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Diethyl Dithiobis(Thionoformate)

    • Product Name Diethyl Dithiobis(Thionoformate)
    • Alias Carbonotrithioic acid, bis(O,O-diethylthioester)
    • Einecs 248-227-6
    • 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

    265926

    Chemicalname Diethyl Dithiobis(Thionoformate)
    Casnumber 19880-20-1
    Molecularformula C6H10O2S4
    Molecularweight 242.4 g/mol
    Appearance Yellow liquid
    Density 1.32 g/cm3
    Solubility Insoluble in water
    Flashpoint >110°C
    Purity Typically ≥95%
    Refractiveindex 1.619
    Storagetemperature Store below 25°C
    Synonyms Ethanol, 2,2'-thiobis[(thioxomethyl)-, diethyl ester
    Ecnumber 243-417-4

    As an accredited Diethyl Dithiobis(Thionoformate) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Diethyl Dithiobis(Thionoformate), 25g, is packaged in a sealed amber glass bottle with hazard labeling and a screw cap.
    Shipping Diethyl Dithiobis(Thionoformate) should be shipped in tightly sealed containers, protected from moisture, light, and incompatible substances. Transport under cool, dry conditions, and comply with relevant hazardous material regulations. Proper labeling and documentation are required for safety. Handle with care to avoid spills, as the chemical may pose health or environmental hazards.
    Storage Store Diethyl Dithiobis(Thionoformate) in a tightly sealed container, away from moisture and incompatible substances such as oxidizing agents. Keep in a cool, dry, and well-ventilated area, shielded from direct sunlight and heat sources. Use appropriate chemical storage cabinets and ensure containers are clearly labeled. Handle with proper personal protective equipment and follow all relevant safety protocols.
    Application of Diethyl Dithiobis(Thionoformate)

    Applications of Diethyl Dithiobis(Thionoformate) in Industrial Manufacturing

    As a manufacturer with advanced expertise in organosulfur compound synthesis, we supply Diethyl Dithiobis(Thionoformate) for critical applications where precise sulfur transfer and functional group modification are crucial. Below, we outline verified downstream usage scenarios in detail, addressing individual compliance, dosage, integration, and final product considerations for each.

    1. Rubber Vulcanization Accelerators & Modifiers

    Our material plays a specialized role in rubber manufacturing, particularly in producing vulcanization accelerators and sulfenamide derivatives for the automotive, tire, and technical rubber sectors. It acts as an efficient sulfuration agent, improving cross-linking uniformity and thermal stability during vulcanization of both natural and synthetic elastomers. Processing advantages include high reactivity under standard curing temperatures and reduced scorch risk, making it valuable during batch mixing and controlled pre-dispersion phases at compounding plants. Quality control aligns batch-to-batch sulfur distribution for uniform curing consistency in customer lines.

    Industry compliance standards

    • ASTM D3182 (Rubber – Compounding Ingredients)
    • ISO 2393 (Rubber Test mixtures – Preparation)
    • REACH Regulation (EC) No 1907/2006: Substance Registration & Disclosure
    • China GB/T 5319 for Rubber Additives

    Typical usage ratio

    • 0.2–1.0 phr (parts per hundred rubber) depending on polymer base, accelerator package, and product requirements
    • Adjustment is based on sulfur donor strategy, desired cross-link density, and final curing profile

    Downstream process integration

    • Added during masterbatch compounding, pre-mix stages, or as a discrete ingredient in post-milling accelerator/filler blends
    • Homogenized with carbon black, oil, and primary accelerators prior to downstream mixing and calendaring

    Final product types

    • Radial and bias tires (tread, sidewall compounds)
    • Automotive hoses and gaskets
    • Industrial conveyor belts
    • Technical seals, bushings, anti-vibration parts

    2. Mining Flotation Reagents (Xanthate & Collector Synthesis)

    Diethyl Dithiobis(Thionoformate) is utilized by mining chemical manufacturers as a controlled source of dithiocarbonate groups during the synthesis of flotation xanthates and collector blends. It supports the modification of reagent selectivity and performance for sulfide ore concentration, notably gold, copper, and silver ores. The sulfur-rich functional structure enables tuning of collector hydrophobicity when blended into liquid or powder formulations, further processed via aqueous or solvent-phase reaction steps under pH-controlled environments. End products are tailored to individual mine circuit chemistries and environmental requirements.

