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HS Code |
570232 |
| Generic Name | Disulfiram |
| Brand Names | Antabuse |
| Drug Class | Aldehyde dehydrogenase inhibitor |
| Uses | Alcohol dependence treatment |
| Mechanism Of Action | Inhibits aldehyde dehydrogenase, causing unpleasant reaction when alcohol is consumed |
| Route Of Administration | Oral |
| Dosage Form | Tablet |
| Prescription Status | Prescription only |
| Common Side Effects | Drowsiness, headache, metallic or garlic-like aftertaste |
| Contraindications | Severe heart disease, psychosis, recent alcohol intake |
| Pregnancy Category | Category C |
| Half Life | 7.3 hours |
As an accredited Disulfiram factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Disulfiram tablets are packaged in a white, child-resistant plastic bottle containing 100 tablets, each labeled with dosage strength and manufacturer details. |
| Shipping | Disulfiram is shipped in tightly sealed, moisture-resistant containers, protected from light and extreme temperatures. It is classified as a non-hazardous substance for transport but should be handled with care. Standard shipping methods apply, with appropriate labeling and documentation to ensure safety and compliance with relevant regulations. |
| Storage | Disulfiram should be stored in a tightly closed container at room temperature, away from moisture, heat, and direct light. The storage area should be dry and well-ventilated to avoid degradation. Keep the chemical away from incompatible substances and out of reach of children and unauthorized personnel. Follow all relevant safety guidelines and storage regulations for pharmaceuticals. |
Applications of Disulfiram in Industrial ManufacturingAs a direct producer of disulfiram, we supply this compound to several specialized industrial sectors. Our focus is on customers who require precise control of purity, formulation, and compliant integration for high-value downstream manufacturing. The following sections describe verified, real-world application areas in which disulfiram plays a critical functional role. 1. Vulcanization Accelerator in Rubber ProcessingDisulfiram is widely used as an accelerator in the vulcanization of natural and synthetic rubber. Its strong thiuram structure efficiently facilitates cross-linking reactions, improving mechanical strength and elasticity in end products. Process engineers incorporate the compound during the compounding phase, balancing speed of cure with ageing-resistant properties. Consistent batch quality is crucial, as even minor formulation deviations can impact automotive, industrial, and medical-grade rubber products. Industry compliance standards
Typical usage ratio
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2. Cross-Linking Agent in PU (Polyurethane) Foam ManufacturingChemical formulators apply disulfiram as a specialty cross-linking and curing modifier in certain polyurethane foam systems, especially where improved resilience and resistance against chemical aging are required. The compound acts by modulating the reactivity of isocyanate components and stabilizing cell structure. Accurate metering of disulfiram is necessary to avoid excess density or brittleness in the final foam. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Enzyme Inhibitor in Biotechnological Fermentation ProcessesIn industrial biotech, operators use disulfiram as a potent inhibitor of specific thiol-activated enzymes during microbial fermentation. By introducing it at designated stages, process chemists suppress by-product formation linked to undesirable metabolic pathways, leading to higher purity yields of target antibiotics or fine chemicals. Timely dosing and complete removal at process end are critical to prevent interference in downstream purification. Industry compliance standards
Typical usage ratio
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4. Intermediate for Pharmaceutical Synthesis (Active Pharmaceutical Ingredients)Pharmaceutical manufacturers use disulfiram as both a direct active compound and a strategic intermediate in synthetic routes for other drugs. Our supply, supported by detailed batch analytical data and documentation, goes into GMP-regulated synthesis facilities under strict traceability. Chemical engineers optimize reaction yields while ensuring residuals remain within pharmacopoeial thresholds during isolation and purification steps. Industry compliance standards
Typical usage ratio
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5. Antifouling Additive in Marine CoatingsProducers of marine coatings employ disulfiram as a secondary biocidal additive, combined with copper and zinc compounds to prevent biofilm and barnacle adhesion on vessel hulls. Applicators rely on it for controlled-release properties over long immersion times. Quality audits focus on consistent milling, pre-dispersion, and particle size distribution to ensure film uniformity and avoid release spikes that could breach regulatory thresholds for marine environments. Industry compliance standards
Typical usage ratio
Downstream process integration
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In chemical manufacturing, practical experience shapes our relationship with products like Disulfiram. Our operations involve batch after batch, monitoring reactions with both human oversight and quality instrumentation. Disulfiram holds a steady reputation across industrial fields, and the way we produce it traces back to decades-old reactions, deliberate process adjustments, and a constant search for better purity and consistency—not just to tick a box, but to meet the strictest client and regulatory expectations.
