Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing sales7@sinochem-nanjing.com 3389378665@qq.com
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3-Bromo-Thiobenzamide

    • Product Name 3-Bromo-Thiobenzamide
    • Alias 3-bromo-Benzenecarbothioamide
    • Einecs 629-487-5
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    279641

    Productname 3-Bromo-Thiobenzamide
    Casnumber 118631-45-3
    Molecularformula C7H6BrNS
    Molecularweight 216.10
    Appearance Off-white to light yellow solid
    Meltingpoint 92-96°C
    Solubility Slightly soluble in water; soluble in organic solvents
    Purity Typically ≥98%
    Storagetemperature Store at 2-8°C
    Synonyms 3-Bromobenzothioamide
    Smiles C1=CC(=CC(=C1)Br)C(=S)N
    Inchi InChI=1S/C7H6BrNS/c8-6-3-1-2-5(4-6)7(9)10/h1-4H,(H2,9,10)

    As an accredited 3-Bromo-Thiobenzamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle containing 25 grams of 3-Bromo-Thiobenzamide; tightly sealed, chemical label with safety and handling instructions.
    Shipping 3-Bromo-Thiobenzamide is shipped in tightly sealed containers designed to prevent moisture and light exposure. The chemical is handled in compliance with hazardous material regulations, typically shipped via ground or air by certified carriers. Proper labeling and documentation ensure safe transit, with temperature control if required to maintain product stability.
    Storage 3-Bromo-Thiobenzamide should be stored in a tightly sealed container, away from moisture and sources of ignition, in a cool, dry, and well-ventilated area. Keep it away from incompatible substances such as strong oxidizers. Storage should be in accordance with local regulations and guidelines for hazardous chemicals. Properly label the container and use secondary containment to prevent spills.
    Application of 3-Bromo-Thiobenzamide

    Applications of 3-Bromo-Thiobenzamide in Industrial Manufacturing

    As the direct manufacturer of 3-Bromo-Thiobenzamide, we supply this intermediate to specialized sectors where its unique reactivity enables precise synthesis and quality-controlled downstream production. Below, we detail recognized industrial application scenarios along with relevant compliance standards, formulation practices, integration methods, and the types of finished goods that incorporate this intermediate at scale.

    1. Pharmaceutical Intermediate for Thiazole Drug Synthesis

    Large-scale pharmaceutical manufacturers use 3-Bromo-Thiobenzamide as a precursor during thiazole core construction, specifically in the pathway for several antiinfective and CNS-active small molecules. Addition timing and isolation conditions critically affect batch purity and downstream performance, making process reproducibility a key consideration for formulators adhering to global GMP and drug regulatory requirements.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • US FDA 21 CFR Part 210/211
    • EU EudraLex Volume 4
    • Chinese Pharmacopoeia for Intermediates

    Typical usage ratio

    • 0.85–1.2 equivalents per target compound, adjusted based on pathway yield and impurity thresholds; chemists monitor conversion ratios via HPLC before downstream coupling or cyclization.

    Downstream process integration

    • Our material enters directly into thiazole ring-forming cyclization reactions following prior bromination steps, usually as the limiting reagent for nucleophilic substitution or during amidation coupling at controlled temperatures (80–120°C) under nitrogen protection.

    Final product types

    • Active pharmaceutical ingredients (APIs) for anti-tubercular, anticonvulsant, and anti-fungal therapies based on thiazole scaffolds
    • Key regulated intermediates for specialty drug development pipelines

    2. Agrochemical Building Block for Fungicide Synthesis

    R&D and production facilities serving the crop protection sector employ 3-Bromo-Thiobenzamide for constructing sulfur-containing heterocycles, crucial in multiple broad-spectrum fungicide molecules. The role and stage of incorporation align with rigorous quality and traceability protocols required by agricultural chemical regulators concerned with precursor management and assay consistency.

    Industry compliance standards

    • FAO/WHO Guidelines for the Quality Control of Pesticides
    • ISO 9001:2015 Quality Management Systems (for ingredient traceability)
    • REACH Registration (EU), where applicable
    • China GB 19335-2016 for agrochemical intermediates

    Typical usage ratio

    • 0.75–1.1 molar equivalents in heterocyclic assembly; technical managers adjust the ratio based on target fungicide structure and required by-product control for downstream purification.

    Downstream process integration

    • The intermediate is charged during the key cyclization or condensation step, typically after preliminary aromatic functionalization and prior to chlorination or methylation modules, with quality batches controlled for minimal unreacted halide content.

