|
HS Code |
366763 |
| Type | Chlorinated Rubber Architectural Coating |
| Appearance | Glossy or semi-gloss finish |
| Color Options | Wide range of colors available |
| Binder | Chlorinated rubber resin |
| Solvent | Aromatic hydrocarbons or aliphatic solvents |
| Drying Time | Fast drying, typically touch dry within 30 minutes |
| Film Thickness | Generally 30-50 microns per coat |
| Adhesion | Excellent adhesion to various substrates |
| Weather Resistance | High resistance to weather and UV exposure |
| Chemical Resistance | Good resistance to acids, alkalis, and salt solutions |
| Water Resistance | Highly water resistant |
| Application Method | Brush, roller, or spray |
| Coverage | Approximately 10-12 square meters per liter |
As an accredited Chlorinated Rubber Architectural Coating factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Chlorinated Rubber Architectural Coating comes in a 20-liter metal drum, featuring clear labeling, usage instructions, and safety warnings. |
| Shipping | Chlorinated Rubber Architectural Coating should be shipped in tightly sealed, labeled containers to prevent leaks and contamination. Transport in accordance with local, state, and international regulations for hazardous materials. Store upright in a cool, dry, well-ventilated area away from heat, sparks, or open flames. Handle with appropriate protective equipment. |
| Storage | Chlorinated Rubber Architectural Coating should be stored in tightly sealed containers, away from heat sources, direct sunlight, and ignition points. Store in a cool, well-ventilated area to prevent vapor accumulation. Keep away from incompatible materials such as strong oxidizers. Ensure containers are clearly labeled and kept upright to avoid leakage. Always follow local regulations for safe chemical storage. |
|
Viscosity Grade: Chlorinated Rubber Architectural Coating with a viscosity grade of 60 KU is used in exterior masonry walls, where it ensures uniform film thickness and optimal surface coverage. Solids Content: Chlorinated Rubber Architectural Coating with 45% solids content is used in parking garages, where it delivers enhanced abrasion resistance and long-lasting protection. VOC Level: Chlorinated Rubber Architectural Coating with a VOC level below 250 g/L is used in public interior spaces, where it minimizes environmental impact and meets regulatory compliance. Film Thickness: Chlorinated Rubber Architectural Coating applied at 80 microns DFT is used in commercial corridors, where it achieves robust chemical resistance and easy cleanability. Drying Time: Chlorinated Rubber Architectural Coating with a drying time of 30 minutes is used in high-traffic stairwells, where it allows for faster project turnaround and reduced downtime. Water Permeability: Chlorinated Rubber Architectural Coating with low water permeability is used in swimming pool enclosures, where it prevents water ingress and substrate degradation. Adhesion Strength: Chlorinated Rubber Architectural Coating with adhesion strength over 2.0 MPa is used in concrete floor applications, where it ensures long-term durability and cohesive bonding. Stability Temperature: Chlorinated Rubber Architectural Coating stable up to 80°C is used in boiler rooms, where it retains integrity under elevated thermal conditions. Chemical Resistance: Chlorinated Rubber Architectural Coating with high resistance to acids is used in laboratory walls, where it provides long-lasting defense against chemical spills. Gloss Level: Chlorinated Rubber Architectural Coating with a gloss level of 70 GU is used in service corridors, where it enhances aesthetic brightness and visibility. |
Competitive Chlorinated Rubber Architectural Coating 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 sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
For decades, our team has engineered and refined chlorinated rubber resin as a foundation for protective paint systems, not just because it’s durable, but because it works in real conditions. The chemistry here isn’t a passing trend or a marketing exercise. We produce Chlorinated Rubber Architectural Coating—model CR-105B—drawing on over twenty years of experience managing raw materials, batch control, and performance testing right after the last quality check. It’s a story of tough materials meeting tougher environments, providing reliable protection to surfaces architects and civil engineers trust.
Unlike resellers, our work begins well before the mixer switches on. We source specific chlorine content in the primary rubber, confirming purity against spectroscopic analysis at every delivery. Storage conditions, moisture control, and temperature monitoring all factor into keeping the resin stable before formulation. The blend matters—the wrong polymer chain length limits durability, and foreign matter ruins gloss. As a manufacturer, every batch receives hands-on testing: viscosity, adhesion, mechanical flexibility, and impact resistance. Without consistency here, architects and contractors risk hours wasted on rework when lesser coatings weaken or discolor from UV, moisture, or salt.
Many products claim “performance in all conditions” but few survive in real-world exposure. Our CR-105B system is built on a specific grade of chlorinated rubber, balanced with high-purity pigments and plasticizers right at the mixing stage. Chlorination boosts chemical resistance and UV stability. Unlike basic acrylics, our system forms an impermeable film over masonry, steel, or concrete—something that holds up against weather and harsh cleaning. Our laboratory tests scrutinize gloss retention after months of artificial aging and check color fastness using the Xenon arc apparatus. External inspectors often compare site samples against our control panels, and the difference stands out most over time.
