|
HS Code |
327182 |
| Product Name | Polyoxyethylene Alkylphenol Ether |
| Synonyms | Nonylphenol ethoxylate, Octylphenol ethoxylate |
| Cas Number | Various, commonly 9016-45-9 |
| Appearance | Clear to slightly hazy liquid |
| Odor | Mild, characteristic |
| Color | Colorless to pale yellow |
| Solubility In Water | Soluble |
| Ph Value | 5.0 - 8.0 (1% aqueous solution) |
| Boiling Point | Above 100°C (varies with ethoxylation degree) |
| Density | 1.05 - 1.10 g/cm³ at 20°C |
| Surface Tension | 28-35 mN/m (1% solution at 25°C) |
| Hlb Value | 10 - 18 (varies by ethoxylation degree) |
| Chemical Formula | C9H19C6H4(OCH2CH2)nOH (n varies, typically 4-20) |
| Flash Point | >150°C (closed cup) |
| Viscosity | 100 - 400 mPa·s (at 25°C) |
As an accredited Polyoxyethylene Alkylphenol Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Polyoxyethylene Alkylphenol Ether is packaged in a 200 kg blue HDPE drum, featuring secure sealing and clear product labeling. |
| Shipping | Polyoxyethylene Alkylphenol Ether is shipped in tightly sealed, corrosion-resistant drums or containers. It should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances. Containers must be clearly labeled, handled with care, and kept upright to prevent leaks and spills during transportation. |
| Storage | Polyoxyethylene Alkylphenol Ether should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from direct sunlight, heat sources, and incompatible substances such as strong acids or oxidizers. Avoid freezing and direct exposure to moisture. Use non-reactive materials for storage containers, and ensure proper labeling. Maintain storage conditions to prevent degradation and ensure safety. |
Competitive Polyoxyethylene Alkylphenol Ether prices that fit your budget—flexible terms and customized quotes for every order.
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In the chemical manufacturing field, Polyoxyethylene Alkylphenol Ether isn’t just a few words on a drum label. It’s a product we’ve developed through decades of hands-on formulation work and conversations with partners in industries as far-flung as textiles, agriculture, and plastics. Over the years, we’ve learned that success with this material means paying attention to the details—batch consistency, raw material quality, and the subtle variations in ethoxylation degree that impact product performance in the real world.
Polyoxyethylene Alkylphenol Ethers are nonionic surfactants, built from the reaction between alkylphenols and ethylene oxide. The process yields a material with a hydrophobic alkylphenol tail and a variable-length hydrophilic polyoxyethylene chain. For those working in emulsification, wetting, or detergent applications, this balance makes all the difference. The choice of alkyl tail and the number of ethylene oxide repeats let us tailor the product line—shorter EO chains for stronger wetting, longer chains for powerful emulsification, and various points in between.
Over time, our manufacturing facility has settled on a range of typical models, often described by their EO number: NP-4, NP-6, NP-9, NP-10, and OP-10 stand out as common choices, each with a unique blend of water solubility, foaming character, and emulsifying strength. For example, NP-10 (Nonylphenol with about 10 ethylene oxide units) fits detergent manufacturers’ needs for its ability to form stable, fine emulsions and wash away grease with minimal residue. In contrast, OP-4 handles soil penetration tasks thanks to its shorter EO chain and stronger wetting action.
As a producer, I know the difference between a batch that meets tight EO distribution and one that doesn’t. Odd peaks on a chromatogram can lead to milky, unstable emulsions in a customer’s plant, and inconsistent viscosity numbers can jam an automated dosage system. We always run real application tests, not just lab titrations. Whether it’s textile scouring, crop protection, or plastics processing, these products meet real-world expectations because we pay attention to reaction rigor, purification, and storage. This way, customers get what they expect—every pump, every drum.
Controlling raw material purity reduces yellowing or odor—important in applications like paints or plastics where the final look and the absence of off-smells matter. Minimized batch-to-batch variation means big customers with automated lines don’t end up shutting down to adjust dosing. This focus on quality translates to fewer headaches at every stage of supply and use.
Polyoxyethylene Alkylphenol Ether isn’t a one-size-fits-all material. We spend time helping partners dial in the chain length, hydrophilic-lipophilic balance (HLB), and viscosity they need. Textile processors usually rely on NP-9 or NP-10, aiming for effective scouring and dye leveling. Agricultural formulators pick shorter-chain products for faster leaf wetting, or longer-chain varieties that disperse oil-based pesticide formulations smoothly and stay stable in varying temperatures.