    Industry compliance standards

    • OECD Test Guideline 301 (Ready Biodegradability)
    • GHS/CLP Safety Classifications (EC No 1272/2008)
    • NOM-052-SEMARNAT (Mexican hazardous substance standards for mining)
    • ICES (Inventory of Existing Chemical Substances in China, if exported)

    Typical usage ratio

    • Reactant input 3–8% w/w relative to carbon disulfide or alcohol feedstock in xanthate synthesis reactors
    • Collector blend formulations: 0.03–0.15 kg/ton ore for final flotation dosage recommendations

    Downstream process integration

    • Integrated via jacketed reactor dosing systems during collector manufacturing
    • Intermediate stream for further oxidation, neutralization, or dilution into commercial product grades

    Final product types

    • Potassium, sodium, and ammonium xanthates
    • Dithiophosphate and thionocarbamate collector blends
    • Tailored flotation reagent solutions for precious and non-ferrous ore beneficiation
    • Environmentally adapted low-toxicity flotation reagents

    3. Specialty Lubricant and Metalworking Fluid Additives

    Lubricant formulators employ the chemical as a high-performance sulfur donor additive for extreme pressure and anti-wear applications, especially in metal deformation, gear oils, and cutting fluids. The compound efficiently integrates into base oils during blending at moderate temperatures, resulting in improved boundary lubrication and reduced wear in industrial machinery. Its organosulfur backbone enhances compatibility with phosphate, amine, and zinc dithiophosphate packages while maintaining stability under oxidative stress during processing and use. QC protocols address residue, odor, and volatility as required by downstream blending systems.

    Industry compliance standards

    • API Guidelines for Base Stock Additives
    • ASTM D5185 (Analysis of Additive Elements in Lubricating Oils)
    • REACH Annex XVII for lubricating oil ingredients
    • ISO 6743-13 (Metalworking Fluid Classifications)

    Typical usage ratio

    • 0.1–0.8% w/w in formulated metalworking fluids, depending on lubricity target and metallurgical substrate
    • Final additive packages: 1–4% inclusion in base oil blends for high-load or extreme temperature service

    Downstream process integration

    • Direct injection into heated blending kettles post-base oil charging
    • Fine mixing with dispersants, antioxidants, and other EP components prior to formulation filtration and packaging

    Final product types

    • Heavy-duty gear oils for industrial drives and gear reducers
    • Water-soluble and neat cutting oils for precision machining
    • Formulated stamping and drawing lubricants for automotive and appliance production
    • Turbine and compressor fluids requiring high thermal stability

    4. Agrochemical Synthesis Intermediates

    Producers of crop protection agents utilize this raw material as a controlled sulfur source during the synthesis of certain dithiocarbamate fungicides and acaricides. It is introduced as a key intermediate for forming thiocarbamate functional groups in closed, batch synthesis reactors under GMP-like cleaning protocols for agrochem production. The precise deliv­ery of sulfur via this compound supports high-purity active ingredient outputs, allowing for strict tox­icity and residues compliance testing during registration in export markets. Finished goods from this process serve global agriculture’s demand for broad-spectrum fungicidal and pest-controlling formulations.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • US EPA FIFRA (Federal Insecticide, Fungicide, and Rodenticide Act)
    • EU Regulation (EC) No 1107/2009 (Plant Protection Products)
    • ISO 9001:2015 (Quality Management for Agrochemicals)

    Typical usage ratio

    • Initial feedstock: 0.5–2.2 molar equivalents relative to amine or alcohol starting material in dithiocarbamate synthesis
    • End-point adjusted based on conversion yield and purity targets for downstream active ingredient production

    Downstream process integration

    • Pumped into jacketed, closed reactors during amine-thiocarbonylation stages
    • Post-reaction, intermediates undergo work-up and crystallization for formulation as technical-grade agrochemicals

    Final product types

    • Mancozeb, maneb, and zineb fungicide actives
    • Thiram and metiram technical materials
    • Specialty broad-spectrum fungicidal concentrates
    • Acaricide raw intermediates for further finishing

