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Barium Manganate

    • Product Name Barium Manganate
    • Alias Barium manganate(VI)
    • Einecs 235-054-6
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    415482

    Chemicalname Barium Manganate
    Chemicalformula BaMnO4
    Molarmass 240.27 g/mol
    Appearance Green crystalline powder
    Density 4.85 g/cm3
    Meltingpoint Decomposes before melting
    Solubilityinwater Insoluble
    Casnumber 7787-35-7
    Crystalsystem Orthorhombic
    Magneticproperties Paramagnetic
    Odor Odorless
    Stability Stable under normal conditions
    Mainhazard Toxic if ingested or inhaled
    Uses Oxidizing agent, chemical analysis

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

    Packing & Storage
    Packing White plastic bottle labeled "Barium Manganate, 100g" with hazard symbols, lot number, company logo, and tightly sealed blue cap.
    Shipping Barium Manganate should be shipped in tightly sealed containers, protected from moisture and physical damage. Label containers with appropriate hazard warnings. Store and transport in accordance with local, national, and international regulations for oxidizing and potentially hazardous chemicals. Avoid contact with acids and reducing agents. Handle with proper personal protective equipment.
    Storage Barium manganate should be stored in a tightly sealed container, protected from moisture and incompatible substances such as acids and organic materials. Store it in a cool, dry, well-ventilated area, away from sources of ignition or heat. Clearly label the container, and keep it in a designated chemical storage cabinet designed for oxidizers to prevent any hazardous reactions.
    Application of Barium Manganate

    Applications of Barium Manganate in Industrial Manufacturing

    Barium manganate serves as a specialty material in industries leveraging its high oxidation state and unique electrochemical attributes. As an established manufacturer, we supply this compound for settings that demand precise formulation, robust process control, and verified end product performance.

    1. Alkaline Battery Cathode Material

    Barium manganate provides strong electrochemical stability in primary alkaline battery production, specifically for heavy-duty and high-drain cells. Its high oxidizing potential enhances electron transfer efficiency during discharge. Integrated into the cathode mix, this material supports consistent energy density, shelf life extension, and lowered internal resistance, particularly in cylindrical and prismatic cell formats. End users require precise powder morphology and particle size to ensure homogeneous distribution and reactivity, with close QA/QR alignment to battery-grade standards during slurry mixing and electrode coating phases.

    Industry compliance standards

    • IEC 60086-1/2: Primary batteries – General and Manganese Dioxide Batteries
    • RoHS Directive (2011/65/EU) – Restriction of Hazardous Substances
    • UN 38.3: Lithium and Battery Transportation
    • ISO 9001:2015 – Quality Management in Electrochemical Manufacturing

    Typical usage ratio

    • 10–20% in cathode active mix (weight basis), adjusted by discharge platform design, desired voltage profile, and cathode thickness

    Downstream process integration

    • Incorporate into cathode slurry blending with electrolytic manganese dioxide and graphite
    • Homogenize mixture before doctor blade coating on metal foil
    • Apply vacuum drying and roll pressing prior to cell assembly

    Final product types

    • AA, AAA, and D-cell alkaline batteries
    • Specialty cylindrical primary batteries for industrial instrumentation
    • High-capacity batteries for flashlights, remote controls, and medical devices

    2. Inorganic Oxidizer for Specialized Pigments

    Barium manganate functions as a controlled oxidizing agent in the synthesis of specialty inorganic pigments, particularly manganese-based browns and greens for ceramics and glassware. Through high-temperature solid-state reactions, it imparts stable shade and oxidative uniformity critical for artistic tiles and high-performance glass products. Manufacturers favor precise control over oxidation state to prevent unwanted secondary phases, enabling predictable color rendition even after high-temperature firing. The compound’s fine particle dispersion further supports predictable results across varied kilning profiles.

