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HS Code |
881535 |
| Chemical Name | 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol |
| Molecular Formula | C26H35NOS |
| Molecular Weight | 409.63 g/mol |
| Appearance | Yellowish powder or solid |
| Melting Point | 61-64°C |
| Solubility | Insoluble in water; soluble in organic solvents |
| Cas Number | 3147-75-9 |
| Density | Approx. 1.06 g/cm³ |
| Storage Conditions | Store in a cool, dry place; keep container tightly closed |
| Usage | Ultraviolet light absorber (UV stabilizer) |
| Synonyms | UV-320, Benzotriazole UV absorber |
| Stability | Stable under recommended conditions |
As an accredited 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 25-gram amber glass bottle, sealed with a screw cap, and labeled with safety and product information. |
| Shipping | This chemical, **2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol**, is shipped in tightly sealed, chemical-resistant containers. It should be kept dry and protected from light during transit. The package is clearly labeled according to hazard regulations, and shipping is conducted via certified carriers specializing in chemical transportation, ensuring compliance with all relevant safety standards. |
| Storage | **Storage Description for 2-(2H-Benzothiazol-2-yl)-6-(dodecyl)-4-methylphenol:** Store in a tightly closed container in a cool, dry, and well-ventilated area, away from heat and direct sunlight. Keep separate from strong oxidizing agents and acids. Avoid exposure to moisture. Use appropriate personal protective equipment when handling, and ensure proper labeling of the storage container. |
Applications of 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol in Industrial ManufacturingAs an advanced manufacturer specializing in high-purity 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol, we actively support global downstream partners in demanding sectors requiring effective light stabilization and oxidation control. Below is a detailed breakdown of main application scenarios, each grounded in real-world industrial use cases. 1. Automotive Coating SystemsAutomotive manufacturers use this material as an ultraviolet light absorber in topcoat and clearcoat formulations to minimize photodegradation on painted surfaces. Its structural compatibility with acrylate and polyurethane matrices allows stable dispersion, directly supporting consistent surface gloss retention and prevention of discoloration under long-term exterior exposure. Our partners often adjust the inclusion rate depending on coating system thickness, pigment concentration, and targeted weathering performance as specified by end vehicle OEM standards. Industry compliance standards
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2. Synthetic Polymer Stabilization (Plastics Compounding)Compounders and masterbatch producers across polyolefin, polystyrene, and polyester applications add this compound as a light stabilizer to extend mechanical strength and color integrity in films, fibers, and molded goods. Its hydrophobic alkyl tail ensures compatibility with low-polarity polymer phases, thereby reducing volatility migration during extrusion or molding cycles. Processors rely on this additive for enhanced UV resistance particularly in outdoor or automotive plastic components where premature cracking, chalking, or embrittlement can compromise performance warranties. Industry compliance standards
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3. Synthetic Rubber and Elastomer FormulationsManufacturers of synthetic rubber goods leverage this additive for its ability to mitigate photo-oxidative chain scission in elastomers used in tire sidewalls, hoses, and molded seals. Its benzothiazole scaffold shows effective stabilization of unsaturated polymeric chains, which helps limit loss of elasticity under thermal and ultraviolet exposure. Integration typically occurs at the polymer solution or dry blend pre-cure stage, supporting stable dispersion before vulcanization. Industry compliance standards
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4. Industrial Lubricant AdditivesLubricant formulators depend on this compound for its ability to suppress oxidation and maintain viscosity in high-performance base oils, particularly those operating at elevated temperatures or exposed to significant sunlight. The phenolic core functions as a radical scavenger, which improves oil service life and resists buildup of sludge-forming byproducts. Integration typically occurs at the additive package blending phase, before dilution or oil finishing. Industry compliance standards
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5. Industrial Wood CoatingsWood finishing operations include this material in exterior-grade varnishes and stains to safeguard against UV-driven fading, micro-cracking, and gloss loss. Its chemical resistance in alkyd and acrylic binder chemistries supports desired weatherfastness and color retention across decking, window frames, and doors exposed to sunlight. The dosage depends on binder content and the transparency requirements of the coating formula. Industry compliance standards
Typical usage ratio
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Every batch of 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol we produce reflects decades spent in the midst of high-volume synthesis and constant client feedback. This chemical, often called a UV absorber in the lab and in the field, grew in popularity across the plastics and coatings sectors for a reason. Our teams learned early on that simple tweaks to process conditions can mean the difference between trouble-free blending and frustrating product recalls.
