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Chloranilic Acid Barium Salt Trihydrate

    • Product Name Chloranilic Acid Barium Salt Trihydrate
    • Alias Barium;3,6-dioxo-2,5-dihydroxycyclohexa-1,4-diene-1,4-dicarboxylate;trihydrate
    • Einecs 242-021-8
    • 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

    472539

    Chemical Name Chloranilic Acid Barium Salt Trihydrate
    Formula C6Cl2O4Ba·3H2O
    Molecular Weight 499.43 g/mol
    Appearance Purple or violet crystalline solid
    Solubility In Water Slightly soluble
    Cas Number 15181-93-4
    Melting Point Decomposes on heating
    Storage Conditions Store in a cool, dry place
    Hazard Statements Irritant to skin and eyes
    Application Analytical reagent for determination of potassium
    Synonym Barium Chloranilate Trihydrate
    Stability Stable under recommended storage conditions
    Odor Odorless

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

    Packing & Storage
    Packing 250g of Chloranilic Acid Barium Salt Trihydrate is packaged in a tightly sealed amber glass bottle with a tamper-evident cap.
    Shipping Chloranilic Acid Barium Salt Trihydrate should be shipped in tightly sealed containers, protected from moisture and incompatible substances. Package securely to prevent spills and handle with care, as it may irritate skin and eyes. Transport in accordance with regulatory guidelines for chemical safety and labeling. Store in a cool, dry place upon arrival.
    Storage Chloranilic Acid Barium Salt Trihydrate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area. Protect it from moisture, direct sunlight, and incompatible substances such as strong acids and bases. Store it away from sources of ignition and heat. Use chemical-resistant shelving and ensure all containers are clearly labeled and handled with proper safety precautions.
    Application of Chloranilic Acid Barium Salt Trihydrate

    Applications of Chloranilic Acid Barium Salt Trihydrate in Industrial Manufacturing

    Chloranilic Acid Barium Salt Trihydrate serves as a specialty chemical intermediate in advanced industry sectors, particularly where precise redox properties, organic-inorganic interactions, and controlled crystallization are required. As an original manufacturer, we supply this material to clients engaged in precise formulation, electrochemical device production, and pigment synthesis. Below, we outline its established downstream uses, complete with detailed compliance, ratio, process, and finished goods information for distinct manufacturing areas.

    1. Electrochemical Sensing Materials Manufacture

    Our product plays a pivotal role in producing conducting and redox-active sensor components. Its unique molecular structure provides the electronic characteristics needed for potentiometric and amperometric sensor platforms. Downstream manufacturers use it to synthesize sensor films and membranes, especially where precise metal ion selectivity is essential and long-term stability under variable potential conditions is demanded. Consistent lot-to-lot purity and hydration level are necessary for reliable calibration and reproducibility.

    Industry compliance standards

    • ISO 13485: Medical device quality management (for sensor disposables manufacturing)
    • RoHS Directive 2011/65/EU (for portable device compatibility)
    • REACH Regulation (EC No. 1907/2006) substance registration

    Typical usage ratio

    • Formulators incorporate at 0.5–2% by total mass of sensor matrix, adjusting for film thickness, analyte type, and desired detection limits.

    Downstream process integration

    • Integrators dissolve the barium salt trihydrate in polymer slurry or casting solutions, usually prior to coating onto glass, ceramic, or flexible PET substrates.

    Final product types

    • Blood glucose test strips for medical devices
    • Heavy-metal environmental monitoring electrodes
    • pH and ionic strength disposable test sensors

    2. Specialty Organic Pigment Precursor

    Chloranilic Acid Barium Salt Trihydrate acts as a controlled-release barium ion source and template agent in synthesizing complex pigments for plastics and high-performance coatings. This compound enables the precise formation of organic-barium pigment complexes, stabilizing particle morphology and influencing hue, opacity, and UV resistance. Manufacturers benefit from consistent batch crystallization, which impacts downstream milling and dispersion stages necessary for mastering finished pigment performance in demanding industrial applications.

