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Benzyl Methyl Sulfide

    • Product Name Benzyl Methyl Sulfide
    • Alias Thioanisole
    • Einecs 214-661-3
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    632077

    Chemical Name Benzyl Methyl Sulfide
    Cas Number 1618-26-4
    Molecular Formula C8H10S
    Molecular Weight 138.23 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 222°C
    Melting Point -50°C
    Density 1.043 g/cm3 at 25°C
    Refractive Index 1.562
    Flash Point 98°C
    Solubility In Water Insoluble
    Odor Characteristic, sulfury aromatic odor

    As an accredited Benzyl Methyl Sulfide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 100 mL amber glass bottle with a secure cap, labeled "Benzyl Methyl Sulfide, 98%," clear hazard symbols displayed.
    Shipping Benzyl Methyl Sulfide should be shipped in tightly sealed containers, clearly labeled, and protected from heat, sparks, and open flames. Transportation must comply with local, national, and international regulations for hazardous chemicals. Avoid incompatible substances and ensure ventilation. Handle with appropriate safety measures to prevent leaks or spills during transit.
    Storage **Benzyl Methyl Sulfide** should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition, strong oxidizing agents, and heat. Keep the container away from direct sunlight and incompatible substances. Proper labeling and secondary containment are recommended to prevent accidental release. Always follow local regulations and safety guidelines when storing chemicals.
    Application of Benzyl Methyl Sulfide

    Applications of Benzyl Methyl Sulfide in Industrial Manufacturing

    Benzyl Methyl Sulfide serves as a key intermediate in several specialized chemical manufacturing industries. Through rigorous production methods and precise formulation, it enables downstream producers to create advanced value-added products with controlled quality and compliance. The following application scenarios present focused, real-world uses supported by process data from our production lines and feedback from global commercial customers.

    1. Pharmaceutical Synthesis: Thioether-Based API Production

    Our material plays a significant role as a reagent and building block in the preparation of thioether-functionalized active pharmaceutical ingredients, especially in the synthesis of cardiovascular and anti-infective compounds. It enters the process chain during intermediate coupling stages to enable sulfide introduction with excellent selectivity and batch control. Quality teams verify raw material traceability and batch purity against established pharmacopeial specifications, ensuring every batch complies prior to finishing and export. Forward integration typically involves alkylation, oxidation, and derivatization steps leading directly to patented drug intermediates and, subsequently, final APIs.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • FDA 21 CFR 210/211 for finished pharmaceuticals
    • European Pharmacopoeia Monographs on impurities
    • USP General Notices for excipients and intermediates

    Typical usage ratio

    • 0.2–1.2 molar equivalents relative to target API intermediate; adjustments depend on the required degree of thioether alkylation and substrate reactivity

    Downstream process integration

    • Addition to closed reactor systems during multi-step organic synthesis; reaction monitored via in-process HPLC and GC analysis, then directly forwarded for purification or further derivatization

    Final product types

    • Thioether-containing APIs (e.g., anti-hypertensive drugs, anti-tuberculosis agents)
    • Pharmaceutical intermediates for further conversion
    • Advanced research chemicals for medicinal chemistry
    • Clinical-grade pilot batches for regulatory submission

    2. Specialty Flavor & Fragrance Ingredient Manufacturing

    Downstream processors utilize this raw material primarily in the construction of sulfur-based flavor ingredients and aromatic compositions intended for both food and fine fragrance sectors. Our high-purity grade supports safe and controlled sulfide introduction during organosulfur compounding. Formulators dose this compound early in syntheses that yield impactful aroma chemicals, such as certain thiol and thioether derivatives, which are then approved for regulated commercial use after compliance checks aligned with global food safety and IFRA standards.

    Industry compliance standards

    • IFRA guidelines for fragrance ingredient safety
    • FEMA GRAS status for designated food flavorings
    • EU Regulation (EC) No 1334/2008 on flavorings
    • Flavor and Extract Manufacturers Association (FEMA) specifications

    Typical usage ratio

    • Flavor: Typically 0.01–0.1% weight/weight in concentrated pre-blends; varies with aromatic strength requirements
    • Fragrance: Up to 0.5% as a core modifier in base mixtures, account taken of finished product IFRA limits

    Downstream process integration

    • Precursor blending in batch reactors; sulfide component introduced at the aroma-forming step; post-reaction volatiles analyzed for odor threshold consistency and regulatory compliance before fractionation or distillation

    Final product types

    • Complex flavor compounds used in savory and seasoning blends
    • Fine fragrance base compositions
    • Beverage and food ingredient pre-mixes
    • Odorant additives for air care and household products

    3. Polymer Additives: Stabilizer and Modifier Intermediate

    In the polymer sector, Benzyl Methyl Sulfide functions as a precursor in the synthesis of specialty stabilizers, antioxidants, and vulcanization accelerators, predominantly for elastomers and engineered plastics. Compounders select this material during masterbatch or prepolymer additive manufacture, capitalizing on its sulfur content for improved UV and oxidative stability of the end polymer matrix. The input stages are tightly regulated, with traceable batch records, precise weighing, and melt or solvent-assisted integration to ensure downstream performance and regulatory conformity.

