm it really impacts their output.
During audits, visiting buyers sometimes request a walk-through of our analytical lab. Demonstrating our UV-visible and HPLC screening isn’t just for show; it gives partners peace of mind as they load their reactors. Years in production have taught us that transparency in quality assurance, backed by real batch histories, builds confidence fast. Clients mention that clear data on actual impurity content, not just minimum specs, helps them tune their own process controls.
Batches that fall outside of purity or color limits present challenges for any manufacturer. Early in production, we noticed that relying only on basic melting point or colorimetric checks missed occasional trace impurities. Some of these by-products trigger foaming or pH shifts when introduced to dye syntheses—a small issue that, magnified, could cost thousands in scrapped end-product. To address this, we invested in advanced GC and LC-MS screening. Now, irregular lots rarely leave the plant without extra attention. In cases where specs aren’t met, re-processing through recrystallization or selective absorption brings most material up to spec, reducing waste and stabilizing supply.
Another challenge comes from freight and handling. Fines generation or caking during storage frustrates users. Here, internal handling improvements, like slow-rotation blending and lined containers, defend product flowability right to the point of use. During humid summer months, operators increase desiccant use and monitor warehouse climate with extra care. These aren’t theoretical quality checks—plant staff review performance every time a drum leaves the warehouse and when feedback comes in about handling issues on customer lines.
Our routine shipment destinations include dye works, pigment manufacturers, and a handful of research centers using 2-Amino-6-Nitro-P-Cresol as a scaffold for small-molecule synthesis. In textile applications, several key colorfast yellows and oranges owe their stable hues to intermediates derived from this molecule. In leather treatment lines, technical teams report improved shade reproducibility and lower off-dyeing rates, resulting in less reprocessing and waste—a benefit that translates directly to time and cost savings for end users.
In feedback sessions with plant managers, they often mention reduced cleaning times with our product, as the lower impurity loads mean reactors and tanks foul less often. Some have switched from more varied cresol blends to our targeted amino-nitro version after cost-benefit analysis, noting improved product quality and fewer health and safety concerns around volatile impurities or dust.
Changing regulatory environments, especially those angled toward stricter environmental controls in textile and pigment manufacturing, have added a new layer to chemical supply decisions. We’ve responded by investing in process improvements to meet limits for heavy metals and organic impurities. Our facility certifies every produced batch with test results that go beyond basic compliance, giving downstream users more confidence when submitting environmental documentation for their end products.
Technical documentation is more than a piece of paper—a real partnership grows when clients trust the data. We tailor our reporting to address the actual needs of dye works, not just repeating regulatory jargon. Every time a client asks for new details, whether on breakdown products, storage stability, or thermal decomposition, our lab digs deeper into each batch. This attention to data transparency lets us stay ahead as textile specifications move toward even stricter standards for color stability and emissions.
Long-term supply chain reliability starts at the reactor, but it ends with careful packaging and freight planning. We ship in moisture-barrier drums and sacks, using transport partners with good records for safe delivery. This ensures the product arrives in proper condition, with none of the clumping or hydration issues that crop up with bulk shipments stored carelessly. Technical team members regularly revisit customer complaints to root out sources of handling or storage loss, sometimes even running parallel test shipments to compare packaging improvements in real conditions.
Changes in global freight costs and fuel prices affect shipping, but we work with partners to optimize container loading and route selection. Every stage—from labeling to warehouse hand-off—follows the same attention to quality that we apply in synthesis. If a shipment arrives with handling flaws, our team investigates and updates procedures. The goal stays the same: batches arriving as close to freshly packed as possible, reducing the need for sieving or blending before use.
Technical support doesn't end after delivery; operational issues sometimes arise due to shifts in customer processing equipment or new synthetic routes. Our chemists and process engineers answer questions on solubility, color intensity, or reactivity in specific dye manufacture. Rare cases—a solvent or catalyst change, a pH adjustment—may demand modifications to our own process to preserve downstream qualities users depend on.
Trends in coloration science, especially in the quest for more sustainable or longer-lasting dyes, keep driving small batch trials with modifications in production. Our plant has a pilot line reserved for fast response to small-scale tests—new solvents, tighter particle control, or alternative purification columns. Most end-users value that willingness to tune processes, as it gives them a partner rather than a distant supplier.
Competition pushes producers like us to search for continuous process improvements, but not at the expense of product integrity. Cheaper alternatives or off-grade blends occasionally appear on the market, but frequent audits and plant visits by buyers have shown that lower purchase prices often bring higher total costs in the form of waste, downtime, and rework. Experienced chemists see value in established manufacturing controls, clear documentation, and a responsive technical team.
Every operational change, from solvent recycle to filter choice, faces a validation step—if tests show any trend toward less reliability, the process reverts. Raw material traceability, waste handling, even cleaning logs stay updated for each run. This discipline ensures the finished 2-Amino-6-Nitro-P-Cresol supplies real performance advantages and gives customers fewer surprises along the production chain.
In the last five years, not only has demand shifted geographically, but user expectations have increased around safety and environmental metrics. We've moved to adopt greener procedures by recovering solvents, improving waste capture, and systematically evaluating new catalysts for lower environmental load. These shifts aren’t just for regulatory compliance; they underpin our ability to deliver consistent batches, minimize disruptions, and improve efficiency.
Producers using our product often ask about batch-to-batch reproducibility and supply assurance. To answer, we've built robust forecasting with customers and maintain emergency reserves. Especially for those on the receiving end of rapid market changes, this helps avoid forced downtime or last-minute substitutions.
Over years of manufacturing 2-Amino-6-Nitro-P-Cresol, we've learned that quality isn't a matter of ticking off specification boxes—it's about real-world performance in every subsequent chemical transformation and application. Open lines of communication, willingness to adapt, and disciplined production result in a material that supports innovation throughout the dye and pigment industries. Users benefit from fewer lost batches, safer workflows, and streamlined regulatory approvals. The difference between a molecule made by rote and a molecule made with deep process knowledge is not just academic; it shapes the bottom line and competitive position of every partner down the line.
To those invested in reliable, safe, and high-functioning dye and pigment supply chains, the details matter. After years in the field, our team still finds new ways to enhance product quality—not just by changing the starting materials or tweaking specs, but by sharing best practices and supporting customer needs as they evolve. Each manufacturing run offers another chance to reaffirm trust, deliver steady value, and reinforce why expertise in chemical production sets the foundation for lasting industrial progress.