    Industry compliance standards

    • ASTM D3722 – Standard Specification for Pigment Materials
    • EN 12878 – Pigments for Coloring Construction Materials
    • ISO 1248 – Iron Oxide Pigments: Requirements and Testing
    • REACH Regulation (EC) No 1907/2006 – Registration, Evaluation, Authorization and Restriction of Chemicals

    Typical usage ratio

    • 1–5% by weight in pigment precursor mix, adjusted by base composition, target coloration, and final product density

    Downstream process integration

    • Blend into pigment calcination batch with kaolin, feldspar, and silica
    • Introduce during first firing for vitrification
    • Intermix with glass frit for casting or ceramic glaze application

    Final product types

    • Ceramic tiles with brown/green shading
    • Architectural glass with manganese-based coloration
    • Tableware and decorative ceramics

    3. Catalyst Precursor for Organic Oxidation Reactions

    Barium manganate is widely applied in the synthesis of catalytic formulations used for benzylic and allylic oxidations. It introduces a stable, high-valent manganese species for oxidative coupling in specialty organic synthesis operations. Reactors utilize this precursor for producing selective oxidation catalysts, which enable process efficiencies and minimize side product formation in fine chemical and pharmaceutical manufacturing. Close particle size control and surface area uniformity are critical for catalyst blending and subsequent activation by thermal treatment or slurry impregnation.

    Industry compliance standards

    • IPEC-PQG GMP Guide for Pharmaceutical Excipients
    • 21 CFR Part 211 – Good Manufacturing Practice for Finished Pharmaceuticals (where applicable)
    • ISO 14001:2015 – Environmental Management in Chemical Processing
    • GHS Regulation (EC) No. 1272/2008 – Classification Labelling and Packaging of Substances

    Typical usage ratio

    • 5–15% (weight/weight) in solid catalyst precursor batch, exact loading adjusted based on reaction kinetics and organic substrate selectivity

    Downstream process integration

    • Disperse in solid precursor mixing before calcination step
    • Apply in catalyst pellets or as powder blend for downstream reactor loading
    • Activate by controlled heating to induce mixed oxide phase

    Final product types

    • Heterogeneous oxidation catalysts for fine chemicals production
    • Catalytic tablets or extrudates for synthetic organic processes
    • Preformed catalyst charges for batch or flow reactors

    4. Laboratory Reagent for Analytical Chemistry

    Barium manganate is deployed as a specialty oxidant reagent in redox titration methods, particularly in the quantification of reducing substances in water analysis and environmental testing labs. Its strong and stable oxidation state yields reproducible analytical results under aqueous and non-aqueous systems. Stringent control over purity, phase composition, and particle morphology meet reference and working standard requirements for advanced laboratories. The material is typically supplied under lot-specific certificates of analysis, with detailed contaminant tracking and traceability.

    Industry compliance standards

    • ISO/IEC 17025:2017 – General Requirements for Testing and Calibration Laboratories
    • EPA Method 4500-O C – Standard Methods for the Examination of Water and Wastewater
    • ASTM D1253 – Oxidant Demand Testing
    • Good Laboratory Practice (GLP) for Chemical Analysis

    Typical usage ratio

    • 0.1–1 g per titration, adjusted by test matrix, analyte concentration, and method detection limit

    Downstream process integration

    • Dissolve or suspend as titrant in volumetric flasks
    • Add to aqueous sample matrix under controlled pH and temperature
    • Integrate into instrument-based auto-titration sequences

    Final product types

    • Certified chemical reference standards
    • Analytical kits for reducing substance detection
    • Automated reagent packs for laboratory water and environmental analyzers

    5. Component in Solid-State Oxygen Generation

    The compound is utilized in controlled oxygen-release devices for industrial and laboratory use. Its high oxygen storage capability and predictable decomposition characteristics support stable O2 generation in non-electrical chemical oxygen generators, widely used for emergency response, aerospace, and mining safety equipment. The compound enters directly into compression and pelletization operations, with strict traceability and batch verification for storage and deployment stability.

