| HS Code | 427211 |
| Product Name | Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 |
| Appearance | Clear to slightly hazy liquid |
| Color | Colorless to pale yellow |
| Odor | Mild characteristic odor |
| Molecular Weight | Approximately 1000 g/mol |
| Solubility In Water | Soluble |
| Hydroxyl Value | <10 mgKOH/g |
| Viscosity 25c | 300-600 mPa·s |
| Ph 1 Percent Solution | 5.0-7.0 |
| Cloud Point | Above 90°C |
| Flash Point | >100°C (Closed cup) |
As an accredited Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a 200 kg blue HDPE drum with a secure screw cap, labeled for Acetyl Capped Allyl Alcohol Polyether Y-10008. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL): Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008, packed in 80 drums, 200kg each. |
| Shipping | **Shipping Description:** Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 should be shipped in tightly sealed, labeled containers, protected from moisture, heat, and direct sunlight. Transport in accordance with local, national, and international regulations for chemical substances. Ensure all documentation, safety data sheets, and hazard labels accompany the shipment. |
| Storage | Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 should be stored in a cool, dry, well-ventilated area, away from heat, direct sunlight, and incompatible materials such as strong oxidizers. Keep the container tightly closed when not in use. Use only corrosion-resistant packaging, and avoid moisture exposure. Ensure appropriate labeling and limit access to trained personnel. Store at recommended temperatures to maintain product stability. |
| Shelf Life | Shelf life of Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 is typically 12 months if stored properly. |
As the original manufacturer, we supply Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 for various industrial production environments that demand reliable nonionic surfactant performance, regulatory compliance, and process consistency. The following sections detail major application routes within high-value industrial segments. Each use requires different formulation, compliance, and process considerations according to customer plant needs and international standards.
Manufacturers of synthetic leather and waterborne polyurethane-based coatings incorporate the material as an auxiliary polyether modifier to improve hydrophilicity, control molecular weight distribution, and enhance anti-fouling properties. Its acetyl-capped structure enables improved compatibility and emulsion stability during high-shear prepolymer processing. By controlling the additive feed at key stages, processors achieve uniform film formation, reduced surface tackiness, and extended aging resistance for both roll and spray applications. Producers adjust dosage based on prepolymer solids and final film specifications.
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Industrial ink manufacturers integrate this polyether ether as a specialty surfactant/dispersant in aqueous pigment and dye formulations for digital inkjet printing. It supports improved pigment wetting, prevents nozzle clogging, and enhances gloss on coated substrates. Controlled capping reduces interaction with printhead materials and minimizes foam generation during ink circulation. The additive’s chain length and block ratio allow for customization to handle a wide pigment compatibility range, particularly in high-speed packaging and textile printing lines.
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Producers of water-miscible metal cutting, grinding, and forming fluids utilize this capped nonionic surfactant for advanced emulsification and lubricity modification. The raw material stabilizes oil-in-water microemulsions, reduces misting, and enables stable low-foam operation across a broad pH window. Its unique molecular architecture provides enhanced boundary lubrication at chip-tool interfaces, while resisting degradation by tramp oil and metal ions. The product’s predictable aggregation properties simplify formulation R&D and speed up laboratory qualification for new fluids.
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Select personal care ingredient manufacturers employ the acetyl capped surfactant to aid in the emulsification and dispersion of silicone oils and modified siloxanes in water-based systems. When incorporated into raw material blends, it allows for the preparation of pre-emulsified silicone concentrates with superior shelf-life, low odor, and improved clarity. The additive's defined EO/PO block architecture ensures tolerance to a variety of pH adjusters and thickeners, and the capped end groups reduce interaction with fragrance allergens. Process control during hydration directly affects the particle size and overall formulation performance for downstream customers.
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Producers of high-solids and VOC-compliant water-based epoxy adhesives utilize this raw material to overcome dispersion and flow challenges associated with multifunctional epoxy resins. Its capped polyether structure aligns with adhesive matrix chemistry, providing excellent wetting of glass, metal, and polymer substrates. During batch manufacturing, the product supports air release, facilitates homogenous filler incorporation, and increases open time without adversely impacting cured bond strength. Operations requiring direct assembly adhere to regional and global food-safe adhesive standards in packaging and engineered assembly.
