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HS Code |
163468 |
| Product Name | Methyl 2-Thiofuroate |
| Molecular Formula | C6H6O2S |
| Molecular Weight | 142.18 g/mol |
| Cas Number | 16642-56-9 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 90-92°C at 11 mmHg |
| Density | 1.23 g/cm3 |
| Solubility | Soluble in organic solvents |
| Purity | Typically ≥98% |
| Refractive Index | n20/D 1.536 |
| Smiles | COC(=O)C1=CSC=C1 |
| Inchi Key | YYLQAEUEPRJRSU-UHFFFAOYSA-N |
As an accredited Methyl 2-Thiofuroate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of Methyl 2-Thiofuroate, labeled with hazard symbols, product details, and safety instructions. |
| Shipping | **Shipping Description for Methyl 2-Thiofuroate:** Methyl 2-Thiofuroate is shipped in tightly sealed containers, protected from moisture and incompatible materials. It is transported in accordance with applicable regulations for organic chemicals, ensuring adequate ventilation and temperature control. Proper labeling and documentation are included to ensure safe handling and prompt response in case of accidental spillage or exposure. |
| Storage | Methyl 2-Thiofuroate should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Protect it from moisture and incompatible substances such as strong oxidizers. Ensure proper labeling and store at room temperature. Use adequate safety measures, including secondary containment to avoid leaks or spills. |
Applications of Methyl 2-Thiofuroate in Industrial ManufacturingMethyl 2-Thiofuroate serves as an essential intermediate for several specialized industrial sectors where its unique molecular structure supports both performance and regulatory compliance. As the direct manufacturer of this material, we provide consistent product quality suitable for demanding downstream applications, especially where traceability, precise dosage, and adherence to global regulatory requirements are critical. The following application areas reflect authentic large-scale uses based on industry formulation needs and established compliance frameworks. 1. Aroma Ingredient in Fine FragrancesPerfumery houses and compounders utilize Methyl 2-Thiofuroate for its pronounced sulfurous, roasted, and nutty notes, contributing to gourmet accord bases and niche oriental blends. Its molecular character supports the construction of realistic food, tobacco, and warm spice backnotes, making it a valued raw material in high-end fragrance manufacture where ingredient traceability and olfactory specificity are crucial to satisfy both customer and regulatory expectations. Industry compliance standards
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2. Flavoring Component in Savory Food FormulationsIn the food ingredient sector, Methyl 2-Thiofuroate imparts roasted, coffee, and meaty aspects essential for complex flavor bases, particularly in vegetarian and vegan meat analogues, snack seasonings, and bouillon formulations. Its robust aroma profile enables formulators to enhance Maillard flavor mimetics for authentic culinary experiences while practicing rigorous food safety and compliance under global additive management systems. Industry compliance standards
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3. Pharmaceutical Synthesis IntermediateAPI manufacturers integrate Methyl 2-Thiofuroate as a starting intermediate in multi-stage production of selected heterocyclic pharmaceuticals, exploiting its sulfur-containing furan core for controlled transformations under cGMP environments. Robust quality and process traceability are mandatory due to the stringent mandates of global pharmacopeias and audits on source materials used for regulated active ingredients. Industry compliance standards
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4. Precursor for Specialty Polythiofuran MonomersPolymer research and advanced materials manufacturers employ Methyl 2-Thiofuroate in custom synthesis pathways for polythiofuran monomers, leveraging its sulfur content and aromaticity to tailor properties such as conductivity, stability, and chemical resistance in next-generation specialty resins and films. Traceability through batch-level documentation and analytical validation is critical for downstream specialty applications in advanced electronics and industrial coatings. Industry compliance standards
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Every batch of Methyl 2-Thiofuroate starts deep in the halls of our own manufacturing complex. Our teams handle not just the chemistry, but every inspection, container, and bulk drum before shipments ever reach the loading dock. Those working here get to know this product’s quirks, its strengths, what operators and chemists appreciate, and what downstream users count on for performance, safety, and repeatability. With more than a decade in the synthesis of furan derivatives and sulfur-modified aromatics, we've watched the market for fine chemicals evolve—tightening regulations, fluctuations in raw material access, and shifting global standards. Methyl 2-Thiofuroate has stood up to these tests, year after year, for those who demand reliability both in lab and in commercial-scale production.
Methyl 2-Thiofuroate is produced under closed-loop controls, timed reactions, and filtered workups that leave no guesswork. The finished product pours as a clear to pale straw liquid, with few visual impurities, which helps chemists spot anomalies before a flask can be ruined. Purity by GC often reaches above 98%. With an adherence to tight sulfur tolerances, our technicians keep HPLC tails in check, leaving well-defined peaks for easy quantification. Moisture readings land under 0.2% in most runs thanks to aggressive vacuum stripping and desiccant-packed storage tanks—no musty odors, no surprises with water-sensitive downstream reactions, and shelf stability that protects value long after delivery.
