Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing sales7@sinochem-nanjing.com 3389378665@qq.com
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Barium Iodide

    • Product Name Barium Iodide
    • Alias BaI2
    • Einecs 233-360-2
    • 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
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    Specifications

    HS Code

    213503

    Chemical Name Barium Iodide
    Chemical Formula BaI2
    Molar Mass 391.136 g/mol
    Appearance White crystalline solid
    Solubility In Water Very soluble
    Melting Point 740 °C
    Boiling Point Non-volatile; decomposes instead of boiling
    Density 5.15 g/cm3
    Cas Number 13718-50-8
    Odor Odorless
    Structure Orthorhombic crystals
    Hazard Statements Harmful if swallowed, causes serious eye irritation

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

    Packing & Storage
    Packing Barium Iodide, 500g, is securely packed in a sealed, amber glass bottle with clear hazard labeling and tamper-evident cap.
    Shipping Barium iodide should be shipped in tightly sealed containers, protected from moisture and incompatible materials. It must be labeled as a harmful and environmentally hazardous substance, following all local, national, and international regulations. Transport should comply with appropriate safety guidelines to prevent exposure, spills, and environmental contamination during transit.
    Storage Barium Iodide should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong acids and oxidizers. Keep it in a cool, dry, and well-ventilated area, protected from light. Proper labeling and secondary containment are recommended to prevent accidental exposure or spills. Always follow standard laboratory safety and storage protocols for chemicals.
    Application of Barium Iodide

    Applications of Barium Iodide in Industrial Manufacturing

    As a specialized manufacturer of Barium Iodide, we supply this high-purity raw material to select B2B customers across advanced industrial segments. Our product supports rigorous downstream production where precise iodine delivery, high solubility, and controlled reactivity are essential to process consistency and product quality. Below, we detail verified industrial scenarios where Barium Iodide plays a critical and differentiated role.

    1. High-Purity Scintillation Crystal Fabrication

    Barium Iodide serves as a key precursor in growing wavelength-specific scintillation crystals for radiation detection applications. Production lines integrate it to form barium iodide crystals or ternary halide blends (e.g., BaI2:Eu) due to its favorable ionic conductivity and low trace impurity content. Consistent stoichiometry and careful moisture control during crystal growth are paramount to avoid lattice defects and maximize detector performance for medical imaging and high-energy physics instrumentation.

    Industry compliance standards

    • ISO 9001:2015 Quality Management (Raw Material Traceability)
    • ASTM C1430 for Crystalline Materials Quality
    • IEC 62321 for Trace Metal Analysis in Electronics
    • EU REACH SVHC Protocols (Purity & Contaminant Thresholds)

    Typical usage ratio

    • Crystal charge compositions typically use 70–98% Barium Iodide by mole, with percentage adjusted to alloying elements for response optimization.

    Downstream process integration

    • Material introduced at the charge preparation stage for vertical Bridgman or Czochralski growth processes, following high-vacuum drying and glovebox transfer to prevent hydrolysis.

    Final product types

    • Single-crystal BaI2 scintillators
    • Barium-based ternary scintillation crystals
    • Gamma spectrometry detectors
    • Medical diagnostic imaging crystals (e.g., PET/SPECT components)

    2. Analytical Reagent Preparation for Laboratory and Industrial Testing

    Analytical chemistry protocols call for high-assay Barium Iodide as a source of both Ba2+ and I- ions. Laboratories and test facilities use it in standards for calibration of spectroscopy or to precipitate specific ions during complexometric titrations. Batch-to-batch consistency, solubility control, and trace metal limits directly impact downstream accuracy, especially in pharmaceutical and environmental testing workflows where the purity of each lot must meet strict instrument baselines.

    Industry compliance standards

    • ACS Reagent Grade Specifications
    • ISO 17025 Laboratory Standards
    • USP Reagent Standards for Pharmaceutical Analysis
    • EPA Method 200.7 for Trace Metal Solutions

    Typical usage ratio

    • Dilute reference solutions prepared at concentrations between 0.01–1.0 M; solid reagents typically weighed at 0.1–10 g per preparation, adjusted for analyte sensitivity.

    Downstream process integration

    • Introduced at the wet chemistry stage for test solution preparation, often dissolved directly into buffered media or mixed with auxiliary chelating agents under controlled conditions to prevent secondary precipitation.

