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HS Code |
677578 |
| Chemical Name | Iodine Monobromide |
| Chemical Formula | IBr |
| Molar Mass | 206.81 g/mol |
| Appearance | Dark red to brown solid |
| Melting Point | 42 °C |
| Boiling Point | 116 °C |
| Density | 4.64 g/cm³ |
| Solubility In Water | Decomposes |
| Cas Number | 7789-33-5 |
| Pubchem Cid | 24613 |
| Refractive Index | 1.86 |
| Vapor Pressure | 1.6 mmHg (25 °C) |
| Storage Conditions | Store below 30 °C, protected from moisture and light |
As an accredited Iodine Monobromide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Iodine Monobromide, 25g, is packaged in an amber glass bottle with a secure screw cap, labeled with hazard warnings and chemical details. |
| Shipping | Iodine Monobromide should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled, and protected from moisture, heat, and direct sunlight. It must comply with hazardous materials regulations, typically shipped as a Class 8 (corrosive) substance. Handle with care and include appropriate safety documentation and emergency response information. |
| Storage | Iodine monobromide should be stored in a cool, dry, and well-ventilated area away from direct sunlight and heat sources. It must be kept in tightly sealed containers made of compatible material, such as glass. Store separately from strong bases, reducing agents, and organic materials to avoid hazardous reactions. Properly label the container and ensure access to appropriate spill containment and safety equipment. |
Applications of Iodine Monobromide in Industrial ManufacturingIodine monobromide serves specialized functions across several chemical manufacturing sectors. As an experienced producer, we collaborate directly with downstream plants, supporting consistent formulation and compliance across pharmaceutical synthesis, analytical testing, organic chemistry, and halogen-based specialty products. Each industry requires disciplined handling, precise dosing, and adherence to global standards to maintain safety and product quality. 1. Pharmaceutical Active Ingredient SynthesisAPI manufacturers utilize iodine monobromide as a halogenating agent when precise mono-iodination is necessary in creating thyroid hormone analogs and specific anti-infective intermediates. Its reactivity allows selective incorporation of iodine and bromine atoms into organic molecules, which is critical for developing compounds with defined biological activity profiles. The controlled reaction environment and rigorous QC during synthesis ensure batch-to-batch purity and compliance with regulatory specifications. Industry compliance standards
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2. Reagent for Analytical Chemistry and TitrationChemical laboratories and industrial QC departments use iodine monobromide as a precise titration reagent, especially in the Wijs method for determining iodine values in food oils and fats. Its ability to rapidly and selectively halogenate unsaturated carbon bonds ensures accurate measurement of degree of unsaturation in edible oils, supporting labeling, compliance, and process optimization. Reagent grade material must meet stringent purity and stability requirements. Industry compliance standards
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3. Intermediate in Fine Chemical SynthesisSpecialty fine chemical producers employ iodine monobromide as a reagent for site-selective halogenation, supporting the synthesis of intermediates in dyes, agricultural chemicals, and fragrance compounds. Its unique chemical behavior enables controlled bromination and iodination of aromatic and aliphatic hydrocarbons, producing advanced building blocks with strict positional specificity. The process requires dedicated containment, monitored dosing, and rigorous product isolation to prevent contamination. Industry compliance standards
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4. Component for Halogen-Based Disinfection ChemistryProducers of high-purity disinfectants and sanitizing agents use iodine monobromide to formulate advanced microbicidal blends. This chemistry leverages the compound’s potent oxidation properties, targeting a broad spectrum of microbes. In these applications, precise adjustment of halogen concentration is imperative to achieve disinfection efficacy while meeting regulatory standards for safety and allowable residues. Automated dosing and secondary neutralization systems support safe integration with downstream blending lines. Industry compliance standards
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Every year we see Iodine Monobromide coming up in conversations where accuracy matters. Chemists and process engineers look beyond generic halogen reagents: they need something predictable, with a stable structure and a direct mode of action. Iodine Monobromide (also known by the formula IBr) gives them just that. We produce it in crystalline solid or dark red liquid forms, which suits most downstream users. Our batches always reflect careful control over reactant purity, temperature, and moisture—details that matter when you’re running an analytical lab or fine-tuning a complex industrial synthesis.
Iodine Monobromide reacts as both an iodinating and a brominating agent. This unique feature sets it apart from elemental halogens or mixtures like iodine monochloride (ICl). You get selectivity in halogenation reactions, especially where gentler conditions spell better product quality. We’ve seen pharmaceutical groups rely on this for preparing contrast media. Others in food testing and environmental labs use our Iodine Monobromide for precise titrations, notably for measuring unsaturation in oils and fats. Biochemists sometimes use it when they need to deliver a halogen atom specifically onto a molecule without the unpredictability of chlorine or bromine alone.
Handling Iodine Monobromide brings its own set of challenges. From the manufacturing floor, our staff know how sensitive the material is to both light and moisture. We use amber glassware and strictly limit open handling. The product needs to stay dry and cool. Even the smallest break in protocol can mean a lost batch or inconsistent test results for the end user. Routine maintenance and audits of our blending and packaging equipment catch stray humidity or temperature deviations long before they can impact output quality. That kind of vigilance is just the price of reliable manufacturing.
