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HS Code |
363823 |
| Product Name | HYR-2180 Waterborne Polyurethane Resin |
| Appearance | Milky white or slightly bluish translucent liquid |
| Solid Content | 35 ± 1% |
| Ph Value | 7.0 - 9.0 |
| Viscosity 25c | ≤1000 mPa.s |
| Ionic Type | Anionic |
| Emulsifier Type | Non-ionic/Anionic |
| Particle Size | ≤0.1 μm |
| Elongation At Break | 800 - 1200% |
| Tensile Strength | 10 - 20 MPa |
| Hardness | 80 ± 5 Shore A |
| Film Formation Temperature | ≥0°C |
| Storage Stability | 6 months at 5-35°C |
As an accredited HYR-2180 Waterborne Polyurethane Resin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | HYR-2180 Waterborne Polyurethane Resin is packaged in a 200 kg blue plastic drum, featuring secure sealing and clear labeling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for HYR-2180 Waterborne Polyurethane Resin: 16,000kg packed in 160 drums, 200kg net weight each. |
| Shipping | HYR-2180 Waterborne Polyurethane Resin is shipped in sealed, corrosion-resistant plastic drums or intermediate bulk containers (IBCs). The containers must be stored upright in a cool, dry, and well-ventilated area, avoiding direct sunlight and freezing. Standard shipment sizes and UN-compliant labeling ensure safe transportation in accordance with international chemical transport regulations. |
| Storage | HYR-2180 Waterborne Polyurethane Resin should be stored in tightly sealed containers, away from direct sunlight, frost, and heat sources. Maintain storage temperatures between 5°C and 35°C. Ensure good ventilation in the storage area and avoid contamination by incompatible substances. For optimal performance, use within six months of production and always mix thoroughly before use. |
| Shelf Life | HYR-2180 Waterborne Polyurethane Resin has a shelf life of 12 months when stored in a sealed container at 5–35°C. |
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Purity 99%: HYR-2180 Waterborne Polyurethane Resin with purity 99% is used in high-performance wood coatings, where outstanding film clarity and substrate adhesion are achieved. Viscosity 1200 mPa·s: HYR-2180 Waterborne Polyurethane Resin at viscosity 1200 mPa·s is used in textile finishing applications, where enhanced leveling and fabric flexibility result. Molecular Weight 50,000 g/mol: HYR-2180 Waterborne Polyurethane Resin with molecular weight 50,000 g/mol is used in automotive interior coatings, where durable abrasion resistance and long-term elasticity are provided. Particle Size <100 nm: HYR-2180 Waterborne Polyurethane Resin with a particle size less than 100 nm is used in leather finishing, where uniform surface smoothness and gloss are delivered. pH 7.5: HYR-2180 Waterborne Polyurethane Resin at pH 7.5 is used in clear protective varnishes, where neutral pH ensures substrate protection with no yellowing. Stability Temperature 60°C: HYR-2180 Waterborne Polyurethane Resin with stability temperature up to 60°C is used in heat-cured primers, where consistent film properties under thermal stress are maintained. Solid Content 35%: HYR-2180 Waterborne Polyurethane Resin with solid content of 35% is used in industrial floor coatings, where optimal coverage and mechanical strength are achieved. Elongation at Break 500%: HYR-2180 Waterborne Polyurethane Resin with elongation at break of 500% is used in flexible adhesive formulations, where high extensibility and crack resistance result. Tensile Strength 15 MPa: HYR-2180 Waterborne Polyurethane Resin with tensile strength of 15 MPa is used in packaging films, where superior load-bearing capacity and puncture resistance are realized. |
Competitive HYR-2180 Waterborne Polyurethane Resin prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615651039172 or mail to sales9@bouling-chem.com.
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Producing HYR-2180 Waterborne Polyurethane Resin reflects years of learning, lab testing, and feedback from the field. Our team spends full days onsite, working through the practical hurdles of scale-up and real-world mixing. Each new run brings tiny adjustments. Adjusting the particle size and fine-tuning the solid content made a real impact on application performance, and these changes came only after practical trials on production lines. The outcome grew from the questions and challenges raw material suppliers brought us — the same challenges we see through the lens of a manufacturer who tracks every drum and batch.
