Products

Iodine Tribromide

    • Product Name: Iodine Tribromide
    • Alias: Iodine(III) bromide
    • Einecs: 236-038-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    695095

    Chemical Name Iodine Tribromide
    Chemical Formula IBr3
    Molar Mass 380.52 g/mol
    Appearance Dark brown solid
    Density 3.48 g/cm3
    Melting Point 62 °C
    Solubility In Water Reacts with water
    Structure Planar molecule
    Cas Number 7789-33-5

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

    Packing & Storage
    Packing Iodine Tribromide, 25g, is packaged in a tightly sealed amber glass bottle, labeled with hazard warnings and chemical identification.
    Shipping Iodine tribromide should be shipped in tightly sealed containers, protected from light, moisture, and incompatible substances. It must be handled as a hazardous material, with labeling compliant with regulatory guidelines. Transport should avoid temperature extremes and ensure secure packaging to prevent leaks or spills. Use ground shipping where possible, following all safety regulations.
    Storage Iodine tribromide should be stored in a cool, dry, and well-ventilated area, away from moisture, heat, and incompatible substances such as organic materials and strong reducing agents. It should be kept in tightly sealed, corrosion-resistant containers and protected from light. Handling requires care as it is a strong oxidizer and can decompose, releasing toxic vapors.
    Application of Iodine Tribromide

    Applications of Iodine Tribromide in Industrial Manufacturing

    As a direct manufacturer of Iodine Tribromide, we supply this selective halogenating agent to established industrial users who require consistent reactivity, refined purity, and documented traceability. Below we detail its actual industrial use cases in key downstream sectors, with each scenario focusing on authentic integration parameters, formulation guidance, regulatory context, and end-product flows.

    1. Organic Synthesis Intermediates for Pharmaceutical Manufacturing

    Iodine Tribromide functions as a controlled halogen source in the preparation of specialized organic intermediates crucial for active pharmaceutical ingredient (API) synthesis, especially halogenated aromatic and heterocyclic compounds. The reagent’s selectivity and predictable kinetics cater to the production processes demanding high isomeric and chemical purity, with integration often subject to validation against compliance standards. Its reactive phase forms a core step in multi-stage synthesis trains, incorporating strict monitoring of residuals and trace elemental profiles to meet pharmacopeial requirements.

    Industry compliance standards

    • Good Manufacturing Practice (GMP) (ICH Q7, WHO GMP)
    • USP, EP, JP pharmacopoeial monographs for intermediates/ APIs
    • FDA 21 CFR regulations for registered pharmaceutical processes
    • ICH Q3D guidelines on elemental impurities

    Typical usage ratio

    • 0.1–2.5 molar equivalents per target substrate, adjusted according to substrate reactivity and halogen incorporation yield

    Downstream process integration

    • Added during halogenation stage within the stepwise organic synthesis, under regulated temperature and solvent control, followed by in-process purification and residue quenching

    Final product types

    • Halogenated pharmaceutical intermediates
    • Bridged aromatic compounds for APIs
    • Heterocyclic building blocks for branded and generic drugs

    2. Fine Chemicals for Dye and Pigment Manufacturing

    The fine chemicals sector utilizes Iodine Tribromide for specific halogenation tasks in developing specialty dye molecules, notably azo, triarylmethane, and phthalocyanine derivatives. Its use is dictated by the necessity for controlled substitution patterns and colorfastness properties, allowing formulators to optimize properties during pilot trials while meeting industrial chemical safety codes.

    Industry compliance standards

    • REACH Registration (EC No. 1907/2006)
    • ISO 9001:2015 for production traceability
    • ETAD Code of Practice for dye manufacturing
    • Compliance with GHS/CLP labeling and handling

    Typical usage ratio

    • 0.5–3.0% by weight of substrate, ratio optimized based on target chromophore structure and reaction scale

    Downstream process integration

    • Used in the controlled halogenation or post-condensation step before crystallization, color testing, and particle sizing; strictly dosed to manage bromine/iodine distribution on dye backbones

    Final product types

    • Brominated and iodinated synthetic dyes
    • Color pigments for printing inks
    • Technical textile dyes

    3. Analytical Reagents and Laboratory Standard Solutions

    Analytical chemistry laboratories rely on the consistent reactivity of Iodine Tribromide as a titrant and oxidizing reagent, particularly in the determination of unsaturation (iodine value) and the presence of reducing agents. Accurate blend preparation and traceable documentation are mandatory, given its use in certified reference materials and standardized laboratory procedures. Handling and concentration accuracy follow ISO laboratory practice protocols.