Our technical team rarely sees two customers using Iodine Monobromide in exactly the same way. For example, research groups sometimes request it as a reagent for synthesized cycloalkenes, or as part of a protocol to prepare iodo- and bromo-derivatives of specific organics. Other markets require it for precise, high-volume titrimetry procedures, so we focus on lot-to-lot consistency. Any sulfate, iodate, or water contaminant above trace amounts changes the color and performance characteristics—these details, invisible to the naked eye, become painfully obvious during endpoint titrations or when troubleshooting anomalous reaction outcomes.
Compared with raw bromine or iodine, Iodine Monobromide stays easier to dose in exact amounts, since it remains stable at typical laboratory temperatures and atmospheric conditions (when kept dry and protected from light). This stability shortens prep times. Labs tracking chemical inventories often report less waste. As a manufacturer, we find that reducing packaging, spills, and clean-up cycles brings quality and cost advantages not just during production, but throughout warehousing and transport.
Working side by side with dozens of chemical and analytical teams, we’ve noticed that the choice of halogen source boils down to what gets the job done with the least number of headaches. Take molecular iodine, for example: it’s less aggressive and less selective when you want to deliver a single halogen atom to a substrate. Bromine, while reactive, tends to overshoot, leading to mixtures or even hazardous gas formation. Even common blends such as iodine monochloride display different reactivity and volatility. Our direct experience with scaling Iodine Monobromide production highlights its middle ground: the brominating ability pairs with just enough iodine reactivity, and its liquid form (below about 42°C) pours and mixes without fuss.
Industrial customers seeking repeatable, manageable results find fewer byproducts with Iodine Monobromide than with raw mixtures. Academic labs point out that using Iodine Monobromide also limits corrosion to metals and glassware—major cost and safety advantages. Food and agricultural analysts favor its stable endpoint during AOCS Official Methods for calculating iodine value (a key measure of fat or oil unsaturation). All these perspectives underscore that performance in the real world depends on subtle chemistry and not just test bench theory. We see these outcomes not once but hundreds of times as our product moves from batch synthesis to final application in modern production plants and test laboratories.
We manufacture Iodine Monobromide in both solid and liquid grades, targeting users in R&D, analytical quality control, and production environments. The liquid tends to suit titration and chemical processing, while crystalline grades are in demand for certain syntheses or when the need for precise weighing outweighs convenience. Because of its volatility and reactivity, we load only in chemically compatible containers—typically amber glass under vacuum-sealed, moisture-proof caps. Our staff routinely perform spot analysis before shipping to confirm no sign of photolysis or decomposition.
Customer requests drive us to develop lot-specific analytical reports on parameters beyond basic purity. For example, some in the medical contrast industry require ultra-low sulfur content or confirmation by spectrophotometry that the absorbance curve matches their method specs. In process industries, packaging sizes and headspace must be managed to match both consumption speeds and safety department protocols. Over the years, we’ve developed smaller fills for fast-moving labs and bulk volumes for pilot or continuous chemical plants. These practical adjustments keep shelf-life up and disposal hurdles down.
Every step—from blending to bottling—receives tight control so the product remains oxidation-free. Our operators work with sealed lines, dried under nitrogen, and keep atmospheric exposure to a minimum. If a customer’s method depends on a specific physical parameter (melting range, density, or refractive index), we tailor the batch accordingly. This level of hands-on flexibility has led to calls from unfamiliar companies who need to troubleshoot or validate their processes. We offer open dialogue to make sure their unique protocols match with our material.
Iodine Monobromide features in many reactions where control over reactivity matters as much as output. High-purity grades get used in academic research for the halogenation of aromatic compounds, sometimes under mild conditions that other reagents would disrupt. Quality control labs use it for fatty acid characterization, with the reagent acting as a precise marker for iodine value calculations—an important factor in food labeling and nutritional studies. Many specialty polymer makers also count on it for selective chain end-capping processes, where other halogens damage structure or leave hard-to-remove side products.
Over the years, analysts in water testing labs, especially those targeting disinfection byproducts or evaluating complex matrices, have chosen Iodine Monobromide for its predictable stoichiometry. This lets them work with electron-rich substrates or subtle oxidizable targets, cutting down on repeat troubleshoot calls and wasted materials. Our experience making each lot with traceable, auditable records means clients don’t lose time digging into batch-specific anomalies. Knowing their end results rest on well-documented production gives both producers and regulators confidence.
Some pilot-plant operations require Iodine Monobromide in continuous dosing or under inert gas to avoid operator exposure and oxidation. We work with their safety and process teams to certify container and transfer protocols, accommodating batch or flow chemistry setups. Such collaborations give us a unique glimpse into the real-world pressures of chemical manufacturing: mixing speed, waste minimization, and worker safety all weigh on decisions as much as reagent cost.
Fielding questions from experienced chemists reveals much about how Iodine Monobromide’s small differences make a big impact. Some labs want to know about side reactions during scale-up, or they require reference standards for HPLC and titration work. We share our collected experience from similar applications, backed by in-house analytical results. Customers ask if stabilizing agents are ever added. The simple answer: no, not if purity matters, since any additive disrupts target reactions and downstream analytics. We focus instead on exact process controls during and after manufacturing, so nothing needs masking or post-purification.