    5. Fine Chemical Sulfurization Reactions (Pharmaceutical Intermediates)

    Research-based and scale pharmaceutical manufacturers employ Diethyl Dithiobis(Thionoformate) in selective sulfur transfer, facilitating the synthesis of thiocarbonyl-containing intermediates for APIs where precise S-for-O exchange is necessary. The compound’s engineered reactivity under defined pH and temperature windows enables control over oxidation states and minimizes impurity formation. Typically used in closed, GMP-compliant labs with validated analytical methods for residuals and side products, our production ensures consistency for both early-stage and scale-up medicinal chemistry applications.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • EMA and US FDA cGMP guidelines
    • Chinese Pharmacopoeia for API Intermediates
    • ISO 17025 (Analytical Testing)

    Typical usage ratio

    • 0.9–1.1 equivalents vs. target carbonyl group in pharmaceutical intermediate reactions
    • Ratio is adjusted based on desired conversion and residual sulfur specifications

    Downstream process integration

    • Reacted in anhydrous or buffered aqueous systems, with in-process monitoring of byproduct generation
    • Product isolation followed by chromatography or crystallization as required by API process standards

    Final product types

    • Synthons for thioester- and thiourea-containing pharmaceuticals
    • Precursors for cardiovascular and oncological drug candidates
    • Intermediates for anti-tuberculosis and anti-infective agents
    • Fine chemical intermediates for combinatorial chemistry libraries
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    Certification & Compliance
    More Introduction

    Introducing Diethyl Dithiobis(Thionoformate)

    Our Experience with Diethyl Dithiobis(Thionoformate)

    In industrial chemistry, finding a compound that solves stubborn process bottlenecks and opens new pathways for synthesis always draws attention. Over the years in our own factory, we've handled large-scale batches and watched clients push for more precise separation, better extraction, and cleaner end products. One specialty chemical, Diethyl Dithiobis(Thionoformate), often called DETF for practicality on plant floors, comes up when chemists and engineers aim for high performance in sectors like mining, polymer modification, or specialized catalysis.

    Manufacturing this organosulfur compound requires close attention at every stage. Thorough purification and consistent raw material sourcing improve batch-to-batch predictability. From our reactors to post-processing filtration, every step counts toward producing a reagent with reliable, reproducible activity. In this business, customers demand exacting quality, and DETF’s pale yellow liquid form only tells half its story—the real value rests in its unique chemical properties and its effect in applied settings.

    Understanding Model and Specifications

    Talking about specifications is never just about numbers. In practice, DETF stands out based on structural purity and defined sulfur content. Our most common production model emphasizes a precise diethyl dithiocarbonate backbone, minimal free sulfur, and tight control of moisture—a factor that contributes to stability during storage. Customers expect each drum to conform within a narrow range, with color and odor offering quick checkpoints for operability but always backed by a detailed COA, typically showing purity levels of at least 98%.

    Our own in-lab titrations and chromatographic checks provide the certainty that the product leaving our facility matches what engineers require for their formulations. Too much residual moisture or trace contaminants can wreck entire downstream reactions, so we've built our protocols around minimizing those variations. On the ground, that effort translates to more consistent yields for clients and fewer reblending headaches for their staff.

    Applications That Rely on Diethyl Dithiobis(Thionoformate)

    Out in the field, the practical uses for DETF set it apart from run-of-the-mill thioesters. Metallurgists appreciate its role as a flotation reagent, especially when extracting non-ferrous metals like copper, lead, or zinc. Lab trials and scaled mining operations both show that DETF interacts strongly with metal ions, enhancing separation efficiency versus traditional xanthates or dithiocarbamates. Technicians routinely see higher-grade concentrates thanks to the tailored reactivity this compound brings, which means better returns and reduced waste.

    Industries dealing in rubber and plastics also get direct use from DETF. As a vulcanization accelerator, it supports cross-linking reactions that improve elasticity and durability in finished materials. Rubber compounding teams have experimented with alternatives, but the smooth processing and lack of byproduct fouling with DETF win out. Cross-link distributions end up tighter, and downstream product testing reveals fewer inconsistencies in mechanical strength. Some chemical intermediates demand sulfur-transfer agents with fast reactivity, and DETF fits the bill, funneling sulfur atoms predictably when building more complex organic frameworks.