HYR-2180 builds on experience supplying high-performance film formers to coatings, adhesives, and textiles. This resin steps beyond traditional waterborne polyurethanes in its alkali resistance, adhesion on tough substrates, and clarity once dried. Our engineers dialed in the resin’s molecular weight and crosslink density to meet the specific requests of topcoat and primer manufacturers who saw failures from lesser chemistries. Every aspect, from emulsion stability to flow characteristics, lands directly in line with production feedback, not just bench-top results.
Unlike standard acrylic-polyurethane blends, HYR-2180 gives strong flexibility without chalking or blocking, even when film thickness varies. In applications like synthetic leather transfer coatings or clear wood sealants, this product leaves a flexible yet robust film that holds up under repeated bending and humidity swings. Many customers switching from standard resins notice the faster tack development and lower VOC content, letting their end-products move through the curing ovens quicker, which improves daily throughput.
HYR-2180 usually targets a solid content between 35% and 38%, balancing handling ease with performance. Our team intentionally keeps the resin’s viscosity in a mid-range—not so thick it creates blockages, but not overly thin so it dries unevenly. Lab data means nothing if plant workers struggle to pump or spray the emulsion. Continuous refinement—driven by maintenance teams and on-the-floor applicators—keeps this resin in the practical sweet spot for film application.
Our in-house quality team tracks pH shifts, minimum film formation temperatures, and water resistance batch by batch—not just once a quarter. This hands-on quality model prevents surprises on high-speed coaters or sprayers. It is one thing to meet a number on a spec sheet; it’s another to withstand real-life production upsets, like line stops or abrupt humidity changes. HYR-2180 regularly powers through these, backed by service calls and fast on-site technical support when a parameter drifts. Our manufacturing team takes pride in the countless real-world runs that shaped every decimal point in the product’s specification.
Across coatings and adhesives, plant managers report that HYR-2180 reduces downtime linked to equipment clean-up. Operators see less buildup in the lines and fewer dried lumps in pump heads, saving hours over a month. In adhesive applications, lamination specialists like the open time window that HYR-2180 offers—long enough for repositioning but still curing appropriately. This flexibility cuts the risk of waste and mismatches during line stops.
On coated textiles, buyers comment on the soft hand and resistance to scratching after long storage or shipping. Wood finishers and cabinetmakers tell us that water spotting from day-to-day spills lifts cleanly, without clouding or pitting—the result of countless small tweaks to the resin backbone and emulsion stabilizer. As concerns around emissions and workplace safety mount, switching to waterborne HYR-2180 delivers quantifiable reductions in VOCs. That means a real shift in air quality in production rooms and simpler permitting on new lines.
Some customers bring up the compatibility of HYR-2180 with other water-based additives, pigments, or matting agents. After years experimenting in our technical service lab, we see that this resin disperses solid pigments evenly and holds tint strength, even after extended storage. The underlying chemistry keeps the product from homopolymerizing under high-shear settings, an issue that creates wasted material and line downtime with many conventional resins.
We draw lessons from every run. Production engineers in our facility compare HYR-2180 with earlier generations of waterborne polyurethane resins and direct feedback from users switching over from solvent-based systems. Outside panels—factory technicians, not just application scientists—advise us during pilot trials. Their focus on clean-up time, equipment wear, and mixing compatibility shaped several process changes in HYR-2180 long before we approved wide release.
In high-volume operations, our partners prefer the resin’s fast wetting and leveling. It cuts the need to keep the substrate perfectly primed or sanded. We have documented improved intercoat adhesion—especially on composite panels and synthetic substrates—where legacy resins fell short. Services visits to plants in humid regions taught us to prioritize microbial resistance in the formula. Outbreaks of microbial growth in waterborne batches can cripple productivity and force emergency clean-outs, so we built in targeted biocide packages tested through humid summer seasons.
For UV-resistant coatings, HYR-2180 remains stable under sunlight exposure without yellowing or losing flexibility. Automotive detailing lines using this resin report less haze and greater resistance to scuffing, which has measurable value when vehicles pass final inspection. End-users appreciate the improved clarity and gloss retention, even with bold or deep-tone dyes.