    Final product types

    • Trace analysis calibrants
    • Analytical-grade precipitation reagents
    • Laboratory chemical standards for instrument calibration
    • Quality control check solutions used in regulated industries

    3. Specialty Pharmaceutical Synthesis (Iodine Donor)

    Certain pharmaceutical manufacturing lines utilize Barium Iodide as a controlled iodine donor in the synthesis of iodine-containing active pharmaceutical ingredients (APIs). Its high purity minimizes introduction of incidental barium and halogen contaminants, which can affect subsequent reaction specificity. The carefully metered addition of BaI2 stabilizes iodine release kinetics for halogenation steps or organoiodide coupling in batch and continuous flow synthesis facilities, supporting cGMP compliance throughout.

    Industry compliance standards

    • ICH Q7A Good Manufacturing Practice
    • 21 CFR Parts 210/211 (FDA Drug cGMPs)
    • European Pharmacopoeia Monograph 1378 (Purity & Impurity Profiling)
    • US Pharmacopeia General Chapters <797> & <1078> (Chemical Control)

    Typical usage ratio

    • Reagent proportions range from 0.5–5 mol% relative to API precursor, depending on the targeted halogen loading of the synthetic pathway.

    Downstream process integration

    • Barium Iodide charged to jacketed reactors after initial solvent loading; timed dosing may be used to control exothermic iodine transfer or managed via in-line feeding in continuous API synthesis units.

    Final product types

    • Iodinated active pharmaceutical ingredients (APIs)
    • Organohalide intermediates for radiopharmaceuticals
    • Barium-free APIs following downstream precipitative separation
    • Fine chemicals used as pharma synthesis starting materials

    4. Photographic and X-ray Imaging Film Manufacturing

    Industrial film production for photographic and X-ray imaging uses Barium Iodide to achieve precise halide balance during the precipitation of silver halide microcrystals. Its controlled solubility and low impurity profile are key for producing uniform crystals, which underpin sharp grain structure and high sensitivity in both analog photography and radiographic emulsion coating processes. Manufacturers must monitor the presence of excess barium and other cations tightly, as these trace residues impact final film response and shelf stability.

    Industry compliance standards

    • ISO 9001:2015 for Quality Assurance in Imaging Materials
    • ISO 18901 for Photographic Film Material Stability
    • ASTM E1815 Imaging Standard Practice
    • RoHS Directive (for exclusion of restricted residues in consumer films)

    Typical usage ratio

    • Film emulsion precipitation tanks use 0.02–0.2 mol BaI2 per mol AgNO3, with adjustments based on desired crystal size and sensitivity profile.

    Downstream process integration

    • Fed in solution phase concurrently with other halide sources (Br-, Cl-) during the silver halide reaction step, under strict agitation and temperature control to modulate microcrystal morphology.

    Final product types

    • Medical X-ray imaging films
    • High-resolution industrial radiography film
    • Professional photographic negative and positive films
    • Specialty imaging emulsions for archival records

    5. Synthesis of Inorganic and Specialty Catalysts

    Catalyst manufacturers employ Barium Iodide as a controlled precursor for the introduction of iodide anions into advanced catalyst systems, particularly where in situ iodination improves catalytic turnover or selectivity. Preparations may entail co-precipitation, thermal decomposition, or sol-gel methods where the precise dosing of BaI2 ensures target catalyst stoichiometry and phase purity. Final catalyst systems can require tight impurity limits to prevent deactivation during use in fine chemicals or pharmaceutical intermediate production.

    Industry compliance standards

    • ISO 14001 for Production Environmental Controls
    • Responsible Care® Process Safety Management
    • Custom manufacturer-specific QC protocols in catalyst preparation
    • Customer-specific technical agreement limits for trace elements and heavy metals

    Typical usage ratio

    • Iodide content in catalyst precursors set at 1–10 wt%, regulated according to catalytic activity requirements and the downstream chemical transformation involved.

    Downstream process integration

    • Added during the initial mixing or sol-gel formulation; some lines introduce BaI2 as a dopant salt for post-synthesis impregnation, followed by calcination or reduction depending on the final catalyst structure.

    Final product types

    • Barium-containing heterogeneous catalysts
    • Iodide-promoted solid-state catalysts
    • Special application catalysts for oxidation or coupling reactions
    • Custom-supported barium halide catalytic systems

    6. Glass and Specialty Optical Fiber Production

    The glass and photonics industries utilize Barium Iodide to introduce controlled halide content for modifying refractive index, transmission windows, and density in specialty glass compositions, including infrared optics and high-lead or heavy metal fluoride glasses. Incorporating BaI2 requires exact metering at the batch melting stage to avoid phase separation or unwanted color centers, and the low water content specification is strictly enforced to maintain fiber and glass clarity after casting or pulling.

