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HS Code |
439473 |
| Chemical Name | 5-Nitro-6-Methyluracil |
| Molecular Formula | C5H5N3O4 |
| Molecular Weight | 171.11 g/mol |
| Cas Number | 1463-82-9 |
| Appearance | Yellow crystalline powder |
| Melting Point | 255-260°C |
| Solubility In Water | Slightly soluble |
| Pubchem Cid | 213513 |
| Synonyms | 6-Methyl-5-nitrouracil |
| Iupac Name | 6-methyl-5-nitropyrimidine-2,4(1H,3H)-dione |
| Smiles | CC1=C(NC(=O)NC1=O)[N+](=O)[O-] |
| Inchi | InChI=1S/C5H5N3O4/c1-2-3(8(12)13)4(9)7-5(10)6-2/h1H3,(H2,6,7,9,10) |
| Storage Conditions | Store in a cool, dry, well-ventilated place |
As an accredited 5-Nitro-6-Methyluracil factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 5-Nitro-6-Methyluracil, 25g, packaged in an amber glass bottle with a chemical-resistant screw cap and clear labeling. |
| Shipping | 5-Nitro-6-Methyluracil is shipped in tightly sealed, chemically-resistant containers to prevent contamination and moisture exposure. It is handled as a hazardous material, complying with applicable transportation regulations. Packaging is clearly labeled with hazard and handling instructions, and shipping is typically done via ground or air freight, depending on destination and regulatory requirements. |
| Storage | 5-Nitro-6-Methyluracil should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and reducing agents. Protect it from heat, moisture, and direct sunlight. Store under ambient or recommended temperatures, and ensure appropriate labeling and secure access to prevent unauthorized handling or accidental release. |
Applications of 5-Nitro-6-Methyluracil in Industrial Manufacturing5-Nitro-6-Methyluracil delivers specialized functionality in several targeted industrial sectors, where its chemical characteristics support precision manufacturing processes. As the direct manufacturer, we provide a controlled and reliable supply chain, ensuring stringent compliance, technical consistency, and process documentation throughout all downstream integrations. Below, we present verified industrial application scenarios, including compliance frameworks, practical usage ratios, detailed process roles, and representative final product categories. 1. Veterinary Pharmaceutical IntermediatesPharmaceutical companies incorporate 5-Nitro-6-Methyluracil as a key intermediate in the synthesis of certain veterinary antibiotics and antiprotozoal compounds. This material enters the process after the initial heterocycle formation, acting as a building block for API molecules targeting livestock infections. Its controlled purity profile is critical for downstream reaction selectivity, especially in processes optimized for yield and impurity minimization during multi-step synthesis of finished dosage forms. Industry compliance standards
Typical usage ratio
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2. Specialty Dye ManufacturingIn the specialty dye sector, manufacturers utilize 5-Nitro-6-Methyluracil as a key heterocyclic precursor when synthesizing reactive dyes for textile printing and advanced ink formulations. Its nitro and methyl substituents facilitate subsequent azo coupling and nucleophilic substitution reactions, enabling high color yield and stability in textile and paper applications with strict tone reproducibility demands. Industry compliance standards
Typical usage ratio
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3. Advanced Analytical ReagentsResearch reagent companies formulate 5-Nitro-6-Methyluracil for use in the creation of chromogenic and fluorogenic probes in analytical laboratories, especially for nucleic acid and enzymatic detection systems. Its chemical structure supports tailored probe synthesis for high-sensitivity bioassays, with strict requirements for functional group purity and trace contaminant control to ensure assay reliability. Industry compliance standards
Typical usage ratio
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4. Agricultural Growth Regulator SynthesisAgricultural input manufacturers deploy 5-Nitro-6-Methyluracil in the targeted synthesis of certain uracil-based plant growth regulators and cytokinins. It plays a central role in the multi-step preparation pipelines designed for crop-specific hormonal balancing solutions, necessitating controlled reaction conditions to preserve the activity and environmental compatibility of the final actives. Industry compliance standards
Typical usage ratio
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5. Electronic Chemicals for Specialty CoatingsManufacturers in the electronics sector use 5-Nitro-6-Methyluracil to synthesize specialty coating materials for printed circuit board (PCB) protection and microelectronic assembly. Its electron-rich heterocycle structure supports production of custom polymers and resin additives that promote consistent dielectric performance and controlled surface modification for high-density circuits. Industry compliance standards
Typical usage ratio
Downstream process integration
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Producing 5-Nitro-6-Methyluracil isn’t a simple repeat of textbook reactions. Our teams monitor every batch with HPLC and UV methods, not just a quick TLC check or by comparing to a faded standard. There’s a reason for this attention. Customers who use this intermediate depend on a high, consistent level of chemical purity—any deviation from target purity content introduces real worries downstream. Bags and drums filled on our line carry product with traceable origins from raw material through packaging. We keep our analytical certificates open to clients, so every lot carries a legacy of clean records, not just a pass on baseline water or ash content.