Across coastal highways, waste treatment plants, and marine facilities, professionals pick chlorinated rubber coatings because rain, wind, and chemicals break down inferior technologies fast. Our manufacturing process incorporates solvent blends for quick recoat intervals, ensuring projects don’t sit idle. The film resists alkali attack from new concrete, blocks water ingress, and shrugs off stains that would freeze or corrode other paints—and this lets building owners avoid expensive callbacks. Several competitors promote “environmentally friendly solutions” but don’t disclose they usually trade off long-term durability or ease of repair for marketing claims.
We get a lot of questions about how this coating stacks up against acrylic latex, polyurethane, or epoxy paints. With acrylics, issues often start around year three: chalking, flaking, and uneven fading, especially in direct sun or industrial fumes. Epoxies feel tough but struggle with UV exposure; roofs and outdoor walls fade patchily and eventually need stripping. Polyurethanes deliver top performance but at a price that doesn’t fit every budget or every large-scale restoration plan. Chlorinated rubber operates in a sweet spot—it bridges performance with value, offering reliable gloss retention and flexible repair options year after year.
The CR-105B formula cures at ambient temperatures without the need for heat, saving energy and reducing logistical complexity. It dries tack-free in under forty minutes at normal room humidity, and touch-up is as simple as wiping down the area and brushing a fresh layer. Even after repeated recoating, the surface keeps a smooth finish—maintaining appeal for property managers and municipalities under tightening maintenance budgets.
Manufacturing isn’t just about mixing powders and solvents. It’s about day-to-day quality. We keep our solids content at 48–52 percent by weight—enough for a solid film with each application, without burdening workers with sagging or cracking. The pigment volume concentration sits at a steady range to maximize opacity but avoid brittleness. Lab reports show a hardness of 2H on the pencil scale after a week’s cure, but with enough elasticity to withstand minor concrete movement or thermal expansion from steel substrates.
Typical DFT (dry film thickness) recommendations run from 50 to 75 microns per coat, which fits most architectural needs—single-story commercial buildings, metro stations, bridge columns. Professional crews usually finish in one or two coats, and large vertical surfaces don’t present the runs or roller marks associated with bargain acrylics. Custom tints and packaging sizes roll off our line weekly, but every batch meets the same standardized performance metrics set by our in-house lab.
We’ve seen a surge in interest about VOC emissions and occupational exposure when painting indoors or in semi-enclosed spaces. Our plant invested in fractional distillation to recover and reprocess solvents, reducing waste output below targets set five years ago. The CR-105B model contains lower aromatic content than many comparable systems, keeping workspaces safer for contractors and tenants. We also publish batch-by-batch emission data—not because regulators require it, but because transparency leads to trust.
Since the late 90s, feedback from field engineers and applicators has shaped every formulation tweak we make. One job in particular—an urban transit station exposed to de-icing salts and constant pedestrian traffic—highlighted how tiny adjustments to plasticizer ratios fend off discoloration and abrasion long after other coatings failed. On test sections, chalking was virtually eliminated even after multiple freeze/thaw cycles. This feedback loop, connecting site application to formulation scientists in our plant, ensures we react quickly to evolving customer requirements instead of pushing one-size-fits-all solutions.
On any project, several paint types get considered. Acrylic latex offers low odor and quick drying, suiting low-traffic, indoor spaces. Still, most architects find that in aggressive weather or polluted environments, latex washes out, develops patchy marks, or needs constant repainting. Alkyds bring some hardness but lack resistance to alkali and UV; over several years, their cost savings get eroded by repairs and touch-ups.
Epoxies attract attention for tanks and industrial floors but aren’t common in exterior architectural use due to brittleness and yellowing from sunlight. Polyurethanes sit at the premium end—long lasting, very resistant, but require strict surface prep and controlled application for best results. Chlorinated rubber offers a hybrid benefit. It matches or exceeds the strength and color retention of alkyds, outlasts acrylics in weather, and offers a much lower learning curve for contractors versus epoxies or two-component polyurethanes.
A huge part of the story comes down to day-to-day ease for painters and maintenance crews. CR-105B covers in fewer coats than most latex alternatives. Application by brush, roller, or airless sprayer all give consistent coverage, even on rough or uneven substrate. We work with customers on everything from graffiti-prone underpasses—where quick recoating keeps sites clean—to high-rise facades, where crews benefit from a forgiving, sag-resistant formulation. Onsite inspectors appreciate defined recoat windows, which means fewer delays between priming, layering, and final topcoat design.
Down the road, maintenance teams favor chlorinated rubber for its repairability. Unlike some modern coatings that require full removal to fix a defect, a well-prepared surface lets you patch and blend seamlessly, even years after the first application. For building managers, this means budgets stretch further and unsightly patchwork rarely appears.
Regulatory landscapes continue evolving, and so do owner expectations. We submit all batches for lead and heavy metal screening using ICP-MS (Inductively Coupled Plasma Mass Spectrometry), maintaining far stricter thresholds than local environmental codes. Safer, cleaner ingredients should be the rule, not the exception. Our product safety sheets detail both occupational handling and long-term environmental considerations; most resellers simply pass these documents from upstream manufacturers, but we generate them in-house with data specific to each batch.