    Industry compliance standards

    • EN 71-3:2019 (Safety of toys – migration of certain elements, for pigment use in toys)
    • ASTM D3725 (Pigment testing methods in plastics)
    • ISO 9001:2015 (Quality management in colorant production)

    Typical usage ratio

    • In colorant synthesis, typical addition ranges from 0.8–3% by weight of pigment precursor mix, with adjustments based on required barium content and particle engineering goals.

    Downstream process integration

    • Operators introduce the raw material during aqueous- or solvent-based condensation reactions; barium complexation occurs ahead of filtration, drying, and micro-milling steps.

    Final product types

    • Special effect pigments for automotive plastics
    • Outdoor architectural powder coatings
    • Industrial anti-corrosive paints

    3. Battery and Supercapacitor Functional Additive

    In the energy storage sector, our product is valued for precise alteration of electrode properties in lithium-ion cell and high-capacitance supercapacitor builds. It serves as a redox mediator and intercalation material, supporting tailored charge/discharge performance and long-term cycle stability. Battery-grade production mandates ultra-low trace impurities, and downstream electrode mixing protocols require attention to hydration state and micromorphology, which influence ionic mobility and electrical conductivity at the finished cell level.

    Industry compliance standards

    • IEC 62660-2:2018 (Secondary lithium-ion cells for automotive applications)
    • ISO 9001:2015 (Quality management for battery materials)
    • UN Manual of Tests and Criteria, Part III, Subsection 38.3 (Transport safety for lithium cells)

    Typical usage ratio

    • Integration at 0.2–1% by electrode mass, fine-tuned after pilot cell performance data and conductivity mapping.

    Downstream process integration

    • Mixing occurs in slurry formulations for cathode coatings or as discrete additives during dry press fabrication; pre-drying of the hydrate may be used to standardize water content for sensitive chemistries.

    Final product types

    • Rechargeable lithium-ion pouch cells
    • Hybrid supercapacitor and battery packs
    • High-performance grid storage modules

    4. Photographic and Imaging Chemical Synthesis

    Chloranilic Acid Barium Salt Trihydrate enables precision oxidation-reduction chemistry in the controlled synthesis of imaging agents for specialty photographic films and medical X-ray contrast preparations. It shapes crystal growth, influences light sensitivity and image density, and supports the tight batch reproducibility demanded in imaging sector supply chains. Our fine chemical grade resists process contamination, and exacting moisture controls ensure storage and dissolution stability prior to photoactive compound manufacturing.

    Industry compliance standards

    • ISO 18902:2013 (Imaging materials storage)
    • EN ISO 10993 (Biological evaluation for medical imaging reagents)
    • 21 CFR Part 211 (US FDA pharmaceutical process controls, when used in medical-grade contrast agents)

    Typical usage ratio

    • Typically applied at 1–2.5% within developer or sensitizer blends, with final proportion determined by required image contrast, speed, and process bath turnover rate.

    Downstream process integration

    • Added to formulation tanks before final mixing and filtration for imaging compound synthesis; for silver halide systems, incorporated at the crystal nuclei seeding stage to optimize density and exposure response.

    Final product types

    • Medical X-ray imaging plates
    • High-resolution industrial photographic emulsions
    • Specialty black-and-white film developers

    5. Laboratory Analytical Reagent Production

    Our production-grade Chloranilic Acid Barium Salt Trihydrate is utilized in downstream synthesis of analytical kits and detection reagents, where it forms part of colorimetric and redox indicator systems for demanding inorganic assay protocols. Purity consistency and controlled particle size guarantee reproducible baseline readings and shelf stability for calibration-grade laboratory reagents supplied to chemical testing labs and process monitoring units.

    Industry compliance standards

    • ISO 17025:2017 (Testing laboratory quality management)
    • ACS Reagent Chemicals specifications for trace metals
    • USP <1225> (Validation of analytical procedures, when used in pharmaceutical QC labs)

    Typical usage ratio

    • Reagent manufacturers use from 0.1–1% by total solution volume, adjusting per protocol sensitivity, chemical background, and instrument calibration curves.