    Industry compliance standards

    • ISO 12123 for Raw Materials in Glass Production
    • ASTM C162 Glass Composition Standards
    • ISO 9001:2015 for Traceability and Batch Consistency
    • IEC 60793-1 for Optical Fiber Material Quality

    Typical usage ratio

    • Compositions employ 0.1–4 wt% Barium Iodide relative to the total glass batch, tailored to optical property targets; content tightly controlled for specialty requirements.

    Downstream process integration

    • Weighing and dry-mixing into the batch charge prior to glass melting; sometimes injected as a pre-dissolved solution to support rapid fusion. Strict monitoring for hydrolysis and water exclusion during feeding and melting.

    Final product types

    • Infrared-transmitting glass materials
    • High-density specialty glasses
    • Optical fiber preforms for specialty photonics
    • Custom glassware and scientific instruments requiring tailored refractive index
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    Certification & Compliance
    More Introduction

    Barium Iodide: Reliable Performance for Specialized Industry Needs

    Manufacturing barium iodide demands precision, consistent quality checks, and raw materials sourced for purity. Every batch that leaves our facility reflects years of experience refining temperature control throughout synthesis, knowing that the smallest contamination or moisture can affect downstream processes. Our model features a high-purity crystalline barium iodide, standing out with a defined particle profile, low sodium content, and trace metal levels measured down to the parts-per-million range. These aren’t selling points pulled from marketing — these qualities come from working directly with chemical engineers, X-ray technologists, and laboratory teams who count on reliable product behavior every single day.

    Our Approach to Quality in Barium Iodide Production

    Making barium iodide takes more than mixing precursors. It starts with verified barium carbonate or sulfate and pharmaceutical-grade hydroiodic acid. Unwanted side reactions get shut down at the early stages by keeping environmental control tight, tracking temperature points, and running batch-specific spectrographic analysis before, during, and after crystallization. Each lot’s moisture levels and impurity profiles get logged, so repeat orders show no surprises. Customer feedback has always focused on consistency, and this is why production tracks everything down to wash water conductivity.

    Specifications Rooted in Laboratory and Industry Demands

    In X-ray imaging and organic synthesis, barium iodide ends up in high-precision applications that don’t tolerate impurity drift. Chemists and engineers often demand clear standards: high solubility, easily filterable, non-hygroscopic samples, and minimal alkali metal traces. The chemical formula BaI2 might look simple, but it’s the low limit of iron, calcium, and magnesium content that separates a high-quality product from off-grade imports that cause headaches. We've been asked for certificates of analysis that track batch-to-batch sodium below 30 ppm and record transparent spectroscopic signatures through visible and near-infrared. These specifications help minimize background interference in spectroscopy and avoid precipitation problems during complex molecule syntheses.

    We keep packaging practical and moisture-proof for straightforward transport and storage. Many Barium Iodide shipments ride in air-tight bottles and pails lined with costlier polymer barriers instead of basic high-density polyethylene, just to avoid micro-leaks that trigger caking, which is common in laboratories dealing with cheaper sources.

    Usage Patterns and Why Purity Has Tangible Impacts

    Barium iodide hasn’t caught on with bulk chemical users the way sodium chloride or calcium carbonate has, but for those who use it, there’s no swapping it out. Laboratories use barium iodide as an iodination agent—directly in organic synthesis where a clean reaction means fewer washes, and a shorter synthesis route. High-purity grades get used in preparing analytical reagents and as a precursor for making other barium-based specialty compounds. Production lines that manufacture high-resolution, specialty glass use barium iodide for doping, where its crystalline contribution can totally change spectral transmission properties.

    In our years of supplying to X-ray tube manufacturers, the most common complaint about low-grade material is clouding inside the glass or variable emission efficiency. The key failure point? Residual calcium and moisture that encourage phase separation at operating temperatures. Our facility addresses this with extra vapor-phase drying — a step some skip — plus airtight packaging directly after final QC to halt degradation before the product ever leaves the warehouse.