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Leading producers of cleaning and cosmetic foams include this specialty surfactant to enhance water uptake, regulate pore structure, and minimize processing defects such as voids and weak interfaces. Its controlled EO/PO ratio and capped termination reduce migration, contributing to the long-term performance in daily-use articles. In continuous slabstock and molded block production, manufacturers blend the raw material with reactive polyols and blowing agents at carefully controlled stages to achieve uniform open-cell formation, fast wetting, and tailored density profiles.
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Competitive Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 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.
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Tel: +8615365186327
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As the people who take raw drums of ethylene oxide and propylene oxide and wrestle them into something clean, reliable, and ready for your process tanks, we know the importance of a dependable nonionic surfactant. Our Acetyl Capped Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether Y-10008 was developed to address both the routine and the unexpected hurdles that come from the high demands of industrial cleaning, coatings, and chemical processing.
Y-10008 isn’t just a trade name on a sample bottle. We design and manufacture this polyether-based surfactant by reacting allyl alcohol through controlled oxyalkylation with both ethylene oxide and propylene oxide, then capping the terminal sites with an acetyl group. This makes its structure particularly resistant to unwanted side reactions in alkaline and acidic conditions. We control the composition to achieve a balanced hydrophilic-lipophilic character, targeting an HLB suitable for wetting, solubilizing, and dispersing both organic and inorganic materials. Y-10008, in practice, gives you a colorless to pale liquid that pours easily, stays clear at room temperature, and helps dissolve sticky or stubborn residues that less tailored surfactants leave behind.
Having worked with both capped and uncapped polyoxyethylene-polyoxypropylene ethers in our own reactors, the acetyl cap is more than a minor modification. Without this cap, terminal hydroxyl groups become especially vulnerable to oxidative degradation or unwanted polymerization—issues we’ve seen cause fouling downstream or generate off-odors over storage. The acetyl cap in Y-10008 shields these reactive ends. Over the last decade, our tanks and formulation lines have shown far less gumming and discoloration using Y-10008 compared to conventional uncapped analogs. This benefit matters at both the bulk storage level and in end formulations used in paints, textile post-treatments, agriculture, and even electronics cleaning.
We never ship ambiguous mixtures. Each batch of Y-10008 comes with controlled parameters, including a defined average molecular weight, narrow polydispersity, and traceable feedstock origins. Typical product we supply contains a specified polyoxyethylene and polyoxypropylene ratio—optimized in our process plant for solubility and foam control. End-users usually ask for clarification: our experience shows that getting the ethylene oxide to propylene oxide ratio correct—not simply maximizing one or the other—determines how well the surfactant disperses oils, suspends fine particles, or helps emulsify in both soft and hard water. Viscosity and pH are tightly monitored before any shipment leaves our gates, ensuring reproducibility from drum to drum. Years of troubleshooting coating flaws with customers taught us that small changes in chain architecture make big differences in downstream production, so we keep a steady hand on our reactor controls.
Most of our clients are formulators, not just lab technicians. They need a surfactant that doesn't fall apart in tough processing environments: strong bases, acids, high-shear mixers, wide temperature swings. Y-10008 handles these real-world scenarios without gelling, separating, or dropping out of solution. We've had customers switch to Y-10008 after failures with lower quality, non-capped products, especially in challenging wash systems or high-speed can coatings. In textile scouring, Y-10008 rinses more completely, with less residue that can yellow fabric on dying. Paint manufacturers find that, in water-based formulations, Y-10008 permits the stable blending of pigments and fillers without causing foaming problems—something many nonionics struggle to avoid.