Engineers on our floor keep a close eye on particle size, purity, and hue. Our model delivers a consistently pale yellow powder or granule—never so brittle it breaks down during transport, never so clumpy it resists mixing. During the warmer months, our QC technicians check each lot for melting point drift, as this can affect solubility down the supply chain. Users in polyolefin masterbatch compounding appreciate this consistency because it eliminates time lost fiddling with feeder settings and boosts confidence that every pellet coming off their line actually gets the stabilizer needed.
Inside the laboratory, we keep an archive of every spectral and chromatographic test ever run on our batches. It’s one thing to claim high UV absorption and thermal stability; it’s another to produce graphs that show zero loss of performance even after 1,000 hours in xenon lamps. Users expect transparency from manufacturers and that’s why we invest in real-world exposure testing. Our staff runs accelerated weathering studies, then works with clients to cross-reference those results against field failures in PVC profiles and PE geomembranes.
Core to the molecule's strength sits its benzothiazole ring. That’s not marketing talk—the sulfur-nitrogen structure built into the aromatic system delivers resistance to both high-energy light and thermal decomposition. In practical terms, extruders running at high throughput get longer runs between clean-outs, since they aren’t chasing decomposition products or color drifts from stabilizer burnout. Formulators working with tough-to-process polymers say this additive survives environments where lighter antioxidants degrade.
The dodecyl chain branching off the hydroxyphenol group marks a big difference from other benzothiazole derivatives. In practice, that longer alkyl tail builds compatibility with newer engineering polymers, especially those trending toward higher polarity or higher melt-flow rates. Our long-term partners in automotive and construction compounds moved away from short-chain analogs because they faced blooming issues and unpredictable migration from their finished plastics.
We didn’t just settle on our current specification; it followed years of back-and-forth with both downstream converters and fabricators who wanted to crush deposit problems in molded parts. They found this variant solved those issues, and its higher molecular weight locked it tightly within the bulk polymer phase. As a result, end users report fewer headaches with surface exudation—important for clear films and optical-grade sheets.
Water extractability stands out as another advantage. Our batches consistently record extremely low leaching in standard ASTM and ISO migration tests. This assurance keeps regulatory affairs staff at ease, especially when certifying materials for food contact or sensitive medical applications.
Plant operators trust this stabilizer when compounding high-value plastics that wind up exposed to sunlight, ozone, or temperature cycling. We tap into customer data—film and sheet producers have relayed that the combination of the benzothiazole core and the dodecyl group shields polyolefins for years, even in outdoor installations. Their line operators found that our powder disperses cleanly in twin-screw extruders, maintaining dispersion across broad temperature and shear conditions.
Formulations containing 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol routinely pass the most demanding UV-resistance requirements in exterior coatings, automotive plastics, and synthetic fibers. Scientists in global testing labs confirm that this stabilizer excels across different polymer matrices, from low-density polyethylene garden supplies to specialty PVC profiles. They point to the molecular architecture—especially the dodecyl side chain—as the key reason why volatility remains low, even under aggressive processing cycles.
As a producer, we respect the strictest quality protocols. We never cut corners with raw material sourcing, and every step—from weighing and dissolution to filtration and drying—runs with full digital traceability. We know how dramatic the impact of impurities or batch-to-batch drift can be in tightly controlled industries like automotive interiors and electrical insulation. Consistent chemical identity and purity set the foundation for dependable product lifespans.
Storage stability comes up frequently in customer conversations. Our stabilizer resists caking and maintains flow properties after prolonged warehouse conditions, so blenders and feeders dispense it evenly, lot after lot. Midstream compounding plants confirmed this with retained samples: even after 18 months in standard packaging, both particle distribution and UV performance line up with fresh material.
Comparing this additive to traditional benzophenones or triazoles, you see clear differences in volatility and chemical resistance under repeated extrusion or outdoor aging cycles. Compounding plant teams especially noticed a reduction in migration and surface blooming when switching to our benzothiazole-based option. Market data from masterbatch producers point to fewer customer complaints about haze or yellowing in clear and tinted films after long-term exposure.
Some processors deal with manufacturing windows sensitive to thermal history, so they're forced to manage dosages tighter. Our stabilizer offers a broader operating window with minimal drift in yellowing index, even during aggressive thermal cycling in blown-film production. It supports demands from clients chasing higher-output lines or thicker profiles, delivering long-lasting UV protection that end-users notice months and years after placement outdoors.