Our coatings often pass the most severe accelerated weathering tests run by third-party labs—EMMAQUA and QUV in particular—with gloss readings and adhesion values holding well above minimums required by most project specifications. Fire testing, another hot topic, places CR-105B in a moderate combustibility class. On properly primed masonry or concrete, the finished film contributes minimally to overall fire load, providing an added reassurance for public spaces or residential projects.
We consider it our job to support every can, drum, or bulk tank after manufacturing and shipment. Technical advisors routinely help specifiers match the coating to new substrates or tackle surface prep challenges—from efflorescent concrete at new stadiums to galvanized steel fencing at parks. Customer feedback loops feed into our QA process, so when end users flag handling quirks, our chemists respond rather than dismiss.
Occasionally contractors attempt to thin or mix incompatible additives into the product to accelerate drying or change the gloss. Our team addresses what actually happens—film integrity suffers, adhesion drops, and future touch-ups struggle to bond. We focus our support on best practices for surface cleaning, optimal application temperature ranges, and avoiding shortcuts during surface prep. Good coating always starts with preparation; any veteran painter knows the number one reason for failures is skipping steps, not ingredient flaws.
Customers ask how chlorinated rubber fits tomorrow’s standards as environmental rules tighten. Research efforts focus on lowering solvent content without sacrificing film strength or chemical resistance. Early trials involve structured co-polymers and new plasticizers from bio-sources, but nothing leaves the factory until it passes long-term durability screening alongside legacy formulas. Our team believes evolution shouldn’t come at the cost of reliability—so advances in consistency, coverage, and easier cleanup are introduced batch by batch, not as sweeping untested changes.
Outside the lab, we collaborate with architects and urban planners, sharing lessons from failed coatings and successful projects. Both small community centers and large civil infrastructure works rely on tight budgets and little room for error. Our engineers track which project types see the lowest cost of ownership and use these insights to guide refinements on the production line. A customer managing a hospital with rapid cycle maintenance may require faster drying, while a historical preservation site cares more about long-term color fidelity and reversible restoration.
Direct feedback from project sites often teaches us more than any accelerated laboratory test. On a stadium façade in a coastal city, we monitored panels exposed to brine and heavy atmospheric moisture—year after year, the top competitors struggled with blistering beneath the finish, while CR-105B kept its adhesion even as the underlying cement layer expanded and contracted. In another example, city engineers managing tunnels saw vast differences in graffiti removal: the smooth, chlorinated rubber surface allowed solvents and pressure washing to lift marks without roughening the underlying paint, extending aesthetics and resistance between scheduled repaints.
Where other coatings suffer under repeated abuse, ours delivers an easy path for repair and restoration. Not every job site is predictable; bridges suffer from snow, traffic, and bird droppings. Cleanability and patchability mean a product isn't just tough the day it goes on—it keeps offering value years down the line.
Real success depends on aligning product specification with job requirements. Our technical support spends hours breaking down surface preparation needs, suitable application environments, and cure schedules for each site plan. Contractors and architects benefit from knowing not only that a product performs, but how it behaves across dozens of specific contexts: new construction, major restoration, fast-turnaround public works, and high-value properties aiming for low disruption.
Mistakes typically come from guesswork—crew unfamiliar with the product, or oversights about site conditions like unexpected rainfall, unfamiliar substrates, or improper cleaning. Rigorous, honest communication on these fronts keeps failures rare. Our laboratory runs mock-ups using actual substrate samples supplied by customers before a large-scale rollout, confirming bond strength, gloss, and color accuracy under identical environmental stress as the final installation.
Our pride comes not from just producing barrels of coating, but from seeing our materials lasting on buildings people use every day: government offices, hospitals, schools, and infrastructure that carry daily commutes. Factory floor workers, chemists, quality managers, and customer support staff all play a part in ensuring each batch lives up to the promises made. Decisions never come from spreadsheets or boardrooms out of touch with the challenges at hand.
Our line workers pay close attention to detail: weighing pigments, monitoring blend times, checking for contaminants, and logging every production anomaly. This vigilance minimizes human error and ensures that the same trappings of modern coatings—consistent gloss, strong adhesion, reliable drying times—aren’t just marketing claims but lived realities. The technical team refines every formulation based on this continuous stream of practical feedback, creating a virtuous cycle between the people who build and those who use our product.
Chlorinated Rubber Architectural Coating isn’t a new idea, but in our hands, it’s continually refined for today’s changing environments. CR-105B delivers a balance of immediate workability and long-run protection for professionals who have seen coatings come and go. Above all, our factory-direct approach—the research, the meticulous ingredient sourcing, ongoing field testing, and quick adaptation to unique project demands—sets a higher standard. For every drum that leaves our yard, we know it earned its badge not just in a lab beaker, but on the real job sites that shape our built environment.