    Industry compliance standards

    • ISO 17025 for testing laboratories
    • ASTM D1959 (Iodine Value of Fats and Oils)
    • EPA Standard Methods (for water/wastewater analysis)
    • International Laboratory Accreditation Cooperation (ILAC) guidelines

    Typical usage ratio

    • Typically prepared as 0.01–0.20 mol/L standard solutions, exact concentration tailored to analytical method and detection limit requirements

    Downstream process integration

    • Dissolved in laboratory-grade solvents to form titration solutions or reagent blends, introduced directly via automated burettes or manual pipetting within validated assay methodologies

    Final product types

    • Certified reference solutions for QC labs
    • Prepared titration standards
    • Quality control reagents for industrial and research laboratories

    4. Electronic Chemicals for Semiconductor Etching Solutions

    Semiconductor fabricators integrate Iodine Tribromide into precision etching formulations for microelectronic device production, leveraging its halogenation characteristics to achieve selective etch rates on noble metals and specific compound films. Strict control of chemical purity, particle size, and stability is required to avoid process defects, with all raw material intake and batch documentation subject to the highest sector requirements.

    Industry compliance standards

    • SEMI C93/C94 Chemical Standards
    • ISO 9001:2015 for traceability in high-purity chemical supply
    • IECQ QC 080000 (Hazardous Substance Process Management)
    • RoHS compliance for downstream processes

    Typical usage ratio

    • 0.05–0.40% by weight in etching formulations; concentrations adjusted based on target material, film thickness, and desired resolution

    Downstream process integration

    • Fed into high-purity etch bath systems during patterned wafer processing; operates in conjunction with ultra-pure carrier solvents, under cleanroom protocols

    Final product types

    • Patterned semiconductor wafers
    • Microelectronic device substrates
    • Fine conductor features for advanced packaging

    5. Specialty Oxidizers in Chemical Synthesis for Agrochemicals

    Iodine Tribromide serves as a specialty oxidant during the synthesis of selected crop protection agents that rely on site-specific halogenation, notably in the preparation of brominated phenols and pyridines for herbicide and fungicide intermediates. Compliant operation mandates adherence to agrochemical process documentation, with integration closely tracked in hazard and waste stream registers.

    Industry compliance standards

    • FAO/WHO Specifications for Agricultural Pesticides
    • ISO 9001:2015 for agrochemical manufacturing
    • Globally Harmonized System (GHS) for labeling and transport
    • REACH (if placed on the EU market)

    Typical usage ratio

    • 0.3–2.0 equivalents relative to active site per reaction; dosage justified based on substrate class and targeted halogen distribution

    Downstream process integration

    • Dosed at controlled rates into reaction vessels during the key halogenation phase, followed by aqueous extraction and chromatographic separation

    Final product types

    • Halogenated agrochemical intermediates
    • Precursor materials for herbicides and fungicides
    • Registered technical-grade actives

    Free Quote

    Competitive Iodine Tribromide prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.

    We will respond to you as soon as possible.

    Tel: +8615365186327

    Email: admin@ascent-chem.com

    Get Free Quote of Ascent Petrochem Holdings Co., Limited

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    Iodine Tribromide: Our Commitment to Reliable Quality and Practical Applications

    An Experienced Manufacturer’s Perspective

    Iodine tribromide has taken on a distinct reputation in the landscape of specialty chemicals, especially for those of us who see its full production cycle day in and day out. Here at our plant, we oversee each batch from the raw halogen elements to the finished, refined compound, not just so our customers receive a useful product, but to ensure the process stays responsible and the results are trustworthy. We know the compounds we manufacture don’t just fill a gap in a catalog—each one fills a critical purpose in someone else’s research, development, or production line.

    Understanding Iodine Tribromide

    This interhalogen compound forms through the direct combination of iodine and bromine under carefully managed conditions. Our technical teams monitor temperature and ratio adjustments constantly to coax out the best yield and purity. Rather than rely on surface-level purity numbers alone, we cross-check through titration analysis, X-ray diffraction, and other in-house methods to catch any off-specification material before barrel filling. Every step matters, especially because Iodine tribromide carries a distinct chemistry compared to other halogen-based reagents.

    Chemically, it appears as a dark red to brown crystalline solid—an appearance that tells its own story about its potency and composition. When colleagues across research, pharmaceuticals, and manufacturing request this compound, they expect more than a colored powder. They want consistency in melting point, reactivity, and purity, since these factors shape every subsequent reaction or experiment down the line.

    Consistency Built from Practical Use

    We’ve watched over the years as chemists grew to rely on Iodine tribromide, especially for selective oxidation, halogenation, and as a mild Lewis acid. Its strong oxidative nature proves useful where elemental bromine feels too aggressive or elemental iodine simply won’t provide enough power. Our production team regularly hears from laboratory managers who need a reagent that won’t overreact with their substrates or introduce unexpected impurities. Formulating Iodine tribromide solves these challenges—in certain organic syntheses, it offers a finesse that alternatives lack.

