|
HS Code |
548516 |
| Appearance | Clear to pale yellow liquid |
| Chemical Type | Barium-Zinc organic compound mixture |
| Specific Gravity | 0.95 - 1.10 g/cm3 |
| Barium Content | 2% - 5% |
| Zinc Content | 1% - 3% |
| Moisture Content | Max 0.5% |
| Solubility | Insoluble in water, soluble in most organic solvents |
| Application | Used as a heat stabilizer in PVC processing |
| Recommended Dosage | 2 - 4 phr (parts per hundred resin) |
| Ph Value | 6.5 - 8.5 |
| Thermal Stability | Effective up to 200°C |
| Packaging | Plastic drums or iron drums, 200 kg per drum |
| Storage Conditions | Store in cool, dry, ventilated area |
| Toxicity | Low toxicity, but handle with care |
| Compatibility | Compatible with most plasticizers |
As an accredited PVC Liquid Barium-Zinc Composite Stabilizer factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The PVC Liquid Barium-Zinc Composite Stabilizer is packaged in 200 kg net weight blue plastic drums with secure, leak-proof lids. |
| Shipping | PVC Liquid Barium-Zinc Composite Stabilizer is shipped in sealed, high-density polyethylene drums or intermediate bulk containers (IBCs) to prevent leaks and contamination. The product should be stored in a cool, dry, well-ventilated area, protected from direct sunlight and moisture. Handle with care and comply with relevant regulations for transport of chemical goods. |
| Storage | PVC Liquid Barium-Zinc Composite Stabilizer should be stored in tightly sealed containers, away from direct sunlight and moisture. It should be kept in a cool, well-ventilated area, away from heat sources and incompatible materials such as strong acids and oxidizing agents. Proper labeling and secondary containment are recommended to prevent spills and ensure safe handling. |
|
Purity 99%: PVC Liquid Barium-Zinc Composite Stabilizer with a purity of 99% is used in high-transparency PVC film manufacturing, where it ensures optical clarity and minimizes impurities. Viscosity Grade 2000 mPa·s: PVC Liquid Barium-Zinc Composite Stabilizer (viscosity grade 2000 mPa·s) is used in flexible PVC cable insulation, where it provides consistent flow properties and smooth surface finish. Thermal Stability 180°C: PVC Liquid Barium-Zinc Composite Stabilizer with thermal stability of 180°C is used in rigid PVC profiles extrusion, where it prevents thermal degradation and maintains mechanical properties. Barium Content 6%: PVC Liquid Barium-Zinc Composite Stabilizer containing 6% barium is used in PVC artificial leather production, where it enhances heat and light aging resistance. Zinc Content 2%: PVC Liquid Barium-Zinc Composite Stabilizer with 2% zinc content is used in PVC garden hose manufacturing, where it promotes color retention and long-term flexibility. Moisture Content ≤ 0.2%: PVC Liquid Barium-Zinc Composite Stabilizer with moisture content ≤ 0.2% is used in transparent PVC sheet extrusion, where it prevents hazing and water-induced degradation. Initial Color Value (Gardner ≤ 1): PVC Liquid Barium-Zinc Composite Stabilizer with initial color value Gardner ≤ 1 is used in clear PVC packaging films, where it guarantees superior initial appearance and minimizes yellowing. Plasticizer Compatibility 100%: PVC Liquid Barium-Zinc Composite Stabilizer with 100% plasticizer compatibility is used in soft PVC toy manufacturing, where it ensures uniform dispersion and eliminates migration. Specific Gravity 1.08 g/cm³: PVC Liquid Barium-Zinc Composite Stabilizer with specific gravity 1.08 g/cm³ is used in calendared PVC flooring, where it provides excellent leveling and process stability. Ash Content ≤ 0.5%: PVC Liquid Barium-Zinc Composite Stabilizer with ash content ≤ 0.5% is used in PVC medical tubing, where it maintains high purity and minimizes contaminant risk. |
Competitive PVC Liquid Barium-Zinc Composite Stabilizer prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Manufacturing PVC products isn’t just about chemistry on paper. Every batch runs through the realities of our blending tanks, the feedback loop of extruders, and the evolving concerns heard from our customers in wire, cable, and calendaring lines. Among all the stabilizer options, the Liquid Barium-Zinc Composite Stabilizer defines a practical balance. This blend stands out, not only for its environmental step-up compared to lead systems, but for the operational latitude it offers in a factory setting. Engineers fighting black specks in extrusion or instability in calendared sheets see immediate gains in finish and performance. Simple batch changes can put that to the test the same week. This stabilizer combination reflects decades of hands-on problem solving, not just research isolated in a laboratory.