Technical teams sometimes debate whether Iodine Monobromide works better than alternative halogen reagents for specific transformations. We offer data and side-by-side product samples, but always invite users to validate on their own systems. Each method, whether in flavor-fragrance development or chemical feedstock purification, exposes new areas for optimizing reactivity, shelf life, or yield. Our direct feedback channel means practical challenges move straight to production—something we value as much as our clients.
Maintaining high standards for Iodine Monobromide—batch after batch—demands constant learning. Staff on the plant floor train alongside new laboratory hires so everyone sees issues from both a process and an application viewpoint. Old assumptions get challenged every time a customer returns a bottle and suggests an unexplained impurity or stability issue. We invest in analytical updates, like adding real-time spectroscopic endpoints and on-line impurity checks, which lets us minimize human error and gently tighten specification windows.
Often, our side of the feedback loop leads us to adjust drying steps or tweak post-crystallization aging to make sure no microamounts of hydrolysis product linger. Even small tweaks in filtration technique turn up as improved endpoint reproducibility in customer labs, something we believe matters more than a long list of raw certificates. Benchmarking against competing halogen products, we see that robust process documentation and responsive support earn customer retention in ways lab test data alone never will.
Regulatory scrutiny and certification routines now reach deeper than ever—especially in pharmaceuticals, food, and environmental testing. We track regulations in major markets and keep up with shifting purity demands, so buyers don’t face import hurdles or last-minute specification upgrades. Open technical dialogues with end users show us where small contaminants could generate big headaches in niche analytical applications. Acting early keeps waste low and productivity up on both sides.
Anyone regularly working with Iodine Monobromide understands its potential hazards. Strict containment limits fumes, and all storage must happen away from sunlight and moisture. Our own emergency procedures mean every employee has ongoing refresher training in spill protocol and PPE selection. Waste handling, especially post-lab or post-process solutions, takes careful planning. In our own plant, spent vials and containers follow regulated reclamation and disposal streams to keep environmental risk in check. This extends directly to how we advise customers: clear, practical tips for storage, transfer, spill response, and end-of-use procedures.
Modern environmental controls require documentation at every point, from raw iodine and bromine sourcing to final product shipment. Over years of producing Iodine Monobromide, we’ve collected operational “best practices” for scrubbing process air, testing for leaks, and rapid intervention in the event of glassware or line breakage. The high bar for safety and compliance challenges everyone in the supply chain, and the learning never truly ends. Each lesson finds its way into written SOPs and annual plant updates.
Many customers ask about greener practices in reagent manufacturing. We offer technical details on our zero-discharge vapor systems, and over time we’ve pushed for process tweaks that minimize halogen release into the environment. Every wasted gram means lost efficiency for us and unnecessary exposure risk for everyone. We track and report solvent and reactant use rates, so partners and downstream users gain from transparency and collaboration. This approach reflects not just regulatory mandates, but a shared goal for responsible chemical stewardship.
Many buyers today want more than just a reagent; they expect reliability, transparency, and clear lines of communication. Traceability sits at the core of our Iodine Monobromide program. Every batch starts with lot-specific raw material logs, extending through production, bottling, and final quality tests. Our team links each finished unit to a retrievable data trail, from material provenance to final distribution. If a customer encounters a troubleshooting scenario, we can instantly replay the production variables for any given lot, closing the loop much faster than generic suppliers can.
Long-term clients have taught us that minor process improvements compound over time. Consistency, not just purity, saves end-users from repeating experiments or troubleshooting unexplained method drift. We’ve acted on these insights by tightening in-process controls, regularly maintaining plant infrastructure, and rotating roles so knowledge gets embedded in every shift. These habits may seem mundane, but they underpin the predictable, reliable experience that most chemical users demand and few manufacturers consistently deliver.
On occasion, market volatility or supply disruptions challenge even the most robust production timelines. We’ve established buffer stocks and short-term raw material alternatives so urgent orders do not run into bottlenecks. Our logistics and support teams stay in daily touch with both manufacturing and analytical staff to bridge any information gap—whether the challenge comes from seasonal demand peaks or shifts in global regulatory expectations. As a manufacturer rooted in practice over theory, keeping product available with no sacrifice in quality remains a daily mission.
Our journey with Iodine Monobromide shows that success in chemical manufacturing rests on more than technical skill. We work directly alongside the users—from bench scientists to plant safety leads—to adapt not just the product, but support and information resources. Regulatory landscapes, application trends, and even supply chain risks all affect what buyers require from each shipment. Our approach evolves in step with these shifting needs.
Users look to us for more than just reagent supply: they rely on our transparency, practical advice, and commitment to quality. Every lesson learned—whether from a flawless production run or a surprising customer query—feeds back into how we improve both product and service. Iodine Monobromide remains a reliable tool for those who expect predictability, clear results, and honest support in modern chemistry. As demand widens across industries, these shared standards shape all aspects of our work, from synthesis to shipment.