Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608)

    • Product Name: Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608)
    • Chemical Name (IUPAC): Poly[(1-phenylethene)-co-buta-1,3-diene]
    • CAS No.: 9003-55-8
    • Chemical Formula: (C8H8)x·(C4H6)y
    • Form/Physical State: Solid
    • Factroy Site: Yunxi District, Yueyang City, Hunan Province
    • Price Inquiry: sales4@ascent-chem.com
    • Manufacturer: Sinopec Baling Petrochemical Co., Ltd.
    • CONTACT NOW
    Specifications

    HS Code

    267064

    Product Name Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608)
    Appearance Pale yellow or off-white granules
    Styrene Content 26%
    Cis 1 4 Content 38.5%
    Trans 1 4 Content 22%
    Vinyl Content 13.5%
    Mooney Viscosity 50 MU (ML 1+4, 100°C)
    Volatile Matter ≤0.8%
    Ash Content ≤0.3%
    Organic Acid Content ≤1.0%
    Oil Content 0%
    Tensile Strength ≥18 MPa
    Elongation At Break ≥450%
    Specific Gravity 0.94 g/cm³

    As an accredited Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing SSBR YH2608 is packaged in 35 kg polyethylene bags, sealed for protection, then stacked on wooden pallets and stretch-wrapped.
    Container Loading (20′ FCL) Container Loading (20′ FCL) for Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608): 16 metric tons packed in 800kg jumbo bags.
    Shipping **Shipping Description:** Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608) is typically shipped in sealed, moisture-proof, 25 kg kraft paper or plastic bags, palletized for stability. It should be stored and transported in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible materials to prevent degradation or contamination.
    Storage SSBR YH2608 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and ignition sources. Keep the material in its original packaging, sealed tightly to prevent contamination and moisture ingress. Avoid contact with strong oxidizers and acids. Store at temperatures below 35°C, and ensure the storage area is free of sharp objects and open flames.
    Shelf Life The shelf life of Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608) is typically 12 months under cool, dry storage conditions.
    Application of Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608)

    Applications of Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608) in Industrial Manufacturing

    As a direct manufacturer of SSBR YH2608, we support global industrial clients in integrating this advanced synthetic rubber into high-demand end products. The following application scenarios reflect established industry practices, highlighting key compliance standards, formulation specifics, integration steps, and targeted final goods within each sector. Our technical teams have developed these insights from real downstream partnerships and extensive process experience.

    1. High-Performance Passenger Car Tire Treads

    Automotive tire producers widely select SSBR YH2608 for eco-friendly, fuel-saving, and high-grip tread compounds in premium passenger vehicles. This polymer’s narrow molecular weight distribution and optimal glass transition temperature support improved wet traction, lower rolling resistance, and abrasion durability—delivering performance mandated by major automotive brands and meeting regulatory criteria for modern, safe transportation products.

    Industry compliance standards

    • UN ECE R117 (Rolling Resistance, Wet Grip, Noise Emission)
    • ISO 9001 & IATF 16949: automotive quality systems
    • REACH Annex XVII (restricted substances)
    • EU Labelling Regulation 1222/2009 for tire classification

    Typical usage ratio

    • 15%–60% by weight in tread formulations; varies with required balance between wet grip and rolling resistance. Lower ratios in all-season blends; higher when targeting premium summer or low-rolling models.

    Downstream process integration

    • Addition during Banbury or internal mixer compounding, co-blended with natural rubber, silica, carbon black, oil, and performance resins, followed by extrusion into tread strips prior to green tire assembly.

    Final product types

    • High-end passenger car radial tires
    • Ultra-high-performance tire lines
    • Tires with low rolling resistance eco-labels (EU/China/USA)
    • Electric vehicle tire models

    2. Low Rolling Resistance Truck and Bus Tire Treads

    Commercial tire makers specify SSBR YH2608 to boost fuel efficiency, tread life, and handling in long-haul truck and regional bus applications. The material’s unique microstructure helps control heat buildup and dynamic deformation at high loads, all while upholding safety norms for public transportation and logistics. Reliable wet and dry grip characteristics also minimize downtime and maintain regulatory conformity.

    Industry compliance standards

    • DOT FMVSS 139 (Tire Safety Performance, USA)
    • UNECE R54 (Commercial Vehicle Tires)
    • ISO/TS 16949 and QS 9000 (Quality Management, automotive)
    • California Proposition 65 for potential PAH content

    Typical usage ratio

    • 10%–35% by weight in tread compounds; technical teams optimize ratio relative to required re-treadability, load index, and driving environment. Lower blending levels used to maintain cost efficiency in high-mileage fleets.