    Downstream process integration

    • Weigh-in to pre-formulated buffer systems or direct solvent dissolution ahead of bottling and kit assembly; filtered to guarantee absence of undissolved micro-particles for photometric clarity.

    Final product types

    • Water testing analytical test kits
    • Metal ion titration reagent sets
    • Quality control reference solutions for industrial labs
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    Certification & Compliance
    More Introduction

    Chloranilic Acid Barium Salt Trihydrate: An Inside Look from the Lab Floor

    We’ve worked hands-on with Chloranilic Acid Barium Salt Trihydrate for years, weighing it out in our own production lines, checking its magenta crystals under the quality microscope, and tweaking our batch process to meet tight tolerances. In our chemist’s coat pocket, this compound’s story isn’t an abstract list of grades and particle sizes — it’s a daily reality of careful purification, filtration, dry room monitoring, and constant improvement. We understand where quality spreads across a batch, where impurities can sneak in, and how even minor changes in climate or feedstock alter the final product. Every drum we ship reflects what we’ve learned under real production pressures.

    What Sets Our Chloranilic Acid Barium Salt Trihydrate Apart

    Our production of Chloranilic Acid Barium Salt Trihydrate (model 4204-76-0) goes beyond process charts. All solid-state barium chloranilate comes with water of hydration—ours in stable trihydrate form. We use high-grade chloranilic acid reacted directly with pure barium nitrate; this isn’t a shortcut batch or a fallback for failed intermediates. Our raw input pattern keeps metal impurities low, since trace metals often trigger color shifts, unpredictable solubility, or loss of sensitivity in specialty end uses.

    The chemical structure and hexahydrate formation matter to those who need reliable results. Any minor contamination—through atmospheric moisture, cross-contamination, or aggressive filtration—can modify crystal size or water content, which throws off reactivity in sensitive syntheses. Every step matters, from drying parameters to final drum sealing. Our system limits hydroscopic fluctuation, and we seal product quickly to reduce unwanted hydration/anhydration cycles.

    Physical Traits We Focus On

    Experienced hands know the purple-red color and slight metallic sheen indicate true purity. We aim for a fine, free-flowing powder, avoiding excessive clumping that makes weighing unreliable and blending uneven. Our typical crystal grain size hits the sweet spot — not too coarse to risk poor dissolution, not so fine it floats in the air and causes loss or inhalational hazards. Particle size control comes from a careful grinding and sieving process; we don’t leave that step to chance or trust only to automated screens. These details ensure accurate dosing in secondary syntheses or reference applications.

    Our finished trihydrate carries tightly managed moisture—without it, some users see strange peaks in their analysis, or notice altered behavior in reduction-oxidation reactions. Excess moisture, on the other hand, leads to caking, spoilage, or inconsistent performance in delicate procedures, so our packaging team checks the water content with every filling cycle.

    Usage: Where Chemists Notice the Difference

    Barium chloranilate earns its reputation in the world of analytical chemistry, electrochemistry, and colorimetric testing. Analytical chemists often depend on it as a reagent for detecting and quantifying rare earth metals and certain cations in complex matrices—reliability shines when a full day’s work rests on a single titration endpoint or UV-Vis read. In these use-cases, off-spec salts, incorrect hydration, or contaminant-driven impurities make the difference between accurate, publishable data and wasted runs. In several advanced laboratories we supply, operators expect a repeatable signal with every lot; any deviation points straight back to manufacturing methods.

    Electrochemical engineers value its defined redox properties. Many barium salts look superficially similar out of the drum, but without attention to water content and trace metal control, their response in sensors, catalysis, or electrode fabrication stumbles. Our compound fits protocols for dye-sensitized solar cell testing and indirect photometry work, where margin for error runs thin. Years of feedback from advanced users keep us vigilant—when their test runs drift, we look at every upstream factor, including our own humidity logs and equipment maintenance records.

    The Human Hand in Quality: What We Watch and Why

    Manufacturing specialty salts isn’t just about automation. A blend of skilled labor and systematic checks produces a more reliable product worth using. In our facility, every batch of barium chloranilate must pass color purity tests using standardized comparators. Each operator learns to spot deviations from a textbook spectrum, long before analytic proof comes from instruments. We scan for batch variation visually—as even micro-batch processing can introduce streaked or uneven coloration from uneven mixing.

