|
HS Code |
717250 |
| Name | 2-Mercaptopyrimidine |
| Cas Number | 109-80-8 |
| Molecular Formula | C4H4N2S |
| Molecular Weight | 112.16 g/mol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 128-133°C |
| Boiling Point | 290°C (decomposes) |
| Solubility In Water | Slightly soluble |
| Density | 1.33 g/cm³ |
| Pka | 6.1 |
| Smiles | c1cnc(nc1)S |
| Pubchem Cid | 7580 |
| Odor | Slight mercaptan odor |
As an accredited 2-Mercaptopyrimidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled “2-Mercaptopyrimidine, 25g.” Features hazard pictograms, product code, lot number, and safety instructions. |
| Shipping | 2-Mercaptopyrimidine is shipped in tightly sealed containers, protected from moisture, heat, and sources of ignition. The packaging complies with chemical safety regulations, ensuring safe handling and transportation. Appropriate hazard labeling is included, and transport is arranged according to local, national, and international guidelines for hazardous materials. |
| Storage | 2-Mercaptopyrimidine should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from sources of ignition, oxidizing agents, and acids. Protect it from moisture and light. Store it at ambient temperature, following all chemical safety protocols and local regulations for hazardous materials. Proper labeling and secure shelving are recommended to prevent accidental spillage or reaction. |
Applications of 2-Mercaptopyrimidine in Industrial ManufacturingAs a direct manufacturer specializing in high-purity 2-Mercaptopyrimidine, we supply material into precise downstream applications where controlled formulation, regulatory compliance, and defined technical performance are essential for production efficiency and quality assurance. Below we present verified industrial use scenarios, highlighting regulatory frameworks, dosage levels, process touchpoints, and downstream output types relevant to each sector. 1. Metal Corrosion Inhibition for Industrial Cooling Water TreatmentMajor producers of closed and open-loop cooling water systems rely on our 2-Mercaptopyrimidine as a specialized corrosion inhibitor due to its strong affinity for metal surfaces and sulfur-donating protection properties. It helps minimize system corrosion, extends equipment lifecycle, and stabilizes water chemistry, especially in high-alkalinity and variable pH environments where secondary amine and organosulfur chemistries are required for non-oxidizing programs. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Pharmaceutical Intermediate for Pyrimidine-Based Drug SynthesisPharma producers utilize our material as an intermediate for synthesizing various pyrimidine-derived drug molecules, especially thio-functionalized APIs and advanced intermediates. Its reactive mercapto group supports key transformations including acylation, alkylation, and cyclization under controlled GMP production conditions, where trace impurities and residual solvents must meet stringent regulatory thresholds. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Rubber Vulcanization Modifier in High-Performance ElastomersManufacturers of specialized elastomeric compounds introduce our material as a vulcanization modifier to tailor sulfur crosslinking profiles, improving resistance to thermal aging, wear, and chemical exposure in demanding applications such as automotive molded parts and high-flexibility seals. Their process engineers use it in precise dosages to balance mechanical strength with flexibility, especially in blends where traditional accelerators struggle to deliver long-term durability without premature reversion. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Copper Plating Bath Additive for Electronics & PCB ManufacturingSpecialty electronics plating operations employ our product as an organic sulfur-containing brightener additive to control grain structure, level deposit thickness, and promote low-defect, high-conductivity copper finishes for precision printed circuit board (PCB) production. Its use enables improved uniformity, finer surface, and long-term performance in electronic assemblies, making it integral to chemical processes where deposit homogeneity is mission-critical. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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For years, we have devoted our efforts to the synthesis and purification of 2-Mercaptopyrimidine. From our plant’s core reactors to the final stages of drying and sieving, every batch reflects decisions made by hands-on chemists and process engineers. There’s no substitute for seeing the raw material take shape and understanding those little technical refinements that separate a robust product from a middling one. The compound itself—pale yellow, with a mild but distinct sulfurous aroma—draws a loyal following among research labs and industrial customers for good reason. The consistency we achieve matters more than ever, as process-dependent sectors look for reliable intermediates, not just generic chemicals pulled from a catalogue.
We offer 2-Mercaptopyrimidine under the model designation MP-2024, a formulation that reflects our latest process updates. Over the past few years, in response to feedback from pharmaceutical partners, our technical team optimized the ratio and quality of reagents, minimized trace metal impurity levels, and introduced supplementary purification steps after crystallization. The outcome: each lot now meets standards for residual solvents, loss on drying, and particle sizing, which surpass typical market benchmarks. Actual chemical purity, by HPLC, regularly reaches upwards of 99.5%, and we demonstrate sulfur content conformity using our on-site microanalysis lab rather than a distant third party. These are the small steps that let formulators avoid unexpected variability as projects scale from bench to pilot.