    Industry compliance standards

    • ISO 9001:2015 for quality management in polymer production
    • REACH registration per European Chemicals Agency (ECHA)
    • ASTM D4676 for chemical additives in polyolefins
    • FDA 21 CFR 177.1520 for indirect food contact plastics

    Typical usage ratio

    • 0.1–1.0% by polymer weight in additive masterbatches; dosage based on polymer type, target application (e.g., automotive, packaging), and stability requirements

    Downstream process integration

    • Introduced into blending or extrusion stages with other masterbatch ingredients; co-extruded or melt-compounded to achieve homogeneous distribution prior to pelletizing or molding

    Final product types

    • UV-stabilized polyolefin films
    • Automotive plastics and elastomers
    • Technical rubber goods (e.g., hoses, gaskets)
    • Packaging materials with extended shelf-life properties

    4. Agrochemical Intermediate Synthesis: Sulfur-Containing Pesticide Formulation

    In agricultural chemical manufacturing, Benzyl Methyl Sulfide enables the controlled introduction of thioether groups into key pesticide intermediates. Downstream users incorporate it during active substance synthesis, especially for fungicides and soil treatment agents. Technical specifications are documented with each shipped batch, and integration within multi-reactor setups is validated through analytical QC to ensure consistent conversion rates and residue profiles compliant with agro-industry benchmarks.

    Industry compliance standards

    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS)
    • ISO 9001:2015 for agrochemical production quality
    • EPA 40 CFR Part 180 for pesticide tolerances on food
    • GLP (Good Laboratory Practice) for residue analysis

    Typical usage ratio

    • 0.3–2.5 molar equivalents relative to base structure depending on target substitution pattern and assay optimization in multi-step processes

    Downstream process integration

    • Fed to stirred reactors during the sulfide coupling phase; sequential processing with catalytic or oxidizing agents as required; endpoint verified by chromatographical purity prior to crystallization or formulation

    Final product types

    • Sulfur-containing fungicidal actives
    • Herbicide intermediates
    • Seed treatment additives
    • Soil improvement agents with enhanced stability

    5. Electronic Chemicals: Photoresist and Wafer Cleaning Agent Manufacturing

    Producers in the electronics industry employ Benzyl Methyl Sulfide in engineered formulations for semiconductor wafer cleaning agents and as a raw material in wet etching processes. It participates in trace-level blending for high-purity chemical mixtures designed for strict contamination control. Our dedicated production lines guarantee electronic-grade lot traceability and control over metallic and organic contaminants, enabling downstream manufacturers to achieve reliable photoresist processing and microelectronic substrate finishing.

    Industry compliance standards

    • SEMI C93 for electronic chemical purity
    • ISO 14644 for cleanroom production
    • JIS K 0102 for chemical analysis in electronic production
    • IATF 16949 for manufacturing supply to automotive electronics

    Typical usage ratio

    • 5–50 ppm in formulated wafer cleaning mixtures; concentration determined by required cleaning aggressiveness and substrate material

    Downstream process integration

    • Dosed into ultrapure water systems and solvent blends during cleaning stages; in-situ monitoring of residue post-rinse by TOC and ICP-MS before final drying or lithography

    Final product types

    • Silicon wafer cleaning solutions
    • Microelectronic substrate pre-treatment chemicals
    • Photoresist strippers
    • High-purity etching agents for microfabrication
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    Certification & Compliance
    More Introduction

    Benzyl Methyl Sulfide: A Closer Look from the Production Floor

    What Sets Benzyl Methyl Sulfide Apart in the Chemical Industry

    In today’s chemical landscape, Benzyl Methyl Sulfide often goes unnoticed compared to more widely discussed substances. As the manufacturer, with years of experience in producing this compound, we see a remarkable story behind each drum. Benzyl Methyl Sulfide, sometimes called benzylthio-methane, is a clear, colorless to light yellow liquid that carries a mild, characteristically sulfurous odor. Over time, we have learned that not all supplies labeled as Benzyl Methyl Sulfide are equal. Variations in purity, trace oxygenates, and even storage practices can alter product behavior and performance. Each lot that leaves our facility comes with assurances only possible by keeping a tight rein over process design, raw feedstock selection, and quality checks at every stage.