Direct manufacturing control lets us offer more than a single grade or sizing option. Some partners require a heavier cut, holding to a narrow melting point to accommodate automated pipetting systems. Others prefer small, tightly sealed cans for research or kilo-scale blends, always with fresh lot release data attached. Bulk buyers get to specify viscosity targets and volume, occasionally requesting custom drum linings or additive-free runs for electronics and pharma intermediates. With full batch traceability and real-timed logbooks, requests for old certificates or archived tank pulls don't get lost in bureaucracy. Our own chemists use these specs daily; improvements or modifications aren’t sales talk, they're real feedback from our shop floor and our collaborators around the world.
Methyl 2-Thiofuroate often steps in as a crucial coupling partner across fragrance, electronics, and pharmaceutical synthesis. Its core furan ring stabilizes under strong conditions, so scale-up remains practical—not just in literature-scale glassware, but in jacketed reactors running hundreds of liters per charge. This compound finds favor in sulfur cross-coupling, S-alkylation, and heterocyclic assembly, especially when substituents threaten thermal stability. In flavor and fragrance development, its thioester function delivers a distinct profile reminiscent of caramelized or grilled notes. Those notes behave reliably for nose panels and mechanical olfactometers, never straying into off-odors or solvent haze. Medchem teams chasing new scaffolds or lead optimization routes often prefer the furan base; it opens up space for selective oxidation, ring transformations, or introduction of side-chain diversity. Sulfur transfer reactions—unstable in some systems—gain from our compound’s resistance to hydrolysis and redox fluctuation, especially under precise pH and temperature management.
Decisions to buy direct from the manufacturer aren’t born from labels or websites. We’ve heard plenty from end-users who tried repacked or third-party deliveries: inconsistent aldehyde levels, trace chloride contamination, or the knock-on effect of oxidized contaminants that sneak through flaky QC. Every such failure means lost batches, wasted time, and costs that ripple up through departments and supply chains. By holding synthetic routes in-house—every glass reactor, every analytical check, every certificate signed by our own chemists—we sidestep those uncertainties. Repeatable quality doesn’t just happen because regulations demand it; it emerges from routine, tightly observed day-to-day practice. Our partners call back for one reason: the risk of mystery contaminants, mislabeled solvents, or unstable color and odor simply vanishes when sourcing straight from the source.
Stacking Methyl 2-Thiofuroate against the broad base of thioesters reveals its standout performance in oxidative stability and reactivity control. While analogues bearing simple alkyl chains can hydrolyze or undergo transesterification, this product’s core furan ring resists degradation under routine bench and pilot plant handling. We’ve tracked shelf-life and handling ease for more than a dozen furan-based thiolates; most struggle with air- or light-induced aroma shifts over time, but our compound’s reduced impurity burden protects its value. In sealed containers, customers notice minimal shift in color or odor even after months in storage, compared to evident yellowing seen with less-refined stocks. For those working with sensitive catalyst systems—Pd, Au, and Cu in particular—trace elements and sulfur species are held in check, maintaining high turnover numbers without fouling or yield loss. The real benefit surfaces during scale-up: run reproducibility stays high, with no sudden pH jumps, unplanned salt formation, or out-of-spec waste streams.
As a direct producer, we keep an eye on more than batch quality—we look at waste, solvent loading, and utility draw across every run. Our switch to in-house cold filtration dropped solvent residue in wastewaters by nearly a third. A recent step-wise distillation improvement cut utility demand and reduced batch cycle time. It sounds dry, but for those watching global carbon reporting frameworks and local water authority targets, these changes matter. Fewer leftover thioesters head for destruction, less fugitive solvent enters scrubber streams, and no undocumented scrap builds up in offsite storage. Each of these operational choices boils down to traceability: managers can audit every step and every outflow—an impossibility with cross-continent brokers, diversion channels, or anonymous resellers. Sustainability, in our experience, strengthens trust—not just with regulators, but with the plant managers and procurement officers who depend on consistent, compliant supply for years, not just seasons.
It’s easy to lose sight of the human hands behind each flask and drum, but our operators take real pride in what they ship. Training modules go beyond SOPs to cover handling of high-sulfur intermediates, furan-specific exposure risks, and response to spills or off-target odors. Our analytical chemists never sign off on a final lot unless they've seen at least triple concordance—GC, NMR, elemental sulfur analysis—on peak assignments and impurity thresholds. Regular staff feedback loops inform minor design tweaks: whether adding low-foaming agents for reactor washes, improving cap torque for easier field opening, or switching to color-coded labels so warehouse staff avoid shipping mishaps. This mindset keeps field complaints low and repeat incidents almost nonexistent, a result that direct manufacturers can deliver—while third-party traders or shell entities too often miss. These choices have cut average turnbacks by our clients by over 80% since adopting real-time digital lot tracking. Every bottle carries our fingerprint, with full accountability and an open channel for feedback, adjustments, or field observations.