    Our team screens for clumping, foreign matter, or off-notes by touch and scent. Discoloration, glassy inclusions, or irregular flow sometimes trace straight to a single step—maybe a careless washout or a mismanaged crystallizer run. Customers have told us that others’ products “look right” until a critical reaction fails unexpectedly; those warnings keep us meticulous. Strong process knowledge—gained by tracking every lot from acid and barium stock through filtration and bagging—backs up our trust in every container we ship.

    Shortcuts in the Market: Differences We See

    In the broader market, some suppliers rely on mass-produced intermediates and slacker control over moisture. Many batch processors don’t chase down the full spectrum of heavy metals and organic impurities—cutting a corner when regulators aren’t watching. We’ve audited “competition” products and handed out samples in cross-lab trials. Some differences become obvious as soon as you run a melting point test or try a redox titration. Streaked batches might result from using impure barium nitrate, or neglecting environmental controls during crystallization. Some lower-grade products come with odd granulation, leaving an unexpected residue in analytical applications or showing up as haze in reaction products.

    Manufacturers who run single-use, multi-chemical lines often ship variable trihydrate. As a result, industrial or educational users see bottle-to-bottle drift in performance. Different hydration states sneak into their processes as contaminants. Using non-dedicated equipment opens the door for inclusions of past runs to taint the purity. We hear the difference from technicians running reproducibility trials or instructors supporting undergraduate labs: their time and results matter, so consistent materials matter.

    Why Model, Specifications, and Background Matter Directly to End Users

    On our production lines, we keep close track of each model type to match industry needs. We run continuous review of both core specifications—purity, hydration, trace residue—plus in-use observations. Unlike bulk producers who may push everything into a “mixed lots” warehouse, we mark production runs so real lab users can tie back a vial to the exact process run that made it. If you’ve ever spent hours troubleshooting a reaction that fails on a Wednesday after working fine on Monday, you’ll understand the importance of traceable, specific sourcing. Our trihydrate, model 4204-76-0, always comes with an associated analytic package and a repeatable hydration form, so unexpected behavior in downstream chemistry doesn’t get blamed on invisible batch drift.

    We also recognize not every need calls for the most refined version—industrial manufacturers sometimes prefer a more economical cut for non-critical coloring, cement admixtures, or less sensitive processes. We supply side-by-side sample lots when buyers want to see the difference. Users side-by-side with our own in-house testing can compare reactivity, response time, and stability—not just a spec line or certificate, but what it feels like to actually use it in a working setup.

    Real-World Testing and Continuous Feedback

    Each month, our staff pull random production samples and rerun critical titrations, solubility checks, and purity analyses. We use feedback from customers—both complaints and compliments—to adjust upstream processes. Sometimes a single customer report about slow dissolution or a sticky residue points us straight to an upstream process bottleneck. Manuals and templates don’t cover the complexity of repeated, real-life use, so we prioritize real-world data far above lab-bench theory.

    Our technical team meets quarterly to review field case studies. We monitor how our trihydrate behaves in split-lot tests, across environmental conditions from dry deserts to humid port cities. Sometimes the problem shows up as subtle color shift on storage, or a change in the behavior during sample prep. If so, we act directly—by swapping out packaging, updating drying rooms, or improving operator training. We track how long the product holds up unopened and opened in different setups. A bottle stored in a poorly ventilated storeroom can look fine but fail key reduction-oxidation tests. Sharing this information with clients saves them frustration and helps us stay ahead of avoidable complaints.

    Since we operate our own pilot-scale synthesis, we try out small tweaks in real reaction conditions, not just bench-top samples. Changes in agitation, feed rate, or water quality can make surprising differences in the behavior of the final trihydrate. We avoid running to publication data alone—real process chemistry and customer requirements weigh heavier in our modifications.

