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HS Code |
563574 |
| Cas Number | 68515-49-1 |
| Ec Number | 271-091-4 |
| Molecular Formula | C6H4(CO2R)2, R = C9-11-branched alkyl groups, C10-rich |
| Synonyms | Diisononyl phthalate, Diisodecyl phthalate (C10-rich) |
| Physical State | Liquid |
| Color | Colorless to pale yellow |
| Odor | Slight ester odor |
| Boiling Point | Greater than 300°C (estimated) |
| Flash Point | >210°C (estimated, closed cup) |
| Density | 0.945 - 0.955 g/cm³ (at 20°C) |
| Solubility In Water | Insoluble |
| Vapor Pressure | <0.0001 hPa (20°C) |
| Viscosity | 65-85 mPa·s (at 20°C) |
| Log Kow | 7-9 (estimated) |
| Uses | Plasticizer for polymers such as PVC |
As an accredited 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a 200-liter blue HDPE drum, sealed and labeled with product details: "1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich." |
| Shipping | **Shipping Description:** 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich is shipped in tightly sealed containers, protected from moisture and extreme temperatures. Transport in accordance with local, national, and international regulations for non-hazardous chemicals. Ensure correct labeling and documentation. Handle with care to avoid leaks or spills during transit. |
| Storage | Store **1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters, C10-Rich** in a cool, dry, well-ventilated area away from heat, sparks, open flames, and direct sunlight. Keep the container tightly closed and clearly labeled. Avoid contact with strong oxidizing agents. Use appropriate containment to avoid environmental release and ensure secondary containment to prevent leaks or spills. Protect from physical damage. |
Applications of 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich in Industrial ManufacturingAs a direct manufacturer, we supply 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich to leading processors across industrial sectors globally. Below we provide documented downstream applications, each with explicit compliance, dosage, process, and final market details based on our production experience and technical customer collaboration. 1. Flexible PVC Compound Production for Wire and Cable InsulationDownstream PVC cable compounders use this plasticizer in thermoplastic formulations to achieve required flexibility, low-temperature performance, and migration resistance in insulating and sheathing. The ester integrates through batch blending with PVC resins, stabilizers, fillers, and other modifiers. Producers adopt specific dosage and process controls to meet flame retardancy, heavy metal content, and mechanical property requirements mandatory in low-voltage and control cable production. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Polymer Flooring and Wall Coverings ManufacturingSpecialty vinyl flooring and wall covering producers select this phthalate-based plasticizer for achieving targeted surface durability, elongation, and chemical resistance. Integration occurs in calendered or spread-coated PVC systems, typically alongside co-plasticizers and UV stabilizers in controlled environments. The process must support tight emissions control and physical stability in sheet goods used in high-traffic or heavy-cleaning environments, requiring full compliance validation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Adhesive Formulation for Flexible Packaging LaminationFlexible adhesive manufacturers use this ester to impart permanent flexibility and migration resistance in solvent-based and plastisol adhesives applied in the lamination of food and pharmaceutical packaging. Its function is critical for maintaining seal integrity and heat resistance in multi-layer films. Formulators test for compatibility with resin systems to meet strict volatile and extractable limits in the final package, and employ in-line quality controls during continuous production. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Automotive Interior Trim and Soft PVC Shaped PartsTier-1 automotive suppliers incorporate this C10-rich phthalate ester as a softener and process aid for dashboard skins, door panel coverings, and flexible molded inserts. Its presence ensures required low fogging, weathering stability, and consistent mechanical properties post-thermoforming. Manufacturing lines integrate the additive upstream in the dry blend, enabling real-time adaptation to color and texture requirements per OEM specifications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Conveyor Belt and Industrial Hose ProductionIndustrial rubber and polymer processors formulate with this alkyl ester to enhance flexibility, oil resistance, and cold weather performance in heavy-duty conveyor belts and hoses. Compounding engineers integrate it with polymer base materials and reinforcing agents, adjusting for compliance with targeted abrasion and chemical exposure regimes found in mining, agricultural, or hydraulic service. Strict monitoring ensures that batch formulations meet both internal QC and third-party audit requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich prices that fit your budget—flexible terms and customized quotes for every order.
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Standing on the production floor, you see over years how certain chemicals gain a quiet reputation among real-world users for their particular strengths. The product known as 1,2-Benzenedicarboxylic Acid Di-C9-11-Branched Alkyl Esters C10-Rich, despite the complex name, has come up often in questions from technical managers and end users who care about the results in applications like flexible PVC, high-quality synthetic leathers, or specialty coatings.