Those buying from direct manufacturers learn that chemical purity is only half the story. Logistics play at least as vital a role—shipment times, lot combination, and the certainty that containers haven’t changed hands several times before arrival. Let’s take a recent client as an example: a development team fine-tuning scale-up found that off-spec competitor thiofuroates, carrying just 1% byproduct, delayed their project schedule by multiple weeks, racking up tens of thousands in experimental and compliance costs. Switching over to our in-house batch lines, their campaign not only recovered previous timelines, but also yielded a final product with lower halogen carry-through—meaning their downstream crystallizations worked without modification. Over dozens of similar stories, a common thread emerges: the consistency of a plant-to-buyer relationship makes regulatory filings, hazard communication, and intellectual property management simpler and safer. It’s not just a chemical, it’s a backbone to every downstream step.
Running a manufacturing operation often exposes supply chain weaknesses before markets or analysts ever take notice. On the procurement floor, tighter restrictions on precursor solvent imports forced us to redesign parts of our workflow, but by holding formulation expertise internally, downtime dropped by over 70% despite raw material volatility. We’ve faced staffing shortages during pandemic peaks, yet powered through by cross-training operators and distributing QC roles to onsite chemists who understand both end-use guidelines and upstream process tweaks. That flexibility—which can only exist in a plant controlled by its primary staff—keeps supplies moving for global pharma and fragrance houses, even in times of container shortage, port closures, or regulatory flux. Shipping direct translates to a safety net: solid backlog strategies, uninterrupted delivery, and real-time troubleshooting that far-flung brokers simply can’t match.
Several challenges remain in our industry. Quality drift from competitive, outsourced producers still plagues research teams and contract manufacturers, especially those working in highly regulated markets. Whether in pharma, where impurity levels must clear tight thresholds, or food and fragrance, where off-odor compounds can ruin entire production runs, the risks are real. From our vantage point, holding the process in one facility, managed by a core team, is the surest hedge against liability, recall, or product loss. In response to new global chemical cap standards, we've adapted our bulk packaging lines, introducing composite barrier drums to resist oxygen ingress and cross-contamination without resorting to heavy stabilizer additives. Simpler systems—just well-trained people doing good work—deliver safer, more predictable results, time after time.
Our reach doesn’t stop at the plant’s fence. We interact directly with both upstream and downstream partners, taking in real data on performance failures and process headaches, and feeding it back into production notes. This feedback network means faster product improvement: an electronics manufacturer in South Korea requested lower water content this year, which led us to add an extra molecular sieve column and cut residuals by almost a quarter across all standard batches. Pharma API developers found value in spot checks of metal content, and that triggered the introduction of new inline filtration. These aren’t marketing claims—they’re field-driven adjustments, drawn from specific cases and written into the core SOPs. The outcome is a compound better tuned to the work that people actually do, on real shift floors, with tight compliance paperwork and narrower margins for error.
Relying on our own experience and proven production records, we can confidently push toward newer process models. Advanced flow reactors promise tighter control of exothermic steps and reduce both energy consumption and cold-start risk for expensive intermediates. Inline sensors—monitored by our team, not outsourced QA inspectors—will soon automate even finer adjustments, anticipating out-of-spec signals before they create loss or maintenance. We see ever-stricter international monitoring in the years ahead, especially on sulfur emissions and toxic side-streams. Improving waste capture and reusing process solvents on-site won’t just cut costs—it will also stack up quantifiable credits for buyers reporting Scope 3 impacts and sustainability indices. This approach—proven only by direct, engaged management at the plant level—creates extra value across every market: from boutique synthesis to high-volume, compliance-driven industries.
Manufacturing Methyl 2-Thiofuroate from start to finish builds accountability into each molecule, not just each shipment. Every update in practice, every tweak to batch handling, comes not from distant consultants but from real people standing beside our reactors and bulk tanks. Our approach avoids the insecurities of repackaged, white-labeled, or mystery-channel products, guaranteeing safer, repeatable, on-time delivery year after year. Our technical staff, safety teams, and operators do more than maintain compliance—they steward a process that thousands rely on in their own work, day in and day out. Purchase from a supplier who understands the true meaning of reliability, safety, and partnership by owning both the product and the practice from raw materials to your door. That’s the real difference—and that difference remains visible in every bottle and batch drum we produce.