    Downstream process integration

    • Integrated during internal mixer stages as a key elastomer phase, co-formulated with fillers, antioxidants, and blending rubbers, followed by calendering and winding onto carcass structures.

    Final product types

    • Long-haul truck radial tires
    • Bus rapid transit (BRT) tires
    • Regional and mixed-service commercial tires
    • Retreadable tire bases

    3. Sports Footwear Outsoles and Cushion Compounds

    Major sports brands employ SSBR YH2608 in outsole and midsole formulations for running shoes, sneakers, and high-performance athletic footwear. The polymer boosts abrasion resistance, resilience, and flex fatigue life, while enabling lighter compounds and custom tuning for grip or energy return. Integration meets strict chemical and biomechanical standards set by leading footwear OEMs for international retail.

    Industry compliance standards

    • OEKO-TEX Standard 100 (Textile/Rubber Safety in Footwear)
    • GB/T 15107-2013 (China Footwear National Standard)
    • Restricted Substances List (RSL) of global footwear brands
    • EN 20344 (Safety, Testing of Footwear Materials)

    Typical usage ratio

    • 12%–30% by weight within rubber outsoles, subject to required slip resistance and mechanical cushioning. Higher ratios in performance trainers, lower in casual product lines.

    Downstream process integration

    • Incorporation within mill mixing or open mixing stages, prior to compression molding or injection molding processes for outsole and midsole manufacturing.

    Final product types

    • Technical running shoes
    • Basketball sneaker outsoles
    • Multi-purpose sports and lifestyle footwear
    • Industrial safety work boots with non-slip rubber outsoles

    4. High-Precision Conveyor Belt Covers

    SSBR YH2608 is a key component in outer cover compounds for industrial conveyor belts operating in mining, logistics, and food processing. Customers favor this solution for its high dynamic abrasion stability, aging resistance, and uniform modulus, which help extend belt service intervals and minimize change-out costs in continuous-use environments. Strict compliance with health and material handling safety norms is essential, particularly for food or pharma-adjacent installations.

    Industry compliance standards

    • DIN 22102 (Rubber Conveyor Belts in Industrial Use)
    • ISO 340 (Fire Resistance of Conveyor Belts)
    • FDA 21 CFR 177.2600 (Rubber Articles for Food Contact Applications, if applicable)
    • MSHA Part 14 (Flame Resistance for Mining Conveyors, USA)

    Typical usage ratio

    • 16%–40% by weight; ratio determined by belt application type (light, medium, or heavy-duty) and required resistance to thermal, mechanical, or chemical stressors.

    Downstream process integration

    • Mixing with other elastomers and fillers through batch or continuous kneaders, followed by calendaring into cover sheets, then lamination onto belt carcass assemblies before curing and finishing.

    Final product types

    • Mining conveyor belt covers
    • Logistics and warehousing conveyor belts
    • Food-grade conveyor belt exteriors
    • Inclined/specialty industrial belt surfaces

    5. Anti-Vibration Automotive and Engine Mounts

    Manufacturers supplying to automotive OEMs utilize SSBR YH2608 in vibration isolator and engine mount rubber. The controlled microstructure delivers stable damping rates over an extended service period while maintaining fatigue strength in dynamic conditions. The solution addresses requirements for low emissions, durability, and noise reduction stipulated by global vehicle standards and brand-specific technical approvals.

    Industry compliance standards

    • ISO 11898 (Automotive Vibration Parts Testing)
    • JASO M403 (Japanese automotive component standards)
    • OEM-specific material and durability test protocols (VW, Toyota, GM, etc.)
    • ADR 42/00 (Motor Vehicle Emission and Noise, Australia)

    Typical usage ratio

    • 18%–40% by weight; fine-tuned based on part geometry, vibration frequency range, and thermal environment.

    Downstream process integration

    • Blending during compound preparation, then injection, compression, or transfer molding into component shapes prior to assembly into metal brackets or frames.

    Final product types

    • Engine mounts
    • Chassis bushings and vibration insulators
    • Transmission mountings
    • Suspension system dampers

    6. Precision Printing and Copying Roller Elastomers

    Producers of high-resolution printing and copying technologies favor SSBR YH2608 for roll covers and intermediate rollers. The compound imparts excellent dynamic fatigue resistance, stable surface friction, and anti-static performance, providing consistent image transfer and toner adherence required for precise print quality and reliable copier operation under diverse environmental and use conditions.

