|
HS Code |
506531 |
| Cas Number | 4560-24-5 |
| Molecular Formula | C6H7NS |
| Molecular Weight | 125.19 |
| Iupac Name | 2-methylsulfanylpyridine |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 192-194 °C |
| Melting Point | -18 °C |
| Density | 1.13 g/cm3 |
| Flash Point | 77 °C |
| Solubility In Water | Slightly soluble |
| Smiles | CC1=CC=CC=N1S |
| Inchi | InChI=1S/C6H7NS/c1-8-6-4-2-3-5-7-6/h2-5H,1H3 |
As an accredited 2-Methylthiopyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Methylthiopyridine is supplied in a 100g amber glass bottle with a secure screw cap, labeled with hazard and identification details. |
| Shipping | 2-Methylthiopyridine is shipped in tightly sealed containers to prevent leakage and contamination. The chemical should be handled in compliance with applicable transportation regulations. It is typically classified as a hazardous material and should be stored and shipped in cool, dry conditions, away from sources of ignition and incompatible substances. |
| Storage | 2-Methylthiopyridine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. Protect it from moisture and direct sunlight. Store at room temperature, and avoid excessive heat. Clearly label the container, and ensure proper chemical spill containment and fire safety measures are in place. |
Applications of 2-Methylthiopyridine in Industrial Manufacturing2-Methylthiopyridine serves as an advanced pyridine derivative in specialized chemical synthesis. We manufacture this raw material for a range of industrial processes, supporting precise downstream integration where regulatory standards, formulation ratios, and process requirements are critical. 1. Active Pharmaceutical Ingredient (API) Intermediate SynthesisPharmaceutical manufacturers frequently select 2-methylthiopyridine as a key heterocyclic building block to construct thienopyridine and related scaffolds during small molecule API synthesis. Our material is specified in routes where sulfur-substituted pyridine cores require purity and controlled trace impurity content. Common production sequences involve condensation or alkylation in a controlled environment, maintaining GMP-compliant documentation. Process validation occurs during route development, especially when the intermediate transitions to sensitive hydrogenation or oxidation steps. Rigorous in-process QC confirms compliance before integrating into regulated API manufacturing lines. Final APIs produced with this intermediate target cardiovascular and anti-inflammatory indications, often branded under proprietary molecules by downstream clients. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Crop Protection Active Ingredient ProductionManufacturers of agrochemical active ingredients employ 2-methylthiopyridine for constructing sulfur-containing heterocycles in targeted herbicide and fungicide molecules. Its use typically arises in halogenation or coupling reactions, where strict technical requirements exist for residual solvent levels and elemental sulfur carryover. Our product supports high-volume synthesis runs compliant with multi-stage QC, tracking to lot-level traceability. Downstream customers integrate this input for further cyclization, sulfone formation, or aromatic substitution reactions, ultimately resulting in products registered under national pesticide authorities. Strict process controls govern solvent recovery and final workup procedures before packaging technical grade actives. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Electronics and Specialty Chemical SynthesisThe specialty chemicals sector integrates 2-methylthiopyridine in producing photonic materials, liquid crystal additives, and conductive organic materials. Its electron-donating thioether moiety enables fine-tuning electronic properties in OLED and display manufacturing intermediates. Downstream partners demand high purity and ultra-low trace metal content, with lot-specific certificates of analysis and full chain-of-custody documentation from our plant to fabrication lines. Customers convert this material via sulfonation, Suzuki coupling, or direct metalation, strictly monitoring for optical clarity and thermal stability. Results support complex display device production and advanced sensor solutions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Catalyst and Ligand ManufacturingProducers of transition metal catalysts use 2-methylthiopyridine in the design of chelating ligands for homogeneous and heterogeneous catalytic systems. Its thioether nitrogen motif coordinates with metals such as palladium, platinum, and ruthenium in cross-coupling and oxidation catalysis. Catalysts incorporating this intermediate show enhanced selectivity and turnover frequency. Our supply meets requirements for high stability, precise water content, and minimal residual acid, supporting scale-up for kilo lab and pilot reactor runs. Downstream customers document every material transfer for process reproducibility and batch quality verification, prior to final catalyst complex formation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 2-Methylthiopyridine prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
At our production site, 2-Methylthiopyridine does not mark the endpoint of our work; it marks a commitment to quality and consistency. Over the years, our teams have worked with endless variations of substituted pyridines, but this compound stands out as a versatile intermediate. The specialty market calls for materials that meet predictable standards, and 2-Methylthiopyridine answers this need. We know firsthand the obstacles of sourcing unreliable supplies: batches that vary in purity, byproducts that interfere with final synthesis, and logistical challenges that eat up precious production hours. Our approach has always been straightforward: refine the process, triple-check each drum, deliver what we say we will.
