HS Code | 334868 |
| Chemicalname | Barium Chloride |
| Chemicalformula | BaCl2 |
| Molarmass | 208.23 g/mol |
| Appearance | White crystalline solid |
| Meltingpoint | 960 °C |
| Boilingpoint | 1560 °C |
| Solubilityinwater | Highly soluble |
| Density | 3.856 g/cm³ |
| Casnumber | 10361-37-2 |
| Odor | Odorless |
| Ph | 5.0-8.0 (50 g/L,H2O,20 °C) |
| Hazardclass | Toxic |
| Pubchemcid | 516931 |
| Refractiveindex | 1.717 |
As an accredited Barium Chloride factory,we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Barium Chloride,500g,packed in a sealed,high-density polyethylene bottle with clear hazard labeling and tightly secured screw cap. |
| Container Loading (20′ FCL) | Barium Chloride is typically loaded in 20′ FCLs using 25kg or 50kg bags,with a total load of 20-25 tons. |
| Shipping | Barium chloride must be shipped in tightly sealed,clearly labeled containers to prevent moisture absorption and contamination. It is classified as a hazardous material (UN1564),requiring compliance with local,national,and international transport regulations. Handling precautions include avoiding contact,ensuring proper ventilation,and storing away from acids and incompatible substances. |
| Storage | Barium chloride should be stored in a tightly sealed container,in a cool,dry,and well-ventilated area away from moisture and incompatible substances such as acids and oxidizers. The storage area should be clearly labeled,secured from unauthorized access,and protected from physical damage. Avoid storing near food and drink due to its toxicity and corrosive properties. |
| Shelf Life | Barium chloride typically has a shelf life of 3-5 years when stored in a tightly sealed container,cool,dry,and well-ventilated conditions. |
Purity 99%:Barium Chloride Purity 99% is used in water treatment processes,where it ensures effective removal of sulfate ions from industrial effluents. Anhydrous Grade:Barium Chloride Anhydrous Grade is used in the manufacture of heat treatment salts,where it provides enhanced thermal stability and efficient heat transfer. Fine Particle Size:Barium Chloride Fine Particle Size is used in laboratory analysis,where it enables rapid and uniform dissolution for titration accuracy. Molecular Weight 208.23 g/mol:Barium Chloride Molecular Weight 208.23 g/mol is used in chemical synthesis,where it ensures precise stoichiometry in compound formulation. Melting Point 962°C:Barium Chloride Melting Point 962°C is used in high-temperature flux preparations,where it supports stable phase transitions without decomposition. Stability Temperature 800°C:Barium Chloride Stability Temperature 800°C is used in ceramic glaze formulations,where it maintains structural integrity during kiln firing. Low Iron Content:Barium Chloride Low Iron Content is used in photographic chemical production,where it prevents unwanted discoloration and enhances image clarity. Granular Form:Barium Chloride Granular Form is used in brine solutions for chlorine production,where it allows controlled dissolution and consistent brine composition. Solubility 375 g/L (20°C):Barium Chloride Solubility 375 g/L (20°C) is used in laboratory precipitation reactions,where it facilitates efficient and complete sulfate removal. Reagent Grade:Barium Chloride Reagent Grade is used in analytical testing of sulfates,where it ensures high reliability and reproducibility of results. |
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Barium chloride doesn’t turn heads outside of professional circles,but it gets attention in every plant that values reliable chemistry. In our line of work,we produce barium chloride in its two well-known forms:the anhydrous powder,white and granular with a sharp bitterness to the taste,and the dihydrate crystalline version,clear as ice and slightly more forgiving to handle. Both fit under the umbrella of BaCl2—same elemental backbone,slightly different physical properties. Over decades,these subtle differences have dictated their industrial destinies.
Purity matters in a way that shows up in every downstream process. If you value clean,consistent precipitation reactions,the purity of barium chloride shapes the color,texture,and eventual product yield. Most clients who use this salt in brine purification or as a cleansing agent in caustic soda plants won’t accept anything below 99% pure. That’s for a reason:impurities like calcium or magnesium won’t just dilute the barium content;they interfere with target reactions and force process line shut-downs to fix fouling or produce off-spec batches.