    Industry compliance standards

    • EN 60204-1 (Electrical Safety of Printing Equipment)
    • RoHS Directive 2011/65/EU (Hazardous Substances in Electronics)
    • UL 94 (Safety for Flammability of Rubber Components)
    • REACH registration for article safety

    Typical usage ratio

    • 14%–28% by weight; formulation engineers adjust within this window to balance elasticity and solvent resistance with target print pressure and cycle life.

    Downstream process integration

    • Integrated in rubber compounding prior to extrusion or calendaring onto metal roller cores; post-assembly involves surface finishing and antistatic treatment as per device manufacturer specification.

    Final product types

    • Laser printer transfer rollers
    • Photocopier intermediate rollers
    • Digital printing press rollers
    • Industrial coding and labeling machine rollers

    Free Quote

    Competitive Solution Polymerized Styrene Butadiene Rubber (SSBR YH2608) prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Solution Polymerized Styrene Butadiene Rubber: A Closer Look from the Manufacturer's Perspective

    Taking Ownership of What We Make

    Building on decades of hands-on experience in synthetic rubber manufacturing, we approach solution polymerized styrene butadiene rubber (commonly known as SSBR) with both curiosity and respect. Every bag or bale that leaves our plant carries years of applied research, real-time process adjustments, and the firm knowledge that tires, conveyor belts, and countless other components rely on our product’s consistency and performance. We’re responsible for more than the finished rubber itself; lives rely on the grip and safety engineered into our recipes. Nothing here is abstract—our choices echo out on highways, factory floors, and sports arenas around the world.

    Understanding the Product Families and What Sets SSBR Apart

    Today’s market brings a range of synthetic rubbers, but only a few can meet the precise requirements of modern automotive and industrial applications. SSBR stands out because it lets us control the structure of the polymer chains with precision. Unlike emulsion SBR, produced through batch processes in water, solution processes happen in hydrocarbon solvents. This fundamental difference changes the way we can design molecular weight distribution, microstructure, and branching.

    Models in our portfolio—such as SSBR-1502, SSBR-1723, and others—are not just numbers but the culmination of our investments in reactor design and chemistry. We can tune vinyl content, control the amount and distribution of styrene units, and even add functional groups through copolymerization. These tweaks matter when customers design treads for high-performance tires or seek greater abrasion resistance in mechanical goods. Our operators and engineers work together to maintain narrow product specifications as a daily reality—not as an advertising slogan. If you’ve ever wondered why modern eco-friendly tires achieve both fuel savings and wet grip, SSBR’s micro-level engineering is the answer.

    Delivering the Characteristics Industry Demands

    Lower rolling resistance, reliable wet traction, and extended wear life are no longer bonuses; they’re the baseline for any material heading to the world’s leading tire factories. Markets demand predictable results. SSBR makes this possible by allowing for higher vinyl content, which improves dry and wet grip. We monitor chain transfer and all polymerization parameters carefully, knowing end-use performance depends on these details.

    Some of our leading-grade SSBR exhibits a glass transition temperature (Tg) tailored to strike the right balance between flexibility at low temperatures and shape retention in summer heat. Customers approach us seeking polymers that remain elastic below freezing yet rigid enough to reduce heat build-up on continental highways. Old-generation rubbers often forced a compromise. Our best SSBR grades minimize that sacrifice, directly improving fuel economy and handling.

    Sticking with the subject of fuel savings, regulatory targets in Europe, North America, and Asia have forced automakers to scrutinize every component for efficiency. A well-designed SSBR compound can cut a vehicle’s rolling resistance by 20% or more compared to traditional materials, a difference that shows up at the gas pump and in emission statistics over the product’s lifetime. We don’t arrive at these numbers through theory; they come from hands-on blending, testing, and third-party validation using global test standards. The formula tweaks that work in a laboratory aren’t always enough on the full production scale, so our teams constantly check outbound batches to make sure we meet customer expectations for rebound, modulus, and dynamic heat buildup under actual service conditions.

    Applications Our Teams Help Build Every Day

    Every kilogram of SSBR that we ship out usually finds its way into a specific, demanding application. High-performance tires for family sedans, trucks, or ultra-high-performance sports cars rely on SSBR for their tread compounds, as do winter and all-season tires seeking that elusive mix of grip and longevity. The same polymer may also go into belts, hoses, and shoe soles—less visible but just as dependent on consistent properties.