The biggest challenge users raise involves compatibility—especially when blending with existing acrylics, thickeners, or nonionic surfactants. Over the past year, we dedicated dozens of pilot runs to identifying the points where batch separation or foam formation becomes most likely. Adjusting surfactant ratios and reactor temperature profiles finally brought the consistency that helped master these compatibility issues, and we continue to gather user data every quarter to spot new trends.
Another recurring request: lowering the minimum film formation temperature (MFFT) so that coaters working in unheated spaces or during colder weather do not face cracking or dusting. Through reformulation, we brought HYR-2180’s MFFT down several degrees, keeping flexibility and strength intact. For manufacturers in Northern regions, this opens up more days in the year for waterborne application when air temps drop.
Static electricity buildup during high-speed coating and roll application raised issues with dust attraction and uneven films. We started to address this not just with chemistry in the resin itself, but through in-plant adjustments—simple changes to grounding practices, humidity control, and fluid handling technique. Success in the field never comes from chemistry alone; it’s the total package of resin, advice, and service that reduces line stops and troubleshooting headaches.
We think a good waterborne polyurethane resin should behave predictably, wherever it runs. HYR-2180 shows its value on lines that pivot to different substrates or swap in new finishing additives, and our team works closely with operators to set up new product runs. Bridging the gap between formulation and real output, we use a lot of what operators and maintenance crews share—trouble tickets, photos of off-spec finish, even casual floor feedback on pouring or agitation—to make targeted improvements.
We do not see HYR-2180 as a static product. The line can evolve with upcoming regulatory changes or raw material trends. PFAS and other emerging restrictions push daily decisions in sourcing, blending, and waste handling. Our in-house technical group constantly rewrites procedures to phase out flagged substances, and we respond directly to site audits by brand owners or regulatory teams. Transparency builds trust—so we offer open traceability, batch-level data, and documentation on all major component changes.
HYR-2180’s environmental footprint matters. The production process minimizes energy and water usage, and we have recycled off-spec batches back into the process stream rather than sending them to incineration or landfill. Feedback from European partners highlighted supply chain reporting; because of that, we designed reporting systems that make emissions and waste output easy to trace for downstream users.
Nobody understands the impact of downtime better than a manufacturer. We have built a technical support crew who follow the real flow of problems as they happen—not just by phone, but through line visits, operator training, and maintenance workshops. They know that bottlenecks can kill a whole week’s margin. Quick troubleshooting and knowing the likely source of issues with foaming, skinning, or settling makes the difference.
Our field teams update training materials at least twice a year, usually sparked by customer tips or complaints. One plant’s discovery—a specific agitator shear speed that stops microfoam—spread overnight through our user base. Bringing these fixes into product bulletins or user meetings avoids repeated mistakes and helps new customers get up to speed faster. This is why most of our commercial partners don’t just buy resin; they count on us to be directly reachable for answers that make a difference in the trenches.
Technically, the world of waterborne polyurethane resins is loaded with tiny trade-offs: one resin delivers toughness, another gives better clarity, and a third offers low temperature flexibility. HYR-2180 comes from years practicing in each of these areas and weighing their tradeoffs based on operator results, not just academic theory. For instance, we watched end-of-line coatings with other resins block or stick in hot, stacked storage; we modified film formation to counteract that. Other resins left chalky buildup around masking tapes after curing; our team increased anti-blocking and tested side-by-side on the runout lines at partner facilities.
In adhesive settings, some resins break down when exposed to repeated flex, or they crosslink too quickly, leaving insufficient open time. HYR-2180 holds open time without losing final peel strength, which is hard to tune but critical for industries juggling fast turnarounds and high-yield targets. We learned from early issues with pigment flocculation—some resins drop out solid fillers in weeks or months—and increased emulsion stability with better dispersants.
Environmental and health considerations continue to drive shifts toward strictly water-based chemistries. Older solventborne urethanes still deliver certain performance benefits, but users increasingly need to balance production targets against workplace air quality and regulatory migration. HYR-2180 meets these needs directly, providing the real reduction in emissions and worker exposure benchmarked against legacy products. The field data—less absenteeism in spray shops, reduced filter changes in HVAC equipment, easier effluent treatment—backs up what the spec sheets suggest.