    What Sets Our Barium Iodide Apart from Other Compounds

    Stacking barium iodide next to other halide salts like potassium iodide or sodium iodide may seem logical, but their behaviors and use cases diverge quickly. Sodium and potassium salts dissolve easily, suit medical supplements, and offer cheap, safe bulk availability. Barium iodide’s real use cases lie with advanced synthesis and physical science, where a twice ionized barium cation and guaranteed batch stability affect everything from crystal growth rates to final product accuracy under spectral analysis. Some users try to substitute less expensive halides for iodide content, but the ionic radius and chemical reactivity differences cut application yields or trigger unwanted byproducts. We have worked with customers who previously struggled with unexpected color changes or residue formation in their syntheses, only to find that purity in barium iodide matters most for complex organic runs.

    Comparing barium iodide with more “basic” iodides, people often overlook the role of secondary impurities (like strontium or magnesium) that tag along from rushed or low-quality manufacturing. Sourcing our starting materials with rigorous in-house purification prevents these issues, and further crystallization controls produce lot-to-lot consistency. An experienced supplier understands that even fractions of a percent in impurity content can render a batch unusable for a chromophore production or a semiconducting research material.

    Experience Handling Customer Challenges

    Over decades, feedback loops between our process engineers and client labs have shifted how we handle particle size, moisture, and even packaging. Early on, a research partner pointed out how slightly granular and dry barium iodide stored better than ultra-fine powder, so we adapted our post-synthesis drying and grading. After facing repeated enquiries about caking or changing color in stored samples, we reinforced closed-loop nitrogen packaging and added additional desiccant pouches based on the storage climate of each shipment’s destination. These process improvements came from field failures and lab troubleshooting, not from design tables.

    One incident comes to mind when an analytical chemistry lab had a spike in anomalous results. Our technical team worked jointly with them, tracking the origin back to a specific drum that momentarily dipped below recommended storage humidity. Adjusted storage protocols and tighter monitoring put a stop to recurrences, building a partnership anchored in practical fixes rather than theoretical best practices.

    Safety and Practical Handling

    Barium iodide receives less attention as a bulk hazard than many alkali halides, but manufacturers working with it need to note barium’s specific toxicology. Our production floor keeps risk front and center through dust control, closed system transfer, and direct exhaust. Handling powdered barium iodide means never ignoring inhalation risks, while repeated skin contact or accidental ingestion over time adds data points to why occupational exposure gets watched. We implement real-time airborne dust checking near the production line and invest in negative pressure transfer points. Our experience has shown that investing in baseline process safety pays off, cutting sick days for production staff and preventing lost product.

    Our technical support makes risk education a priority. Customers new to barium salts receive clear instructions for both short-term and extended storage, waste protocols, and what to do when spills occur — all built from our own factory’s past incident learning and continual improvement. There’s no substitute for hands-on feedback from operators, so we integrate safety outcomes into regular process reviews.

    Meeting Complex Regulatory and Sustainability Demands

    Over the years, global moves toward traceability and source verification have shaped our supply chain and documentation. Every incoming batch of barium carbonate and hydroiodic acid comes with trace metal scans and an unbroken audit trail. Some industries require full REACH registration or documented absence of conflict minerals, so we adapted procurement to maintain compliance. Auditors have visited our facility to confirm direct-sourcing practices and environmental discharge controls, not just for regulatory box-ticking but because our customers in high-value electronics and analytical sectors won’t risk a project on undocumented feedstock.

    Waste minimization from production doesn’t mean just “process optimization” — it’s a reality on the factory floor when you deal with heavy-metal content in both scrap and water effluent. Our zero-liquid-discharge process means all wash water is recycled and salts recovered or neutralized, a practical response to both local law and our community responsibilities. Staff working in recovery or effluent management join cross-discipline meetings to improve protocols, intercepting potential incidents before they reach outside the plant.

    Delivery and Customer Collaboration

    There's rarely such a thing as a “standard” order for barium iodide. Some research customers need kilogram-scale batches filled on request, while industrial partners place multi-ton repeat orders for months at a time. We’ve built flexibility into our packing and shipping schedule, running production forecasts based on direct input from regular clients. We saw early on that overpromising lead times usually backfires, so our sales and dispatch teams report inventory and estimated production slots in real time. We keep tight controls on transit protection for moisture and breakage — lessons hard-earned after a high-value delivery suffered rain damage due to a single torn drum liner. Since then, our logistics team oversees final container inspection ahead of all departures.