    Industry compliance standards

    • ISO 9001:2015 – Quality Management for Safety Devices
    • EN 13794:2002 – Self-contained Chemical Oxygen Generators for Respiratory Protection
    • IEC 61508 – Functional Safety of Electrical/Electronic/Programmable Electronic Safety-related Systems (applicable to control modules)
    • IMDG Code – International Maritime Dangerous Goods Transport Regulations

    Typical usage ratio

    • 20–40% in oxygen release formulation, calculated based on total system mass, desired oxygen output, rate of release, and operation environment

    Downstream process integration

    • Mix with inert fillers and binders prior to granulation
    • Compression molding into solid generator cores
    • Encapsulate for moisture protection and thermal triggering

    Final product types

    • Portable chemical oxygen generators
    • Emergency oxygen supply cartridges for miners and high-altitude workers
    • Aerospace life support oxygen packs
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    Certification & Compliance
    More Introduction

    Barium Manganate: Direct from the Manufacturer’s Bench

    Delivering Consistent Quality in Every Batch

    In our daily routine at a chemical manufacturing plant, every product we produce tells its own story. Barium manganate deserves a closer look, not because of buzzwords or flashy promises, but through hard facts and hands-on experience. This compound—BaMnO4—routinely leaves our reactors destined for companies that demand consistency and reliability. Purity, appearance, and performance mean more to us than marketing angles. Each process tweak echoes through downstream reactions in research laboratories, glass plants, and specialty pigment houses. End-users know right away if their supplier’s process is careless; mismatched shades and unreliable batch outcomes are impossible to disguise. We keep our facility focused on purity and reproducibility, because no one wants to rework an entire batch due to an upstream supplier’s shortcuts.

    For our standard grade barium manganate, we take extra steps at every stage. We use high-purity barium compounds and certified manganese raw materials. Our process limits contamination with costly but necessary filtration and temperature controls. Each finished batch must pass X-ray diffraction, iron content assessment, and careful observation for shade and particle flow. With the naked eye, you see a fine green powder—but the true test comes once it’s in the final application, whether in ceramics or as part of a catalyst blend.

    Why Application Demands Matter in Barium Manganate

    Clients developing special glass, coloring certain ceramics, or working in lab-scale oxidative reactions need a barium manganate that stays consistent, batch after batch. Uneven particle sizes, burrowing clumps, or unexpected traces of sodium or calcium interrupt processes that rely on precision. Rather than chase ever-cheaper production, we invest in keeping the process stable. Experienced technicians keep a steady eye on the crystallization process, since even a half-degree drift in furnace temperature or an imprecisely timed filtration means poor reproducibility. Anyone who has ever had to troubleshoot the root cause of a dull glaze in fine ceramics understands how unforgiving small mistakes in raw materials can become.

    We work closely with customers who want a tailored product for particular downstream reactions. Some research groups push for smaller mean particle diameters to promote reactivity; others in pigment manufacturing need flow to match existing feedstock lines. Our control over particle sizing and purity means customers know what they’ll receive with each order and they’re able to focus on their own innovations, not on benchmarking incoming chemicals.

    Barium Manganate in Research and Industry

    Academic teams rely on the physical and chemical predictability of our barium manganate. More than once, we’ve worked with university researchers frustrated after inconsistent oxidant behavior in their inorganic syntheses. We direct them to samples from our latest lot, backed by purity analysis developed in-house because off-the-shelf testing never answers all the practical questions chemists ask. Transparent data reassures partners that their experimental results won’t become a casualty of unreliable inputs.

    Industrial scale users often focus on lot-to-lot reproducibility and logistics. Every month, glass plants send feedback on minor changes they’re pursuing. Color tone, melting behavior, and possible impurity migration find quick resolution at the manufacturing stage, not after tonnes of faulty product leave the warehouse. Batch records keep track of every deviation, with hand-written notations from operators who know the process better than any automated system. The value in a long-term supply relationship grows as customers learn the underlying reasons for the subtle color shift or the improved shelf-stability in a new formulation.