Inside our facilities, Disulfiram production relies on a precise reaction: tetraethylthiuram disulfide emerges out of combining carbon disulfide and diethylamine in controlled environments. Years on the manufacturing floor brought us lessons about temperature cycles, solvent controls, and the way different sources of raw chemicals influence impurity profiles. Some manufacturers might talk about cutting corners for speed or affordability, but our view goes deeper—every shortcut ricochets through downstream stability, shelf life, and, most importantly, the applications that our partners trust.
Our batches follow a process chart that evolved with every client audit and customer trial. Each batch number tells a story from raw ingredient to finished powder or pellet. Disulfiram’s yellow-green crystalline appearance is hard to mistake in the drying reactors, but surface looks only scratch the surface of what matters. True quality shows in how it dissolves, how it tolerates moisture, and whether its sulfide content matches published assay standards. We regularly perform checks beyond what regulators ask: Karl Fischer for moisture, HPLC for purity, specialized GC for residual solvents. There have been years where certain suppliers of carbon disulfide introduced trace contaminants that slipped past basic QC—careful supplier approval, real-world experience, and retaining archives of test samples taught us the value of tracking every parameter.
As a chemical, Disulfiram has one of those stories—born in pharmaceutical research, living on in diverse sectors. Its most widespread notable use remains in medications. Physicians have relied on its properties for decades. Beyond medicine, people often overlook its widespread importance in the rubber industry. Manufacturers of rubber products frequently demand Disulfiram for its role as a vulcanization accelerator. We work closely with these folks: tire makers, conveyor belt companies, and those in the specialty rubber niche, all depending on the unique balance of crosslinking Disulfiram offers.
Manufacturing rubber accelerators requires an awareness of interaction variables—temperature curves during compounding, compatibility with other chemicals in a mix, aging behavior of finished products. Here, faulty Disulfiram proves costly. Bad batches gum up mixers, alter cure times, or compromise elasticity. Our plant quality teams check for particles, color consistency, hygroscopic tendencies, and lot uniformity. Customers in the rubber business notice any flaw immediately. Over time, these industry relationships built through technical calls, feedback discussions, and post-sale checks help us to better refine our output.
On occasion, we receive inquiries from mining companies exploring flotation agents, or scientists in specialized labs seeking Disulfiram for niche chemical syntheses. Each use case comes with questions—can your product maintain stability under high humidity? Does it contain trace elements that disrupt their other reagents? We maintain a confidential record system for every batch we send, including extra analyses if a customer flags an unexpected issue in processing. Over the years, these feedback loops helped us not only strengthen process discipline but also gain practical knowledge about in-the-field behavior, something chemical data sheets rarely capture.
Over decades, market requirements drove us to diversify what we produce. Disulfiram appears in technical grade and pharmaceutical grade forms. The technical variant stays popular among industrial buyers—rubber, mining, and polymer compounding sectors. It usually carries a slightly wider impurity specification, though we still keep it as tight as possible, both for processability and to help clients avoid downstream regulatory hassles.
Pharmaceutical buyers demand more. Processes call for narrow impurity limits, tight particle sizing, and ultra-low residual solvents. Over time, we invested in cleanroom milling, additional filtration steps, and upgraded packaging lines to meet those benchmarks. Every time we launch a pharmaceutical batch, we run parallel sterility, heavy metals, and stability studies, aiming to cover both the regulatory paperwork and unwritten expectations of batch-to-batch reliability. For each lot, laboratory teams document retention samples, run advanced testing in accordance with international pharmacopeia requirements, and report any deviation, even if only detected under intensive scrutiny.
Particle size remains a key property among our buyers. Some technical users need a standard crystalline form that blends well in mixers; others, especially in specialty rubbers, need fine granules to allow rapid dispersion. We built granulation lines with both flexibility and control in mind. Fine-powdered Disulfiram offers advantages for uniform processing but demands more vigilant handling to minimize dust exposure, both for environmental and occupational safety. Over the years, we learned that even tiny differences in particle distribution impact bulk flow properties. That lesson, verified through customer trials and feedback, led us to upgrade sieves, airflow systems, and even the packaging bags. Problems on the shop floor drive innovation in how we manufacture and deliver.
