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HS Code |
607816 |
| Cas Number | 36116-65-1 |
| Molecular Formula | C8H9NS |
| Molecular Weight | 151.23 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 101-104°C |
| Boiling Point | Unknown |
| Solubility In Water | Slightly soluble |
| Density | 1.18 g/cm3 (estimated) |
| Purity | Typically ≥97% |
| Synonyms | 4-Methylbenzenecarbothioamide |
| Chemical Class | Thiobenzamides |
| Smiles | CC1=CC=C(C=C1)C(=S)N |
| Inchi | InChI=1S/C8H9NS/c1-6-2-4-7(5-3-6)8(10)9/h2-5H,1H3,(H2,9,10) |
| Storage Conditions | Store at 2-8°C, protected from light |
As an accredited 4-Methyl(Thiobenzamide) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for 4-Methyl(Thiobenzamide), 100 grams, features a tightly sealed amber glass bottle with a clear, hazard-labeled exterior. |
| Shipping | 4-Methyl(Thiobenzamide) is shipped in tightly sealed containers to prevent exposure to moisture and air. Transport is conducted according to relevant chemical safety regulations, with labeling for hazardous material as required. Protective packaging ensures safe handling and compliance with local, national, and international shipping standards for chemicals. |
| Storage | 4-Methyl(Thiobenzamide) should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. Keep away from sources of ignition, strong acids, oxidizing agents, and moisture. Store at ambient temperature, protected from direct sunlight. Ensure proper labeling and restrict access to trained personnel. Use chemical-resistant shelving and avoid conditions that may lead to decomposition or hazardous vapors. |
Applications of 4-Methyl(Thiobenzamide) in Industrial ManufacturingAs a direct manufacturer, we support a range of downstream industries requiring 4-Methyl(Thiobenzamide) as a specialty intermediate or functional additive. Below, we outline key industrial segments where this raw material enables specific synthetic steps and end-product fabrication under regulated production conditions. 1. Pharmaceutical Intermediate SynthesisPharmaceutical producers utilize 4-Methyl(Thiobenzamide) as a core building block for the synthesis of certain APIs, specifically in the development of thiazole-based drugs and sulfur-containing heterocyclic compounds. The compound’s methyl and thioamido functional groups allow chemists to construct tailored scaffolds necessary for anti-infective, anti-inflammatory, or CNS-modulating agents through controlled N-alkylation, cyclization, or S-alkylation reactions. Manufacturing follows strict regulatory oversight during the multi-step protocol, with validated analytical methods to confirm intermediate and final API purity. Industry compliance standards
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2. Agrochemical Active Ingredient FormulationAgricultural chemical manufacturers incorporate 4-Methyl(Thiobenzamide) in creating organosulfur pesticide precursors and herbicide intermediates. Its chemical structure facilitates the introduction of sulfur groups into bioactive molecules through thiol-ene or cyclization reactions under basic or catalytic conditions. The resulting products must comply with local and international regulations for agrochemical content, handling, and environmental exposure. Industry compliance standards
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3. Fine Chemical and Specialty Intermediate ManufacturingFine chemical companies work with 4-Methyl(Thiobenzamide) to produce specialty intermediates required for dyes, specialty resins, and functional materials. The material’s reactivity with halogenated aromatics or activated alkenes proves essential for manufacturers seeking high selectivity in forming sulfur-containing bonds or custom aromatics. Customers specify tight impurity limits and traceability for production runs targeting high-value downstream applications. Industry compliance standards
Typical usage ratio
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4. Polymer Additive and Crosslinker ManufacturingProducers of advanced polymer compounds include 4-Methyl(Thiobenzamide) as a functional additive or crosslinker in niche applications, such as thermoset or specialty elastomer networks. Its ability to promote sulfur bridge formation and chemical anchoring offers improved modulus, thermal resistance, or chemical durability in custom formulations. All raw material and additive batches undergo pre-shipment QC according to polymer industry and end-use requirements. Industry compliance standards
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5. Research Chemical Reagent SupplyAcademic and R&D laboratories source small to medium batches of 4-Methyl(Thiobenzamide) for exploratory synthesis of new heterocycles and to test sulfurylation reaction mechanisms. Material purity and batch documentation support reproducibility for peer-reviewed research, with safety data and handling certification aligned to institutional protocols. Industry compliance standards
Typical usage ratio
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4-Methyl(Thiobenzamide) enters the picture as a specialty chemical with a unique position in the thiobenzamide family. Chemists and technical operators often know it by its CAS number, which distinguishes it cleanly from other methylated, thiolated aromatics. In our production plant, the process for this compound begins with strict raw material selection to keep impurities at bay. Every batch hits a high purity standard because even minor contaminants noticeably shift downstream performance, especially in pharmaceutical and life sciences applications where these details can’t hide.
