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HS Code |
203314 |
| Chemical Name | 5-Methyluracil |
| Synonyms | Methyluracil, Thymine |
| Chemical Formula | C5H6N2O2 |
| Molecular Weight | 126.12 g/mol |
| Cas Number | 65-71-4 |
| Appearance | White crystalline powder |
| Melting Point | 316-320°C |
| Solubility In Water | Slightly soluble |
| Pka | 9.8 |
| Logp | -0.76 |
| Storage Conditions | Store at room temperature, protect from light |
| Usage | Pharmaceutical intermediate, wound healing agent |
As an accredited 5-Methyluracil factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 5-Methyluracil is packaged in a sealed 100-gram amber glass bottle with a tamper-evident cap and clear labeling. |
| Shipping | 5-Methyluracil is shipped in tightly sealed containers to prevent moisture and contamination. It should be stored and transported in a cool, dry place, away from direct sunlight and incompatible substances. Proper labeling and accompanying safety documentation are required to ensure safe handling and compliance with relevant chemical transportation regulations. |
| Storage | 5-Methyluracil should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep the chemical away from incompatible substances such as strong oxidizers. Store at room temperature, and avoid moisture to prevent degradation. Ensure proper labeling and restrict access to authorized personnel only. |
Applications of 5-Methyluracil in Industrial Manufacturing5-Methyluracil supports advanced production lines and consistent output quality in pharmaceutical, veterinary, and specialty cosmetic industries. Our deep expertise as a manufacturer ensures precise integration of this raw material into high-value finished goods, maintaining traceability and compliance at every stage. 1. Human Pharmaceutical API SynthesisAs a nucleic acid derivative, 5-Methyluracil plays a critical role in producing pharmaceutical intermediates, especially in the synthesis of immunomodulatory and tissue repair drugs for oral and topical formulations. Controlled addition at the intermediate stage enables manufacturers to manage batch consistency, maximize yield, and comply with stringent pharmacopoeia requirements for hospital and retail drug products. Industry compliance standards
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2. Veterinary Medicine Premix and FormulationIn veterinary applications, 5-Methyluracil serves as a feed additive component and injectable agent, enhancing tissue healing and immune support for livestock. Manufacturers integrate it directly into feed premixes or parenteral solutions, focusing on consistent homogeneity and documented stability as demanded for veterinary biologic processing and safe animal health products. Industry compliance standards
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3. Topical Wound Healing and Dermatology CosmeticsSpecialty cosmetic and personal care producers apply 5-Methyluracil in wound-healing ointments and regenerative creams, targeting over-the-counter cosmeceuticals. Quality control measures and ingredient traceability are crucial to satisfy safety demands for products sold in regulated beauty and pharmacy channels. Industry compliance standards
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4. Pharmaceutical Intermediate for Nucleic Acid-Based Research ReagentsBioanalytical reagent manufacturers introduce 5-Methyluracil into nucleic-acid based reagent kits for laboratory and diagnostic research. Purity and traceability are vital, as material acts as a reference or precursor for oligonucleotide synthesis and DNA repair pathway studies. Industry compliance standards
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Competitive 5-Methyluracil prices that fit your budget—flexible terms and customized quotes for every order.
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In our years of manufacturing 5-Methyluracil, every batch has told us a unique story about quality control, raw material sourcing, and how consistent output earns the trust of our long-term partners. This compound, with the model designation sometimes referred to in the industry as 6-methyluracil, stands out as a pyrimidine derivative used widely for its biochemical value in both pharmaceutical and research settings. At our facility, we take pride in more than just supplying a compound. We focus on giving users the assurance that their research, formulation, and production targets can be met with confidence.
5-Methyluracil looks almost the same as uracil at a glance, but an extra methyl group changes more than just its name. Without that extra methyl, the behavior of the molecule in certain biological applications shifts. Our customers—mostly formulation chemists, researchers, and product developers—need that extra downstream reliability. The reason so many of them keep coming back lies in the manufacturing process itself. Ensuring the compound’s purity (often greater than 99%), consistency, and stability throughout its shelf-life has become a daily routine at our plant.
Raw materials for 5-Methyluracil must pass a rigorous series of pre-production checks. We have learned over the years that even carefully sourced cytosine or uracil can contain traces of moisture, unwanted salts, or off-coloration that will leave their mark on the finished product. Every incoming lot gets verified via HPLC, and the physical inspection routine is never skipped. A lot of our staff has been with us for over a decade; two sets of experienced eyes still do the last visual check before a batch moves from drying to milling.
Contamination control here is not abstract—it means persistent cleaning procedures that prevent cross-over from other active pharmaceutical ingredients or excipients in our pipeline. Temperature and humidity hold steady throughout processing, making the difference between an off-spec powder and a crystal-clear certification for finished goods.