    Automotive tire manufacturers choose SSBR for treads because they need to solve for traction without sacrificing rolling resistance. Racing teams and rally car engineers use it to tailor the exact grip needed on specific racing surfaces, fine-tuning compounds for weather and terrain. Shoe manufacturers rely on tried-and-true grades of SSBR for soles that don’t crack or go brittle in the cold, supporting both the fashion industry and essential protective gear. Each industry expects us to deliver batches that won’t vary in performance, coloring, or processability month after month.

    Why Our Approach to Manufacturing Changes Everything

    We don’t see polymerization as a black box. In our experience, every detail—from monomer purity and solvent selection to reaction temperature and pressure—affects the end product’s properties. We use continuous solution processes, maintaining precise ratios between styrene and butadiene to match customer needs. Each adjustment impacts molecular weights, branching, and chain microstructure. Our laboratories measure these characteristics with GPC, NMR, and FTIR—tools that serve as a quality checkpoint, not a sales talking point. Day-to-day, our process engineers fine-tune quenching and antioxidant addition at the reactor outlet, often working late shifts to solve problems that only show up at scale.

    There’s a reason some global tire companies trust us as development partners rather than just raw material suppliers. Whether a customer requires batch-to-batch uniformity for robotic extrusion or a unique functionalized polymer with silane groups to match new tread designs, our engineers pick up the phone and get to work. In some cases, they’ll change catalyst systems or develop new surfactant recipes, always keeping one eye on process safety and the other on end-use performance. This isn’t marketing; it’s our way of turning trial-and-error into measured results.

    Setting Ourselves Apart from the Competition

    Plenty of synthetic rubber manufacturers say their SSBR grades are “state-of-the-art.” The truth comes out on the production floor and in final testing. We know competitors focus on low-cost manufacturing or bulk production, but that’s not our approach. Instead, we constantly invest in process controls and operator training, understanding that a single out-of-spec reaction run can cause headaches for rubber compounders around the world. Lots of things can go wrong during solution polymerization—poor agitation, solvent contamination, or even small temperature fluctuations can shift product specifications. Our supervisors have been with us for years, and they know how to spot trouble early, whether through temperature profiles or a shift in polymer color.

    On top of continuous quality checks, we spend serious time visiting customer sites, learning firsthand how our SSBR interacts with their compounding and curing processes. We’ve helped tire makers tackle problems like tread separation and premature ageing by adjusting molecular weight distribution or functional group incorporation. This kind of feedback cycle between the field and factory is rare, but we see it as essential. We’ve learned as much from failed pilot trials as from commercial successes—and every lesson finds its way back into how we design and deliver new grades of SSBR.

    Navigating Industry Challenges: Sustainability and Process Safety

    No synthetic rubber manufacturer can ignore the sustainability challenge. Petrochemicals face scrutiny over their carbon footprint and end-of-life disposal. Our chemists work in step with environmental engineers to improve solvent recovery, cut waste, and lower emissions at every step. We’re not immune to criticism or regulation, so each batch comes with updated lifecycle analysis data. We participate in global initiatives aiming to recycle end-of-life rubber articles, repurpose plant byproducts, and even incorporate renewable raw materials where feasible. There’s a good deal of hype in “green chemistry,” but our improvements come from hard numbers—kilograms of solvent saved, megajoules of steam recycled, and tons of carbon dioxide avoided each month.

    Process safety is not negotiable. SSBR’s solution polymerization presents a higher fire and explosion risk than emulsion systems. Our team operates under strict safety protocols, with emergency drills and regular inspections. Every maintenance shift starts with a safety briefing, and key production areas are fitted with explosion-proof equipment and emergency containment. These costs never get passed over; they’re the price of knowing that our products reach the end-user with a full chain of responsibility intact.

    The Role of SSBR in Tire Innovation and Beyond

    SSBR’s dominance in modern tire manufacture started with automakers demanding more from their suppliers. Twenty years ago, tire tread compounds depended largely on emulsion SBR. Higher requirements around fuel efficiency, wet grip, and wear moved the goalposts. SSBR enabled these advances by offering tighter control over polymer microstructure. Using high-vinyl grades, engineers reduced hysteresis losses, meaning the tires heated up less during use—fuel savings followed. Winter tire manufacturers leaned on SSBR with a different vinyl content, aiming for pliability at sub-zero temperatures. That’s not an accident; it comes from years of targeted research and production trials on our end.