Handling properties matter too. Disulfiram can absorb moisture if left exposed—making moisture-proof packaging and desiccant packs not optional, but standard. Working with procurement teams for buyers, we arrange regular audits and supply chain checks, because skipped steps anywhere—from our end, transport, or storage—invite quality losses. Every batch ships with a detailed CoA, but our lab will always be ready to address any question or request for retesting, even years later.
Industrial and pharmaceutical users frequently compare Disulfiram with a wider portfolio of sulfur-containing compounds. Dithiocarbamates, thiram, and other tetramethyl and tetraethyl derivatives exist on the market, and each carries its own performance quirks. Over the years, we tested many such substances, learning the distinctions not just from a chemical standpoint, but from an operator’s view as well.
Disulfiram stands apart from thiram, another common compound in the same class. Thiram finds applications as both a fungicide and a rubber accelerator, much like Disulfiram. Their molecular structure differs enough to impact reactivity, handling properties, and health and safety protocols. Disulfiram’s disulfide linkage differs from thiram’s structure, imparting not only differences in activity but also in toxicity profiles and practical safety. Rubber clients note that Disulfiram allows faster curing cycles and specific crosslink patterns distinct from thiram. Experience mixing these chemicals in side-by-side batch runs shows not only technical, but also logistical, cost, and comfort differences for plant staff.
Dithiocarbamates, widely used as fungicides and polymer additives, sometimes fall under evaluation instead of Disulfiram. Their properties—solubility, volatility, reactivity—set them apart. We see some buyers drawn to dithiocarbamates for price or regulatory positioning in agriculture, while industrial groups favor Disulfiram for its more stable performance profile in rubber applications. Over time, field complaints about dithiocarbamate migration or odor issues drove clients back to requesting Disulfiram for specialized, high-performance rubber blends.
Our own research division continues to test these compounds for properties like long-term stability, compatibility with newer polymer systems, and behavior in extreme environments. Often, customers who have switched to Disulfiram from related compounds highlight its lower batch variability and its more predictable cure profile—a conclusion drawn not simply from data sheets, but from field experience, warranty claims, and post-market surveillance.
Running a Disulfiram plant presents challenges that rarely make their way onto standard product pages. Temperature control, volatile chemicals, and the need to avoid process contamination shape equipment choices and operator training programs. In the early years, we coped with more frequent process upsets—reactor fouling, variable yields, and periodic purity issues from raw ingredient variability. In response, our teams began adapting real-time analytical monitoring—the ability to rapidly check endpoint reactions with portable spectroscopy changed our risk profile for off-spec production.
Solvent recovery remains a major concern, both for cost management and environmental compliance. Disulfiram leaves traces of volatile organic compounds in minor fractions, making responsible management of vent streams and solvent residues essential. Over the years, we invested in condensing infrastructure, leak detection, and vapor recovery to lower emissions. These investments pay off not only by meeting environmental standards, but by making worker conditions safer and reducing complaints of odor and vapor in the neighborhood around our plants.
Waste handling shaped changes in our batch schedules. Each kilo of Disulfiram mass yields small but critical volumes of process waste. Failing to address this waste can draw scrutiny from environmental monitors and lead to product loss. Our engagement with waste treatment contractors includes direct observation, batch tagging, and routine independent audits. Mistakes trigger in-plant reviews to prevent recurrence—a process that over time not only satisfies compliance but also raises the skill level of our technical staff.
Buyers and technical partners routinely reach out to our plant’s support and application teams. Sometimes, the need is urgent—troubleshooting process bottlenecks, batch irregularities, or questions about how Disulfiram will interact with a new ingredient. Other times, conversations run deep, comparing our experiences on different production lines, discussing improvements or alternatives to established chemistries.
Through these real-world conversations, manufacturing rarely feels isolated. Input from lab users, production supervisors, and even maintenance techs in client plants directly feeds back to our own process improvements. Over the years, suggestions from clients led us to upgrade packaging seals, recalibrate impurity target limits, and validate equipment modifications that enhance throughput without sacrificing quality. These changes stem from candid technical exchanges, not glossy brochures or passive feedback collection.