    Problems have a way of showing up after delivery more than before. Customers know our technical support never stops at the invoice — we field post-shipment calls about reconstitution in ultrapure water, solubility change, or visual inspection. Data from the last five years shows major challenges emerge in humid storage climate, so we've improved both bulk transport modes and included more frequent shipment tracking for international routes. Each new challenge has shaped our packaging and dispatch.

    Product Differences That Matter in Practice

    Direct buyers sometimes ask us how barium iodide really compares to cheaper substitutes, or if differences in granule size or water content actually affect outcomes. From our testing and feedback, there’s rarely margin for error once a process demands high-purity iodide sources. Substitution with sodium or potassium iodide typically breaks process chemistry — whether that’s via incompatible melting points or introducing alkali contamination. Granule size and moisture can mean the distinction between a smooth process or powder clumping and failing to dissolve fully in a reaction vessel. We guarantee tightly controlled physical form and storage dryness because even small drifts can end up fouling equipment or altering product behavior at scale.

    One research customer once tried to use generic, lower-grade barium iodide sourced elsewhere in a microelectronic substrate synthesis. They ended up with unreliable results and costly delays tracking down trace-level impurities, ultimately returning to higher-spec product. Sharing those experiences across our client base lets us help others avoid similar setbacks.

    Balancing Innovation and Tight Process Control

    As the chemical industry shifts toward smarter and more sustainable production, we follow innovation that delivers measurable reliability. Automation has improved some aspects of our process, but too often, hands-on knowledge at the crystal precipitation or drying stage matters much more than data from remote sensors. Techs with years on the line still spot subtle product changes — a shift in color reflectance, flow, or dryness long before QC tests report formal numbers. Plant upgrades have improved throughput and allowed better in-process monitoring, yet we’ve never set aside artisanal attention to each batch.

    Our decision to continue detailed batch-level logbooks means every stage from precursor checks to finished goods gets an accountable signature. This old-school habit becomes crucial whenever a customer faces uncertain results or wants batch-specific support. We integrate new techniques for better analytical spec verification but never shortcut hands-on control.

    Continuous Improvement by Listening, Testing, and Adapting

    Product reliability is not just a technical outcome, but the result of an ongoing conversation between production floor, research chemist, and application engineer. Mistakes on our shop floor feed directly into process improvements, while repeated customer questions often push new investment. Our goal is not only to provide barium iodide that matches a formal specification but also to ensure it works in real-world testing.

    In actual use, specifications often turn into real variables — every deviation gets logged and tracked for patterns. Over the years, several small but targeted changes in our batch drying protocol and post-processing handling were driven by feedback from scientists applying barium iodide in very demanding chemical syntheses. These industry connections count for more than just public reputation; they provide a channel for mutual learning and gradual product refinement.

    The Value of Experience and Long-Term Partnerships

    Building a reputation with barium iodide has never depended purely on a glossy brochure or a catchy web campaign. It’s shaped by the long-term technical support we offer and the partnerships we sustain with those at the edge of analytical, manufacturing, and experimental research. Each order, whether for a glassmaker refining light transmission or a university lab preparing samples for next-gen photoresists, ends up reinforcing our own internal best practices.

    If history has taught us anything, it’s that no two production runs or client needs are ever quite the same. Decades in the business has shown the importance of honest communication, careful record keeping, and a willingness to adjust everything from packaging to delivery window based on a frank phone call or signed feedback statement. Those who demand true consistency in barium iodide supply find real value in working directly with the manufacturing team, where process knowledge, customer familiarity, and proven adaptability ensure smoother results than faceless bulk procurement can offer.

    Looking Forward: Keeping Barium Iodide Relevant and Reliable

    Barium iodide remains a specialty chemical in a world turning ever more to engineered materials and precision compounds. Demand may never match bulk commodities, but the importance of quality, process reliability, and chemical fit continues to grow in critical industries. New analytical methods, process automation, and digitized documentation will drive some change in how we work, but the fundamentals—raw material purity, attentive handling, honest communication—hold steady.

    For those developing applications where barium iodide serves as more than a mere reagent, direct engagement with knowledgeable suppliers continues to matter. Whether you focus on high-reliability scientific use, manufacture optical glass, or source for niche synthetic processes, our experience and direct production visibility help avoid common pitfalls and get the best product for the job. Years in the field—not just data sheets—give an edge in balancing purity, supplier trust, and practical delivery for barium iodide.