    Solutions to Common Product Issues

    Consistent hydration: Variation in trihydrate form leads to unpredictable results in both analytical and preparative applications. We keep environmental monitoring tight in both synthesis and packaging zones. Dehumidified rooms, rapid post-processing transfer, and sealed containers are essential to keeping moisture at the set point. We won’t ship if water analysis varies out of range, even if a client ever pushes for faster timelines. Dry bottling crews have seen the short-term gains and long-term headaches from cutting corners on this step.

    Preventing accidentals: Cross-contamination with other barium salts, chlorinated by-products, or lab chemicals can quietly undermine purity. In our process, we run equipment exclusively for this line and maintain daily cleaning logs. We discard, rather than recycle, filter aids or transfer solutions between unrelated products. Batch-to-batch memory of a reactive system proves dangerous for sensitive syntheses—so we train all staff on the “one line, one salt” mindset.

    Supply stability: Demand surges or feedstock shortages create pressure to adjust or replace raw materials. We stockpile ahead, contract with multiple vetted suppliers, and never cut down to a single sourcing region. From past disruptions, we learned how global logistics, port slowdowns, and political changes hit the specialty chemical market faster than spreadsheets show. Advanced warning and active risk assessment back up our promise for supply stability.

    Traceability: As regulatory compliance grows tougher, traceable QA becomes more critical. We log every package back to its production batch, right down to shifts and mixer station. End-users running GMP or regulated processes pass audits faster when material identity and chain of custody answer the hardest questions. For those moving beyond R&D to commercial production or export, our traceable trihydrate keeps the paperwork and the auditors satisfied.

    Dialogue with Users: The Source of Real Improvements

    Our most valuable product feedback comes from users who call us directly after field failures and successes. Once, a research lab at a pharmaceutical company flagged an unexpected reduction peak. Together, we traced the issue to a packaging micro-leak—not a flaw visible to standard testing, but important to the chemists who counted on absolute consistency. Fixing the crimping step cut further reports to zero.

    In another case, a battery researcher noticed that intermittent color drift linked directly to a supplier swap of barium nitrate. With their data and our upstream adjustments, the next run of Chloranilic Acid Barium Salt Trihydrate matched their old data point-for-point. This kind of ongoing, hands-on dialogue drives us more than industry standards or batch certificates. Trusted relationships grow when we respond directly to real-world wins and breakdowns.

    Differences from Other Barium Salts and Related Products

    Barium chloranilate trihydrate stands apart from generic barium salts due to both the organic backbone and the sensitivity to hydration level. Competing compounds such as barium sulfate or carbonate handle industrial fillers, pigments, and ceramics, but lack defined reactive sites for analytical color tests or precise stoichiometric operations. In organic-inorganic hybrid work or dye chemistry, only chloranilic derivatives bridge both colorimetric sensitivity and metallic reactivity—no other barium salt brings the same blend of capabilities.

    Direct comparison with sodium or potassium chloranilates shows barium salt’s edge in lower solubility and more defined precipitation characteristics. For those performing trace analysis, this matters—reducing interference and forming more manageable filtrates. Where alternative hydrates drift off-spec after even a few hours in humid air, our trihydrate holds form at room temperature for extended shelf-life under standard lab storage.

    Resisting the Shortcut: The Advantage of Direct Manufacturer Engagement

    We’ve watched the market fill with third-party resellers and jobbers promising “equivalent” barium chloranilate. Those indirect channels often cannot verify hydration state, micro-purity, or process traceability. By working as the actual producer, not just a repacker or trader, we guarantee firsthand control. We own every upstream risk, learn from every technical call, and cement trust batch by batch. Real manufacturing means real responsibility. The strongest product reputation grows from continuous investment — in better raw sourcing, smarter drying, and honest feedback from steady users.

    By making Chloranilic Acid Barium Salt Trihydrate ourselves, not just moving inventory, we shape each shipment from the reactor to the bottle. That leaves no room for doubt about its makeup and performance. The difference is clear when your synthesis works straight from the first trial, or an analysis lands within target range every time. Our team keeps both ears open to users in real-world settings, ensuring this specialty barium salt meets each expectation — and, if not, we make it right at the manufacturing floor.