We control the crystal size in each batch,because that impacts how the salt dissolves and disperses. Fine powders speed up dissolution in some reactions,but coarse granules resist caking in storage and handle moisture better. Specifying the particle size at the outset prevents headaches when the product finally reaches your line. Over years,we’ve seen how a shift in mesh size can be the quiet difference between smooth operation and clumping inside feed hoppers.
Water treatment relies on predictability. In our experience,customers in municipal and industrial water plants reach for barium chloride to mop up sulfate ions. The reaction leaves behind barium sulfate—a near-insoluble solid that settles quickly and pulls out the unwanted contaminant. This isn’t an exotic use. Every day,we see thousands of liters of harsh,sulfate-heavy water get scrubbed cleaner,batch after batch,by a simple dose of barium chloride.
Any excess in sodium sulfate,especially in processes recycling their water,builds up and threatens pipework or fouls downstream chemistry. By adding barium chloride,operators avoid corrosion and keep maintenance predictable. Unlike alternatives that depend on elaborate procedures,using barium chloride for de-sulfation delivers a direct,visible impact. Every metric ton of product we send out eliminates a wider maintenance issue in the client’s plant,and feedback comes fast if something drifts off-spec.
No one in the industry overlooks the dependence of the chlor-alkali sector on dependable reagent quality. Caustic soda and soda ash plants,in particular,rely on barium chloride’s ability to remove unwanted sulfates that would corrode core equipment and taint sodium-based products. This is not a fringe application. Plants that run round the clock know that even small sulfate breakthroughs lead to unscheduled downtime and product scrapping.
In modern systems,barium chloride acts as a pre-treatment step—removing impurities before electrolytic cells split brine into sodium hydroxide and chlorine. Cutting corners on the reagent means risking electrode life and output quality. Our production teams understand why operators prefer the never-failing endpoint that barium chloride delivers. Over the years,the evolution of automation didn’t replace the need for ‘old-fashioned’ process certainty,and barium chloride still supplies that reliability.
Paper mills present a different challenge. High-brightness paper grades need precise control over fillers and sizing agents. Barium chloride enters the stage as a precursor—reacting with sulfate agents to precipitate barium sulfate inside paper fibers. This increases opacity and creates a smooth,printable surface. There’s no room for gritty or colored contamination;the tiniest impurity stands out in the finished sheet.
On-site,paper engineers often specify the crystal form and require low residual toxicity. In practice,the barium chloride dihydrate form works well because it balances reactivity with safe handling. We see clear performance benefits when customers introduce small,controlled dosages upstream of paper sheet formation. The visible improvement in brightness and sheet uniformity comes up time and again on mill audits,and technical staff track batch records back to our factory specs.
Barium chloride walks into less obvious applications,sometimes as a source of barium ions,sometimes as a control reagent. In the world of lab and specialty synthesis,chemists use it to prepare other barium salts—like barium nitrate or barium carbonate—and even as a catalyst in complex reactions.
For ceramics and glassmaking,barium chloride helps create specific shades and refraction indices when developing colored glassware or specialized optical products. These aren’t high-volume runs but the demanded quality control tightens. Powder purity greater than 99.5% is the order of the day,and the allowed moisture content drops under 0.2% to prevent unpredictable melts and discoloration.
Over decades,we’ve supported small-batch researchers by tuning synthesis grade products—eliminating phosphates or iron traces,or delivering extra-fine mesh where reaction kinetics need fine dispersion. This work calls for flexibility and tight feedback loops between the research team and our production staff. If a researcher notices a subtle shift in precipitation timing or crystal growth,the root cause sometimes traces back to an upstream change in feedstock or wash water. Over time,refining these steps makes all the difference between average and outstanding results.
