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HS Code |
912697 |
| Chemical Name | Bismuth(III) Bromide |
| Chemical Formula | BiBr3 |
| Molar Mass | 448.69 g/mol |
| Appearance | white to pale yellow crystalline solid |
| Melting Point | 219 °C |
| Boiling Point | 460 °C (decomposes) |
| Density | 5.74 g/cm³ |
| Solubility In Water | slightly soluble |
| Cas Number | 7787-58-8 |
| Ec Number | 232-123-3 |
| Odor | odorless |
| Stability | stable under recommended storage conditions |
| Color | white to pale yellow |
As an accredited Bismuth(III) Bromide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Bismuth(III) Bromide, 25g, is packaged in a sealed amber glass bottle with a secure screw cap, labeled with hazard warnings. |
| Shipping | Bismuth(III) Bromide should be shipped in tightly sealed containers, protected from moisture, and stored in a cool, dry place. Proper labeling is required, indicating its chemical identity and hazard information. The shipment must comply with all local, national, and international regulations for safe transport of chemicals. Handle with care during transit. |
| Storage | Bismuth(III) bromide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture and incompatible substances such as strong acids and bases. Keep the container tightly closed when not in use, and store it away from sources of ignition and direct sunlight. Properly label the storage area and follow standard chemical safety protocols. |
Applications of Bismuth(III) Bromide in Industrial ManufacturingBismuth(III) bromide serves as a functional raw material across diverse chemical and materials sectors, supporting both specialized synthesis and advanced product performance. As a manufacturer, we supply this reagent for downstream industries with precise specification control, process documentation, and shipment traceability. 1. Organic Synthesis Catalyst for Pharmaceutical IntermediatesBismuth(III) bromide acts as a selective Lewis acid catalyst in heterocyclic synthesis, halogen-exchange reactions, and Friedel-Crafts acylation during API intermediate production. Manufacturers use it for gentle conditions, favoring high selectivity with minimal metal residue. Integration with cGMP protocols and impurity control ensures suitability for regulated pharma supply chains. Customers adjust quantity based on process scale, reaction mechanism, and required conversion efficiency. Industry compliance standards
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2. Precursor for Bismuth-Based X-ray Opaque AgentsDownstream medical device and formulation companies employ bismuth(III) bromide as a controlled precursor for insoluble bismuth salts, especially in X-ray contrast agent manufacturing. The bromide source ensures high-purity conversion while supporting proprietary precipitation and milling techniques that deliver regulated particle sizes and dispersion characteristics. Quality control mandates precise stoichiometry throughout conversion and stringent isolation from contaminants impacting medical device clearances. Industry compliance standards
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3. Component in High-Density Optical Glass and Glass-CeramicsBismuth(III) bromide serves as an additive in specialty glass and glass-ceramic production for downstream photonics, sensor, and transparent shielding applications. Its use allows glass manufacturers to achieve high density, tailored refractive index, and increased transparency in selected infrared and visible regions. Operators introduce the compound directly into melt furnaces; careful monitoring of volatilization and controlled cooling prevent phase separation. Glass formulators follow end-user and safety requirements for optical performance and product stabilization. Industry compliance standards
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4. Raw Material in Bismuth-Modified Catalyst ManufactureBismuth(III) bromide is a controlled feedstock for advanced catalyst producers, especially for bismuth-doped zeolites, amorphous catalysts, or co-precipitated mixed-metal oxide catalysts used in petrochemical and environmental processes. Manufacturers select bismuth bromide to enable fine stoichiometric control and to facilitate uniform bismuth deposition or incorporation during the support impregnation or co-precipitation stage. Precise raw material dosing and trace bromide removal are key for downstream catalytic performance and regulatory acceptance in process applications. Industry compliance standards
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Bismuth(III) Bromide, or BiBr3, stands out in the family of bismuth halides for its unique chemistry and versatility. Having produced bismuth chemicals for decades, we've seen BiBr3 rise in demand for both classic laboratory use and new market requirements. As producers, we understand that purity, particle consistency, and safe handling all matter for research, advanced synthesis, and industrial manufacturing. These are not abstract concerns. They are daily realities in a chemical plant dealing with rare metal halides.
Our Bismuth(III) Bromide typically comes as a white to pale yellow crystalline powder. Under ambient conditions, it remains stable, but it reacts with moisture and can hydrolyze to form oxybromides, releasing hydrobromic acid upon contact with water. This calls for dry storage and moisture-proof packaging, which we rigorously maintain throughout manufacturing and logistics. We have found that controlling humidity at every step is key for ensuring product integrity and consistent performance. A little lapse in storage, even at the distributor's end, can impact the final application. This is why we believe direct shipment from producer to user is important.
Our batches regularly achieve a bismuth assay of at least 98%, often higher, with low levels of trace metal impurities. For chemists working in synthesis and coordination chemistry, this matters as contaminant metals can alter reaction yields or generate unwanted byproducts. Batch-testing by wet chemical methods and XRF analysis backs up our quality statements. We routinely field requests for extra-pure material for semiconductor research, so we have set up flexible custom purification steps for those needing beyond-stock purity.