While certificates of analysis matter for passing an audit or clearing customs, real-world projects see hiccups when a product specification leaves gray areas. For each lot of 5-Methyluracil, we issue documentation covering appearance, assay by HPLC, identification by IR, loss on drying, and heavy metal residues. These numbers tell an important part of the story, but they don’t cover what it takes to reliably meet these specifications time after time.
Our plant runs multiple reactors sized for different order volumes. Small R&D runs get the same scrutiny as multi-ton production. The chemists and operators here talk to our formulation partners daily, catching feedback on solubility trends, compatibility in specific excipients, or challenges seen during further synthesis. Once, a customer flagged our product as clumping in humid conditions. Together, we swapped packaging for improved moisture barriers and added another point of real-time monitoring during the final filling stage.
5-Methyluracil finds frequent use in pharmaceutical synthesis, wound healing agents, nutritional products, and even as a substrate in biochemical and genetic studies. Biologists value its potential role in stimulating tissue regeneration and promoting cell proliferation. In several countries, formulations containing 5-Methyluracil reach the hospital floor for treating cutaneous ulcers, radiation injuries, and certain gastrointestinal conditions. Our partners in research institutions report back on its function as a growth stimulator for leukocytes and red blood cells.
A formulation team preferring tablets asks about granule sizing for direct compression. We produce tailored particle sizes in such cases, keeping agglomeration under tight control and ensuring consistent flow. One customer in the injectable sector needs sub-visible particulate specifications that go beyond pharmacopeia standards. Each tweak, from filtration pH to solvent residuals, gets bench tested and upscaled before approval. Our experience shows the best results come from these ongoing dialogues—solving problems before they ever reach the end user.
Comparing 5-Methyluracil with uracil or other methyl-substituted pyrimidines uncovers both chemical and practical differences. Other methylpyrimidines may appear cheap or readily available, but subtle changes in reactivity, solubility, and stability during downstream synthesis or storage impact the entire product’s performance. For example, 5-Methyluracil dissolves in water and alcohol, yet resists breakdown under mild acidic or neutral pH. It does not oxidize as quickly as some analogues, so manufacturers of semisynthetic antibiotics or hydrotropic agents prefer it for intermediate synthesis and storage stability.
We hear reports from users who’ve tried switching to cheaper, low-purity alternatives. Tablet batches wouldn’t compress; injections became cloudy during stability trials. Even minor impurities from unrefined synthesis routes throw downstream QC out of range, risking regulatory scrapes and product recalls. Through years of refining our process, we’ve significantly reduced isomer content, making 5-Methyluracil from our plant perform consistently, batch after batch, even after months on the shelf.
Synthesis starts from barbituric acid chemistry, usually methylated at the right spot through precise, controlled conditions. Each plant learns its own rhythm—times, temperatures, solvents. Small changes: a few tenths of a degree up or down; a different supplier for a reagent—shift purity or yield. We’ve learned to monitor every step in detail and never to deviate from validated procedures. Automated equipment provides feedback every ten minutes throughout the critical reaction phase.
Batch failures have their own lessons. Years ago, we experienced a string of color variation in a couple of lots, traced back to a new batch of solvent. Instead of pushing through with faulty material, we stopped production, worked with our supplier, and switched to a previously validated lot, even if it meant delaying shipments. Customers remember suppliers who take responsibility—our reputation held, and we’ve kept strict solvent QC ever since.
One aspect many overlook is safe disposal of by-products and effluent. Treating waste streams containing pyrimidine derivatives requires specialized equipment—filters, pH control tanks, catalytic incinerators—and rigorous record keeping. Stringent local environmental rules shape how often we update waste sites and the methods for neutralizing reaction residues. No company wants to face environmental penalties or unplanned downtime for violating discharge limits. Upgrading our waste treatment lines proved a sizable investment, but it prevented regulatory headaches and gained us a clean audit vote from both customers and authorities.
Consistent manufacturing routines build reliability, but keeping an eye on new technologies matters just as much. Ten years ago, we ran manual, batch-based crystallizers. Output quality varied with shifts and operator fatigue. After switching to semi-automated lines, the old headaches—uneven particle sizes, filters clogging, slow changeovers—became rare. These changes took months, required retraining, and tested our team’s patience, but the pay-off—batch repeatability, reduced downtime, clean output—proved worth the effort.
Research teams at universities sometimes call us for samples with special isotopic labeling or ultra-high purity. Standard production lines can’t meet those specs. We built a dedicated cleanroom, installed controlled atmosphere cabinets, and added ultra-sensitive chromatographs. It means dedicating resources for low-volume, high-value jobs. In return, we learn more about 5-Methyluracil’s behavior in advanced settings, feedback that circles back to improving our primary, bulk production.