We have seen this molecule requested by formulators looking for a particular profile: something thiol-based, aromatic, and tunable. Compared to unsubstituted thiobenzamide, that extra methyl group creates a physical and chemical twist. It brings a subtle, useful change in reactivity. This methyl group, parked on the aromatic ring, raises the melting point and alters how it interacts with solvents and substrates. Users who have struggled with conventional thiobenzamide—maybe it crystallizes when it should stay in solution or it reacts too fast—sometimes report fewer headaches with the methyl-substituted version.
We manufacture 4-Methyl(Thiobenzamide) to purity above 99 percent, removing colored side-products and keeping sulfur-derived odors minimized. Granules form cleanly, with no caking or dust, making transfer and weighing easier on both small and large scale. On request, powders are sifted into finer cuts—chemists appreciate being able to choose because particle size controls reaction rates and solubility.
Moisture content remains a focus during quality control. Water picks up easily in thiol-group compounds, degrading long-term stability and generating off-spec byproducts. Each lot ships with tight moisture specs, usually below 0.05 percent, and every drum receives a final physical inspection. These actions cut requalification costs for our customers and prevent expensive interruption in multi-step syntheses.
We track each batch closely: all the way from upstream raw materials to the last pallet shipped. We do this so peace of mind grows on both sides. This isn’t just a marketing promise; it shows up on the ground with less downtime and fewer rejected lots.
In the laboratory, chemists favor 4-Methyl(Thiobenzamide) for its predictability. The methyl group, positioned orthogonally on the benzene core, suppresses unwanted side reactions on the aromatic ring. Those involved in heterocycle synthesis sometimes use this compound as a precursor in constructing sulfur-containing rings. With its manageable nucleophilicity and reduced tendency for uncontrolled oxidation, it often yields cleaner results in complex transformations.
In agrochemicals, we have observed formulators targeting the methylthio motif for its balance of activity and environmental profile. They report that it serves as an intermediate for certain fungicides and herbicides where the methyl group tempers volatility and increases the selectivity toward intended targets. Through direct feedback, teams working with biological screening have mentioned that analogs using 4-Methyl(Thiobenzamide) show improved uptake and lower off-target effects.
Within pharma, modifications on the benzamide backbone may look minor, yet medicinal chemists identify profound effects on absorption, distribution, and metabolism. The methyl addition tucks well with their SAR studies, letting them turn up potency or reduce metabolic liabilities. Process chemists working at pilot plant scale appreciate the consistent quality, mentioning that the uniform crystallization and purity remove guesswork from scale-up projects.
Across our range, we have handled both standard and substituted thiobenzamides. The methyl-substituted variant brings several practical advantages people notice only after trials. Logistical staff immediately note its shelf life—batches of regular thiobenzamide degrade faster due to oxygen exposure, developing a yellow tint that signals off-spec product. With the methylation, we see greater resistance to this change. The hazard management teams also emphasize that the product’s reduced volatility makes plant handling less risky.