Common batch sizes from 100 grams up to 25 kilograms support both benchwork and pilot-scale operations. Large-scale projects, especially for specialty glass or catalyst precursor uses, are coordinated directly from our main production plant. Since bismuth is a relatively heavy element with unique procurement challenges, we keep direct control over sourcing. Our purchasing team deals directly with primary bismuth refiners, steering clear of secondary scrap refiners that may struggle with trace contamination. We do this not just for compliance, but because repeated customer feedback has shown that off-color or non-flowing BiBr3 signals a problem in the starting bismuth.
We see BiBr3 used by researchers exploring new routes in coordination chemistry, especially where inertness and mildness are essential. Many organic chemists value this bromide for forming bismuth-based catalysts. It acts as a Lewis acid capable of activating various substrates without the hazards or strict regulatory issues tied to more toxic heavy metal halides. Through our direct outreach to university and private R&D labs, we've learned that its selective reactivity suits sensitive cyclization, alkylation, and oxidation protocols. If a customer asks, we don’t quote generic claims—we often discuss results from our own research group, where real-world synthesis trials have confirmed BiBr3’s ability to outperform trivalent antimony or tin halides in certain transformations.
Beyond research, production-scale customers often turn to Bismuth(III) Bromide as a precursor for bismuth-based materials. Its role in manufacturing specialty glass, optical fibers, and ceramics hinges on its reactivity, thermal stability, and ease of conversion to bismuth oxides or mixed-metal halides. Glass technologists have told us they value the lower toxicity and environmental footprint compared to traditional lead additives, as regulations tighten globally. Compared to bismuth nitrate or bismuth chloride, the bromide flavor proves less volatile in some melting applications, making it easier to control fuming losses in high-temperature furnaces. Several of our ceramic customers have commented on this point after switching to our product.
Handling BiBr3 requires precision because it reacts readily with atmospheric moisture. From loading to packaging, we keep processing environments dry and equipment well-sealed. Our warehouse crews understand that even short-term exposure to air can create a crust of hydrolysis products—white bismuth oxybromide, mostly—which won’t dissolve easily back into solution. Over years of hands-on experience, we've fine-tuned our packaging in moisture-barrier pouches with secondary glass or polymer containment. Unlike bulk suppliers, we don't delegate this to contractors. Having walked through many a client's storage room, we can say that proper packaging makes the difference between a smooth operation and a failed experiment.
Compared with other bismuth(III) halides, the bromide strikes a balance between cost, reactivity, and safety. The chloride offers higher solubility in water but poses greater challenges related to volatility and corrosivity. The iodide, while interesting for advanced electronic applications, often proves cost-prohibitive for routine use. BiBr3, on the other hand, provides enough chemical robustness for most uses while remaining affordable and less hazardous to handle. In our scale-up trials, we’ve seen BiBr3 remain stable under an inert atmosphere at over 300 degrees Celsius, demonstrating good compatibility with demanding industrial environments.
Over the years, we've built direct partnerships with academic groups, multinational manufacturers, and niche startups. These collaborations often challenge us to improve batch size flexibility, adjust purity targets, and develop supporting documentation. Users in photonics or electronics want to see full impurity breakdowns and particle size analysis, so we equipped our lab with advanced analytical gear. Reactivity profiling and ongoing beta tests at collaborator labs give us a continually evolving database of product performance.
Customers often comment not only on results but on usability factors like powder flow, ease of transfer, and residue. Those commercial clients developing transparent ceramics and high-refractive index glasses routinely say that BiBr3 outperforms both bismuth chloride and traditional lead-based salts in clarity and color retention. We also regularly help customers troubleshoot loading, melting, or reactivity challenges. These conversations have led us to refine both manufacturing and packaging protocols, ensuring the product works predictably across both small-scale research and full industrial runs.
Handling bismuth-based chemicals seems simple on paper, but plant-level realities differ. Bismuth has a low profile for chronic toxicity, making it a safer choice than many heavy metals. Even so, BiBr3 should never be treated casually. We invested early in inline extraction and purification to keep hydrobromic acid levels below critical limits. On the safety front, our internal hazard analysis focuses on worker exposure to dust or bromide fumes. We require PPE, local extraction, and sealed handling everywhere BiBr3 is moved or weighed. Runoff and waste are contained, neutralized, and tracked all the way to certified disposal partners. Years of compliance audits have tuned our storage and emergency protocols well beyond the minimum legal standard.
We believe that environmental responsibility means more than compliance paperwork. As a raw material, bismuth’s relatively benign profile can only go so far. Waste minimization begins with minimizing rejected batches, maximizing right-the-first-time yields, and carefully managing every scrap. Scrupulous batch record-keeping and process controls cut down on substandard materials destined for disposal. Regulatory authorities value traceability, so we have adopted integrated data management to document each lot. Several international customers require thorough Life Cycle Analysis and environmental impact statements—something we now deliver without delay.
