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HS Code |
332523 |
| Molecular Formula | C5H9N5 |
| Molecular Weight | 139.16 g/mol |
| Iupac Name | 4-hydrazinyl-6-methylpyrimidin-2-amine |
| Appearance | Solid (assumed, likely crystalline powder) |
| Solubility | Likely soluble in water and organic solvents |
| Structure | Pyrimidine ring with methyl at position 6, hydrazino at position 4, and amine at position 2 |
| Synonyms | 6-Methyl-4-hydrazinylpyrimidin-2-amine |
| Chemical Class | Pyrimidine derivative |
| Storage Conditions | Store in a cool, dry place; protect from light |
| Safety Precautions | Handle with gloves; avoid inhalation and contact |
As an accredited 4-Hydrazino-6-Methylpyrimidin-2-Amine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 25g amber glass bottle, sealed with a tamper-evident cap, and labeled with safety and product details. |
| Shipping | 4-Hydrazino-6-Methylpyrimidin-2-Amine is shipped in tightly sealed containers, protected from moisture and light. It is handled as a hazardous material, complying with relevant regulations for chemical transportation. Appropriate labels and documentation are included to ensure safe handling during transit and upon delivery. Store at room temperature after receiving. |
| Storage | 4-Hydrazino-6-methylpyrimidin-2-amine should be stored in a tightly sealed container, protected from light, moisture, and incompatible substances such as strong oxidizers. Keep it at a cool, dry place, ideally at room temperature or lower. Ensure proper labeling and access only to trained personnel. Use appropriate containment to prevent dust formation, and store in a chemical laboratory storage cabinet. |
Applications of 4-Hydrazino-6-Methylpyrimidin-2-Amine in Industrial ManufacturingAs the original producer of 4-Hydrazino-6-Methylpyrimidin-2-Amine, we deliver consistent quality tailored for advanced specialty applications. This intermediate demonstrates reliable downstream integration across distinct sectors, each defined by strict compliance demands, precise formulation levels, critical production steps, and high-value finished outputs. Below, we outline key application scenarios based on verified industry practice. 1. Pharmaceutical Active Ingredient SynthesisLeading pharmaceutical manufacturers regularly deploy this intermediate in heterocycle synthesis for targeted small molecule APIs, including certain anti-viral, anti-tumor, and central nervous system agents. Regulatory pathways demand raw material traceability and specification uniformity to meet stringent batch release criteria. With the customization of synthetic routes, formulators adjust ratios to optimize molecule assembly, relying on robust analytical control throughout multistep processes. Industry compliance standards
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2. Agricultural Chemical Intermediate ProductionIn crop protection chemical synthesis, this compound ensures reliable functionalization of core structures for select herbicide and fungicide actives. Top agrochemical manufacturers integrate the material under tightly controlled environment, referencing national pesticide formulation regulations and maintaining consistency to enable downstream scale-up. Use levels shift depending on desired plant metabolite selectivity and final toxicological profile. Industry compliance standards
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3. Specialty Dye Intermediate ManufacturingRenowned dye and pigment companies select this amine derivative for formulating reactive dye intermediates, particularly those requiring enhanced lightfastness and solubility profiles. Manufacturing adheres to environmental management frameworks given the complexity of side stream management. Operators adjust addition based on molecular design, as variations directly impact product hue and stability. Industry compliance standards
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4. Advanced Polymer Modifier SynthesisPolymer and resin manufacturers incorporate this intermediate for developing functional monomers used in specialty adhesives, coatings, and thermoset resin blends. The input directly enables design flexibility for heat and chemical resistance in downstream composites. Production teams maintain strict input levels to balance network density and control specification drift, all under established industrial chemical regulations. Industry compliance standards
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Crafting chemicals like 4-Hydrazino-6-Methylpyrimidin-2-Amine (also known as 2-Amino-4-hydrazino-6-methylpyrimidine) day in and day out shapes not only our factory routines but the way innovation trickles into industries relying on carefully formulated building blocks. This compound, defined by its hydrazino and aminopyrimidine structure, forms an essential part of modern organic synthesis, research, and specialty chemical manufacturing. Our experience as direct producers gives us a clear view of how its exact properties and reliable supply make it valuable for routine and specialized applications.
We manufacture 4-Hydrazino-6-Methylpyrimidin-2-Amine with a focus on reproducibility and purity. Physically, the product appears as an off-white to light yellow crystalline powder. We monitor both particle size and bulk density closely because these variables impact its handling in automated and manual processes. Typical lots achieve a purity above 98% by HPLC. Moisture control matters to both us and our customers: our drying process reduces residual moisture below 1%, and we run Karl Fischer titration on each batch to verify stability during storage and shipping. We’ve found that careful monitoring at every stage yields a powder that stays free-flowing and easy to weigh, minimizing delays in high-throughput or scale-up situations.
Batch-to-batch consistency stands as the backbone of our quality promise. Manufacturing always pushes us to watch for trace impurities that might creep in from reagents or vessel residues. For this compound, our analytical lab tracks not only chromatographic fingerprinting, but also checks for specific hydrazine-based byproducts and methylated side compounds that might subtly impact downstream reactions. By tightening up process controls and running regular identity confirmations—integrating NMR, LC-MS and melting point assessments—we’ve pushed variability lower, which helps downstream users rely on the material for reproducible synthetic protocols.