In our facilities, 2-Methylthiopyridine arrives as a crystalline solid, typically packed in moisture-resistant containers to protect integrity during storage and transit. We target a purity above 99% to ensure every reaction downstream runs as intended. The compound’s molecular formula, C6H7NS, seems simple, yet the production demands precision. Elevated reaction controls prevent over-oxidation and unwanted isomer formation, two headaches anyone in the business will recognize. Small shifts in reaction pressure or reactivity of starting materials can send yields tumbling, so we’ve invested in automated monitors and feedback loops to keep every run within spec.
We use a closed-system process that limits exposure, minimizing operator risk and environmental load. Waste streams receive in-line filtration before treatment or recycling—keeping regulatory headaches at bay and cutting down on disposal costs. Our chemists have years of experience with 2-Methylthiopyridine’s reactivity; they structure each step to prevent secondary contaminant build-up. This not only improves purity figures in the final COA (Certificate of Analysis), but also saves our partners the trouble of further downstream clean-up.
2-Methylthiopyridine regularly makes its way into a surprising range of end uses, especially as a building block in pharmaceutical and agrochemical projects. Its methylthio group provides a reactive handle, ideal for cross-couplings, oxidation, or substitution reactions. Several customers look for repeatable performance in Suzuki or Stille cross-couplings, and our product’s profile more than satisfies those requirements. Researchers rely on a solid, uncontaminated supply to minimize troubleshooting; you cannot spend time purifying mediocre starting compounds or running QC checks on every shipment.
Our teams have worked alongside active pharmaceutical ingredient (API) producers who need the flexibility to scale batches from pilot kg to full production metric tons. For these clients, variances in melting point or the presence of trace sulfur compounds mean rejected batches and lost profit. We build relationships through transparency in our processes and a readiness to tweak parameters if a customer shifts their own specs—nothing remains static in custom chemistry.
Some may ask about differences from 2-Methylpyridine or 2-Chloropyridine. Those compounds play their own roles, but they lack the sulfur atom, which opens up new routes for further derivatization. The methylthio group found in 2-Methylthiopyridine reacts selectively, without the reactivity problems of halogenated compounds that can trigger undesirable side reactions. It’s this selectivity that makes it attractive for fine-tuning complex synthesis—yielding higher conversion rates and cleaner reaction profiles.
From an industrial standpoint, 2-Chloropyridine can introduce handling hazards due to toxicity and is less forgiving in large-scale processing. 2-Methylpyridine, on the other hand, delivers less functionality in later transformation steps. By offering 2-Methylthiopyridine, we give our partners an option that balances both safety and reactivity. Large-scale chemical work often requires this kind of balance, because unpredictable behavior at one stage creates months of delays downstream.
Scaling up this compound takes more than a simple increase in reactor size. On larger runs, we’ve encountered challenges in heat dissipation and mass transfer efficiency. Uncontrolled exotherms during sulfur introduction have the potential to runaway, which in earlier years resulted in a few nervous nights at the plant. A hard lesson learned: batch cooling must stay a step ahead of reagent feed. We addressed this by introducing jacketed vessels with real-time thermal monitoring, and this investment pays off in batch-to-batch repeatability.
From a logistics perspective, 2-Methylthiopyridine possesses greater stability than several alternatives, easing some of the shipping restrictions associated with other substituted pyridines. In long hauls across borders, our cargo rarely generates complaints from downstream users. We cap every container with tamper-evident seals and include onboard temperature loggers to verify conditions are maintained on the road or at sea. Customers with strict cGMP requirements never want to find a drum that’s swung out of the recommended temperature range.
Global customers expect rigorous documentation on manufacturing standards, traceability of raw materials, and batch-to-batch consistency. Our facilities work to ICH Q7 Good Manufacturing Practice (GMP) guidelines. All materials used in 2-Methylthiopyridine production trace back to their origin, and audit paths exist for every step in the process. Quality control teams continually check for heavy metals, residual solvents, and critical impurities, verifying compliance not only with our own standards, but also those set by our international clients.
Personnel safety comes from clear procedures and rigorous enforcement. We train operators on specific hazards—thiol odors, sulfur compound volatility, potential respiratory irritation. Mechanical ventilation, proper PPE, and local monitoring keep exposures far below occupational limits. Our record shows that systematic attention to workplace hazards creates a smoother-running plant and reduces costly mistakes or production stoppages.