Manufacturers sometimes face a choice between various trivalent metal halides for a given process. For those used to working with traditional lead-based salts, stepping up to BiBr3 offers key advantages—substantially reduced toxicity, favorable reactivity profiles, and compliance with increasingly strict RoHS, REACH, and other regulations. Tin and antimony salts have held sway in some applications, but both raise greater toxicity questions and often disrupt process consistency due to redox changes or trace contamination. Our direct trials—run in collaboration with end-users—show BiBr3 offering smoother handling characteristics and a narrower, more predictable temperature range during both synthesis and melting.
Some of our glass industry partners tell us that bismuth chloride, though often selected for price, introduces coloration in the final glass that BiBr3 does not. In photonic glass melts, BiBr3 tends to provide fewer inclusion defects and lower loss of bismuth through volatilization. Scientists in the field of X-ray detection and medical imaging also note that BiBr3’s electron density and low innate radioactivity favor it over alternatives wherever transparency and detection sensitivity are paramount. Through direct feedback, we refine our processes to meet these evolving application needs.
Long-term customers, especially those in the electronics and specialty glass sectors, care deeply about consistency across batches. Having worked closely with semiconductor research teams, we understand the unacceptable risk of a failed fabrication run due to slight impurity drift. That’s why every step of our BiBr3 supply chain stays under our control—from metal purification, halogen reaction, and crystallization to final inspection and packaging. This hands-on approach takes more effort, but it prevents the compromise of relying on anonymous batch blends or third-party reselling.
Requests for specialized particle morphology, dust suppression coatings, or tailored purity profiles are routine for us. Our in-house R&D chemists work hand-in-glove with production and QC labs, iterating custom formulations on timelines that match research cycles. Sometimes this means tweaking the crystallization solvent system, sometimes adjusting the filtration regime or adopting new analytical controls. Direct user input shapes these changes. Commercial partners bring us bottleneck problems—and we put our own machines and chemists on the task until we find a practical solution.
Research around bismuth compounds is at an exciting crossroads. Many universities and startups are exploring BiBr3’s potential in novel applications, from eco-friendly catalysts to emerging electronic materials. We’ve seen it sought out as a mild Lewis acid for green chemistry transformations, as a replacement for more toxic metals in specialty glass, and even as a precursor for new electronic compounds. These advances don’t happen in a vacuum—they happen through regular, technical conversations between our team and active users in the field. We remain active participants in scientific conferences, industry groups, and regulatory forums where new priorities get defined. Our technical service team stays in close touch with end-users—not just to address problems, but to understand what’s coming next.
Standard products keep the wheels turning, but it’s the special requests that drive innovation. Whether developing cleaner manufacturing methods for BiBr3, reducing our carbon footprint, or enabling a customer’s next-generation prototype, we take pride in pushing standards upward. Investments in cleaner halogenation technology, process waste minimization, and recycling streams deliver payback in reduced emissions and operating costs. Sometimes, supplying a more demanding semiconductor customer prompts us to raise the bar for everyone, building new best practices into the routine production line.
There is no shortcut around the value of dealing directly with the real manufacturer. As both chemists and producers, we prioritize traceability, technical transparency, and hands-on support—not generic standards. Many of the most interesting questions about BiBr3 use come from customers working on the edge of established knowledge. We listen, test, and support them, sharing insights from our own lab and from decades operating bismuth halide lines. There’s a pride in knowing what it means to run large-scale crystallization, to troubleshoot hydrolysis issues in a damp climate, or to certify lots for demanding glass or electronic applications.
Whether you work in the lab, the pilot plant, or full-scale manufacturing, reliable access to high-quality Bismuth(III) Bromide affects output and innovation alike. Chemical manufacturing faces constant external pressures—regulatory, environmental, and supply chain-related. Meeting those challenges requires investment, discipline, and a continual exchange between production and user. From small research vials to multi-ton shipments, we stand committed to supplying BiBr3 that performs in the real world, from trusted raw materials and under experienced oversight every step of the way.
As new industries push the requirements for bismuth bromides higher—whether for lower impurities, new morphologies, or documented environmental stewardship—we see it as our job to stay ahead of those needs. The shift away from toxic metals is accelerating worldwide, and BiBr3 is positioned as a safe, reliable, and highly functional reagent and precursor for a wide variety of sectors. Users in optical, electronic, and advanced ceramic markets demand both classical quality and adaptability to novel applications. We invest in both, drawing on a foundation of hands-on experience and a commitment to real, traceable quality.
Direct conversations with users, relentless review of analytical results, and continual plant-level improvement drive our Bismuth(III) Bromide product line. Every order, every batch is not just a shipment, but an opportunity for both supplier and user to raise the standard. We see the results every day, in better yields, fewer problems, and new breakthroughs coming out of labs and factories around the world.