We have formulated and used other polyoxyethylene polyoxypropylene ethers in our own production before launching Y-10008. Many generic surfactants skip the acetyl capping, saving cost but exposing the chain ends. Over time, these products degrade, leading to yellowing, odd smells, or even the formation of insoluble sludge. That is not just a theory—we have spent nights cleaning clogged filters and tanks before making the switch ourselves. Some alternatives use only polyoxyethylene or polyoxypropylene and ignore the balance required for stable solubilization in intricate systems. Y-10008, with its tailored block structure and terminal acetyl protection, survives harsher pH workers, resists thermal degradation, and displays lower tendency to create foam scum or react with other additives, especially in complex blends or recirculating systems. In glass cleaning, the difference shows up as spotless rinse results, while in agriculture, we’ve seen improved dispersion in spray tanks.
Years of tracking storage stability matter more than what a glossy data sheet claims. We have tested Y-10008 in ambient and heated warehouses, noting that capped grades resist the thickening and off-odors that typically creep in over months with non-capped polyethers. We have revisited samples stored for over a year and consistently found Y-10008 remains pourable, clear, and free from separation. Customers with long supply chains and infrequent tank turnovers see value in reliable stability—less waste, less downtime, less need to replace aged inventory.
Operating in the chemical sector brings its share of headaches: incompatible additives, residue buildup, surges in raw material quality, and surprises in blending behavior. We chose the Y-10008 formulation precisely after running into enough of these snags. The acetyl-capped structure faces fewer compatibility issues with common formulation ingredients—glycols, glycoethers, Acrylate polymers, biocides—because it does not bring active hydrogen sites to the table that might otherwise participate in unwanted reaction. In our plant, we have seen reduction in tank wall scale and pipe blockages, a clear testament that capping and chain selection truly matter.
With pressure mounting from both environmental regulators and our own sustainability goals, we have paid close attention to the downstream impact of our surfactants. Y-10008 benefits from high biodegradability, confirmed by regular third-party testing on batch effluent and customer wastewater. The acetyl-capped ends limit persistent metabolites after use, giving wastewater systems less to tackle and helping customers minimize downstream treatment costs. In our formulations, we have also measured lower COD (Chemical Oxygen Demand) profiles for Y-10008 compared to older alkylphenol-based surfactants, a factor that eases compliance burdens for both us and our downstream users.
Decades on the production floor, in the formulation lab, and at customer sites have shaped our view of surfactant selection. We watch our bulk tanks, pilot reactors, and packaging lines for signs of trouble. Excess foam, filter plugging, and control system alarms lead us to question every component. It’s through years of working with customers—helping them recover production lines, troubleshoot incompatible blends, salvage off-spec batches—that we’ve come to appreciate the quiet reliability of a surfactant like Y-10008. Switching to this grade has helped mills extend cleaning intervals, kept can washers from scaling, and allowed paint lines to run with less unpredictable gelling. We routinely blend Y-10008 into compatibility trials with new solvents, resins, and pigment slurries, finding that the balanced block architecture gives a wider window of process latitude before separation or gelation occurs.
Inspection is more than a checklist for us; it’s rooted in a continual process culture. We run each Y-10008 batch through GC and HPLC to confirm chain structure and end-capping efficiency. Color and cloud point are checked by real chemists, who have seen the difference between a tight, well-controlled batch and an off-spec lot. We regard quality as more than a promise—it’s a necessity to avoid rework, product returns, and process headaches for our customers. Tight process control means our end-users, from large paint plants to agile electronics assembly shops, experience consistency from drum to drum, year to year, even as feedstock volatility and customer performance requirements shift. We set a policy of immediate recall should any trace impurity or off-spec be detected, and maintain this long after the product’s left our plant.
Failure leaves deeper lessons than any successful run. In the early development days, we struggled with a batch that was not properly acetyl-capped. The consequences revealed themselves quickly—yellowing during storage, souring the final customer product, and even causing bubbling issues during mixing. The cost of dumping drums, cleaning reactors, and patching customer relationships taught us to overinvest in endpoint analysis and automation on our capping station. It isn’t just theory—every shift manager, QC technician, and plant engineer here knows how hard it can be to recover from just one bad run.