Our model range covers a series of fine-tuned blends, earmarked by varying ratios of barium and zinc, tailored through countless production trials. Viscosity, density, and barium/zinc content shift based on the usage environment and PVC type. Liquid grades flow freely and mix instantly into PVC plastisol, keeping compounding consistent even at high speeds. Unlike powders, cleanup after changeovers moves faster, minimizing downtime. Our liquid system slips easily into existing setups, whether batch or continuous mixers, which cuts both energy and labor costs. Prices remain stable in the face of raw material swings because barium-zinc chemistry draws from a broader base of suppliers than older lead systems.
Years ago, most PVC stabilizers were lead-based, but tightening global standards rapidly changed the game. Liquid barium-zinc’s move away from lead toxicity opened export doors shut to traditional stabilizers. We watched regulatory deadlines march closer—from RoHS in Europe to restrictions on toys and food contact goods in Asia and the Americas—pushing us to innovate at the reactor, not just react on paper. Unlike single-metal calcium-zinc blends, barium-zinc brings heat resistance far beyond what’s possible with calcium alone. Pipes, wire insulation, conveyor belts that sit exposed to sunlight, or thermally demanding production rolls handled in one shift instead of three: that’s a real difference our users appreciate. Barium’s unique chemistry helps PVC sealing, clarity, and gloss hold up longer on flexible profiles and clear films. Zinc promotes early fusion and smooth melt—no dusty handprints after processing.
The days of white powder dust on every surface, sticky residue in screw barrels, and chalked-over die lips are numbered for customers who’ve switched to our composites. Workers comment on the ease of dosing—measuring out liquid by flowmeter or simple containers, pouring straight into mixers—compared to the lung-dusting drama of powders. They also talk about quicker cleanups. Less time spent unclogging screens or pushing through build-up means more machine uptime, which plant managers count straight to the bottom line. Line operators mention less odor: the barium-zinc stabilizer formulation contains fewer strong-smelling organics than some older mixes.
PVC processed for cables and wires deals with both heat and mechanical stress. The wrong stabilizer gives up under high drawdown or thermal cycling. We field-tested our barium-zinc stabilizer side-by-side with lead and calcium-zinc alternatives. In high-speed extrusion runs, our blends kept color drift and plate-out to a minimum. Cable manufacturers saw insulation keep tensile strength after six months of outdoor exposure. People involved in handling electrical tubing or flooring rolls commented on less discoloration after weather aging. Outdoor signs, rain gutter, pool liners—where flexible surfaces see daily assaults from sun, rain, and air pollution—showed less “yellowing” and cracking versus control lots. The feedback we get isn’t just in color readings, but in reorders and expanded production runs.
Many customers working in wire harnesses or medical tubing care deeply about transparency, flexibility, and the ability to add complex colorants. The barium-zinc system we produce does not react with most pigments or plasticizers, which means safer, brighter color in soft PVC products. Our regular technical support staff help customers push past scale-up lag when switching from older stabilizers to barium-zinc, especially for thin films and multilayer structures. We’ve seen extrusion lines increase output after upgrading because this stabilizer prevents early thermal breakdown, even with faster screw speeds. In production environments that fluctuate between humid or dry, or across seasons, our stabilizer keeps processing costs controlled and downgraded lots far lower than competitors using single-metal stabilizer plans.
Trust builds batch by batch, audit after audit. Health and environment authorities in Europe, North America, and much of East Asia approve barium-zinc liquid systems for general cable, film, and coated flooring without special authorizations. Plants using our formulation pass internal audits for food-packaging, toy, and medical products, provided accessory additives remain compliant. Unlike some calcium-zinc mixers prone to volatility, our blends run with low vapor release and no persistent ecological residues at end-of-life—making disposal safer across the chain. Workers report easier handling, as cleaning and maintenance cycles shrink, and supervisors record fewer air quality events during blender loading.
Stock managers and procurement teams notice the steadier supply line. Barium and zinc salts draw from multiple sources, insulating the supply chain from one-region instability. Powdered stabilizers need complex bagging, dust containment, and longer shelf-life testing. Liquids ship in drums, IBCs, or tankers, cutting onsite handling risk. Temperature swings rarely affect performance. As a result, cardboard drum and pallet waste drops by half, helping facilities shrink not just costs but their environmental footprint, which becomes more critical in competitive contract bidding. Warehousing tracks show reduced write-offs due to moisture uptake and caking, which is common with powder-based blends.