    For example, in aromatic brominations, this compound brings a predictable outcome. With bromine alone, reactions can overshoot, leading to polysubstitution or tar formation. Using Iodine tribromide reduces these headaches, since the compound’s structure controls the release of bromine. The result shows up in cleaner mixtures and fewer surprises at the purification stage. Industrial scale-ups tell the same story, where process reliability means more than just price or basic compliance.

    Specifications That Matter in Everyday Operations

    Our standard product comes as crystalline solid, commonly packaged in moisture-tight steel or glass containers to keep atmospheric water from causing slow decomposition. Each batch specification reflects real-world end-user priorities: minimum assay by titration sits at above 97 percent, with most lots routinely reaching higher. Loss on drying takes priority since even minor water uptake changes performance during reactions. Color and melting point stay within strict windows, not because a certificate demands it, but because production chemists tell us that out-of-spec color or melting point means unpredictable reactivity. It’s not about box-checking; it’s about making sure a careful analytical lab or manufacturing process manager can open a container and get straight to work.

    Particle size also gets attention, especially for users who need rapid solution preparation or precise metering by automated feeders. A finely divided solid keeps dust down and reduces clumping—past problems remembered from less disciplined days push us to keep improvements ongoing. Our feedback loop from users, and weekly reviews in the plant, have taught us where minor tweaks deliver the most value.

    Usage Shaped by Experience

    The community that uses Iodine tribromide isn’t a monolith. We find it in university research labs pushing frontiers in halogen-mediated reactions, in specialty fine chemical plants where each kilogram gets tracked, and occasionally in analytic chemistry workflows as a titration reagent. In each application, the requirements and headaches differ, but certain essentials unite everyone who depends on this compound.

    Synthetic chemists reach for Iodine tribromide for mild yet effective halogenation, especially on electron-rich substrates where elemental halogens prove unpredictable. The compound’s behavior hinges on careful control, and we often field questions from development chemists asking how tweaks in temperature or solvent choice can fine-tune outcome. Our plant supervisors make a point of returning honest answers, built on our years of batch trial outcomes, so a scientist doesn’t need to guess or waste time repeating experiments we’ve already run.

    In analytical chemistry, especially in the determination of certain metals or in redox titrations, Iodine tribromide’s standard solution preparation depends on consistent product quality. Years ago, we saw inconsistent reagent results in the field—blamed on suppliers who cut corners to save on bromine costs. Our facility doubled down on titration verification, eliminating variability and letting analysts spend more time interpreting results rather than troubleshooting reagents.

    Other halogenated compounds, like N-bromosuccinimide or elemental bromine, sometimes show up as alternatives in technical literature. Each option has its place, though we’ve seen repeated trends: NBS offers convenience but can present stability and handling issues on large scales. Elemental bromine introduces both safety and selectivity challenges, particularly in process scale environments. After working on customer-led substitutions, we’ve seen more chemists pick Iodine tribromide when they want predictable control with a lower volatility risk than elemental halogens.

    Differences That Influence Decision-Making

    Manufacturers sometimes view halogen sources as interchangeable, but direct experience shows otherwise. Iodine tribromide delivers bromine reactivity in a more manageable solid form, without the fuming, toxicity, or rapid loss to atmosphere that comes with liquid bromine. That difference alone shifts the staffing and PPE needs for a site. On the synthesis side, the use of Iodine tribromide simplifies purification. In multiple test runs, we’ve found that work-up procedures generate fewer by-product streams than with free bromine or chlorinated oxidants. That can mean less waste to treat and more reliable downstream results—important for anyone managing both safety and yield economics.

    Product performance extends beyond reactive chemistry. Our quality assurance teams have handled customer audits where shelf-life stability mattered, especially for remote or stockpiled inventory. Iodine tribromide, properly sealed, maintains potency longer than solutions of active bromine, avoiding the slow seat-of-the-pants calculations about degradation or hidden water ingress. These small advantages stack up for long-term users who want to avoid costly requalification or inventory loss.

    Practical Realities of Responsible Production

    Every kilo of Iodine tribromide that leaves our gate carries a fingerprint of our history making halogen compounds. Our plant settings aren’t generic. Air handling, vent scrubbers, and bromine recovery systems all work to eliminate emissions that would otherwise create environmental headaches for us and the community. This kind of management isn’t theory—it means safety teams, maintenance schedules, and process investments that go above local minimums.

    Over time, customer expectations around traceability have grown. In response, we developed a tracking system that logs everything from raw iodine and bromine batches to the shift records at each process step. As a result, each container of Iodine tribromide includes a unique identifier tied back to a production date, team, and feedstock lot, helping a procurement manager justify their risk assessments and supply chain claims to their own management.