    How Our Barium Manganate Differs from Commodity Alternatives

    Not all barium manganate is built the same way. Cheaper materials often come packed in nondescript drums, with little transparency over process details or origin. Customers thinking they’re buying comparable products realize their mistake quickly. Inconsistent fines content, high levels of trace metals, and excess water-sensitivity wreak havoc, especially in large-scale production.

    Our on-site synthesis concentrates on minimizing the impurities that most commonly haunt rushed production—particularly free manganese oxides and water-soluble salts that creep in through unrefined filtration or incomplete precursors. Mainstream trading markets sometimes push for rapid scale-up at the expense of temperature ramp control and thorough washing. Resulting products might meet a minimum percent-content specification, but side reactions, poor dispersibility, or a slight tint deviation quickly undo any savings.

    Customers pay extra for accountable supply, not mystery materials. Our product transparency, from spectroscopic data to impurity logs, makes batch qualification less of a guessing game for both sides. Plants using our barium manganate find fewer rejects and save on troubleshooting—something that rarely shows up on price lists, but repeatedly pays off in regular production runs.

    Product Model and Specifications: What Sets Us Apart

    We don’t believe in a ‘one size fits all’ chemistry supply. Our core barium manganate model, packaged as a free-flowing powder, features manganese and barium purity above 99% by mass, with moisture content well below 0.2% at the time of canning. We monitor iron, sodium, and calcium to well below 200 ppm. Particle size tuning stretches from less than 20 microns for research-scale needs, up to 50 microns for blending into coarser glass or ceramic feeds. Small modifications to suit pigment-makers or glass studios are routine, because our reactors stay flexible and we never dilute material with fillers.

    Quality checks rely on both modern instrumentation and old-fashioned experience. Running powder through a sieve, as we have for decades, uncovers flaws current machines can’t always catch. Even with better metrology equipment, seasoned staff still catch outliers by sight and feel—a skillset earned from years on the line, not in a lab manual.

    Supporting Innovation through Reliable Supply

    Every development team depends on reliable building blocks for their work. In forty years of industry history, we’ve seen the downstream cost of unanticipated raw material hiccups. New reactor designs, pigment prototypes, and research syntheses all run aground if material inputs change without warning. Few project leads want to retest samples a week before a customer trial or requalify a color batch at the last stage of GLP approval. Our job as manufacturers isn’t to offer the lowest price, but to support creative work at every link in the chain through rigorous controls and transparent service.

    We stay tuned to both traditional applications and emerging uses for barium manganate. Recent years brought steady interest in battery research and environmental catalysis, where trace impurities set the pace for achievable performance benchmarks. We work in confidence with commercial customers scaling new materials, sharing purity data and storing backup lots for extended qualification periods. This long-haul approach deepens partnerships, reducing the risk of miscommunication or supply shocks.

    Ongoing Process Improvements Lead to Real Benefits

    Manufacturing isn’t static. Updates in crystallization control, improved furnace insulation, and better filtration technologies improve the reliability of barium manganate without introducing new sources of error. Tough regulatory standards keep us accountable, but most process changes spring from direct customer feedback or in-house trials rather than pushy compliance regimes.

    Operators notice slow trends in furnace recovery time or in seasonal shifts in water quality that analytics software misses. Many productivity upgrades occur after review meetings where salty complaints about a painstaking batch prompt action over the next production cycle. Our experience tells us that incremental change, rooted in everyday observations, brings the most effective, durable improvements.

    Environmental and Safety Commitment

    Running a chemical plant always brings a set of non-negotiable safety and environmental rules. Barium manganate demands handling precautions, but we enforce best practices based on long experience. Experienced staff wear gloves and masks, fume extraction runs at full strength, and we train every new operator before they touch the product line. Waste streams pass through multi-stage treatments before anyone talks about disposal. Local water samples get sent off-site for analysis rather than hiding inconvenient results. We’ve found that ingraining safety into our workflow fosters a cleaner workplace, steadier throughput, and fewer downstream headaches.