Most manufacturers work hard to keep costs down, but shortcuts are easy to spot. Some sellers repack and relabel, but seldom do they control the entire reaction in-house. In our reactors, 5-Nitro-6-Methyluracil is synthesized from methyluracil under precisely controlled nitration. Moisture, mixing speed, and temperature shifts are all critical. In-house controls show exacting quality parameters, not only at manufacture but across long-term storage. Over our years in production, we’ve dealt with shipments sitting in coastal warehouses, heavy summer humidity, and even misdirected pallets. Our product stands up: white to pale yellow crystalline powder, holding purity standards longer than outsourced, repacked equivalents.
Research chemists and process engineers bring us real feedback: not all 5-Nitro-6-Methyluracil flows easily through their systems. We tune the drying process to produce a product that handles well for technicians and feeding equipment. That granular knowledge—particle size, pourability, resistance to clumping—is pulled from decades of dealing with full-scale esterification and condensation steps on site. If a project calls for subtle pH adjustments or refined reactivity, we have seen requests as specific as a narrow melting point window or need for near-zero detectable heavy metals. Standard batches offer purity above 99% by HPLC; requests for lower residual solvents or tighter microbial limits see us adjust our purification line accordingly.
The global picture for pharmaceutical and fine chemical regulations keeps changing. Our compliance team logs changing REACH, FDA, and ICH rules directly into our QC documents. Many customers now ask for complete impurity profiles—including trace benzene or toluene—before batch release. This isn’t a favor or a premium option; it’s built into daily production. Some buyers ask for kosher or halal declarations, and we have learned how to adapt. Documentation on our 5-Nitro-6-Methyluracil extends well past the standard spec sheet: we manage TSE/BSE statements, non-animal origin declarations, and even nitrosamine risk assessments as soon as industry shifts.
There’s a difference between preparing a few grams for early research and filling a 200-liter reactor to feed an API production campaign. Scale brings out quirks hidden in small flask work. On a gram scale, a single bottle can last a year, but plant-scale batches expose every impurity and highlight consistency requirements batch to batch. Large clients in China, India, and the US rely on us to keep purity stable—one container might go straight into hundreds of kilograms of pharmaceutical intermediates. Smaller research outfits need smaller packs, and we offer quantities down to 100 grams, always freshly packed from bulk stock, not repackaged leftovers or yellowed shelf samples.
Medicinal chemistry groups request 5-Nitro-6-Methyluracil as a core for nucleoside analogs and as a building block in regulated pharmaceuticals. Agrochemical developers screen new compounds using our product, often demanding unusual levels of structural purity to meet rising standards in food safety. It’s common for biotechs seeking anti-viral or anti-tumor candidates to purchase kilogram trials—sometimes asking us for residual solvent or trace byproduct characterization to support unusual regulatory demands. Some industrial clients innovate specialty dyes or photographic agents, relying on consistent electronic properties and guaranteed lot-to-lot reproducibility.
Chemicals aren’t just about formulae. Our operations staff cares about the unopened drum as much as the reaction inside. Every container is double-lined with industry-standard liners, sealed in clean rooms to avoid cross-contamination. Desiccant packs prevent caking in variable climates. Labels carry full batch tracking and country of origin. We heard from a logistics specialist that movement through port warehouses can expose powders to sea air—this led us to adjust our moisture barriers and test every incoming drum after arrival. Clients on opposite sides of the equator can expect similar product integrity, winter or summer.
5-Nitro-6-Methyluracil separates itself with predictability in ring reactivity. Lab comparisons to other methyluracil or nitrouracil isomers show different solubility and rate of reaction. Groups using 6-methyl substitution report sharper transitions in reactivity under basic conditions, especially during nucleophilic substitutions or reduction reactions. This is not speculation—we’ve tracked thousands of reactions in support of client projects, tweaking driver conditions across multiple plants. The electron-withdrawing nitro group plays a defined role in selectivity, which isn’t always the case for other ring systems. Users targeting specific synthetic transformations often prefer this product over more generic starting materials.
Every drum shipped carries more than a batch number. Down every ton run, we log origin of all incoming raw materials and log all process conditions. Equipment logs record maintenance intervals; people logs keep track of operator changes between shifts. End-users preparing DMFs for regulatory filings receive full documentation packages, including detailed impurity profiles and real spectroscopic data—not just a retype from generic sources. We handle site audits every season, so clients know that the paperwork isn’t just a box-click.