Additive suppliers sometimes focus on laboratory results at the expense of real-life feedback. We prioritize the day-to-day realities clients face on the plant floor—batch size, downtime risk, mixing behavior in different extrusion equipment, and the implications for downstream fabrication tools. Feedback from busy production teams led us to optimize moisture content and flow properties, so the product doesn’t hang up inside hoppers or bridge in feed screws.
Some buyers ask about commodity-grade substitutes on cost alone, yet they come back after facing unpredictable migration, incompatibility with color and process aids, and lower photo-stabilization during aging tests. This molecule, with its unique structure and careful processing, avoids those pitfalls. Our team spends time not just in labs but in actual customer plants, observing failures firsthand and adjusting processes to guard against them in new production runs.
Polyolefin, PVC, and engineering polymer compounders have underscored the time savings from working with reliable stabilizer batches. With our additive, their teams streamline changeovers and cut back on troubleshooting caused by variable raw materials. The ripple effect reaches QC departments, as fewer samples need retesting when incoming additives stay consistent.
Direct feedback from end users in construction, telecom, and transportation showed decreased field failures—fewer cracks, less discoloration, longer-lasting performance in sunlight and exposure. By trusting a chemical made by those who handle every tank, filter, and dryer personally, clients gain more than a spec sheet—they get predictability that underpins their entire product quality and warranty claims.
Sustainability requirements keep rising in every industry we supply. Our facilities invest in solvent recovery and waste minimization that reduce the overall environmental burden of production. We routinely audit suppliers and run lifecycle studies, always looking for ways to minimize the impact of large-scale chemical manufacturing. In practice, our clients now demand not only chemical efficiency but transparent reporting on everything from waste streams to sustainable packaging options.
Long-term use of our UV absorber means less frequent material replacement in the field, reducing waste downstream. We engage with recyclers and compounders to make sure residual stabilizer from end-of-life products doesn’t complicate reprocessing efforts—a concern echoed industry-wide as circular economy principles expand. Our technical staff joins industry panels and standard-setting bodies, sharing practical insights gleaned from the line and customer service logs to move the field forward collectively.
We don’t rely solely on automated systems to gauge product quality. Many small factors—downtime on the drying line, a shift in upstream solvent purity, a pressure fluctuation during filtration—can all shape outcomes. Technicians and engineers working hands-on know which variables lead to real world consequences for our clients. During every customer audit, it pays to walk the floor and scrutinize every piece of equipment, making sure our stabilizer gets every bit of care on its journey to the loading dock.
Unexpected issues do pop up. In a heavy summer storm, for example, we saw humidity climb and packaging integrity tested. It took a day of cross-shift problem solving, tweaking dehumidifiers and packaging runs, to prevent product caking and protect downstream dosing performance for one of our largest clients. These moments, far from one-off annoyances, drive process improvements that benefit every shipment.
Some manufacturers might point only to laboratory metrics, but living with a product long-term shows subtler truths. In the early years, after shipping stabilizer drums to a film extrusion partner, we heard about minor yellowing under field exposure in certain climates. Direct application testing, paired with frank feedback sessions, identified nuanced limits in outdated synthesis steps. Adapting the process chemistry eliminated the problem from subsequent lots. Clients appreciate that kind of transparent accountability; it’s how real partnerships thrive.
Many of our technical staff have led site start-ups and troubleshooting trips. We’ve spent time on plant floors in winter chill and summer heat, helping teams fine-tune feeder rates for a five-ton compounding run or chase down the root cause of inconsistent extrusion. Those lessons sit embedded in every update to our process work instructions and every refresh of QC protocols.
On occasion, clients ask whether stabilizer selection matters much in the broader recipe. Our view, drawn from decades of missteps and hard-won client trust, sees the right additive as an insurance policy. It protects the rest of the ingredient investment—resins, pigments, process oils—from degradation before its time. Cutting corners may mean quick savings, but replacement runs, customer returns, and warranty headaches usually erase those gains.
Standards keep changing. Being a direct producer keeps us in step with evolving chemical regulations, food contact standards, and environmental mandates. As new markets emerge and reformulations rise in response to novel polymer blends, we listen to both lab analysts and shift leads, ready to adapt process and paperwork.
Reliable stabilizer supply drives real value. In our shop, chemical production doesn't just follow recipes—it adapts by learning from both customer pain points and in-house process details. As clients chase new property targets or face tighter compliance deadlines, our direct plant experience helps them move forward safely. The story of 2-(2H-Benzothiazol-2-Yl)-6-(Dodecyl)-4-Methylphenol isn’t about static specification sheets. It’s about decades of learning, continuous listening, and daily problem solving at scale. That remains our promise, one batch at a time.