A seasoned purchasing manager might call us about a color change or unexpected odor in their Disulfiram order—details that a spec sheet may declare within normal tolerance, but that practical use exposes as out-of-place. Our customer support teams, staffed by people who have spent time on the production floor, handle escalation with a sense for both urgency and technical background. With archived retention samples and batch records maintained for years, we investigate each issue deeply, working to identify root cause rather than defaulting to scripted apologies.
Within our walls, quality assurance became a mindset—not just a department label. Operators undergo training cycles on each production step, from handling raw amines to conducting end-point precipitation, through to post-drying inspection and packaging. Every process revision requires new training documentation, reflected by long-term plant results: fewer batch rejections, less downtime, increased client satisfaction on repeat orders.
Meticulous sample archiving underpins our credibility. Every produced lot ships with a Certificate of Analysis from our in-house laboratory, built on validated methods matching—and in some cases exceeding—local pharmacopeia or industrial standards. Data management runs on secure systems with multi-year traceability, not only for internal review but for external audits on demand. We periodically send blind split samples to independent labs as a ‘reality check’ against measurement drift—these steps reflect our approach to E-E-A-T: consistent expertise, trusted evidence, and transparency.
We keep internal non-conformance records, updating plant practices when a preventable issue surfaces, whether it’s a near-miss in reaction charging or a deviation in final product appearance. Over the years, these cycles of incremental improvement built a system more resilient than anything data sheets alone suggest. Experienced operators know how a solvent with off-smell means a likely upstream contamination event—even before gas chromatography can confirm specifics.
Demand for Disulfiram adapts with changes in market trends, regulatory frameworks, and technological advancements in end applications. Conversations with procurement teams and R&D leaders in allied industries show increasing interest in both greener chemistries and improved batch-level traceability. We respond by investing in process refinements and digital transformation—utilizing ERP systems for materials tracking and advanced analytics, anticipating needs before they reach crisis point.
Growing attention to global supply chain integrity means we must guarantee not just purity, but documentation of every shipment, transport detail, and chain of custody. Pharmaceutical and rubber clients alike seek assurance regarding both production standards and sourcing transparency. Input from recent industry consortia prompted us to adopt supplementary documentation, allowing buyers to satisfy their own regulatory bodies at every juncture.
Another trend emerges in collaborative development—working alongside partners who push for either increased sustainability or better technical properties. Initiatives such as renewable solvent substitution, energy consumption mapping, and secondary waste recovery flow from joint discussions with long-standing customers. Our ongoing dialogue with users shapes new process plans, bench testing, and, where warranted, capital investments that make Disulfiram production cleaner, safer, and more competitive over time.
We measure Disulfiram’s real value by tracking its journey after it leaves our plant. Repeat orders from legacy users, positive batch trial feedback, and the absence of sudden quality shifts all reinforce the effectiveness of our discipline. But we also keep a line open to competitors’ products and field test results. When a client compares our Disulfiram head-to-head with others, distinct features surface: shelf life stability, particle flow behavior, blending performance, and incident-free use in automated processes.
Inspection doesn’t stop at delivery; our tech reps schedule follow-up discussions with key accounts, sometimes requesting returned samples for long-term testing. These visits inspire upgrades in manufacturing—new dryers to minimize clumping risk, re-calibrated sieves for tighter size tolerance, or updated drum linings to deter static buildup. All of these refinements reflect daily reality, not abstract product bullet points.
We invest in listening to needs—sometimes that means smaller batches for specialty users or tailored advice on safe material handling. For large industrial buyers, it means logistics tracking, shelf life planning, and rapid problem resolution. Every lesson feeds a cycle of adaptability, grounding our approach to Disulfiram manufacturing in thoroughness, responsiveness, and on-the-ground technical experience.
People in this business spot the difference between claims and performance. They know how disruptions or inconsistencies trigger cost, downtime, and frustration. Our approach as a chemical manufacturer draws from thousands of hours spent producing, inspecting, and delivering Disulfiram and learning from every conversation with the people who rely on it. Every day, the blend of hands-on work and dialog with industrial and pharmaceutical partners teaches us new angles—a reminder that credibility comes from proved experience and continued attention to what the market truly values.
Disulfiram matters for practical reasons—predictable reactivity, batch-to-batch consistency, and responsive support. Our manufacturing teams treat each shipment as a new chance to prove technical competence and to build relationships with users. Each choice, from raw material vetting to packaging upgrades and process adaptations, builds a product that stands up in the real world: on factory floors, in research labs, and throughout supply chains where trust forms the backbone of each transaction.