2-Mercaptopyrimidine stands out as a key intermediate for both pharma and advanced materials sectors. Its thione group offers a unique nucleophilic handle, enabling heterocyclic coupling and forming the backbone for multiple synthetic routes. Pharmaceutical chemists recognize MP-2024 as a core in the synthesis of certain anti-infective agents, where the pyrimidine ring system supports further rational design. We support both custom development and volume supply for these applications. Our product also sees use in corrosion inhibition studies—our partners in specialty coatings turn to our MP-2024 to test formulations where performance failure simply isn’t an option.
Direct input from manufacturing allows us to offer detailed insights. For example, batch-to-batch moisture control impacts the shelf-life of the finished product, especially for customers storing stockpiles in high-humidity environments. Every process tweak, from the vacuum transfer stage to the final packaging in tight-sealed drums, comes from hard-won lessons on maintaining integrity during transit to Europe or the Americas. Formulation scientists have told us that certain trace metal impurities can jeopardize downstream catalytic efficiency, and so we built in purification checks as a baked-in part of our standard lot-release procedure.
It’s easy to present chemical standards that look alike at a glance. What matters are the subtle differences—residual solvent content, the method of drying, control of particle morphology. As an original chemical manufacturer, we don’t rely on third-party consolidators or speculative supply. Every batch of MP-2024 leaves our facility accompanied by in-house spectral data: NMR and mass spec overlays, full moisture reports, and detailed analysis of elemental sulfur.
We regularly compare our 2-Mercaptopyrimidine to other commercial samples. Competitor material, even from large international sources, often arrives with unpredictable trace organics or inconsistent yellow-brown coloration, typical of fugitive oxidized byproducts. That variability extends into reactivity and final-grade purity outcomes for API synthesis: a headache that shows up downstream rather than immediately on receipt. Over the last three years, chromatographic trace profiles from our MP-2024 output show tightly controlled baseline purity, letting chemists get on with synthesis rather than recalibrating for off-spec raw materials.
We have replaced acetate drying steps in our process with lower-residue alternatives, based on customer mandates for more sensitive formulations. Every modification originated from listening to feedback from formulation chemists, not abstract lab theory. During pilot collaborations, several partners in the agricultural chemical field noted that by-product management—especially pyrazine-type byproducts—was a common pain point that left their in-house downstream purification steps unstable. We retooled upstream washing and extraction parameters, so today’s MP-2024 ensures far fewer odorous contaminants and dramatically simplifies waste streams.
As plant operators, we know scale-up puts every claim to the test. A molecule that’s easy to make in the gram scale can throw curveballs at kilogram or tonnage batches. 2-Mercaptopyrimidine likes to cling to glassware and reacts poorly to excess moisture during isolation. Weak process controls multiply waste, decrease recovery, and yield frustrating variability in color and fineness. We built our purification and material handling routines around hard numbers: oven calibration logs, vacuum system checks, particle size audits, and rotating cleaning protocols. Engineers walk the floor to catch equipment drift—our most experienced team members spot early signs of batch deviations by changes as small as the opacity of crystallization slurries.
Customers rarely see these internal mechanisms, but they directly benefit. Every drum carries a traceable batch pathway, listing operator identities, all critical process interventions, and full documentation for compliance audits. We maintain a sample reserve of every outgoing lot. Unusual feedback, such as cloudiness on solution preparation or yield drops on post-purification, prompts us to re-examine these reserve samples and address root causes head-on.
On-the-ground experience has taught us that long-range transport and storage conditions matter more than marketing claims suggest. 2-Mercaptopyrimidine is susceptible to trace oxidative degradation under high temperatures or open-air exposure. We use moisture-resistant packaging and integrate rapid-turnover logistics to maintain stability for shipping in hot or humid seasons. Partners with climate-sensitive projects can request customized drum linings, reducing risk from temperature spikes during container shipping. These practices have evolved from our experiences with overseas clients who encountered subpar quality after extended transport delays.
Our safety protocols aren’t handed down from generic templates. Working directly with large drum quantities means daily attention to odor management, spillage controls, and real-time air quality monitoring. Early on, staff feedback led to upgraded extraction hood systems and specialized training on personal protective equipment for this family of sulfhydryl compounds. We don’t treat these routines as a regulatory checkbox but as a necessity – after all, those who handle the material daily have the sharpest read on operational risk. Our product guides and certification sheets aim for transparency and practical clarity, based on what actually works in manufacturing, not just what looks polished on paperwork.