    Final product types

    • Sulfur-based systemic fungicide actives
    • Precursor intermediates for triazole and thiophene agrochemical agents
    • Herbicide formulation intermediates requiring trusted HPLC purity

    3. Fine Chemical Synthesis for Dye Manufacturing

    Producers in the high-purity dye and pigment sector utilize 3-Bromo-Thiobenzamide in multi-step syntheses leading to complex azo and sulfur dye chromophores for applications in specialty fibers and coatings. Material provenance and reaction pathway integrity are monitored in accordance with advanced product stewardship and environmental safety benchmarks relevant to dye intermediates, especially for European and North American textile regulations.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (textile suitability for residues)
    • EU REACH SVHC (Substances of Very High Concern)
    • ISO 14001 (Environmental Management in chemical processing)
    • TÜV Rheinland testing protocols for dye intermediates

    Typical usage ratio

    • 1.0–1.3 molar equivalents in dye precursor formation, depending on substrate reactivity and final color target; operators ensure ratio uniformity by pre-batch weighing and in-process NMR verification.

    Downstream process integration

    • The material typically enters the reaction as the second intermediate of a three-step synthesis, after nitration of benzene derivatives and prior to reduction or sulfonation; multistage crystallization and solvent exchange support batch clarity and purity.

    Final product types

    • Specialty azo and thio dyes for synthetic fibers
    • Functional pigments for inkjet and textile printing
    • Chromophore intermediates for automotive coating pigments

    4. Specialty Chemical Feedstock for Polymer Additive Manufacture

    Manufacturers of performance polymer formulations source 3-Bromo-Thiobenzamide as a niche intermediate involved in customizing sulfur and nitrogen content for additive masterbatches, which furnish thermal stability and flame retardancy during polycondensation. The dosing and documentation of such specialty feedstock flow adhere strictly to polymer industry stewardship codes and customer-specific validation protocols, especially where final goods touch electronics or personal care markets.

    Industry compliance standards

    • UL 94 (Flammability of plastic materials)
    • Global Automotive Declarable Substance List (GADSL)
    • ISO 9001:2015 for masterbatch QC
    • RoHS Directive 2011/65/EU (Restriction of Hazardous Substances)

    Typical usage ratio

    • 0.3–1.0 wt% in compounders’ masterbatch, varying by target application and balance with other synergists; product development teams adjust based on TGA data and compounding shear temperature.

    Downstream process integration

    • Our product is introduced during extrusion premix, blended with co-additives or polymer carriers before final pelletization, ensuring consistent dispersion and thermal conversion during lamination or injection molding stages.

    Final product types

    • Polyamide flame retardant masterbatches for electronics casing
    • Specialty anti-degradation additives in low-halogen wire and cable compounds
    • Polymer composites for industrial and automotive interior applications
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    Certification & Compliance
    More Introduction

    Introducing 3-Bromo-Thiobenzamide: An Engineer’s Perspective

    Working With 3-Bromo-Thiobenzamide: From Bench to Bulk Production

    Days in the reactor bay often begin with a checklist, but the excitement really starts when loading something like 3-Bromo-Thiobenzamide. This compound stands apart among benzamide derivatives—a single molecule shaped for persistent demand in custom synthesis, pharmaceutical intermediates, and special materials development. Over the years, our team has scaled this molecule from pilot grams to decades worth of multi-ton batches, fielding feedback from downstream users that fuels incremental but meaningful improvements to every lot we make.

    3-Bromo-Thiobenzamide’s structure builds on the foundation of traditional benzamides by introducing both a thioamide and a bromine at the meta position. That might sound simplistic, but these substitutions change reactivity profiles, solubility, and even handling quite markedly. Many colleagues have commented on the relative stability compared to certain iodo or nitro analogs. The crystalline powder form makes most handling straightforward, yet it still needs careful attention to moisture and temperature controls throughout processing. Our facility deploys closed-system reactors, glove ports, and nitrogen blanketing for this product as a matter of regular best practice, even if it means more operator training up front.

    Specification Details That Matter in a Production Setting

    3-Bromo-Thiobenzamide (often abbreviated as 3-Br-TBA) flows from cleanroom synthesis through two-stage filtration and a vacuum drying cycle, producing a free-flowing, pale yellow to off-white crystalline powder. Typical purity on a dry basis regularly exceeds 98.5%, calibrated against external HPLC standards. Only a handful of times in the past years have we needed extra purification passes—those episodes led directly to process changes and custom column packing that now make our higher-purity lots so reliable.

    Particle size distribution isn’t just a factory line number for us. Many of our downstream partners rely on this parameter for maximizing their yield in subsequent transformations, especially nucleophilic aromatic substitution or cross-coupling reactions. Across several campaigns, we’ve had requests for custom-milled fractions and have delivered on those, but the in-house default sits in the range of about 100 to 200 microns. Unlike powders that cake or create fines, this compound provides a tactile, granulated feel on the glove—easier to weigh and blend.