Many of our long-term buyers are R&D centers who require uniformity for repeated testing. We have tailored supply agreements for both scheduled periodic shipments and spot orders, accommodating production surges and urgent research needs. Consistent communication supports these efforts. Our technical support team advises on safe handling, reaction compatibility, and storage. Few things cause greater frustration for a chemist than discovering a new impurity that blocks a critical reaction; our plant’s attention to detail reduces that risk.
One practical concern among scale-up teams: how does this product behave outside the glass confines of the laboratory? We supply performance data from actual plant experience—handling guidelines, storage limitations, even disposal practices. That hands-on knowledge means much less trial-and-error at the customer’s facility. Once, after a partner reported problems dissolving the product into their starting solvent, we offered technical adjustments based on our own process experience, quickly resolving the bottleneck.
We take environmental performance seriously. From solvent reuse programs to energy-efficient heat exchangers, our operations invest in more than output volume. By capturing and reprocessing sulfur-containing vent gases, we reduce atmospheric emissions without additional external treatments. Effluent pre-treatment combines activated carbon filtration and advanced oxidation steps to lower total organic carbon (TOC) in wastewater. These investments don’t just keep inspectors happy; they cut costs and strengthen our relationships with communities near our facilities.
As regulations shift to demand stricter standards, our experience lets us respond without shutting down lines or struggling to source alternative reagents. Raw material sourcing emphasizes sustainable supply, and we work with partners willing to certify origin and responsible mining of key elements. It took time to build up this network, but now, even during challenging supply chain disruptions, we maintain stable flow and avoid last-minute substitutions that might compromise quality.
Each production campaign brings a new set of lessons. We run post-mortem reviews on every incident—off-spec batch, delayed shipment, unexpected impurity. Over the years, these reviews have revealed key process improvements in catalyst separation, filtration protocols, and analytical test calibration. Our analytical suite uses both traditional methods and the latest UPLC-MS to catch impurities that sometimes escape standard techniques.
Clients often approach us seeking adjustments that only a manufacturer has the depth to deliver: a tighter melting point range, modification of residual solvent profile, or lower detection limits for sulfur-based byproducts. Our staff draws on decades of combined experience; most have moved up from line technician to process supervisor, bringing firsthand knowledge of both shop floor reality and quality demands from end users.
The landscape for intermediates like 2-Methylthiopyridine keeps evolving. Pharmaceutical regulation grows stricter. Pesticide manufacturers need even more refined building blocks to meet new environmental protections. Our job isn’t just about making a volume target each month; it’s about tracking the needs of our partners farther down the value chain. Some years, this means investing in data logging to enhance traceability; other years, it means reworking process steps to reduce residual metals for customers aiming for ever-lower impurity limits.
E-discovery and tech-enabled procurement are reshaping how specialty chemicals move from plant to pilot lab. We provide full digital documentation and rapid material traceability—scanning every drum, providing digital signatures, and maintaining secure electronic records that facilitate compliance checks. This level of transparency builds trust, and it also helps clients ramp up new projects with confidence in their upstream supply.
Producing 2-Methylthiopyridine is more than ticking a box on a spec sheet. Industry peers recognize that sustained reliability comes only from a culture that refuses to cut corners. We maintain close links to process control and raw material sourcing, investing in people and upgrades wherever persistent issues threaten product quality. Our facility’s track record means customers come back. They know we do not introduce batch-to-batch guessing games. We’ve heard countless stories of downstream headaches traced to impure intermediates—delayed launches, invalidated toxicity studies, or regulatory setbacks. Meeting the strictest possible tolerances allows our partners to focus on scaling syntheses, rather than policing their entire supply tree.
Our operations benefit from feedback as much as process data. Every tweak in loading speed, drying cycles, or packaging feeds into better output. We encourage clients to reach out not only if something goes wrong, but when something goes right; that feedback loop ultimately strengthens our own product. The need for 2-Methylthiopyridine will continue to grow, especially as new molecules hit the market and synthetic pathways become more intricate. We look ahead by continually improving—not only the compound itself, but every aspect of how it’s made, shipped, tested, and integrated into supply chains worldwide.
We see the challenges and opportunities around 2-Methylthiopyridine up close—every process run, every container loaded, every certificate checked before shipment. This compound has earned its place in the toolkit of pharmaceutical, agricultural, and specialty chemical industries, not just for its reactivity, but for the reliability and care that come from a manufacturer focused on what matters. We look forward to supporting the innovations of our partners, sharing knowledge grounded in experience, and providing a product that stands up to the demands of modern chemical synthesis.