Open lines of communication with our partners drive almost every long-term solution. Pharmaceutical companies call us when they run into compatibility issues with new excipients or face solubility problems while scaling up. Instead of passing responsibility, we visit their labs, bring back samples, and mimic their processes, often modifying our grinding or final drying routines to better match downstream requirements. If tablet pressing leaves fines or cappers cause sticking, we adjust sieve mesh and update operational SOPs.
Cost pressure remains a constant challenge, especially in competitive global markets. Off-the-shelf chemicals often attract new entrants trying to undercut with minimal processing and loose documentation. The problems usually show up at the clinical scale: unanticipated side reactions, patient complaints about disintegration time, product recalls after analysis finds trace contaminants. Years of experience have taught us that meeting pharmacopeial specs is the floor—rigorous real-world quality, repeatable performance, and traceable supply are the ceiling.
Pharmaceutical and supplement regulations continue to shift, especially for compounds like 5-Methyluracil that serve as both active ingredients and intermediates. Regulatory demands can range from trace-level genotoxic impurities, updated testing thresholds for heavy metals, to enhanced track-and-trace requirements. Adapting requires more than updating paperwork. Our quality team works with raw material suppliers to secure transparent documentation, with detailed impurity profiles and chain-of-custody certification. Real-time production monitoring systems and batch-level data logging back up every final certificate that goes out the door.
Not all regulatory trends are predictable. We’ve encountered new requirements for allergens, supplied zero-residue cleaning documentation on demand, and included new spectral signatures for rapid identity verification in both Europe and Asia. We dedicate cycles each quarter reviewing policy updates, sending staff to industry conferences, and equipping the lab with new detection technologies. These steps not only keep us in compliance; they also spot trouble before it hits, limiting business disruption for us and our partners.
For us, 5-Methyluracil manufacturing isn’t just about churning out identical white powders. Every day brings a mix of routine and surprise—minor raw material variability, the occasional reactor hiccup, unexpected customer requests, or new policy demands. We treat each as a chance to refine our process.
Allowing customers a window into our entire workflow—inviting them to audits, sharing raw material sources, opening up our labs—has built relationships that last. Some clients now work in second or third companies and still send us their new projects. Others have asked for sustainability reports or chain-of-responsibility certification, shaping our approach to waste reduction and green chemistry initiatives.
This learning environment keeps us sharp. Our teams routinely review historical batch records for recurring trends and formally debrief after out-of-spec incidents. Electronic tracking flags even slight deviations early in the process. Annual investments in both people and equipment keep our facility competitive, and our ability to custom-tailor solutions—faster turnarounds, new purity levels, real-time technical support—remains one of the reasons customers count on us.
Across Asia and Europe, raw material prices continue to fluctuate while regulatory hurdles tighten. Large manufacturers try to lock down exclusive contracts for upstream intermediates, sometimes squeezing smaller players who cut corners to compete. Our response has been to widen supplier bases, prequalifying vendors through actual trial batches, and not just paper audits. As the need for quality assurance grows, our customer audit reports have become almost as valuable as our laboratory data.
End users are starting to ask tough questions about the origin of every substance in their supply chain, including queries about sustainability standards, labor practices, and green chemistry. By maintaining transparency—both with our auditors and our partners—we stay ahead of shifting priorities.
The growing demand for personalized medicine, specialty formulations, and more complex generics calls for chemicals with tighter quality margins, traceability, and reliable performance. We field more calls now from customers in gene therapy, diagnostics, and advanced wound healing—all seeking tailored grades of 5-Methyluracil. Sometimes these requests present challenges that outstrip traditional big-batch chemistry, but years in this business have taught us to say “yes” to new challenges and to work closely with downstream specialists for real solutions.
New research may soon push 5-Methyluracil use into diagnostic or advanced therapeutic areas, demanding new functionalizations or sterility standards. Instead of waiting for problems to reach us, we have begun collaborating directly with R&D teams at partner companies, testing pilot runs for small-batch, low-impurity variants. Internally, our process engineers hunt for greener solvents, superior reagents, and energy-saving systems, passing any improvements directly into production without waiting for market pressure.
Staff training never ends. Regulatory agencies now expect fully traceable production histories, with digital logs tracking every person, material, and environmental factor from start to finish. Our teams regularly run simulated recalls, checking response times and data integrity. The result—a more agile, reliable, and compliant supply line—gives our partners confidence in every lot they receive.
At the end of the day, service means more than a timely delivery or a stamped piece of paper. It comes down to experience, accountability, and a willingness to keep improving, batch after batch. 5-Methyluracil has given us a platform to show what a real partnership between manufacturer and customer can achieve. Challenges remain, but they are also what keeps the business moving ahead, building technical know-how and industry trust.