From a manufacturer’s viewpoint, the composition behind this material brings not just one property but a subtle bundle of influences. The “branched” descriptor points to how the alkyl groups aren’t linear in form. Through production choices at the reactor stage, we set those branches at a ratio that heavily leans toward C10 content. That matters more than most realize: in plasticizer use, the exact chain length and structure will control not only softness and migration resistance but also how the end product weathers cycles of use. This balance is tuned through our direct upstream processes, not something easily matched by blending in intermediates bought from outside.
Years spent scaling up batch after batch highlighted a recurring point. The C10-rich profile we focus on, with C9-C11 branches, helps film manufacturers avoid brittleness after repeated thermal cycles. In cables, users often mention less ‘sweating’ than with some shorter chain plasticizers. Product managers come to us not just to match a spec, but because the downstream process sees fewer quality complaints tied to shrinkage and volatility. Direct feedback like that shapes every investment we make in reactors, instrumentation, and consistency controls.
It’s easy to copy words from a data sheet, but out in the field, certain details keep professionals coming back to this specific grade. One, the esters’ purity comes down to our running a continuous distillation that skims byproducts off every tankful. Operators monitor color and acid value, and they’ll hold a shipment if anything feels off, saving customers those intangible pains that arise downstream—such as yellowing polymers or odd odors.
In reality, end users seek low viscosity for easy blending, high boiling points to guarantee permanence, and minimal residual acidity so they don’t build up corrosives in extruders. These points come out of the long collaboration we have with users—those who call when a batch “feels wrong” and trust our team to troubleshoot tank samples or run trial extrusions in our pilot facilities. We keep our product below certain impurity thresholds, not only because regulators demand it, but because we constantly see what happens when inferior grades get trialed in formulations: breakdowns get noticed, reprocessing gets expensive, and production lines slow down.
Formulation chemists reporting from compounding shops frequently point to the balanced volatility of this ester. Here, “C10-rich” shifts effective volatility to a sweet spot, reducing risk of fogging in end products—something critical when those products end up in automotive interiors or consumer packaging. This benefit doesn’t show up first on a specification sheet, but backs up with years of fewer warranty complaints and easier compliance with even the newer, stricter VOC limits from regulatory agencies.
Each batch we produce carries the baggage of comparison: sometimes directly with trusty DOP, sometimes with other plasticizers blended from varying chain lengths. Old hands in the industry recall how cheap imports with irregular branch patterns can produce unexpected migration, shortening service life in products like gaskets or electrical sheathing. Our product, by contrast, features a consistently tight range in the GC analysis, thanks to in-house controls on feedstock purity and our choice to avoid substandard raw materials.
Manufacturers using our C10-rich di-ester for the first time tend to notice the lower processing temperatures achievable without losing flexibility. This matters especially for heat-sensitive substrates, where toughening and discoloration quickly erode value. Over the years, customers switching from less refined, broad-range phthalates see greater clarity, better lightfastness, and a notable reduction in plasticizer migration under harsh environments.
Responsiveness to sudden changes in supply-chain purity distinguishes us from many in the market. Our own experience, particularly during major supply crises, taught us how crucial backward integration is. The ability to trace raw materials directly to their source means every lot comes with detailed tracking. This is not just about compliance, but about responding to technical questions on performance—whether that is about heat aging, extraction resistance, or mechanical flexibility—using our own historical production datasets, not by guessing at a third party’s record.
Applications using this C10-rich branched alkyl ester point to a need for reliability. In practice, users who move large volumes of sheet vinyl or flexible profiles do not want to see softening drift over time. Similarly, cable and wire manufacturers must meet tight specifications on dielectric loss and insulation integrity, especially for high-voltage and exterior use. By keeping trace levels of mono-ester and other reaction byproducts extremely low, our product consistently passes screening for electrical resistance and harsh weather survivability.
It is all too easy to overlook stability until a major customer finds fogging or extraction issues with a competing plasticizer, especially when exposed to oils or cleaning agents in the finished product. Our customers’ formulation teams have sent back dozens of product samples to compare migration resistance side by side. Year after year, reports come in showing that even after aggressive leaching, our material delivers less weight loss and better retention of flexibility.