Direct substitution doesn’t always work in the chemistry plant. Barium carbonate pops up as an alternative,but it responds sluggishly and demands acidic conditions that many systems can’t tolerate. The reaction rates between barium chloride and sulfate ions beat those of most substitutes,especially under neutral or slightly alkaline conditions. That’s not a theoretical advantage—when a process engineer faces a rising sulfate spike,a fast and predictable drop in contamination means everything.
Handling profiles separate barium chloride from members of the barium family. The anhydrous powder draws moisture from air and can create dusty working conditions unless properly monitored. The dihydrate crystals,in contrast,settle quickly and minimize airborne spread,so we favor their use in open-dosing scenarios or where operator exposure needs tight control. We’ve learned that thoughtful packaging and on-site dosing procedures make the difference between a safe,clean operation and a headache of wasted product or workplace remediation.
Over time,we’ve refined our own routine to keep the product as fresh and manageable as possible. We run our main line at barium chloride dihydrate greater than 99% purity and ship in low-moisture bags with inner liners. For customers shipping across borders or running large,open-air facilities,this packaging holds up to long transits and doesn’t saturate from ambient humidity. For customers handling dusty powders on smaller scales or in dry facilities like pigment laboratories,the anhydrous grade in sealed,high-barrier drums makes more sense. The reduction in caking and the practical ease of tool-aided dosing show up in day-to-day performance—not just on paper specs.
Users ask about shelf life,and we stand behind our experience:kept dry and sealed,barium chloride holds up for years with no drop in outcome. Quickly closing containers after dosing,pairing with silica gel bags,and storing away from aggressive solvents or acids prevents surface moisture pickup that can degrade appearance or flow.
Barium ions deserve respect. While barium sulfate,generated in close-loop systems,sits safely insoluble and won’t leach into effluent streams,handling and disposal require thoughtful process design. Local and international regulators track barium emissions,and we invest in routine analysis to prove batch compliance. Every outbound lot ships with documentation supporting its consistency,from heavy-metal screening to moisture picks.
Our routine involves strict attention to batchwise traceability,letting downstream users answer boilerplate audit queries about source and composition. Lawmakers and environmental consultants occasionally revisit threshold levels for barium compounds in water,soil,and air. The solution isn’t just compliance—producing product that meets the tighter of either local or export destination standards saves everyone the trouble of last-minute reformulation. Over the past five years,heightened global concern around industrial effluent puts more weight on accurate labeling and verified test results.
Responsible sourcing means more than passing tests:we work closely with logistics chains and storage sites to reroute or quarantine suspect batches. On-site plant visits allow us to understand exact dosing points or process steps,alerting customers quickly if any change could affect their operation. Barium chloride is not a commodity salt—it’s a specialty compound that demands a full-circle commitment from mine to final application.
Many customers know their own safety protocols,but we still see surprises in new projects or where staff turnover runs high. Barium chloride’s toxicity means handling protocols matter as much as reagent quality. In practice,that means gloves,dust masks,and tight containers in poorly ventilated areas. We provide technical guides and run on-site demonstrations for new clients,making sure plant operators can safely translate lab procedures up to larger tanks and batch lines.
One of the points that shows up every year involves emergency response:should an accidental spill occur,flooding the area with water and neutralizing residual salt with magnesium or sulfate-based compounds prevents unwanted barium uptake. These steps aren’t theoretical. They show up any time maintenance teams handle broken bags or malfunctioning dosing pumps. Our experience tells us the value of drill runs and safety checklists before production ramps up.
We’re not alone in this. Industry-wide,a shift toward better automation and tighter PPE standards keeps accidental exposure rates low. Our own incident logs reflect the payoff;most issues now come down to packaging tears or tool malfunction,not mishandling or knowledge gaps. Continual review with plant management teams locks in these improvements and ensures barium chloride does its job with no unwelcome side effects.
Older reference books may pigeonhole barium chloride as a sideline reagent. In practice,industrial demand holds steady—if anything,the spread of desalination plants,push for higher water quality standards,and greater uptake of renewable energy storage (often dependent on high-purity brines) all push for more rigorous reagents.