    Benzyl Methyl Sulfide (BMS) has carved out an irreplaceable place in flavor and fragrance manufacture, as well as in organic synthesis labs. Its sulfur-methyl backbone makes it an appealing building block when working with complex molecules, especially ones demanding selective thio-ether linkages. On the plant floor, we tailor our model to meet a minimum purity of 99 percent, monitored by gas chromatography throughout the campaign. Such chemical clarity keeps downstream synthesis predictable, a reality that any process chemist appreciates when scaling a bench reaction to a production schedule.

    Practical Experience: What Consistency Brings to Industrial Synthesis

    We often field inquiries about product consistency. It’s more than hitting a number on a spec sheet. In an environment where time pressure governs batch release and every misstep costs labor, raw materials need to perform the same way each time. Trace contaminants introduce side reactions when making pharmaceutical intermediates or specialty polymers. Over the past decade, we have refined our filtration systems and azeotropic distillation techniques specifically for Benzyl Methyl Sulfide. By focusing on molecular integrity and contaminant reduction, we support customers who cannot afford delays caused by unpredictable feedstocks.

    A common question from bulk purchasers revolves around shelf stability and storage. Benzyl Methyl Sulfide resists oxidation under neutral conditions, which means it stores well under nitrogen. Early in our work, we found that even trace air leaks during long-haul shipping could compromise material by forming sulfoxides or sulfones. We responded by improving the sealing protocols in all containers and barring the use of recycled plastics for packaging. That step alone lowered customer complaints and repeat analyses by a measurable amount.

    End Use: Where Benzyl Methyl Sulfide Shines

    In flavor and fragrance work, BMS’s moderate sulfur note blends into onion, garlic, or truffle tones. The difference between low-grade, recycled-sulfur stock and our high-purity grade is immediately obvious during trials. Cutting corners with off-spec feedstocks often leads to off-putting aromas or chemical taints in the final formula. We have worked with customers who switched from various sources and noticed up to a 15 percent improvement in batch reproducibility, simply because of tighter control over low-level by-products.

    Outside of sensory applications, Benzyl Methyl Sulfide plays a functional role in chemical synthesis. Its thioether linkage often serves as a handle for subsequent modifications—alkylations, oxidations, or couplings. Process chemists often point out how impurities in the sulfide class knock other solvents or reagents out of specification, derailing intended synthetic paths. Over the past few years, with the shift toward greater transparency in supply chains, we have provided additional batch analysis for customers in pharmaceuticals, advanced coatings, and electronics. Our investment in upstream tracking, right down to the origin of our benzyl chloride, produced traceability that made our product more attractive for auditing and compliance.

    Comparing Benzyl Methyl Sulfide to Similar Reagents

    From the outside, Benzyl Methyl Sulfide might look similar to Benzyl Ethyl Sulfide or classic dimethyl sulfide. In practice, molecular differences show up clearly in reactivity and compatibility. Process chemists value BMS for its balance between reactivity and stability. Dimethyl sulfide, for instance, evaporates faster and brings a sharper odor, making it less friendly in enclosed formulation plants. Benzyl Ethyl Sulfide offers a longer carbon tail, which changes its solvating power and flavor impact.

    One of the most overlooked attributes is BMS’s resistance to over-oxidation under standard handling. We have seen customers use it where dialkyl sulfides failed, as BMS resists unwanted oxygen insertion when used in large-batch conditions. By maintaining sulfur in a single oxidation state and excluding water traces, we reduce sulfoxide and sulfone content—a quiet threat in applications demanding purity, such as transparent coatings and high-intensity light-emitting materials.

    Many customers come to us after running into issues with so-called ‘universal sulfides.’ Generic sulfides seem attractive on price, but subtle differences—boiling point behavior, trace halide retention, or catalyst poisons—lead to unexpected delays or purification steps. Our QA records track impurity trends year over year because the feedback from formulation scientists pushes our process tighter. As manufacturers, we find these headaches increase exponentially with cheaper, non-purified alternatives.

    Quality Assurance: Every Step from Raw Feed to Drum Delivery

    Making Benzyl Methyl Sulfide doesn’t stop with the reaction vessel. Every producer manages batch-to-batch variation differently, but our team starts with verified inputs. Benzyl chloride comes only from non-chlorinated toluene processes, and methyl mercaptan passes through multiple purification towers before entering the sulfide reactor. Early on, we stopped using recovered or recycled methyl mercaptan because it introduced poly-sulfur impurities that built up downstream and cost more in lost batches than was saved up front. Clients described their end products as ‘dirty’ or contaminated even after their own distillation.

    After synthesis, we bring each batch through an in-house gas chromatograph and perform targeted elemental analysis, not merely relying on industry-standard minimums. Sulfur, halogen, and aromatic content measurements guide our blending and final packaging. Such diligence matters when customers must comply with global regulatory frameworks, whether in North America, Europe, or Asia-Pacific. We encountered cases where local regulations added new trace limits for sulfur-based flavor intermediates. Our team adapted so that each package not only passed standard tests but also gave peace of mind for later audits.