We’ve always believed in direct access. Quoting batch availability and real lead times isn’t enough; our technical team makes themselves available to tackle unusual solubility issues, unforeseen reactions, and even minor oddities like filtration clogging. Every year, we track dozens of customer-initiated process improvement requests for MP-2024. Feedback often comes back not through formal complaints, but as technical discussions – a customer notices a slightly longer drying time, a quirky smell, or adjustment required in their reaction protocol. We log these observations, trace back to our process history, and don’t hesitate to tweak parameters if a recurring trend emerges.
Our R&D division is embedded in production, not isolated from day-to-day batch realities. Process troubleshooting unfolds in real time with machine operators and process chemists sharing the floor, not via distant email chains. A few years ago, one customer pointed out faint off-notes in their candidate pharmaceutical intermediates. The cause traced to a small batch of our 2-Mercaptopyrimidine that picked up trace solvent during transfer. The corrective fix—extra drying at reduced temperature and improved moisture control in our warehouse—was implemented in the very next production round. This open dialogue, rooted in mutual accountability, keeps specifications grounded and ensures partners get more than boilerplate assurances.
Customers’ project cycles rarely align with a quarterly supply plan. By holding upstream inventory of both raw materials and finished 2-Mercaptopyrimidine, we buffer supply fluctuations for partners facing sudden spikes or testing novel processes. Our planning is grounded in historical purchasing trends and long-term relationships, not spot-market speculation. We offer a range of units—starting from small research packs for R&D groups up to drum quantities for industrial-scale reactors. Interested developers often start small, vet the chemistry rigorously in their pipeline, and then scale up without bottlenecks caused by inconsistent deliveries.
Technical assurance doesn’t end with a delivery receipt. Our lab team actively revisits stored lots, tracking stability updates and refining recommended storage parameters in light of real-world findings. If a formulation chemist notices unexpected degradation over time, we dig in. Sometimes, problems originate from lot mixing or unexpected container exposure—not product flaws, but issues we troubleshoot alongside the customer.
Meeting international regulatory expectations in pharmaceuticals, agrochemicals, and advanced materials takes more than a data-laden certificate of analysis. Regulatory agencies are increasing scrutiny on both upstream and downstream impurities, cross-contamination, and trace metal content. Our full analytical suite and batch-data history stand up to audit because they’re rooted in plant reality—not paperwork assembled after the fact. Each lot comes with fully traceable analysis, run internally using validated methods, with ongoing calibration of every instrument. Whenever a project partner requests raw chromatograms or expanded impurity data, we provide unfiltered reports, not polished highlights.
For projects targeting the most stringent endpoints—whether innovative APIs or high-purity hydro-functional materials—we engage in pre-shipment conversations and pre-spec validation. Project partners get to talk directly with the chemist who last ran the lot, and most complex questions are settled with up-front technical discussion, so that timelines aren’t blown by regulatory slow-walks.
The chemistry landscape keeps shifting. We see a steady flow of requests for higher-purity, specialty-graded 2-Mercaptopyrimidine for applications in new electronics and catalyst development—areas where even a slight difference in trace element content can shape the entire outcome. Advanced researchers request additional testing such as micro-particle sizing, custom blends with other heterocyclic compounds, and listening closely to their direction lets us constantly adapt our workflow. Direct relationships mean we implement new in-process controls that aren’t widely standard, and those shifts ripple through future product lines as part of our baseline, not an upcharge.
Environmental impact also increasingly guides our focus. We have overhauled solvent usage and energy consumption in our pyrimidine manufacturing based on full-cycle evaluations, moving toward methods that align with sustainable production. Biodegradability studies, effluent treatment controls, and reductions in offgas have all come out of our cost optimization trials, not just environmental stewardship goals. Many customers now direct capacity toward formulations that meet updated green chemistry mandates or regional eco-labeling regimes. We respond with material that consistently passes both chemical and auditor scrutiny.
Manufacturing 2-Mercaptopyrimidine is never just about chasing a specification; it’s about carrying hard-earned technical credibility into every kilo shipped. Competing products vary not because manufacturers want them to, but because small lapses in process control and material handling ripple outward. Steady improvements, batch transparency, and everyday dialogue with those actually using the material create enduring trust. From the first gram to the latest batch shipped, our routine is grounded in solving problems, not reciting sales points. We rely on feedback from partners who value seeing those daily details attended to, understanding that small process details today make bigger project achievements tomorrow.
The chemical world isn’t static—market demands, regulatory frameworks, and technical requirements all steadily march forward. From our perspective as direct manufacturers, the true measure of 2-Mercaptopyrimidine isn’t only in purity numbers. It’s found in how well that product fits into evolving projects and how quickly and transparently emerging challenges are addressed as they arise. Because we don’t just sell a product; we drive its ongoing improvement, side by side with the customers we supply.