    Pushing the Boundaries of Organic Synthesis

    This brominated thioamide wasn’t merely a catalog addition brought in by executive decision—its presence in our plant is the outcome of chemists sitting down with process engineers to talk through reactivity, safety, and innovation. 3-Bromo-Thiobenzamide opens doors for those targeting 3-substituted thiobenzamides as core scaffolds. The meta-bromo function extends the utility for Suzuki and Stille coupling sequences, which we have demonstrated at both exploratory and production scales. Some clients have commented that the purity, lot-to-lot color uniformity, and low residual moisture surpass what’s typically available from non-integrated suppliers.

    We’ve noticed over the years that the thiobenzamide portion, versus the standard amide, alters downstream processability. For example, it engages in sulfur-based addition reactions not possible with its oxygenated cousin. This expands its reach into the synthesis of sulfur-containing drugs, dyes, and specialty ligands. As a manufacturer running these reactions at scale, the difference isn’t theoretical: improved selectivity and cyclization outcomes have yielded less off-spec product in our test bays, minimizing rework and waste. From a plant operations standpoint, these differences translate to fewer reactive byproduct troubles, smoother crystallizations, and consistent post-reaction filtrations.

    Distinguishing Ourselves Beyond the Commodity Market

    In a crowded field, bringing 3-Bromo-Thiobenzamide to market means the heavy lifting doesn’t end with solid-state manufacturing. Routine tests cover trace bromide content, residual halide contaminants, and the absence of sulfur dioxide off-notes. Our longstanding focus on maintaining both batch documentation and statistical process control has proved out in customer audits—each drum has a story tied to production date, reactor train used, and which operator ran the crystallization.

    Comparisons to similar products, like 4-bromothiobenzamide or the non-brominated parent thiobenzamide, often come up during our client consultations. With the meta-bromo isomer, one gains both regioselective halogen reactivity and slightly altered electron distribution at the aromatic ring—traits we’ve seen matter most in multi-step syntheses for active pharmaceutical ingredients and agrochemical building blocks. These technical differentiators show their value only through experience on both sides of the reaction vessel. It’s typical for chemists new to this molecule to reach out for tips on solubility and recrystallization; having run hundreds of pilot and production charge cycles, our staff is always ready with those practical insights based on direct plant-floor lessons.

    Addressing Real Challenges: From Safety to Innovation

    Any compound bearing both bromine and sulfur tends to attract careful scrutiny from safety and environmental teams. Years of handling this compound have put us through every conceivable audit, including hazard assessment, containment validation, and environmental impact studies. Material transfer is always managed in low-dust containers, and every exposed surface is tested for halide residue post-batch.

    Waste treatment involves neutralization and halide recovery, which continues to evolve year after year. By reconfiguring scrubbing towers and adopting on-site bromide reclamation, we clean up effluents in a way that preserves both regulatory compliance and community trust. Operating as a direct manufacturer means no shortcuts on safety—each operator signs off on a process log, and every day’s output runs through in-house analytical labs for both product quality and byproduct minimization.

    From time to time, customer requests force us to innovate on reaction design itself. Whether it’s alternative solvent use due to new EHS rules or optimizing yields for ultra-high-purity applications, these challenges often drive the entire organization to look for cross-disciplinary solutions. Our most successful process upgrades for 3-Bromo-Thiobenzamide—whether catalyst optimizations or solvent switchovers—were direct responses to downstream users bumping against purity or reactivity ceilings. In these cases, regular dialogue between lab, scale-up, and QA teams ensures a responsive, customer-driven manufacturing program that delivers measurable improvements.

    A Legacy of Manufacturing Know-How With 3-Bromo-Thiobenzamide

    We’ve spent years making 3-Bromo-Thiobenzamide, and that experience flows into every lot. Walk through our reactor halls and you’ll see control panels built with feedback from the same team running them, ensuring easy monitoring of exotherms that might trigger runaway in less experienced hands. Operator training drills cover every scenario from minor leaks to full evacuation, establishing a workplace where nobody ever feels unprepared for the unique traits of this compound.

    Direct customer relationships have always helped us see how our approach stacks up. We’ve supported early-stage researchers in need of small-batch lots with very tight impurity limits and major multinational partners who need seamless integration into multi-ton synthetic schemes. Both ends of the user spectrum report that our process robustness for 3-Bromo-Thiobenzamide translates into fewer unexpected outcomes and, just as important, a level of consistency that makes planning and batch scheduling less stressful.

    With this compound, process improvements never cease. Even minor process tweaks in chromatography or dry-box transfer can make a noticeable difference in batch outcomes. By actively reviewing every production report and collaborating with R&D, each campaign turns into a platform for shared learning and operational gains. Employees are encouraged to suggest process changes and participate in troubleshooting—over time, this collective mindset shifts quality standards up another notch.