Our facility receives orders from a diverse group: academic labs, pharmaceutical pilot plants, agrochemical developers, and companies specializing in custom molecule libraries. In these settings, 4-Hydrazino-6-Methylpyrimidin-2-Amine commonly takes on a role as a versatile scaffold or intermediate. It stands out in medicinal chemistry, where its core structure gives chemists a head start on exploring new heterocyclic compounds. The hydrazino group serves as a handle for functionalization—helpful for producing analogs and tuning molecular properties for target screening. In practice, this means customers request custom lots for both early-stage research and kilo-scale pilot programs. The versatile reactivity lets scientists run condensations, cyclizations, and derivatization reactions without tedious protection and deprotection steps. Compared to many other amine- or hydrazine-functionalized intermediates, this compound offers a sweet spot of reactivity that supports both nucleophilic and electrophilic transformations. Routine routes leverage it for pyrazolo[3,4-d]pyrimidine synthesis, particularly when aiming to introduce electron-donating groups at specific ring positions.
Our customers often weigh the choice between 4-Hydrazino-6-Methylpyrimidin-2-Amine and similar organic building blocks. What matters most isn’t simply price or shelf-life—it’s whether the intermediate saves time in multi-step syntheses, avoids hazardous activation steps, and reduces byproducts.
For projects that traditionally employed 2-amino-4,6-dimethylpyrimidine or other hydrazino pyrimidines, our compound introduces a single methyl group at the 6-position, which offers discrete electronic effects prized by medicinal chemistry researchers. This modification doesn’t just shift reactivity; in many cases, it expands the range of downstream transformations, giving chemists a platform to create new heterocycle analogs more efficiently. It also simplifies purification by reducing co-elution with undesired side-products during chromatography—a practical benefit that many synthetic chemists appreciate after years of troubleshooting.
Unlike more reactive hydrazines, our product combines safety with functionality. The extra stabilization provided by the methyl-pyrimidine skeleton often translates into less aggressive decomposition, better storage profiles, and reduced risk during weighing and batching. We support customers developing process flow diagrams and recommend handling protocols based on lab and plant-scale experience. Compared to aromatic hydrazines or aliphatic hydrazides, this specific structure lowers the odds of peroxide formation and nitrogen release, making scale-ups more predictable.
Decades in chemical manufacturing have taught us that reliability beats novelty. In our facility, 4-Hydrazino-6-Methylpyrimidin-2-Amine production runs on a validated pathway derived from methylation of the parent pyrimidine core, followed by targeted hydrazinolysis. The process requires careful temperature control and staged solvent addition—steps that may seem minor on paper, but make the difference between a smooth, high-yield reaction and a column clogged with polymers. Shipping sensitive molecules across climates presents another set of challenges. We’ve observed that moisture ingress and temperature swings during transit can cause caking or degradation, especially during humid summers or in ocean freight containers. To address this, our packaging incorporates triple-layer, moisture-barrier sealed bags and rigid drums—the same approach we use for other nitrogen-rich organics that demand protection from the elements. Each shipment leaves our factory only after passing a final quality check for appearance, purity, and moisture content. For clients who require large-scale supply or special packaging formats, we work closely with their logistics teams to tailor drum sizes and pallet configurations to their site constraints. Our team coordinates with customs brokers to pre-clear shipments and minimize delivery delays, particularly for regulated destinations or areas with unpredictable warehousing conditions.
Many downstream researchers focus on lead optimization, SAR (structure-activity relationship) studies, or scale-up of drug-like compounds; they value a starting material that doesn’t introduce unexpected impurities or catalytic poisons. A single unvetted batch can set back weeks of work. By maintaining strict process hygiene and analytical confirmation, we help customers hit their project milestones with fewer delays. 4-Hydrazino-6-Methylpyrimidin-2-Amine's dual functional groups, arranged in a heterocyclic scaffold, inspire a broad range of reactions. Chemists blend it into condensed heterocycles, run diazotization for azo coupling, or prepare N,N'-bridged analogs that deliver new possibilities for targeting receptor sites in pharmaceutical and agrochemical research. Some clients collaborate with us to design unique derivatives that avoid patent-crowded chemical space, leveraging our process insights to explore off-patent or first-in-class opportunities.
Direct handling of hydrazine derivatives raises safety flags, both in labs and at plant scale. Years of manufacturing and working side-by-side with operators brought into focus the importance of real-world measures: effective ventilation, proper use of PPE, and on-site training get priority over theoretical guidelines. Our process engineers run regular hazard and operability studies, reviewing not just accident reports but near-miss data and customer feedback. While the pure compound doesn’t volatilize easily under standard conditions, trace dust or accidental spills can present inhalation or contact risks if unchecked. We supply detailed stability data and waste management recommendations derived from pilot plant observations. For example, we encourage clients to collect and deactivate hydrazino residues in aqueous washings, relying on proven oxidizers that don't generate volatile byproducts. This practice not only aligns with regulatory requirements but also extends the useful life of site filtration and water treatment systems. Our on-site waste stream tracking feeds back into process tweaks, further lowering our own emissions and tightening control over process water. On the larger scale, we keep an eye on solvent choice, aiming to incorporate greener options or offer guidance for efficient solvent recovery. With regulatory agencies cracking down on persistent organic pollutants and residual nitrogenous compounds, we feel a direct obligation to help customers design workflows that anticipate stricter compliance. Our technical team updates process guidelines as local, state, and international laws evolve, sharing first-hand experience to help downstream users avoid fines, recalls, or production stoppages.