Plastic and rubber factories use certain models as effective anti-static agents, while cleaners and detergents look for a balance between foam stability and washing strength. There is no universal grade that fits every job; the precise combination of chain structure and viscosity determines how well the surfactant works in the customer’s system. Experience guided product recommendations solve more problems than any generic brochure.
With years of running process reactors and fielding feedback from customer facilities, we’ve seen the differences between Polyoxyethylene Alkylphenol Ethers and other surfactant types play out day after day. The most common alternatives are alcohol ethoxylates, linear alkylbenzene sulfonates, and fatty acid ethoxylates. Polyoxyethylene Alkylphenol Ether stands out in a few reliable ways.
Compared to alcohol ethoxylates, it tends to handle oily soils with stubborn compositions more effectively. The branched structure of the alkylphenol backbone imparts stronger solubilizing and dispersion power in some industrial cleaning formulas and textile applications. Against linear alkylbenzene sulfonates, alkylphenol ethoxylates offer a nonionic character, so they don’t interact with cations in hard water, sidestepping some of the precipitation headaches encountered in detergent manufacturing.
Fatty acid ethoxylates, although mild and biodegradable, fall short on wetting or emulsifying performance, especially under heavy, greasy conditions or with challenging industrial soils. Polyoxyethylene Alkylphenol Ether’s chemistry—its blend of hydrophobic and hydrophilic segments—just pulls off tougher jobs, which is why it often remains the back-bone surfactant in many heavy-duty formulations.
There’s also a practical dimension: these products tolerate pH shifts and high temperatures better than many competitors. Industrial facilities run at high throughput and see wide pH swings in processing baths; Polyoxyethylene Alkylphenol Ether keeps performing without layer separation or breakdown. That kind of reliability isn’t a footnote—it’s the reason why facilities stick with our material and only change grades when their production goals shift.
Manufacturing means sourcing raw materials to tight specifications and keeping storage times short. Alkylphenols and ethylene oxide both demand care and compliance all the way from tank to reactor. We insist on traceable suppliers and clean delivery. Even modest changes in feedstock quality or freshness affect end-use clarity and odor, which in turn ripple into user feedback or regulatory scrutiny.
Because Polyoxyethylene Alkylphenol Ether can thicken or destabilize under improper storage (cold, humidity, or sunlight), logistics and warehouse staff get the same training as lab personnel. The goal is a product that pours, blends, and mixes into formulations with no surprises—whether delivered locally or shipped halfway across the globe in drums or Isotanks.
We learned early that consistent product helps everyone. On our manufacturing line, batch records track not just analytical specs—such as HLB and viscosity—but also performance in simulation tests. Technical teams measure emulsification speed in real paint or pesticide formulations, track foam stability in lab washers, and observe wetting time on treated fabric. The feedback loop with end users continues to shape how we adjust chain length, maintain tight tolerances, and design packaging.
It is tempting to see surfactant manufacture as plugging numbers into a reactor, but the truth is less forgiving. Batch-to-batch consistency affects everything downstream: how quickly detergent makers can reach final blend strength, whether pesticide concentrates hold up during storage, and how even a textile’s color appears after processing. We back up our claims about reliability with regular batch testing, on-site audits, and collaborative troubleshooting.
As a manufacturer, safety sits at the core of every process. Ethylene oxide and alkylphenols require careful handling, meaning double containment, vapor capture, and worker training are standard practice. Plant design leans heavily on closed systems and real-time leak detection. Any emissions or byproducts receive the same attention as saleable product quality. The shift toward more environmentally aware practices has pushed us to look beyond reaction cleanup and waste minimization too.
Environmental scrutiny has increased in recent years, especially around nonylphenol derivatives. Many countries have imposed use restrictions or phase-outs based on persistence in the environment or aquatic toxicity. We keep well ahead of evolving standards, offering shorter-chain alternatives or focused solutions that reduce environmental load without compromising on effectiveness. Implementing alternative raw material sourcing and adopting more advanced purification steps has become standard procedure in our facility, not a future promise.