We spent time running joint trials with customers who demanded side-by-side testing, not just claims. Against first-generation liquid calcium-zinc stabilizers, the difference shows up in fewer surface defects and higher flow rates at comparable PVC levels. That means thinner insulation is possible at lower temperatures, stretching resin batches further, which speaks directly to operations teams’ cost concerns. Versus legacy lead systems, barium-zinc outpaces both health and export compliance without sacrificing heat stability. Customers moving from powder blends to our liquid see a bump in finished surface gloss and eliminate persistent die drool—something that leads to line downtime and wastage.
Importantly, the liquid system supports faster changeovers between product types because solubility in plastisol means less machine flush is needed between color or thickness grades—freeing up scheduling bottlenecks and making “just-in-time” production shifts realistic even in high-mix, low-volume environments.
Our history in chemical manufacturing predates the barium-zinc combination, and every new formula stands on the shoulders of mistakes fixed in older versions. The process team remembers chasing smoking extruders because other blends could not handle unusual resin grades. Now, with the right stabilizer choice, new PVC formulas for industrial blades, shower curtains, and geomembranes run with fewer reworks and scrap. Employees who spent careers in compounding lines still push incremental tweaks that matter: aiming for more consistent fusion time, quicker color changes, and more predictable gel times in finished vinyl goods.
Sometimes, the best improvements come from plant walkthroughs, not the office. One production manager noticed how much faster plasticized sheeting rolled out of the calender when the barium-zinc system was swapped in—it meant not just labor savings, but real safety improvements as staff spent less time near moving lines. In feedback calls, we hear not just numbers but pride in getting the mix right. Customers send samples of parts that survived five years in tropical rain or desert heat—real-world proof that the extra work pays off beyond the test bench.
Sustainability isn’t a buzzword for operators handling hundreds of tons of PVC monthly. Plant managers face rising water, power, and waste disposal costs, plus customer pressure to “go green.” Compared to lead stabilizers, the switch to barium-zinc chemistry cut wastewater toxicity and eased burdens for downstream collectors recycling scrap PVC. Fewer fines and easier permit renewals followed.
We keep working to cut the environmental burden. Liquid stabilizers don’t stick to floors and walls as powders do, which drives down airborne dust and both maintenance and environmental costs. Cleaning tanks, molds, and simple tools goes faster and uses less detergent. Since regulations tighten every year, we constantly reformulate to stay a step ahead—moving toward even lower barium grades or boosting the zinc component for products where ultra-low migration matters.
No stabilizer system cures every processing issue—but a liquid barium-zinc blend means fewer starting problems. Our technical staff troubleshoot on-site with handheld testers, not just lab reports. If a customer sees yellowing, plate-out, sticking molds, or poor fusion, we send a team to the plant floor to investigate resin and stabilizer interaction in real time. Blending barium and zinc lets us quickly adjust the ratio for unique needs—customers scaling up filled products or blending highly recycled feedstock get process-specific advice, not just canned answers. Each improvement ties back to tight feedback between our manufacturing floor and technical team.
Rather than adding “one size fits all” packages, we listen to wire-drawing, window-profile, and barrier-film producers and adjust formulation for conditions like local humidity, resin grade, or pigment load. A transparent process builds trust—sample result data, not just compliance certificates, back up performance claims.
PVC applications continue to change—with demand for lighter, thinner, and more recyclable goods. Making these products succeed depends on stabilizers that adapt quickly without expensive new machinery or major process changes. Liquid barium-zinc stabilizers carry a wide enough performance margin to handle difficult new PVC copolymers or innovative designs. Medical tubing with tighter extractable limits and automotive seals that must survive year-round temperature swings both require the flexibility this stabilizer delivers.
We anticipate supply pressures and regulatory hurdles ahead. By building relationships with upstream ingredient suppliers and watching the technical literature, we respond before major shifts arrive. Newer barium-zinc systems will feature even lower migration rates, improved pigment compatibility, and easier incorporation of bio-based or recycled content—future-proofing operations for customers global and local.
Manufacturing stabilizers isn’t just an exercise in chemical blending. Years of batch trials, customer site visits, troubleshooting, and real-time adaptation create a solution, not simply a raw material. The liquid barium-zinc composite stabilizer represents a generation-long investment in learning from actual production—thousands of lines, dozens of industries, and continuous tightening of both environmental and quality standards.
From the start, we built the liquid system for use in the same tough conditions where factory managers judge every part and process on reliability, cost, speed, and health. This stabilizer continually adapts—faster for new product launches, safer for modern compliance requirements, and prepared for the future of PVC manufacturing far beyond our own gates.