    Container integrity deserves equal attention. During extensive shelf-life trials, we learned that residual contaminants from lower-grade plastics leach into sulfide-rich liquids, prompting minor but detectable changes in product color and purity. To avoid this problem, we invested in virgin-grade HDPE containers and introduced batch-coding for full backward traceability, matching our product standards with the rising demand for accountability in specialty chemicals.

    Environmental and Regulatory Perspective

    Society’s focus on environmental impact puts every chemical under scrutiny, including Benzyl Methyl Sulfide. As manufacturers, we feel pressure to internalize waste streams and emphasize stewardship. Our current system recycles by-products as much as possible and operates under closed-loop solvent recovery, which reduces off-gassing and odors on the production floor and for end users. Air emission data informs every plant upgrade, while off-spec material goes to monitored incineration routes, meeting both local and national compliance.

    Our customers, especially from multinational companies, now demand backward transparency to origin and environmental profile. This changed our in-house record-keeping and inspired digital tracking of inputs, outputs, and emissions related to each Benzyl Methyl Sulfide batch. Our process documentation now keeps pace with audits required for pharma-grade and food-grade intermediates. This industry move toward transparency is far from paperwork—it delivers real risk mitigation whenever a batch is reviewed by regulatory or client inspectors.

    Market Trends and Customer Feedback: Listening to Real-world Challenges

    Market appetite for Benzyl Methyl Sulfide grows and shifts with changing consumer preferences, especially in natural flavors and combined aroma materials. We notice that portfolio managers from large flavor houses weigh molecular origin—petrochemical versus biogenic—as part of their purchasing decision. While biogenic sources for Benzyl Methyl Sulfide remain limited, we track research on enzymatic synthesis and look for process options with a smaller footprint. At the same time, we field more requests for detailed supply chain disclosure, from energy use per batch to documentation on water minimization policies.

    Feedback from long-term users led us to provide documentation packs, including not only certificates of analysis, but security of supply plans and detailed batch histories. This relationship goes beyond paperwork; steady dialogue uncovers process pains that a specification sheet can never capture. A recent interaction with an agrochemical formulator pointed to subtle crystallization during tank storage, traced to a sub-ppm water content issue. Collaboration led to real changes in drying protocols and filtration upgrades, not just a revision to internal documentation.

    Operational Insights: Lessons from the Production Floor

    Years in Benzyl Methyl Sulfide production taught us that reliability rests not only on process design but also on workforce continuity and operational knowledge. Senior operators pass down details—how slight temperature shifts in the first reactor change selectivity, why you flush lines with dry nitrogen after shutdown, or what pump seals work with trace aromatics in the recycle loop. Hands-on practice, as much as automation, makes quality consistent. Clients investing in pilot plants often ask to observe a batch run. They learn what actually prevents contamination and why mechanical details matter.

    We also discovered small changes can unlock bigger improvements. Switching to new sealing materials and overhauling distillation tower controls dropped loss rates by a noticeable margin. Regular shutdowns, combined with predictive maintenance on critical reactors, allowed us to catch catalyst deactivation before defective material entered the packing area. These operational lessons do not show up in data sheets but have paid dividends for us and downstream users alike.

    Addressing Challenges and Looking Forward

    Manufacturing Benzyl Methyl Sulfide never sits still. Each year brings regulatory changes, new end uses, and evolving market demands. Packaging improvements, tighter storage requirements, and sharper screening for trace elements keep us pushing operations forward. Occasional hurdles, such as input scarcity or supply chain disruption, force a rethinking of sourcing or processing steps. We view these not as setbacks but as opportunities to step closer to the best possible product for every application.

    In laboratory and pilot-scale development, we see more demand for cleaner, higher-purity intermediates. Our ongoing partnership with research teams keeps us informed on synthetic biology advances and solid-phase process innovations. We respond by retooling lines to accommodate the cleaner, more selective production cycles demanded by tomorrow’s specialty chemical markets.

    The push for greener, more sustainable processes motivates us every year. We actively monitor environmental footprints, pursue energy efficiency, and reduce waste at each stage. Our vision looks beyond immediate sales and instead aims to build value through reliability, technical transparency, and practical chemistry knowledge. We remain accessible to all customers, providing insight from our experience, addressing problems at their root, and sharing the lessons we have gathered along the way.

    Conclusion: Trust, Transparency, and Shared Progress

    Trust does not come from paperwork or test results alone. It grows out of real-world reliability, listening closely to problems, and responding through actionable improvements in every Benzyl Methyl Sulfide drum we produce. As the team who makes this compound every day, we carry knowledge built up over years—on the process, the pitfalls, and, most importantly, what quality looks and feels like to users across the globe. Our commitment stands on every fill line, in every reactor, and through every partnership forged across the chemical industry.