Some customers think of uracil derivatives as bulk commodities. From our vantage, making pharmaceutical starting materials requires more than volume. We validate every cleaning step for drums and bins, monitor airborne dusts, and use filtered air for final packaging. Studies with API manufacturers have shown that residual alkali or solvent content in specialty intermediates—a concern we take seriously—can risk later-stage process failures. Technical support runs side by side with order fulfillment. If a client requests assistance adjusting dissolution protocols or advice on safe pH adjustment methods, we have firsthand experience and real-time process logs to share.
Development teams often ask for more than a single product. We field constant requests for formulated mixes, custom impurity controls, and line-to-line production split. When a leading research group asked for a dryer powder for automated tablet press feed, our plant managers worked through two months of drying and granulation trials before nailing the target consistency. Documenting this process didn’t slow the daily work; it fed directly back into our production logbooks for future reference. We now keep adjustment checklists for particle properties as a result.
We use our own internal data—not market surveys—to guide process updates. Year after year, clients point to increased reaction yields or better handling in flow chemistry setups, which correlates directly to our process adjustments. Recent investments in reactor control systems and air-handling units came from concrete production data; the numbers showed a notable reduction in batch-to-batch variance. Environmental and exposure controls, such as updated exhaust filters, came after fielding direct client concerns about workplace airborne contamination—many times before regulations forced changes.
Global shifts in environmental controls and product stewardship affect us as much as our customers. For clients operating in Europe, we track and report composition according to the latest REACH requirements; U.S. clients receive updated certifications per DEA or FDA standards. Only years of hands-on audits, regulatory inspections, and QMS revisions have taught us to navigate rapidly changing compliance landscapes while keeping production timely. No shipment leaves the warehouse until every compliance document is in hand and every technical question is answered. Periodic customer audits are part of life; preparation for those becomes routine, not a crisis.
Process engineers at our plant noticed years ago that even small solvent optimization changes can generate real reduction in waste drums. We keep detailed logs of each kilogram of recycled solvent recovered from the 5-Nitro-6-Methyluracil synthesis line. We re-evaluated some process steps after requests from eco-conscious clients, and now send full waste tracking data along with COAs for those who require environmental stewardship reporting with shipments. Employees are encouraged to propose resource savings; several plant improvements have emerged directly from ground-level technician observations—not just top-down management pushes.
Working closely with leading research partners and commercial manufacturing teams anchors product development in the real world. A development chemist working late with our process scale-up crew reported a subtle color shift in dried product. Rather than dismissing it, the team sent samples through extensive spectroscopic runs until the source impurity was tracked and eliminated from the next lot. These continuous collaborations make for fewer surprises in scale-up and a more reliable end-product for both small research outfits and global pharma operations.
Producing 5-Nitro-6-Methyluracil calls for understanding more than the base chemistry. Year after year, plants using raw intermediates from less experienced suppliers complain about reactor fouling, variable reaction yields, or unexplained downstream failures. By contrast, our technical service staff routinely visits client sites, collecting samples from their reactors and troubleshooting synthetic pathways. Field experience with equipment cleaning, agitation speeds, and solvent filtration lets us tailor subtle process changes that solve persistent headaches—improvements that can’t be secured by distributors or short-term traders.
Each completed run of 5-Nitro-6-Methyluracil carries echoes of live adjustments, real customer demands, and on-site learning. Sometimes a simple temperature tweak in final crystallization leads to day-long process savings down the line. At other times, fielding special packaging requests for a unique customer project uncovers a better drum-sealing approach for the entire operation. Years of direct manufacturing experience build these lessons, shaping a tighter, more reliable supply chain.
Challenges in maintaining top-tier quality, traceability, and regulatory compliance grow every year. Our manufacturing team faces rising expectations from global clients, with more detailed impurity documentation, quicker response times, and tighter product consistency. We’re investing in real data capture at every stage: implementation of digital quality systems, integration of real-time monitoring across every process stage, and regular team meetings to discuss the newest client feedback and regulatory updates. All improvements come from lessons in plant reality, not projections or proposals on paper.
At the end of the day, quality chemistry comes down to trust: does the powder inside every drum meet the promises on the paperwork, and does it perform every time, no matter the end use? We keep open lines for feedback, commit to total transparency on every shipment, and react to every customer request with solutions based on deep factory-floor experience. The value of 5-Nitro-6-Methyluracil from a true manufacturer’s hands rests not just in the molecule itself, but in how it’s made, delivered, and backed up long after it leaves the plant.