    Today, many truck and bus radial tires rely on SSBR for improved retreading performance and lower whole-life costs. Motorcycle and bicycle tire brands ask us for custom grades to fit their exact asphalt conditions and riding demographics. We supply shoe, conveyor belt, and rolling goods manufacturers who need resistance to abrasion, low-temperature flexibility, and predictable mixing viscosity. SSBR’s ability to accept a range of oil, carbon black, and silane filler loadings has improved production yields and part durability. If a customer anecdotally reports curing issues or porosity in their end product, we dig into our polymer’s branching and molecular weight profile to see if a process adjustment is due.

    Meeting Customer Needs through Technical Support and Transparency

    Our relationship with compounders, tire technicians, and industrial clients always begins with a discussion about application—not just a price list. We invite questions on batch-specific viscosity, branching, and filler compatibility. Technical teams offer mixing and recipe suggestions, not only as after-sales service but as part of building a working partnership. We’ve tackled challenges where a change in carbon black type caused unexpected cure reversion, or where a new antioxidant led to color instability. Solutions rarely come in a single meeting, but through multiple interactions online and on shop floors. Some of our best process improvements resulted from shared pilot trials and mutual trust. We know our material isn’t used in isolation, and the only way to guarantee success is through shared expertise.

    Traceability matters. Each SSBR shipment includes batch records, detailed test reports, and full transparency on process deviations or specification shifts (no matter how small). Our approach to transparency has won us loyal partners rather than just customers, especially when global supply chains have been tested by disruptions and shortages. We recall a supply crunch during a recent raw material shortage: rather than hide behind delays, we updated clients in real time, joint planning new delivery schedules and seeking alternative feedstocks together. That level of coordination comes from doing business as partners, not as faceless suppliers.

    How We Keep Improving—Feedback Loops and Forward-Looking Research

    The competitive landscape for SSBR keeps shifting. New tire labeling regulations, changing consumer demands, and evolving automotive requirements all keep our R&D and production offices busy. Our chemists collaborate with suppliers of new functional monomers and alternative solvents, always seeking ways to improve performance without driving up costs or adding complexity to the customer’s compounding lines. We pilot new grades in-house, but we also extend co-development offers to top customers. These joint trials provide critical feedback about how our SSBR handles at the mill, integrates with modern fillers like silica, and performs through to final cure.

    Our technical files contain thousands of data points from mix, mill, and road test results, giving us unique insights into real-world outcomes. Sometimes a subtle change—like a slightly higher molecular weight or new antioxidant combination—makes all the difference in tire chip resistance or rolling resistance. We’re not shy about scrapping a new grade if pilot production reveals issues, and we routinely re-test established products against new industry benchmarks. Our ongoing upgrades to analytical equipment and lab automation give us an edge in catching process drifts early, well before a customer ever notices.

    Looking to the Future: SSBR in Next-Generation Applications

    We see tremendous potential for SSBR in applications beyond tires and industrial goods. As electric vehicles gain ground, demand rises for low-rolling resistance rubbers that also muffle road noise. SSBR’s tunable viscoelasticity and compatibility with functionalized fillers answer this need directly. We’re working with partners on rubber blends for quiet, long-wearing tires that meet the higher torque and weight specifications of electric vehicles.

    Health and safety products also open new doors for SSBR. Hospital floors, anti-slip mats, and high-performance footwear all benefit from the cold flexibility and high abrasion resistance SSBR provides. Products for mass transit and future urban mobility platforms also require materials that can be recycled or re-processed at end-of-life. We maintain active research projects seeking ways to enable even cleaner polymer processes and closed-loop recycling options for our SSBR customers, knowing that future regulations will push the entire value chain in this direction.

    What Our Decades of Experience Have Taught Us

    Manufacturing solution polymerized styrene butadiene rubber is not just about controlling chemistry—it’s about knowing what every parameter means for the people and machines depending on us. We see customers as collaborators and their problems as opportunities for invention. Our daily work combines the science of polymerization, the rigor of process control, and the open-mindedness needed to keep evolving as new challenges arise.

    The choice to use SSBR in a product design says a lot about priorities: long-term durability, consistent performance under extreme conditions, and readiness to innovate as the marketplace changes. We’re proud to deliver SSBR that performs beyond baseline expectations, shaped by the direct input of compounders, engineers, and end-users worldwide. Our commitment to transparency, technical partnership, and continuous improvement guides every decision, helping us ensure our SSBR continues to meet both today’s demands and tomorrow’s innovations.