In terms of price, the methylated compound usually requires slightly higher investment at the raw material stage, particularly because supply routes for ortho- and para-methyl precursors fluctuate. Our sourcing group puts in extra effort to maintain a stable supply chain that supports uninterrupted delivery, even in tight markets. Downstream operators have fed back that the reliability of input material—purity, stability, and availability—matters more than penny-wise differences on a per kilogram basis.
Some users have attempted in-house methylation of thiobenzamide to save on cost or work around long delivery times. In almost every documented case, the time, safety hazards, and cost of waste disposal eclipse any perceived savings. As a manufacturing plant, we handle these steps at scale, in controlled reactors and dedicated environmental abatement systems. This lets end users avoid complex reactions that involve methylating agents—often highly toxic or unstable in smaller labs.
Shipping habits for this specialty chemical differ from general commodity amides. Our application engineers and logistics staff learned early to favor amber containers with high-barrier liners, preventing both photodegradation and odor migration into warehouse air. Drum and IBC filling occur under inert atmosphere, again limiting downstream complaints. For shorter hauls, smaller kegs suffice, but for long-haul global shipments, we stage product in climate-controlled storage until call-off. This hands-on approach led to a sharp drop in product returns tied to suspect quality.
Field feedback came loud and clear from process engineers running batch reactors. Unpredictable particle size from other suppliers leads to charging delays, uneven dissolving, and filter plugging. We invested in sieving and granulation lines to control these physical parameters. Our customers see the benefit as repeatable performance—reaction time and conversion rates come out on target, saving days in troubleshooting or rework.
Years ago, regulatory labeling seemed like a routine burden. After several closer looks at what downstream customers face—especially in regulated industries—compliance became a value point in our process. Each drum of 4-Methyl(Thiobenzamide) leaves our plant with full batch documentation, safety data, and traceable production records. Third-party audits confirm alignment with REACH, TSCA, and Japan’s CSCL. This upfront investment means our users don’t fight headaches with inventory or incident reporting later.
Quality managers at specialty chemical firms report that cross-border shipment delays often stem from incomplete paperwork or mismatched certifications. We found that dedicating a compliance team, fluent in regulatory talk and local requirements, solves nearly 70 percent of all delayed shipments before they leave the dock. Extra cost in labor for correct documentation easily justifies itself—the product lands on time, production lines don’t pause, and no one has to organize emergency air freight.
Our sustainability commitment stretches into our process design for 4-Methyl(Thiobenzamide). Sulfur and methyl precursor streams create unique waste patterns. Years ago, incineration was the go-to answer for sulfur-rich residues. Now, we operate reclaim units to strip valuable sulfur content for reuse, reducing hazardous waste output by 40 percent over what was the norm a decade past. Our methyl donors, sourced from known producers with backward integration, help us sidestep labor abuse and questionable byproducts common among untraceable suppliers.
Life cycle assessment pushes us to keep improving. The energy input per kilogram continues to drop each year, thanks to smart heat exchange networks and byproduct steam recovery. Wastewater discharge standards force careful solvent selection—our R&D team led a transition away from chlorinated fluids in favor of more benign alternatives, even though this sometimes adds cost and complexity at scale.
Customers aiming for green chemistry credentials care about these supply chain details. Some multinational clients audit our plant for “cradle-to-customer” impact before approving supplier status—and the regular feedback loop with these partners leads directly to cleaner, safer operations that benefit everyone using these compounds downstream.
Shipping 4-Methyl(Thiobenzamide) to multiple continents brought up challenges we rarely saw a decade ago. Certain ports carry delays for sulfur compounds due to tightened local controls—a result of increased enforcement after high-profile chemical incidents worldwide. To preempt clearance issues, our distribution team files all regulatory paperwork days before arrival. We set up warehousing in multiple regions to sidestep customs backlogs, letting local users receive product not from the other side of the world, but from regional stock.
