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HS Code |
459264 |
| Chemical Name | 2-Bromothiazole |
| Cas Number | 3147-55-1 |
| Molecular Formula | C3H2BrNS |
| Molecular Weight | 163.03 |
| Appearance | Colorless to pale yellow liquid |
| Density | 1.77 g/cm3 |
| Boiling Point | 221-223 °C |
| Refractive Index | 1.640 |
| Flash Point | 100 °C |
| Solubility | Slightly soluble in water |
| Smiles | C1=CSC(=N1)Br |
| Pubchem Cid | 2866921 |
As an accredited 2-Bromothiazole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100-gram amber glass bottle with a secure screw cap, labeled “2-Bromothiazole, 98%” and hazard warnings displayed. |
| Shipping | 2-Bromothiazole is shipped in tightly sealed containers, protected from light and moisture. It should be transported according to applicable regulations for hazardous chemicals, typically as a Class 6.1 toxic substance. Proper labeling and documentation are required. Handle with care, using appropriate personal protective equipment to prevent exposure during transit and handling. |
| Storage | 2-Bromothiazole should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition. Protect it from moisture, heat, and direct sunlight. Keep segregated from incompatible substances such as strong oxidizing agents. Ensure storage location is equipped with proper spill containment and clearly labeled for hazardous chemicals. |
Applications of 2-Bromothiazole in Industrial Manufacturing2-Bromothiazole serves as a specialized intermediate across several regulated sectors. Its predictable reactivity and well-documented impurity profile support integration into precise synthetic workflows, contributing to high-value end products. Below, we detail key industrial segments utilizing this raw material, based on actual manufacturer channels. 1. Pharmaceutical API Synthesis (Thiazole-Based Drug Intermediates)Leading pharmaceutical groups leverage this material as a building block for synthesizing thiazole-containing API intermediates. The nucleophilic aromatic substitution facilitated by the bromo group enables targeted incorporation during advanced stage synthesis of cephalosporins, kinase inhibitors, and other patent-referenced drug candidates. Key process controls address genotoxic impurity thresholds, residual solvent minimization, and trace metal catalysis, all monitored under cGMP audit frameworks. Pilot and commercial batch campaigns require validated analytical methods for in-process and release testing. Industry compliance standards
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2. Agrochemical Synthesis (Herbicide and Fungicide Actives)Makers of proprietary agrochemical actives select this compound for controlled thiazole ring introduction within the synthesis of crop protection agents. The halogen allows selective cross-coupling, enabling downstream addition of functional groups tailored for target pest selectivity. QC teams implement strict trace impurity controls and coordinate with registration teams to ensure all batch records and impurity declarations comply with global agrochemical regulatory files. Industry compliance standards
Typical usage ratio
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3. Dye and Pigment Intermediate for Performance Textile ChemicalsSpecialty dye manufacturers use this intermediate to build thiazole-modified chromophores for high-UV-stability textile pigments. The material participates in coupling reactions imparting photo-resistance and improved wash durability in finished fabrics. Production lines implement solvent recovery and vapor monitoring protocols to align with occupational safe handling practices and environmental emissions limits. Industry compliance standards
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4. Specialty Chemical Building Block for Electronic MaterialsProducers serving the electronic chemicals segment use this raw material to introduce thiazole moieties within semiconducting polymer backbones and organic light-emitting diode (OLED) materials. Purity requirements exceed 99.5% HPLC with batch-level trace impurity mapping to prevent device performance degradation. Integrated production records ensure transparency in supply chain audits demanded by electronics OEMs and end-users. Industry compliance standards
Typical usage ratio
Downstream process integration
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Our daily work with 2-Bromothiazole puts us right in the midst of one of the most reliable sulfur- and nitrogen-containing heterocyclic compounds available today. Through years of producing and refining this molecule, the benefits and quirks of the product have become part of our company’s daily conversations. Our chemists discuss process improvements, actual performance in syntheses, and concrete feedback straight from the pharmaceutical and agrochemical labs that trust our supply. These aren’t abstract discussions – they’re based on day-to-day hands-on results.
Chemists who reach out to us often mention how 2-Bromothiazole’s consistency impacts their downstream work. The compound’s structure — a bromine attached to the thiazole ring — opens up reliable pathways in cross-coupling and functionalization reactions. We see that this means more predictable yields in Suzuki-Miyaura, Buchwald-Hartwig, and other coupling processes. Researchers aiming for targeted modifications, whether for building blocks in drug discovery or for advanced materials, appreciate how our product’s purity translates directly into less troubleshooting.
