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HS Code |
853144 |
| Cas Number | 36118-73-5 |
| Molecular Formula | C8H7NO2 |
| Molecular Weight | 149.15 |
| Appearance | Yellow crystalline solid |
| Melting Point | 66-68°C |
| Boiling Point | No data available |
| Density | 1.19 g/cm3 (estimated) |
| Solubility In Water | Insoluble |
| Flash Point | No data available |
| Chemical Structure | 1,2-dimethyl-4-nitrobenzene |
| Refractive Index | No data available |
| Synonyms | 4-Nitro-1,2-dimethylbenzene |
As an accredited 4-Nitro-1,2-Xylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g amber glass bottle labeled "4-Nitro-1,2-Xylene, C8H9NO2, CAS 612-16-8" with hazard symbols and safety precautions. |
| Shipping | 4-Nitro-1,2-xylene should be shipped in tightly sealed containers, protected from light, heat, and moisture. It must be handled as a hazardous material, with clear labeling and appropriate safety documentation. Shipping should comply with local, national, and international regulations for hazardous chemicals, ensuring secure packaging to prevent leaks or spills during transport. |
| Storage | 4-Nitro-1,2-xylene should be stored in a cool, dry, well-ventilated area away from sources of heat, sparks, and open flames. Keep the container tightly closed and clearly labeled. Store away from strong oxidizing agents and incompatible materials. Protect from light and moisture. Use only approved containers that are resistant to nitro aromatic compounds and ensure secondary containment to prevent spills. |
Applications of 4-Nitro-1,2-Xylene in Industrial ManufacturingAs a dedicated producer of 4-Nitro-1,2-Xylene, we supply this specialty intermediate to diverse sectors where precise chemical characteristics are required for advanced manufacturing. The following sections detail established application scenarios based on extensive downstream customer feedback and actual factory integration. 1. Synthesis of Specialty Agrochemical ActivesMajor agrochemical companies incorporate 4-Nitro-1,2-Xylene as a nitrated aromatic precursor in the custom synthesis of select herbicide and pesticide intermediates. Its controlled reactivity and substitution pattern are leveraged in process routes demanding consistent nitration yields and low impurity profiles, supporting production of active ingredients with regulated environmental behavior and stability. Industry compliance standards
Typical usage ratio
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2. Advanced Dye and Pigment ManufacturingProducers of specialty dyes utilize this compound as a nitroaromatic building block in the synthesis of high-purity azo and anthraquinone dyes. Stringent batch color consistency and purity are maintained through careful dosing during coupling reactions. Handling in bulk dye synthesis lines requires compliance with occupational and environmental standards for aromatic nitro compounds, particularly for effluent and workplace safety. Industry compliance standards
Typical usage ratio
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3. Pharmaceutical Intermediate ConversionGMP-certified pharma ingredient manufacturers employ 4-Nitro-1,2-Xylene as a protected aromatic core for multi-step synthesis of select nitrobenzene and amine pharmaceutical intermediates. Its high assay and clarity enable batch reproducibility during nitro group reductions, critical for downstream API routes. The material must be handled in compliance with both occupational safety and endpoint pharmaceutical impurity controls. Industry compliance standards
Typical usage ratio
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4. Polymer and Resin Additive FormulationThe resin and polymer modification sector leverages 4-Nitro-1,2-Xylene for controlled introduction of nitro functional groups in high-performance prepolymer backbones. Carefully metered addition during copolymerization steps modifies resin flexibility and chemical resistance, especially for specialty coatings and elastomer compounds. Usage must comply with sector-specific substance and emission limits. Industry compliance standards
Typical usage ratio
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5. Chemical Reference Standard and Analytical UseCertified laboratories and reference material suppliers utilize high-purity grades for use as analytical standards and system suitability controls in quality control procedures for aromatic nitro compound analysis. Accurate dilution protocols and traceability documentation support regulatory submissions and method validation. Industry compliance standards
Typical usage ratio
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Competitive 4-Nitro-1,2-Xylene prices that fit your budget—flexible terms and customized quotes for every order.
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Every batch of 4-nitro-1,2-xylene starts with a commitment to chemical quality at the level most people never see. Unlike brokers or traders, we spend long hours perfecting the synthetic steps, watching color and clarity, and making careful choices on raw materials. This compound carries its own challenges. It’s not a commodity people use daily, but in the right hands, it becomes a foundation for making dyes, pigments, agricultural products, and organic intermediates. Our tech team spends plenty of time getting the isomeric purity right, since mistakes at this level trickle down the whole supply chain for specialty chemicals. Most feedback we receive focuses on batch-to-batch reliability, especially when downstream applications need consistent molecular behavior. Problems in purity can sideline an entire production run hours after the initial blending.