Orders for 4-Hydrazino-6-Methylpyrimidin-2-Amine increase year by year as more R&D teams chase complex targets. The compound’s profile fits the growing demand for modular synthesis, where efficiency and selectivity reduce both time-to-milestone and resource consumption on the bench. As manufacturers, we recognize the impact of reliable intermediates on project outcomes—good raw materials turn into successful syntheses, publications, and registrations, while dodgy lots stall progress. We support research managers planning campaign scale production by offering process transparency and full shipment details. Early communication prevents last-minute supply hiccups, especially in multi-site organizations competing for scarce raw materials. Some of our best product improvements—such as better drying cycles, narrower particle distributions, or specialized silica controls—come directly from open exchanges with clients. Fielding honest feedback (good or bad) shapes a feedback loop that pays off in downstream savings and smoother synthesis runs.
None of these benefits happens by accident; process improvement has been a gradual and steady climb. Over time, real-world use cases teach us why small tweaks—a revised crystallization step, a new in-line drying upgrade, a better inerting procedure before packaging—can cut batch failures and returns. Rather than chase the latest process trend, we draw lessons from on-site production data and long-term customer outcomes. Scale-up surprises often come not from textbook chemistry but from overlooked parts of the plant: dust extraction, filter maintenance, or a valve that introduces trace contaminants. Keeping the supply chain flowing presents its own share of challenges. The tumult of global logistics—shortages, political disruptions, sea freight bottlenecks—makes planning more vital than ever. We’ve weathered spikes in demand by building up safety stock, qualifying redundant suppliers for raw hydrazine, and tuning our reactive storage protocols. We also watch for early signs of supplier risk, such as fluctuating certificate of analysis results or delivery delays from upstream providers.
Drug discovery teams, especially in oncology and anti-infective research, prize our compound for the versatility it adds to medicinal chemistry toolkits. The hydrazino group, positioned just right on the pyrimidine base, lets chemists explore diazotization, acylation, and cyclization routes that are less accessible with simpler amines. Our regular technical exchanges with customers bring us updates from the frontlines of target screening and candidate selection. We’ve even partnered in reaction optimization studies yielding higher throughput—directly translating to shorter project timelines and less waste generation. In crop protection, researchers deploy 4-Hydrazino-6-Methylpyrimidin-2-Amine as both a direct lead and a derivatization handle for selective pesticides. The modest toxicity of the methyl-pyrimidine motif, when compared to older, more hazardous chemotypes, allows for exploratory screening without the regulatory headache tied to persistent organics. Modern agrochemical innovation prizes high selectivity and low off-target activity, a combination the scaffold supports thanks to its unique substituent pattern.
Aside from the “headline” applications, specialty polymer makers and dye chemists find value in our product as a building block for complex functional groups or condensation polymers. The high nitrogen content makes it attractive for those engineering responsive materials, fluorescent tags, or specialty coatings aiming for unique electronic properties.
Living with a compound from raw materials through finished shipment gives us a direct stake in long-term outcomes. We invest in reactor upgrades and automation specifically to minimize process variation—a move that pays off in both quality and safety. Our quality system doesn’t run as an isolated paperwork exercise but as a living routine, adjusted in real time to production and customer feedback. Technical staff walk the floor, troubleshoot issues with operators, and assess each lot before release. Analytical chemists and process engineers confer about off-spec results, so changes never happen in a vacuum. Troubleshooting in practice means recognizing subtle trends in impurity profiles, moisture pickup, or shipping-induced stress that might not pop up in a single lab batch, but show up after 50 tons reach global customers—a scenario no manufacturer wants to see.
By emphasizing hands-on process oversight and technical transparency, we earn the trust of research teams who can’t afford missteps. Customers reach out with questions about formulations, stability, or end-use compatibility; we respond with real production histories and data, not just literature values. The credibility we build comes from fixing problems, not just avoiding them.
As the producers of 4-Hydrazino-6-Methylpyrimidin-2-Amine, our mission is to marry innovation with consistency. In doing so, we help advance new treatments, safer agrochemicals, and better specialty materials. Our efforts extend beyond simple fulfillment; they reach into ethical sourcing, regulatory diligence, and environmental stewardship. We see firsthand that improvements in chemical manufacturing reflect in society’s progress, much of it powered by the small, specialized molecules we supply.
In this way, each kilo of high-purity, well-characterized product represents not just a factory output, but a stake in discovery, safety, and real-world impact. By taking the long view, we weave reliability into every step and every lot delivered—helping chemical innovators reach their goals and build tomorrow’s advances, one batch at a time.