In our facility, standard purity for 2-Bromothiazole exceeds 98%, but many custom batches reach higher thresholds upon request. The melting point, solubility profile, and color are measured in every lot before leaving our plant. Our analytics team logs each set of data, which lets formulation specialists avoid surprises at the bench. The regularity in these specifications comes from both careful raw material sourcing and batch process control – a result of more than a decade’s practice and feedback loops with long-term partners.
Our intake of raw thiazole stands as the starting checkpoint. Bromination doesn’t allow for shortcuts; the degree of substitution requires careful monitoring to minimize unwanted byproducts. The reaction mixture goes through a precise sequence of washes, extractions, and crystallizations. Routine hands-on testing matters every step of the way, from verifying GC-MS spectra for trace chlorinated or iodinated co-products, to visual checks for unwanted haze or discoloration.
Our GC and NMR equipment act as the plant’s early warning system. Should unexpected side-products edge above 0.1%, the batch is flagged and reprocessed. The operators know the time on each filtration and how to handle seasonal humidity shifts that subtly influence crystallization behavior. Their notes affect real production schedules — this level of involvement cuts down on rejected shipments and keeps end users’ results reliable.
Labs and manufacturing lines have their preferences. Some run 100-gram syntheses every week; others scale up to multi-kilogram runs for pilot campaigns. We offer both standard 25-gram amber glass bottles for bench work and 1-kilogram steel drums for scale-up projects. The packaging is not an afterthought — brominated aromatics like 2-Bromothiazole are air-sensitive and can develop off-odors if improperly sealed. Desiccant pouches and nitrogen backfilling have kept more than a few shipments as fresh as the day they were filled.
Most of our clients use 2-Bromothiazole as a starting point for more complex molecules. In the world of pharmaceutical research, the thiazole ring appears across anti-infective, anti-inflammatory, and oncology candidates. Many blockbuster drugs list thiazole-containing intermediates in their synthesis. Our product’s single-bromo handle proves useful for chemoselective modifications. Through direct feedback, medicinal chemists have shown us how a trace impurity of dibrominated product can derail a multi-week synthesis campaign, raising costs and wasting labor. We answer by tuning our process to minimize those side-products, batch after batch.
Agrochemical developers also see value in this molecule. They tell us 2-Bromothiazole offers a head-start for heterocycle diversification in active ingredient design. A single coupling step can open access to a library of analogues with various substituents, allowing project teams to survey for better biological activity. Consistent halogen purity, minimal metal residuals, and a clear certificate of analysis can tip the balance when deadlines are tight and regulatory compliance matters.
Labs sometimes compare 2-Bromothiazole to the chloro and iodo analogues. We produce and sell these too, giving us a direct view into practical differences — not just from the literature, but from daily plant experience. The iodo version reacts faster in coupling but costs more due to raw material expense and extra regulatory controls. The chloro compound lags in reactivity, forcing longer reaction times or higher catalyst loadings, which introduces more variables into scale-up.
Bromine’s sweet spot appears right at the crossroads of cost, reactivity, and ease of waste management. We talk with procurement teams weekly who remember the headaches from less-pure brominated stocks made elsewhere. Untracked contamination can pop up as black gunk during crystallization or show up in final NMRs with mysterious peaks. Every gram our plant produces comes with the backup of years of technical troubleshooting — not just a label.
Open communication forms the backbone of our approach. Pharmaceutical and chemical companies ask for supporting documents — not just a COA, but recent chromatograms, high-resolution spectra, and stability data under varying storage conditions. We make this information available for every batch, not just for premium lots. If a user reports solubility issues or unexpected color change, our technical staff looks into root causes and shares actual findings, not just a form response. The plant team sends samples for confirmation testing after every process tweak, no matter how minor.
Reach, REACH, and other environmental regulations place strict demands on imported and exported brominated aromatics. Our quality documentation covers major requests, and our process design prioritizes containment and worker safety right through waste disposal. These efforts show up in audit reports and site visits, giving customers a clearer view of what they’re actually buying.