In every plant, equipment, and workflow, the difference comes through in the day-to-day: shorter downtime, fewer blocked nozzles or filters, and wide latitude for tuning viscosity or open time. Many users mention that, where older resins forced exacting temperature or humidity control, HYR-2180 allows a broader process window. The resin plays well with typical additives, thinning agents, and stabilizers, which saves time on qualification and scale-up.
Development never happens in isolation. We take part in regular working groups across the coatings and chemical manufacturing industries, sharing incident reports and best practices as regulations shift. From firsthand operator experience to field trials, we try to keep HYR-2180 at the front curve—testing new mixers, monitoring for unknown side reactions, and troubleshooting in plants, not just labs. Every plant visit brings unique challenges, but this ongoing cycle of feedback and adaption improves the product each year.
In the past, raw material shortages forced supply chain reroutes, and we had to tweak formulations under real stress. We learned the importance of secondary sourcing, accurate change control, and complete transparency with our commercial partners; these are crucial lessons not found in any textbook. We bake them into the HYR-2180 roadmap moving forward, aiming to avoid surprises and build frictionless transitions between raw materials.
We remember each product run and the operators who push new ideas—sometimes out of necessity, sometimes curiosity. Their creative solutions shape how we think about scale, formulation tolerances, and packaging. For big production lines or custom-built batch plants, every tweak carries weight. Constant listening on our side pays back in fewer problems and higher end-user trust.
Environmental and social accountability has become more than a matter of marketing; it’s baked into every decision we make. Our internal audits review water usage, waste output, and batch-to-batch energy needs for HYR-2180, not just as compliance checkboxes but as ongoing improvement opportunities. Brand owners now demand verifiable reports on product sourcing, carbon intensity, and recyclability, so our process and documentation reflect this rigor.
We run full compliance checks with every new ingredient. Emerging regulatory targets—like phasing out certain plasticizers or dye carriers—require swift product changes, sometimes overnight. In the last two years, our technical service and compliance teams have tracked at least a dozen regulatory or customer-driven shifts, and each one pushed product improvements without skipping a beat for batch quality or field performance.
For HYR-2180, the path to improved sustainability came through process tweaks—closed-loop water systems, captured emissions for solvent recovery, and minimized off-spec rework. We document each improvement in rolling product files, creating a living record to share with auditors and customers. Down the line, direct users benefit from easier waste management and simpler compliance when using HYR-2180 versus older solventborne systems.
With HYR-2180, the product’s future follows the industry’s. New architectural, automotive, and electronic applications bring new demands. Our customers’ reality—higher automation, tighter tolerances, shorter lead times—keeps us focused on how HYR-2180 performs when pushed to its limits. Next-generation pigment dispersions, ultra-low emission requirements, and tighter mixing process windows all shape our innovation pipeline. Each year, we analyze dozens of plant reports and field test summaries, constantly pushing for safer, stronger, and more flexible resins.
We expect upcoming regulations to further tighten the standards on VOCs, chemical safety, and workplace exposure. Our R&D team invests in long-term studies of ingredient migration, environmental persistence, and even microplastic prevention. HYR-2180 will keep evolving as more partners push for cleaner, safer, and easier-to-use resins. Our future plans include measuring not just lab performance, but full lifecycle impacts from production to disposal or recycling—a framework that benefits every plant and end-user down the chain.
Every drum and tote of HYR-2180 comes from our own lines. We live with the daily work of keeping batches consistent and addressing every hiccup directly—without passing the risk to traders or distributors. What sets our process apart is that we rely more on real-world insight than on any sales pitch. We send our team to the floor, ask tough questions about defects or hiccups, and do everything possible to make sure each batch works the way users expect, every day.
HYR-2180 is more than a chemical—it’s a product shaped by people who work with their hands and pay attention to what really holds up in production. We wake up each morning aiming to improve every run, learn from every floor problem, and deliver resin that keeps lines moving and users satisfied.