Polyoxyethylene Alkylphenol Ethers touch a surprising array of industries every day. Textile factories rely on them for uniform scouring and improved dye leveling. Pulp and paper mills benefit from their foam suppression and pitch-dispersing action. Agricultural chemical blenders count on them for reliable wetting and spreading of crop protection sprays, even on waxy plant surfaces. In plastics and rubbers, certain grades keep film surfaces antistatic or promote pigment dispersion. Heavy-duty detergent makers appreciate their interplay between solubilizing grease and maintaining foam at a workable level.
Industrial and institutional cleaning companies use these surfactants to cut through oily residues that bring most alternatives to a halt. The performance edge comes from the product’s molecular design: the configuration of the alkyl tail and the length of the polyoxyethylene units. Whether applied in formulations for metal degreasing or as an auxiliary in dying machines, subtle changes to this structure show up in the results customers see every day.
Many buyers approach us with specific problems—a particular stain that won’t shift, a dyeing process that produces streaks, or a crop-protection mix that keeps settling out. Polyoxyethylene Alkylphenol Ether opens a toolbox that offers more than just standard answers: we can tweak the chain length, adjust the water solubility, or blend multiple grades to match exact process conditions. Our technical staff routinely works with customers’ on-site chemists, guiding trial batches and troubleshooting application headaches.
All of this rests on the years we’ve spent not just making the product, but seeing it perform—or fall short—under real-world stresses. That’s why we devote resources to application support and encourage open lines of communication between our process enginners and customers’ technical teams. Custom solutions come from experience, and we take pride in seeing our chemistry solve challenges that generic approaches never could.
Product development never stands still. Customers bring us new challenges—from running high-efficiency machines to meeting environmental or regulatory benchmarks that didn’t exist five or ten years ago. We work closely with regulatory agencies and industry consortia to identify which ingredients or manufacturing approaches remain sustainable in the long term. Our development pipeline reflects this: newer grades include those derived from linear, readily biodegradable alkylphenols or manufactured using greener solvents.
We invest in continuous improvement, testing blends with naturally sourced or renewable feedstocks and developing lower-impact synthesis methods to reduce both energy and chemical waste. This future-facing work builds on solid, proven chemistry, backed by the reality checks of what works on production floors, not just in the lab. By focusing on what matters most to our customers—performance, reliability, and safety—we help shape products ready for changing market and regulatory demands.
Decades of production and feedback have given us a library of troubleshooting tips. When a batch is slow to dissolve, we look at temperature, agitation, and water hardness. If a blend isn’t stable, we review HLB compatibility with other formulation components. Excess foam can be dialed in or out depending on the process, by switching between lower or higher EO grades. We’re no strangers to on-site line checks and have often chased down the source of unexpected odors or color shifts to a slightly out-of-spec raw material.
Customers in the detergent field occasionally hit stubborn soils that don’t break down, only to find that switching from an alcohol ethoxylate to a Polyoxyethylene Alkylphenol Ether formulation gets the results they sought. Others in crop protection discover that field performance varies with local water quality, requiring a closer look at blends designed for varied regional conditions. Over countless trials, we’ve seen that communication—prompt, honest, and backed by test data—solves most issues faster than any literature could.
We don’t operate in a vacuum, isolated from regulatory or environmental trends. As new rules target nonylphenol derivatives or call for reduced aquatic toxicity, we respond by reformulating and certifying alternatives. Some clients, especially in Europe or North America, look for ethoxylates made from biodegradable raw materials to fit their sustainability goals. Our portfolio now extends to these greener options, matching or exceeding their classic counterparts’ performance.
Market needs can shift quickly, whether driven by new manufacturing technology, resource constraints, or evolving consumer preferences. Being a direct producer puts us in a unique position: we adjust our production lines, lab procedures, and quality assurance protocols to keep pace. Feedback flows into our scale-up and investment decisions. For buyers needing custom packaging or special logistics, our ability to handle bulk, totes, or small containers comes from listening to years of requests and building flexibility into our supply chain.
Every customer wants a product that works—one that doesn’t throw surprises into their process or final goods. By keeping tight control of raw materials, monitoring every step of synthesis, and backing up technical claims with users’ own process data, we’ve built long-term partnerships with industries that rely on reliability. In the end, Polyoxyethylene Alkylphenol Ether isn’t just another commodity: it’s a set of solutions, built from practical experience, open dialogue, and constant adaptation.
Our experience shows that attention to process, willingness to customize, and commitment to safety and sustainability are what keep real-world operations running and end-users satisfied. By focusing on the details and never standing still, we help keep industries moving forward, batch after batch, year after year.