Younger companies in drug discovery often want quick answers: Will 2-Bromothiazole work if they scale their pilot from milligrams to kilograms? They worry less about paperwork and more about seeing their reactions run smoothly on the first try. From experience, we know that bench-top batches don’t always behave at scale. Subtle synthesis differences between our product and cheaper alternatives often show up in those transitions. Consistent lot-to-lot reproducibility means less need for reaction reoptimization, less wasted raw material, and more reliable timelines.
For agrochemical testing, compound libraries often call for dozens of analogues made from the same thiazole building block. Seed companies and crop protection start-ups reach out for kilogram lots in short timeframes. Our weekly production plans factor in this demand. They rely on our supply not just for speed, but for reassurance that the next shipment will match the last, both chemically and physically.
Maintaining such consistency isn’t easy. Weather variations, market swings in bromine supply, and local environmental rules keep our teams on their toes. Over the years, tighter emission rules forced investments in scrubbers, vapour containment, and automated loading bays. These changes didn’t slow delivery speed — we learned how to keep process lines humming under the new controls. Ongoing dialogue with local inspectors helped us resolve issues before they impacted shipments. It’s a cycle: regulations push us to improve, and every process upgrade echoes in cleaner product and safer working conditions.
In the world of specialty chemicals, reliability builds over time. Sophisticated analysis tools matter, but so does experience. We encourage our production and QC staff to meet with users, listening in practical terms: What happened when you switched suppliers? Did you hit a snag purifying intermediates? Have you spotted any subtle changes in reaction profiles from the latest batch?
It’s this feedback loop between producer and end user that shapes the ongoing evolution of our 2-Bromothiazole. For instance, several bulk users noticed faint color drift following a minor raw material change. Our plant team responded with direct batch comparison studies, tweaking purification steps and sharing results in real time. Such traces are invisible in most off-the-shelf analytical reports, but they impact work at the lab bench in subtle ways. We use these interactions to inform not just marketing but our technical roadmap.
Various published studies and patent filings have highlighted the efficiency of brominated thiazoles in heterocyclic synthesis. Industry data confirm that bromine substituents, compared to chloro analogues, offer higher reactivity and open up a wider range of cross-coupling options. In drug manufacturing, the need for cleaner intermediates is critical — even a single peak outside the expected profile can cost weeks of investigation and cleanup. We supply major research hubs and production-scale manufacturers who audit our processes annually, confirming full chain-of-custody and compliance.
From a sustainability standpoint, brominated aromatic waste streams demand careful handling. We designed our in-house disposal and treatment systems to meet standards for halogenated organics. This not only satisfies listing requirements for green chemistry projects but also reassures labs about long-term access to thiazole derivatives that won’t run afoul of compliance audits.
Researchers publishing on thiazole chemistry regularly cite supply interruptions and batch-to-batch uncertainty as weak points. We’ve worked through situations where last-minute synthesis setbacks traced back to off-brand 2-Bromothiazole. Each frustrated call led to closer collaboration and process improvements, supplying the missing data or technical support to let teams get back on track. These stories drive the way we approach every new order — with technical responsibility and an aim to prevent downtime, not just fill an order.
With demand for 2-Bromothiazole holding strong in pharmaceuticals, materials science, and crop science, we expect continued requests for both standard and customized grades. Our lab is constantly refining isolation and purification — catching new contaminants, tracking minor process variables, and testing potential improved workflows. We share these findings with collaborators, to help push the boundaries for what’s possible with thiazole-based chemistry.
We believe in answering with facts and openness, not generic claims or filler text. Every new request for a modified grade or tighter impurity control becomes a starting point for shared R&D — whether it’s batch size upscaling, new analytical standards, or stability data that matches real-world shipment conditions.
For manufacturers and researchers seeking a reliable building block for synthesis, 2-Bromothiazole remains a workhorse. Our role as the origin producer means we see the full picture: the cost pressures, the technical demands, and the everyday troubleshooting that can define a project’s success or failure. Each lot moving from our factory tells part of that story — informed by real production know-how, shaped by technical ups and downs, and supplied with the open communication and paperwork our customers have come to expect.
We’ve learned that nothing replaces direct experience. The daily rhythm of reactor monitoring, product testing, and listening to real chemists has pushed our 2-Bromothiazole production to where it is today. Future prospects look bright, but we never lose sight of what matters: clean, predictable results at the workbench, backed by rigorous controls and honest answers from our side. That’s the difference our product makes — every single day.