Extreme weather, from typhoons disrupting Asian output to cold snaps affecting rail shipments across the northern hemisphere, led us to diversify both our supplier base and shipping lanes. Multiple redundancies, even if carrying higher upfront cost, guard against the lost opportunity and contractual penalties that follow late supply.
On the floor, line staff handle 4-Methyl(Thiobenzamide) in dedicated PPE, including gloves and goggles. Dust control keeps airborne particles low. We push this information downstream because exposure incidents during charging or unloading hurt both worker health and plant reputation. Storage instructions reflect ambient humidity risks—drums sit with intact seals until immediate use, and return-to-stock packs route through controlled inspection before reissue.
In labs and pilot plants, experienced chemists rarely face trouble thanks to robust air handling and careful scale-up procedures. Still, educating newcomers about the product’s strong odor and skin contact risks makes a difference. Our safety advisors answer incoming questions, update best practice sheets, and change warehousing protocols in light of new field data.
After years of production and feedback, 4-Methyl(Thiobenzamide) keeps surprising us with fresh applications. Specialty pigment makers contacted us asking about its potential in novel dye intermediates—feedback from their trials pointed to distinctive hue retention in solvent-based systems. Another group tested it in rubber compounding as a minor curative, exploiting its methylthio functional group to fine-tune heat resistance. These real-world accounts keep our development team curious, always open to optimizing the product to suit evolving industry demands.
Some requests challenge our technical model—customers ask for solvent-free blending, co-crystallized forms for simplified charging, or pre-diluted slurries for slurry-handling installations. We examine requests case by case, weighing safety, cost, and practicality. Experience tells us that direct dialogue between plant chemists and end users beats generic solutions. Each time, open communication uncovers tweaks—whether that’s a custom particle cut or modified packaging to reduce static charge—that boost end user results.
With specialty chemicals like 4-Methyl(Thiobenzamide), direct engagement between the manufacturer and the user turns into tangible benefits. Problems identified by those on the floor—clumping during humid spells, filter blockage in high-throughput reactors, residue buildup in feed hoppers—reach our shop floor, not some office in a distant sales network. Engineers and shift leaders work hand-in-hand, trialing solutions in real time, rather than passing issues through a network of middlemen.
The difference appears in response speed and product consistency. Adjustments happen batch-by-batch, not year-by-year. Our R&D cycle runs faster: new feedback rolls directly into process improvements and, when needed, formulation tweaks. Working directly also means traceability remains robust—each box, drum, or bag can be tracked to its exact production run, much to the satisfaction of QA and regulatory teams on both sides. In the rare event an issue appears, both producer and user solve it in direct conversation, reducing downtime, confusion, and waste.
Years manufacturing 4-Methyl(Thiobenzamide) illustrated that even “established” specialties have room for improvement. Small changes in process conditions, from feed temperature to agitation speed, alter not just throughput, but the downstream ease of use. Operators relay that cleaner, more narrowly-sized granules improve reactivity; shipping supervisors note fewer complaints about odor or off-color. That feedback from the field lands right back with process engineers, resulting in a continuous improvement cycle.
Major industrial shifts—the movement away from “one size fits all,” the need for low-waste, high-safety supply, and the rise in custom requirements—keep shaping how we make and deliver specialty thiobenzamides. Collaborative projects with academic labs opened up new synthetic routes: milder reaction conditions cut both emissions and side-products, made possible only by the push for greener chemistry.
Across all these efforts, the reality stands out: quality chemical manufacturing isn’t just about hitting a set of numbers on a lab report. It’s about how those numbers translate into fewer site issues, simpler compliance, and stronger product outcomes for everyone in the value chain. Regular, frank exchange with users, direct observation, and a willingness to revise methods create winning results with specialty products like 4-Methyl(Thiobenzamide). From raw material intake to the last drum out the gate, we build process and trust at every step—because the results shows up in our customers’ projects, not only on our balance sheets.