The unique substitution pattern on 4-nitro-1,2-xylene gives it more than just a chemical name. With methyl groups at the 1 and 2 positions, and a nitro group at the 4 position, this structure means less cross-reactivity when customers use it as a starting material in more complex syntheses. We see growing requests from pigment makers who need fewer by-products during their azo coupling steps. This small difference means less waste and a cleaner workflow all the way from the reactor to the filtration system. Other xylene isomers or nitro-substituted xylenes rarely offer this much control, as they can invite parallel or side reactions especially under harsh conditions. In our operations, there’s no shortcut for selective nitration—the type of organic oxidation that produces this specific isomer takes a careful eye and real process discipline.
4-nitro-1,2-xylene does not show up on shopping lists for bulk commodity producers, but specialty and custom synthesis shops value the specific orientation of its functional groups. In our manufacturing context, we process this compound exclusively from high-grade xylene and nitrate under tightly controlled temperature and agitation. Reaction time and acid concentration make or break yield, which means we run constant checks with instruments, but also by sight and smell. Production life teaches you that storage stability matters just as much: humidity or light can compromise both color and content over time. Anyone working in the pigment or dye industry will probably agree—impurities at even 0.5% can change color intensity in ways that only become obvious when the final product hits its application.
Few other compounds offer the same performance in applications such as herbicide intermediates or modifying agents in specialty plasticizers. Across our feedback line, formulators ask for product that dissolves easily in their chosen solvents, and does not drag in color bodies that can affect end-use transparency. Our material handles oxidative stress well, resisting degradation where other nitro aromatics might yellow or throw off crystals during storage. Sometimes customers ask about alternatives—many times we’ve seen 2-nitro-1,4-xylene or meta-isomers tried in comparable roles—but substitutions often bring new processing headaches or require downstream cleanups that eat into margins fast.
The best lessons come from sticky situations in our own plant. For example, maintaining phase balance during the addition of the nitrating mixture often seems minor, but it directly shapes yield and reduces waste. Slight deviations in temperature, even a few degrees, noticeably impact the selectivity of our process. This is not an abstract lab result; it comes out in cost, downtime, and the trust our end-users place in us. We keep our reactors lined with stainless steel and follow strict maintenance routines to avoid any cross-contamination—chromium or iron can catalyze unwanted side reactions, leaving customers with off-color products or batch failures down the road. Lab analysis only tells half the story; the real feedback loop comes from hearing about how the compound performs in actual downstream synthesis.
Not every producer gets the same numbers. Our yield consistently lands above industry benchmarks, mostly thanks to rigorous operator training and real-time adjustment during each phase of the process. Team meetings after every campaign help us review what worked and what didn’t. People handling our 4-nitro-1,2-xylene learn with each batch—no matter how digital things get, the hands-on experience trumps any off-the-shelf automation for this compound. Technology helps, but knowing the sound of the crystallizer running or spotting slight off-hues in filtration jumpstarts troubleshooting before numbers on a dashboard flag a problem.
Though listing numbers can sometimes miss the point, our actual in-house measurements speak to why users keep ordering this specific isomer. Practically every customer emails us about melting point and overall assay (purity). They ask about tiny residue after evaporation and solubility in different aromatic solvents. Each production lot comes certified by our own analytical chemists, not from an outside certifying house, and compounds head out only after repeated, documented checks for nitro and methyl group placement. The market rarely asks for fluorescent or trace dyeing in this product, but every now and then textile chemists use it as an intermediate, relying on our strict in-process controls to ensure their color recipes don’t shift batch-to-batch.
No surprise, most buyers push for analysis of trace metals and moisture content. Even a few ppm of water can mess up a coupling reaction or block a crucial nitration step downstream. We take moisture control seriously—our drying and packaging areas feature constant dehumidification, and we don’t reuse containers under any circumstances. Many past customers tried cheaper alternatives, but most found side reactions and inconsistent colors chewed up any savings. Speed of delivery has come up more often in recent years: quick-turn shipping with clear, lot-specific paperwork reduces storage time and keeps users in compliance for record-keeping. No product leaves our site until it matches spec—not just on paper, but in the hands and eyes of production supervisors who have handled years’ worth of batches.
Conversations with industry chemists prove out what we see daily—this compound holds several advantages over related products. The direct placement of the nitro group at the 4-position, relative to the two methyl groups, reduces oxidative side reactions during electrochemical and catalytic downstream processes. Unlike 2-nitro-1,3-xylene or random-coordinated nitroxylenes, our product cuts down on undesired by-products in diazotization or azo coupling pathways. This directly impacts yield in so many dyes and pigment recipes. People running continuous dye baths, or operating closed-loop pigment plants, need every kilo of starting material to convert cleanly, as even minor impurities can lead to build-ups and unplanned shutdowns.
Our operations rely on solid relationships with upstream amino and methyl xylene producers. Full traceability from the first drum to the last lot means every shipment’s chemical story can be tracked. Other nitroaromatic suppliers sometimes cut corners, blending off-spec intermediates to clear inventory. Chemists familiar with real-world production see the pitfalls of this move—by-product contamination, higher effluent loads, and, in the worst cases, plant downtime. The 4-nitro-1,2-xylene we deliver provides a defined and dependable backbone for specialty synthesis, catalysts, and advanced colorant intermediates.