    Real-World Handling and Storage Lessons

    Having run our own storage tanks and warehouse inventory, we've learned not to take packaging or transport for granted. DETF’s liquid state, coupled with volatility and sensitivity to air, means that every filling and transfer operation matters. Drum seals get checked twice, and in-bay ventilation has saved us from unnecessary odor issues more than once. Handling crews receive ongoing training on spill prevention, which has paid off in both uptime and safety records over the past years.

    Any time a new client facility needs to handle DETF, we recommend stainless steel or compatible plastic-contact materials for pipework to prevent degradation or reactive residues. Moisture exclusion remains a nonnegotiable rule. Even low-level hydrolysis can break down the product and interfere with performance, so our packing units keep desiccants in rotation and monitor warehouse humidity routinely. Overlooking these practicalities often creates bigger costs down the line—something plant managers don’t forget after the first avoidable mishap.

    How DETF Differs from Other Sulfur Donors and Reagents

    From a manufacturer’s viewpoint, putting DETF up against similar dithiocarbamates or xanthate reagents reveals more than just subtle chemical shifts. Xanthates, for example, have dominated flotation circuits for decades, owing to cost and familiarity. Some miners insist on them, but over time, those same teams encounter process limiters—froth management issues, product inconsistency, or regulatory concerns over breakdown byproducts.

    DETF provides a cleaner mechanistic route in many applications, offering a well-defined molecular structure and less variation in sulfur transfer. This leads to measurable improvements, especially where the purity of end products plays into plant profits or regulatory compliance. In polymer processing, dithiocarbamates can leave residuals or color tint that stricter buyers reject, while DETF formulations keep final compounds clearer and more predictable. Our long-term supply records show fewer rejections and product recalls when customers switch to using our DETF lines.

    Looking at pricing pressures and availability, DETF falls into a higher-value niche. We’ve invested in process improvements to moderate cost without sacrificing the fine control that downstream users rely on. For clients who need a compromise between bulk chemical economics and specialty reagent performance, DETF hits a sweet spot that standard sulfur donors can’t match.

    Supporting Operators with Technical Knowledge

    Direct experience teaches that selling the right molecule isn’t enough. Our technical team routinely visits client sites, reviews process layouts, and traces root causes for performance swings. Sometimes, a reported problem with flotation or polymer quality boils down to minor dosing adjustments or little changes in mixing protocol. A few degrees shift in reaction temperature, or a switch in co-reagent, can amplify or dampen DETF’s activity. We share field-tested tips on stabilizing performance, from pre-mixing strategies to storage best practices.

    Back at our own plant, we tap into these same lessons. Scaling production to meet special lot sizes or tighter impurity targets means tweaking purification steps and keeping detailed batch records. Regular feedback loops with our customers push us to tighten up specs and invest in new analytical gear. Whether we're serving a small specialty compounding house or a global mineral producer, we’ve learned that staying responsive earns long-term trust.

    Environmental and Regulatory Considerations

    The shift in global chemical regulation puts extra scrutiny on organosulfur compounds. Over the last decade, we’ve seen customer demand shift in step with changing allowable limits for industrial emissions and chemical residues. DETF, compared with older reagents, often positions facilities to remain compliant with evolving regulatory regimes.

    We work with regional agencies to track new classification and labeling requirements. Detailed documentation and batch traceability help satisfy periodic audits and due diligence reviews. Some jurisdictions have begun testing for secondary degradation products in plant effluents—a push that prompted us to adapt waste handling guidelines for clients and invest in more advanced detection equipment inside our own QA lab.

    In our direct experience, making compliance manageable starts with clear product data and practical on-site support. We offer separation and disposal protocol guidance tailored to a client’s own operation, taking into account local standards. Where possible, we help design closed-loop systems that capture and neutralize spent reagent before discharge, minimizing overall environmental load and keeping operations on the right side of regulation.