Industries push us to meet challenges we cannot anticipate from the lab alone. Some customers run formulation trials four or five times before settling on a blend—our role is to offer surfactant that will adapt across changing pH, temperature, and impurity profiles. Y-10008 grew out of this constant back-and-forth. For agricultural adjuvants, for example, applicators use our product in outdoor tanks exposed to heat and UV, with water impurity often far outside protocol. Our on-site experts routinely stress-test the product in actual field spray conditions to confirm it won’t clog screens or cause leaf burn, which can happen with less stable surfactants. In hard-surface cleaning and degreasing, the acetyl cap offers higher resistance to bleach and oxidizers, allowing cleaning contractors to push for shorter dwell times and lower overall usage rates.
Since this surfactant is more stable across a broad pH range, we have seen it stand up in caustic washdown systems, acid pickling lines, and in neutral aqueous blends. It mixes easily with most solvents, alcohols, and glycol ethers, giving paint and ink formulators breathing room to adjust resin selection or pigment loading. Our internal testing demonstrates rapid dissolution even at low process temperatures. Transitioning to Y-10008 from a less robust surfactant rarely brings new compatibility headaches; often, formulators find they can reduce defoamer use or push solids content higher without separation or haze. We’ve worked at customer sites to dial in blend viscosities for easy pumping, finding that the even block copolymer structure resists the thixotropy and syneresis that can crop up once you switch suppliers or resin lots.
The market refuses to stand still. Regulations tighten, applications get more specialized, supply chains turn volatile, and new contaminants appear in water and solvents. To stay useful, we routinely upgrade our pilot facilities to test the limits of Y-10008—how it responds to new resins, evolving plasticizer profiles, and expanded end-use conditions like food-contact surrogates or aviation cleaner certifications. Our product management and process chemistry teams use feedback from partner plants to refine not just the main product but also the quality assurance protocols, packaging stability, and delivery options. Customers in challenging markets—be it Southeast Asian textile mills or North American can manufacturers—push us for even better shelf life, broader compatibility, or lower environmental profiles, and we respond with new data sets and improved process tweaking. Commitment to product evolution remains part of our everyday work.
We stake our reputation not on brochure claims, but on the performance our customers count on daily. After years of scrubbing tanks, handling customer returns, and running side-by-side trials with off-the-shelf alternatives, we found that a carefully balanced acetyl capped block copolymer offers real advantages: greater storage stability, lower tendency to foul downstream equipment, more predictable performance across formulations, and simpler regulatory documentation due to reduced metabolite risk. Our coworkers and customers have seen firsthand that the time spent refining chain architecture and capping strategy eliminates recurring process and quality concerns, keeping lines running and complaints rare. We build feedback and lessons learned into every new batch, drawing from the actual working environment rather than abstract marketing speak or theoretical purity.
Manufacturing chemicals demands more than getting yields right or meeting purity checklists. It means learning from every upset, every customer callback, and every clogged valve. Over the years, we have invested in process automation, advanced analytics, and regular staff retraining, all to ensure Y-10008’s quality and reliability. We’ve worked with coatings labs to reformulate lines previously plagued with separation or gelation, textile finishers suffering yellow stains, and cleaning contractors seeking stable, low-residue rinses. With each technical support call and every plant trial, we see where stabilizing the surfactant structure yields tangible, definable gains. Y-10008 represents not just an iterative improvement but a step change in long-term reliability, grounded in the realities we face daily.
From plant start-up to ongoing supply, Y-10008 is a chemical defined by continuous feedback and adaptation. Clean, accurate batch records, skilled operators, and close collaboration with downstream users ensure that what leaves our facility each week fits the unpredictable, high-stakes environment our customers face. Any departures from the expected—changes in viscosity, sudden haze, unexpected gelling—drive corrective action immediately. We design our product not as a generic but as a solution to the actual, recurring problems experienced across industrial sectors.
Ultimately, the value of a surfactant emerges not in the lab but in the field—the long nights spent troubleshooting, the incremental tweaks made at the plant floor, the candid conversations with customers about what works and what doesn’t. Years of direct feedback led us to settle on acetyl capping and block cation choice, reinforcing just how interdependent manufacturing and end use really are. The confidence that comes from real experience—not just as scientists but as hands-on producers—drives us to keep refining both the product and our process, ensuring every drum of Y-10008 delivers the consistency, performance, and reliability that our users require.