    Uses and Industry-Specific Experiences

    Within the pharma and specialty chemicals arena, 3-Bromo-Thiobenzamide often serves as a core intermediate. Medicinal chemistry groups value its functional handle for coupling reactions, as well as its ability to act as a precursor for more elaborate substitution patterns. Our technical hotline has fielded countless questions on achieving optimal conversion rates in palladium-catalyzed couplings using this compound, and we’ve learned to recommend control of water content and base strength based on repeated, validated results from our own reaction development bench.

    In the dye and pigment sector, the thioamide group empowers synthesis of high-stability chromophores resistant to photodegradation. We’ve run larger campaigns for this market, recognizing their particular focus on trace halogen management and rigorous drying parameters to prevent pigment instability. The most valued attribute, as reported by users, is reproducibility—when the project depends on downstream batch consistency, previous variability from outside sources has led to lost time and excess re-qualification costs.

    Some academic groups order this compound for exploratory work in new S-heterocycle synthesis. We regularly provide single-lot, high-purity sample packs for their cutting-edge work, and encourage feedback from principal investigators about any issues they encounter with phase transitions or shelf stability. Insights gleaned from these collaborations have, at times, translated directly into process improvements for our production lines. Factoring in even small-scale innovations has proved critical for staying relevant against overseas suppliers who do not directly participate in applied research.

    Emphasizing Quality Built on Hands-On Experience

    Quality for us comes from lived expertise: batch documentation handwritten on the plant floor, repeated calibration of HPLC and GC equipment, and a culture in which operators call out any deviation in drying profile or color. No machine or protocol replaces the diligence of a technician who has seen hundreds of crystallizations succeed, and a few go off course. We operate from a conviction that every metric—purity, particle size, moisture, and halide content—directly influences user success across industries, because each parameter has caused some real-world headache at some point in our own experience.

    Those running secondary manufacturing often reach out to discuss scale-up issues outside the comfort zone of small lab glassware. Our own journey, from five-liter flasks to two-thousand-liter reactors, shapes every recommendation we offer. Problems with phase separation, dust control, and cross-contamination get solved through practical adjustment, not just theory. We share these hard-won lessons freely, believing that open technical exchange secures not only safer plant operations but better results for customers receiving our 3-Bromo-Thiobenzamide.

    Distinctions Among Product Variants and Relative Value

    Unlike distributors or repackagers focused on generic product lists, we see firsthand the impact of molecular structure on downstream progress. Switching from our 3-Bromo-Thiobenzamide to other brominated or non-brominated thiobenzamides isn’t trivial, and the implications go beyond lab technique. Subtle electronic effects in the meta position shape yields and selectivities throughout multi-step syntheses—often saving weeks, not just hours, on the workbench. Challenges faced in the pilot plant often differ drastically from those in the kilo lab; recognizing this, we tweak crystallization and drying parameters regularly, choosing practical over theoretical optimization every time.

    More than a few times, project managers have reported on failed reactions using compounds sourced from traders who cannot trace back to the original manufacturing lot. We field these stories regularly and use them to reinforce why direct engagement at the production level remains irreplaceable. Our teams know every step of this molecule’s origin—starting materials, intermediates, conditions, and personnel involved. These details matter most in regulated sectors and early-stage R&D, where surprises on impurity profiles or physical properties create downstream headaches.

    Customer Collaboration Fuels Continuous Improvement

    Customers share both their frustrations and successes—this direct feedback has shaped our focus more than trend analyses or product demand forecasts. Our staff collects feedback from users at every step, compiling notes on solubility oddities, filtration characteristics, and complaints about odor or dust. Making these learnings available in future technical bulletins keeps us grounded in the needs of today’s labs and plants, not trapped by yesterday’s practice alone.

    As markets shift and regulatory demands tighten, collaboration at the technical interface becomes even more crucial. We’ve worked closely with partners developing greener synthetic routes, responding by modifying our own production pathways: exploring non-chlorinated solvents, investing in improved recovery systems for brominated waste, and fine-tuning product preps to cut residual organohalides. All these changes stem from authentic technical partnerships, not just regulatory pressure.

    This is not just product stewardship, but the lived reality of experienced operators, analytical chemists, and process engineers who want to take pride in putting their names—and the reputation of our facility—behind each drum of 3-Bromo-Thiobenzamide leaving our loading docks.

    Closing Thoughts From the Manufacturer’s Floor

    As technology advances and market needs evolve, the core value of 3-Bromo-Thiobenzamide for us remains unchanged: it’s about delivering a molecule that consistently helps chemists and engineers move projects forward efficiently and safely. Every improvement—be it in particle handling, process safety, or technical support—draws from the direct experience of the manufacturing staff, not just supplier mandates or compliance documentation. Years of close work with this material have taught us to value communication, reliability, and the discipline of continuous upgrade. Each batch we produce reflects that philosophy, so that every researcher or manufacturer using our 3-Bromo-Thiobenzamide counts on both molecular purity and human diligence supporting every step of their work.