    Process Optimization and Research Initiatives

    Continuous improvement isn’t just jargon—we’ve built it into every expansion and upgrade in our facility. By monitoring reaction kinetics and streamlining purification, we keep tightening up DETF’s production cost and environmental footprint. Collaborations with university research groups have opened doors to new reactor configurations that reduce solvent use and improve throughput without compromising quality.

    We’ve also experimented with alternative raw material streams, always balancing cost, supply stability, and trace impurities. Each change gets stress-tested in our pilot reactors before scaling to commercial flows. Status updates and technical bulletins go straight to longstanding customers, keeping transparency at the core of our business.

    Some clients invite us into joint process trials when they’re launching new product lines or updating legacy equipment. Sharing experimental data benefits both sides. Detailing how DETF interacts in various matrices sharpens future formulations and gives us early warning for process drift. Over the years, those partnerships have led to innovative product grades designed for special-case metallurgy or polymerization needs not met by the standard market offerings.

    Quality Assurance as a Day-to-Day Priority

    Reliability can’t be an afterthought in chemical manufacturing. Trust with buyers builds or breaks based on what they find in each shipment. Our QA team samples every batch at multiple stages, using in-house GC and HPLC for purity checks and moisture meters to validate packaging integrity. Anomalies, whenever they appear, trigger immediate root cause reviews.

    We’ve set up redundant monitoring—visual, instrumental, and procedural—to catch off-spec conditions long before they leave the tank farm or drum line. Training for our plant crew emphasizes intervention at the earliest sign of trouble, avoiding the escalating costs tied to recalls or customer downtime.

    Clients often comment on the transparency and consistency of our support documentation. Certificates of Analysis include complete breakdowns by lot, so process engineers can synchronize doses and troubleshoot deviations without delay. Our open-door approach with technical details has proven its value, reducing troubleshooting time and building confidence with return buyers.

    Cost and Value Perspective

    Every purchasing team looks at the balance between sticker price and operational value. Through head-to-head pilot trials and real-world batch records, DETF has established a record for reducing hidden losses in process interruptions, off-spec material, and post-production reblending. Compared to low-cost alternatives, the upfront investment in higher-purity DETF brings savings on unplanned downtime and extends the performance window for both mechanical and chemical equipment.

    We track usage patterns and economic returns alongside our customers. Feedback often reveals measurable cost reduction not in the direct purchase of DETF, but in lower maintenance and better recovery rates in critical operations. Over time, repeat orders tend to migrate toward higher-spec grades as clients see process variability shrink and yield consistency climb.

    Supporting Growth in Diverse Markets

    Some chemicals cycle through trends, but DETF finds a steady pull from both established industries and emerging technology fields. In battery materials and specialty ceramics, new research points toward expanded roles for sulfur donors, and we work with clients eager to adapt DETF as part of early project phases. Our team brings hands-on experience not just in producing the molecule, but in troubleshooting complex industrial rollouts that need more than theoretical chemistry.

    We invest in flexible production capacities—not all customers require massive yearly volumes, but every client expects predictable delivery schedules and rapid batch scaling when growth comes. Facilities expansions follow order trends, templated by careful analysis of energy use, waste minimization, and raw input sourcing.

    Custom formulation and technical support provide the bridge for clients stepping into new sectors or adjusting to regulatory shifts. We treat each new project as a chance to build working relationships, understanding that today’s specialty batch may lead to tomorrow’s mainstream order. For us, business longevity comes from this steady, grounded approach more than any short-term promotional campaign.

    Conclusion: Practical Trust and Technical Confidence

    After years of producing, refining, and shipping Diethyl Dithiobis(Thionoformate), it’s clear that the difference isn’t just in molecular design or chemistry textbooks. It’s the discipline in process control, the rigor in batch analytics, and the open technical support that add value for customers across mining, polymerization, specialty synthesis, and more.

    Our factory teams take real pride in every order that meets a tough spec or saves a client from unplanned slack in their line. No single compound can solve every challenge, but DETF carves out its niche by delivering dependable, reproducible outcomes. Both manufacturer and customer learn in parallel, adapting and solving new problems together.

    Looking forward, the role of adaptable specialty chemicals like DETF will only grow as industries push for cleaner, smarter, and more efficient processes. We remain committed to supporting that shift, grounded by the lessons earned from practical experience and close collaboration with every partner using this unique reagent.