Every manufacturer claims sustainability, but doing it means turning down shortcut chemicals, even if they cost less. Internal audits keep our feedstock supply as consistent as possible, which not only stabilizes performance but reduces sudden shifts in lifecycle analysis. We continually analyze waste streams, looking at how synthesis yields drive both environmental performance and plant efficiency. Measures like water reuse, advanced scrubbers for airborne emissions, and recycling heat from exothermic reactions impact every lot shipped to the customer. Our teams revise raw material strategies based on real emission data, not just marketing promises.
The chemical industry faces tough scrutiny, rightly so, from brands demanding greater transparency and regulators tightening exposure limits. As producers, we’re on the ground reviewing lab data, adjusting catalyst loading, swapping distillation internals to run cleaner profiles. Our history in this niche grants us perspective: selling a product that passes a test once means little, but being the name behind years of clean audit trails brings repeat business, especially as brands must show compliance with REACH and other forward-looking frameworks.
Shop floor stories about past incidents drive our training—not just the rulebook. Overseeing each loading dock, we witness the effects of poor temperature control, rough handling, or wider transportation issues. Lower vapor pressure in our C10-rich ester cuts down on accidental releases during pumping or heating. Our production teams know that avoiding the sharp odor issues linked to less refined grades makes for a less hazardous work environment and speeds up turnaround every shift.
Years of filling, testing, and transporting this product mean we regularly field questions on its stability during long hauls, varying warehouse temperatures, or blending in crowded shops. Our recommended handling protocols get updated as we learn more—not from an ivory tower, but from the returns and photos clients send us. We relayed lab findings back to operations and have raised flash point control standards after isolated complaints, thanks to this direct input chain.
We see more R&D groups hunting for plasticizers with specialized performance, looking to carve out an edge in markets crowded by similar goods. Input from these teams matters, since our design chemists keep in close dialogue with them, adapting process parameters as we learn from failures and successes. For high-clarity film or advanced textile coatings, our C10-rich ester often allows reduced loading, yet achieves the same performance on flexibility and tensile toughness as older, denser plasticizers.
Development labs counting on repeatable performance for pilot runs rely on the variance control we build in at scale. Detailed batch records enable technical teams to dial in exact concentrations, crucial for color-sensitive or medical-adjacent applications. Differences in lot purity show up directly in tests for migration and resilience under harsh conditions, and working as the producer means we’re able to target improvements rapidly, bypassing bottlenecks that slow down larger, less flexible competitors.
Sticking to a narrow raw material profile gives an edge on performance, but it raises vulnerability to supply disruptions. In some years, regional shortages or global events force hard choices about feedstock grades. We avoid short-term patches that might compromise consistency; instead, our relationship with suppliers runs decades deep, and we operate buffer inventories at the cost of tighter margins. This strategy keeps us resilient during shocks when other producers turn to inconsistent blending or stretch purification steps beyond acceptable ranges.
With regulatory boundaries constantly moving, particularly around phthalate derivatives, we have dedicated teams tracking changes across every relevant market. Whether the target is lower migration into food contact plastics, or demanding new thresholds for extractables in toys and childcare goods, direct quality reporting allows our customers to answer audits confidently. We keep in step by running new compliance trials before the rules change, not after, ensuring our production lines stay ahead of customer and regulatory demands.
One reason so many industrial partners come back year after year has less to do with glossy brochures and more to do with long hours spent troubleshooting line problems. Our technical liaisons keep early warning systems in place, reviewing return samples when things go off-script. Whether a substitution elsewhere in the formulation upsets long-term flexibility, or test drums need running in challenging climates, we keep direct lines open so that swifter solutions emerge.
Through years of hands-on experience, we’ve learned that supporting a customer’s small technical trial with specialty blends, or checking how a production tweak affects thermal performance, often reveals hidden savings or solves nagging issues. In the end, both sides avoid wasted time and material, making for fewer headaches across the supply chain.
As a chemical maker, we measure our success in the number of repeat projects that come from relationships forged through problem-solving and transparency. Overseeing each production batch ensures answers are always close at hand, whether the topic is blend compatibility or stricter emission targets down the value chain. By opening our laboratories for joint trials or sharing batch analysis in granular detail, we help clients push innovations further, secure long-term contracts, and deliver real-time improvements as conditions shift across the market.
With every order, the goal is not just shipping a commodity, but earning trust as a partner invested in each client’s risk management, regulatory demands, and ambitious product launches. If something technical changes, our technical staff stands ready with raw batch data, years of hands-on expertise, and the commitment to keep your line running clean and efficient. In that sense, the real difference lies in the responsibility we take as a producer—not just for the chemistry in the drum, but for every outcome our material shapes in downstream industries.