Storing and handling nitro aromatics takes experience. The learning curve shows up early: exposure to moisture or open air leads to clumping, caking, and, in sensitive uses, subtle changes in reactivity. We run tight warehouse controls, monitor temperature, and always rotate stock with a first-in, first-out policy. Clients down the value chain report back on storage issues all the time. Past years saw higher losses during summer months—ambient humidity affected both material flow and on-site safety. That feedback drove our investment in humidity-controlled zones and reinforced drums with lined interiors.
Direct communication with users yields practical insights you can’t pick up from technical data sheets. For example, plant managers in pigment factories describe how deviations in flake size lead to uneven pours and dosing errors. In agricultural chemistry, uneven residual oils can shorten shelf life for intermediates or reduce product effectiveness. We engineered adjustments in drying protocols, dialed in filtration rates, and re-specified container linings, as a result of feedback from the field. Nothing in the lab predicted some of these adjustments. They came from enough batches handled over enough seasons, with real people running the lines.
Open lines between our lab and the plant floor help us make changes without overrunning a schedule. Any feedback about off-odors, slight color shifts, or uneven crystalline form triggers a full review before the next run starts. We track minor trends, even if only a few buyers flag them. One year, a pigment customer pointed out unwanted odor pickup in a high-temperature step. This led to tighter venting controls during our own drying process, which ultimately improved far more than that one product line. Continuous review, not just periodic checks, uncovers the details that build long-lasting trust.
Our technical team hosts yearly audits with several of our larger customers—bringing their plant chemists onto our site, going through each process, and evaluating the product ourselves alongside them. They bring raw, unsolicited comments. That sometimes stings, but it prevents the slow creep of problems, and sharpens our process culture. Newer team members quickly learn the value in these unscripted shop-floor moments, building real-world confidence in each kilo delivered.
Regulatory pressures and changing sustainability demands shape how we manufacture, store, and transport nitro aromatics. End-users, especially those supplying name-brand dyes or agrochemicals, want records stretching back years, including full breakdowns of raw material origin and process conditions. We support these requests, not because it's easy, but because years in the trade have shown how missing data today causes outsized headaches tomorrow. Documentation runs deeper than compliance. In late-stage synthesis, trouble tracking a contamination source can force a plant to dump an entire batch, risking not only money but future business opportunities.
Logistics have become more important, especially with expanding environmental guidelines. We constantly review our packaging and labeling systems to keep up with shifting rules in target markets. End-of-life handling for packaging, reduction of secondary waste, and safe disposal of spent containers draw increasing scrutiny. We source packaging that resists punctures and chemical stress without introducing new risk of leaching. Years back, some market options failed as drop-tested containers showed small fractures that passed unnoticed until site audits caught them. We changed suppliers and now run our own impact checks on every batch. These seemingly boring warehouse details help us avoid the rare, but expensive, headaches that improper container choice can invite.
Process refinements and user communication stand out as the most reliable answers to the familiar set of challenges in 4-nitro-1,2-xylene procurement and use. As anti-dumping regulations and tighter tariffs change the calculus for importers, we’ve doubled down on maintaining a direct, transparent supplier relationship with end-users. Running routine roundtable meetings with purchasing, plant folks, and technical buyers from our customer base makes a big difference. If batch attribute consistency ranks as a top need, running multiple, independent analyses before shipment builds certainty and lowers the number of returns or handling disputes.
For those seeking alternatives due to cost concerns, we offer technical consultations comparing current material against proposed alternatives. Extensive side-by-side testing often shows why other isomers fall short for specific pigment or agrochemical syntheses. While the market sometimes tempts buyers with cheaper blends, hidden downstream costs typically lead them back to our consistent material. We’ve supported partners transitioning to higher-purity requirements by offering custom drying and enhanced filtration, removing even trace residues that most suppliers might accept as within “normal” tolerance. The investment in tighter controls pays back through fewer customer complaints, fewer lost production days, and stronger long-term relationships.
With digital transformation pushing into chemical manufacturing, remote monitoring, automated data logging, and non-stop process feedback all contribute—but nothing replaces direct experience gained day after day in production. Each time we adjust feed rates or tweak crystallization recipes, it’s because a specific customer need came up, not because a trend or broad guideline suggested it. The ability to translate direct user input into practice-driven improvements continues to set our 4-nitro-1,2-xylene apart from more generic, bulk-market products.
Producing 4-nitro-1,2-xylene goes far beyond sticking to a textbook formula. It’s the result of hands-on experience, learning from every batch, and listening to the chemists and plant staff who rely on our material day in, day out. The product’s performance, repeatability, and suitability for applications ranging from specialty pigments to agricultural intermediates come from choices made during each run. Fine-tuning each process, responding quickly to customer insights, and refusing to cut corners create a foundation of trust. Our approach focuses on keeping quality high, ensuring every delivery matches what users expect, and taking responsibility for our materials from incoming raw inputs through to the packed drum ready to ship. Our entire production team stands behind each batch, staying ready to help users find the right solutions and adapt to new industry challenges as they come.