    In the environmental permits we hold and the feedback from our regional inspection agency, our plant’s long safety record speaks for itself. We invest in emission scrubbers and dust collection, not to meet a theoretical target, but to respond to what’s actually needed on the ground. The know-how behind minimizing barium and manganese losses to air or water doesn’t come from manuals; it grows out of generations of plant operation and real troubleshooting.

    Collaborative Problem-Solving: Working Directly with Users

    Manufacturers never operate in a vacuum. End-users challenge our assumptions and push us to improve. Every year, technical support teams visit customer labs and plants to resolve challenges with dissolvability, dispersibility, or shade. From troubleshooting persistent pinholes in glass products to diagnosing why pigment co-blends suddenly diverge in tone, we’ve worked beside customers on site to test out adjustments. Most solutions required more than adjusting the recipe; they came from detailed process tweaking, trades of test batches, and honest back-and-forth.

    We record every challenge and solution to build a knowledge base, not for marketing but so tomorrow’s batches avoid yesterday’s issues. Customers bring us news of new formulation needs or supply constraints; we respond with innovative process adjustments aimed at continuity and reliability. Long-term relationships outlast short-term price shifts and pay dividends in crisis moments, like raw material shortages or regulatory updates.

    Addressing Issues of Trace Impurities

    Trace contaminants cause most of the headaches for users of barium manganate. Even parts-per-million differences in transition metals or alkali salts disrupt pigment performance, reaction kinetics, or final product appearance. As a manufacturer specializing in these compounds, we continually test upstream raw materials and adjust washing protocols with every incoming shipment. Old process habits sometimes masked the problem, while modern detection brings tiny impurities to light. We don’t wait until a customer complains—routine analysis runs in sync with production.

    Experienced operators recognize the tiny shifts in shade or the faintest change in reactivity, often catching lot-to-lot variability before new material leaves the plant. Reporting and transparency, backed by real data, let us alert downstream partners to any detectable shift so they can plan accordingly. Many customers cite this open approach as the reason they stick with established manufacturers rather than risk variability from shifting suppliers.

    Keep Focused on the Realities of Batch Production

    Manufacturing barium manganate at scale calls for discipline and know-how. After years of refining the workflow, our process includes systematic checks that flag problems before they multiply. From the drying ovens to the packaging line, actual human oversight—rather than reliance on automation alone—protects against batch losses or unplanned downtime.

    We understand that the cost of a reworked batch, delayed delivery, or unexpected contaminant can far outweigh small savings from process shortcuts. Many competitors drift toward speed and price-point above process reliability, and customers quickly feel the downstream effects in lost time and quality. Our tight manufacturing controls resist the lure of easy wins, focusing instead on meeting real-world needs with every lot.

    Building Reputation Supplier-to-End-User

    End customers in the pigment, glass, and catalyst industries often stick with the same supplier for decades. Through each product alteration, new regulatory demand, and major research development, reliability keeps these relationships alive. We keep the line open for new opportunities, yet our strongest feedback comes from repeat users whose innovations depend on our barium manganate. Their trust comes from years of predictable supply, timely dialogue, and honest handling of any issue. We let our product’s consistency do the persuading.

    As we keep improving each aspect of our process—sampling, documentation, and packaging—we stay grounded in the idea that each shipment reflects everyone who worked to bring it into being. Whether a customer needs a single kilogram for bench-scale tests or a full truckload for a quarter’s worth of manufacturing, we support each project with the same care, precision, and attention to detail earned through long years in chemical manufacturing.

    Conclusion—A Manufacturer’s Experience Informs Every Batch

    Barium manganate presents a unique set of requirements for any end-user, but steady supply and manufacturer commitment solve most of the real challenges. We don’t see our role as simply shipping a commodity; rather, we live the ongoing reality of production in a world that demands more reliability, safety, and transparency at every stage. By working directly with end-users, focusing on real performance criteria, and taking every batch as a reflection of our experience, our manufacturing plant continues to deliver barium manganate that makes a difference wherever chemistry meets commercial and creative application.