    Supporting Users Who Demand More

    Feedback from the field matters as much as any in-house metric we keep. Over the years, customers have flagged packaging issues, reported unexpected reactivity patterns, or flagged shipment timing problems that didn’t show up on our end-of-line checks. Instead of brushing off those concerns, our technical support staff takes them as a road map for operational improvements. The switch to lined steel drums and improved double-seal jar closures, for instance, came from listening to researchers who told us about long-haul shipment damage or air leak challenges in humid climates.

    Transparent Communication and Trust

    Iodine tribromide isn’t just about technical performance for us—it’s about the relationships built on honest, practical communication. During global supply crunches, our long-term contract holders have learned to expect clear updates about lead times and raw material forecasts. No glossing over difficulties. When we face raw bromine supply bottlenecks, we inform customers early and work together to find temporary substitutes or staggered deliveries. In recent years, some users have shifted to real-time inventory management, so we responded by adapting our packaging and logistics coordination to support “just in time” restocking. This level of adaptation comes from experience and daily communication up and down the chain.

    Ongoing Improvement in Manufacturing

    Earlier in our history, we learned lessons the hard way about moisture ingress and vessel corrosion. Our plant maintenance team now screens every container, regularly inspects gaskets and liners, and has set up a quarterly deep-cleaning protocol for the reaction kettles and handling lines. These efforts prevent small process drifts that could snowball into major quality variation. The team worked closely with academic partners and industry experts to rework key synthesis points—boosting both yield and batch-to-batch uniformity. While analytical perfection doesn’t come cheaply, these investments translate directly into fewer headaches for chemists relying on a trustworthy batch of Iodine tribromide.

    Supporting Scientific Discovery

    Over the years, our team has supported scientists exploring new fields who saw Iodine tribromide as a building block for creative chemistry. By being ready to answer practical questions about solvent compatibility or optimal dosing steps, we help researchers avoid the pitfalls that come with generic chemical sourcing. We see first-hand how well-crafted materials open new doors for catalysis or target molecule synthesis, and we’ve made it a point to stay involved with technical conferences and early-stage collaborations. Sharing our practical experience in these settings closes the gap between the supplier’s bench and the end-user’s outcome.

    Learning from Mistakes and Staying Flexible

    Manufacturing halogen compounds brings risks—nothing taught us more than a decade-old incident where a minor temperature control slipped and an entire batch of Iodine tribromide lost efficiency. Working through such episodes with transparency helped us develop not just better safeguards but also tighter partnerships with regular clients. Instead of hiding issues, we opened our logs and invited customer quality teams to tour the site and talk directly to operators. This direct approach built trust that we now see echoed in regular feedback and higher standards all around. Mistakes made openly and learned from improve our process each year.

    Reducing Environmental Impact

    Running a chemical plant means facing public scrutiny and real responsibility. We take this seriously, especially with halogen chemistry where effluent control can’t be an afterthought. To meet environmental expectations and keep our social license intact, we invested in scrubber upgrades, streamlined our waste bromine recapture, and tuned our vent lines with real-time monitoring. These operational choices don’t just mean regulatory compliance—they remove emissions that would otherwise find their way into the community or worker breathing space. As more procurement managers factor in sustainability, our early investments position us to fulfill those evolving standards without scrambling.

    Real-World Value for Industries

    Pharmaceutical contract manufacturers, electronics developers, and specialty materials innovators all lean on reagents like Iodine tribromide to drive their processes. They rarely need generic supply; they demand reliability, documentation, and clear support. In one recent project, a customer’s API synthesis stalled repeatedly because lab-scale batches of Iodine tribromide didn’t match plant-scale requirements. We coordinated a custom micronization step, monitored the thermal decomposition limits, and supplied a continuous feedback loop on each incremental adjustment. This practical support got their process back on track—an outcome beyond pricing or paperwork.

    Looking Forward Together

    We sometimes hear from new customers who approach specialized reagents with skepticism after issues with resellers and inconsistent quality. As a manufacturer, our doors are open to technical visits, spec discussions, and joint process reviews. Many times, application teams want something that falls outside standard grades—whether it’s a custom bulk filler size, a particular solvent rinse, or tighter cGMP compliance. Rather than treat these as annoyances, our production and development staff work through these requests as opportunities to learn and improve.

    How Iodine Tribromide Stands Apart

    Through decades of experience, our steady focus on this compound has revealed its strengths and occasional limits. As a solid halogenating reagent, it sits in a unique place among the specialty chemical toolkit: less volatile than bromine, more predictable than iodine monochloride, and more evenly reactive across a range of conditions. Its value doesn’t just come from the chemical equation—it comes from a manufacturing process shaped by hands-on learning, honest customer engagement, and steady refinement.

    Users come back to us for more than a product—they want peace of mind, problem-solving, and the security of true accountability. Every day, our team works to put that into practice, batch by batch, to keep Iodine tribromide a reliable, effective tool for chemists around the world.

    Top