On our own production floor,we saw demand swirl highest during sectoral upgrades—older water plants modernizing dosing equipment,caustic soda sites moving from batch to continuous processes,or paper makers redesigning filler systems for lighter,smoother grades. These cycles repeat as downstream industries respond to regulation or costs. The common thread stays the same:trusted output,batch by batch,and the willingness to tweak details as uses for barium chloride evolve.
We’ve also watched competition from alternative sulfate-removal chemicals ebb and flow. Lower costs may draw customers to generic calcium reagents,but user reports repeatedly circle back to process stability,minimal sludge volumes,and predictability. In this tradeoff,barium chloride regularly holds its ground—not because it’s flashier or trendy,but as the time-tested backbone that allows transfer lines,reactors,and separators to keep running cleanly.
Maintaining reliable barium chloride isn’t a matter of legacy recipes. The raw material,barium sulfide,comes from barite ore,and suppliers’ shifts affect the entire production line. Over the years,we’ve dealt with barite deposits rich in natural calcium,iron,or even trace heavy metals,each of which brings its own set of problems. Long before a batch reaches drying and crystallization,recursive purifying steps strip out the troublemakers.
Washing stages need just the right temperature and filtration timing. If you cut back on washing to save time,you risk letting colored byproducts sneak through—which some customers will spot at the trace level. On a good day,our continuous batch reactors hit targets within a few tenths of a percent. On a bad day,process upsets show up as a powder with yellowish,off-white tinge or as clumpy flakes instead of dry,free-flowing crystals. Every one of those issues ties back to decisions made by operators who know the process inside and out.
Packaging and transit introduce a new set of hurdles. Moisture,heat,and jostling alter properties,especially for the anhydrous variety. Repetitive feedback and revision to liner materials or humidity monitoring led to improved shelf stability and lower product loss—hard-won lessons that didn’t come from datasheets,but field returns and frustrated clients demanding answers.
Feedback loops run strong in this business. End-users phone in about appearance,clumping,or residue—flagging quality shifts that even our own lab tests sometimes miss. We take those calls seriously. They prompt in-plant audits and,if needed,complete reformulation of a batch or shipping practice. Any supplier that ignores these details quickly falls to the back of the client rotation,and it keeps every manager in our plant hungry to anticipate needs instead of trailing behind complaints.
We don’t chase commodity pricing wars. Instead,our team aims to add value by holding tight to quality and consistency. One way we deliver this:offering small-batch run options for niche applications—whether that means oversized crystals for automated feed systems or ultra-fine powders for rapid lab titrations.
Our technical support doesn’t stop at shipment. We field calls about dosing optimization,sludge disposal,and process troubleshooting,knowing that the success of each ton leaves a mark well beyond the dock’s edge. As industries raise the bar on output quality and environmental compliance,we’ve moved ahead with regular staff training,tighter process controls,and closer supplier relationships.
Our endgame is simple:deliver a product that operates as expected every time,shortens start-up times for new systems,and sidesteps the avoidable drama of out-of-spec chemistries. This means combining years of practical,plant-floor know-how with the push for cleaner,safer,and more traceable chemical supply.
As a chemical manufacturer,we’ve watched barium chloride earn its keep on production floors,in storage tanks,and across countless segments of industry. Each order reflects more than just molecular weight and specs. Behind every drum or bag sits the sum of years spent refining process controls,improving impurity management,and chasing reliable packaging.
Process operators,water treatment engineers,and paper specialists don’t buy barium chloride for its name. They return for the role it plays in their daily performance—troubleshooting less,predicting outcomes better,and meeting ever-tighter environmental rules. The day-to-day realities of handling,dissolving,and reacting with barium chloride feed into broader stories of industrial reliability and progress.
There’s a reason this compound continues to earn a place on factory order sheets. It solves more problems than it creates,and those solutions stem from generations of adjustment,feedback,and real-world learning across both sides of the supply chain.