Products

Fatty Alcohol Ethoxylate

    • Product Name: Fatty Alcohol Ethoxylate
    • Chemical Name (IUPAC): Polyoxyethylene alkyl ether
    • CAS No.: 68439-49-6
    • Chemical Formula: C₂ₙH₄ₙ₊₂₊₂ₘOₘ₊₁
    • Form/Physical State: Liquid
    • Factroy Site: Nanbao Development Zone, Tangshan City, Hebei Province
    • Price Inquiry: sales7@bouling-chem.com
    • Manufacturer: Tangshan Sanyou Group Co., Ltd
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    Specifications

    HS Code

    113495

    Chemicalname Fatty Alcohol Ethoxylate
    Casnumber C12-C18 Alcohol + Ethylene Oxide (varies by ethoxylation degree)
    Molecularformula CnH2n+1(OCH2CH2)xOH
    Physicalstate Liquid or waxy solid
    Color Colorless to pale yellow
    Odor Mild characteristic odor
    Solubilityinwater Soluble, varies with ethoxylation degree
    Ph Typically 5.0 - 8.0 (1% aqueous solution)
    Boilingpoint Decomposes before boiling
    Density 0.95 - 1.05 g/cm³
    Surfacetension Low (act as surfactants)
    Hlbvalue Can range from 6 to 18 (depends on ethoxylation)
    Flashpoint >150°C
    Stability Stable under recommended storage conditions
    Viscosity Varies; typically 50-350 mPa·s at 25°C

    As an accredited Fatty Alcohol Ethoxylate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The chemical "Fatty Alcohol Ethoxylate" is typically packaged in 200 kg blue HDPE drums, sealed and clearly labeled for industrial use.
    Container Loading (20′ FCL) A 20′ FCL typically loads 16–18 metric tons of Fatty Alcohol Ethoxylate, packed in 200 kg drums or 1000 kg IBC tanks.
    Shipping Fatty Alcohol Ethoxylate is typically shipped in sealed, airtight containers such as HDPE drums or IBC totes to prevent contamination and moisture absorption. Ensure the containers are clearly labeled, handled carefully, and stored in a cool, dry area. Comply with all relevant transportation regulations and safety data requirements.
    Storage Fatty Alcohol Ethoxylate should be stored in tightly sealed containers made of stainless steel, polyethylene, or other compatible materials. Store in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and strong acids or oxidizing agents. Ensure containers are clearly labeled and keep them away from incompatible substances to prevent contamination and minimize safety risks.
    Shelf Life Fatty Alcohol Ethoxylate typically has a shelf life of 12–24 months when stored in cool, dry, well-sealed containers away from sunlight.
    Application of Fatty Alcohol Ethoxylate

    Purity 99%: Fatty Alcohol Ethoxylate with purity 99% is used in textile wetting agents, where it ensures rapid wetting and uniform fabric penetration.

    Viscosity grade medium: Fatty Alcohol Ethoxylate of medium viscosity grade is used in household liquid detergents, where it enhances solubility and cleaning efficacy.

    Molecular weight 700 g/mol: Fatty Alcohol Ethoxylate with molecular weight 700 g/mol is used in pesticide formulations, where it improves emulsification and dispersion stability.

    Ethoxylation degree 7 EO: Fatty Alcohol Ethoxylate with ethoxylation degree 7 EO is used in emulsion polymerization processes, where it provides superior colloidal stability and particle size control.

    Melting point 45°C: Fatty Alcohol Ethoxylate with melting point 45°C is used in industrial cleaning solutions, where it facilitates formulation in semi-solid products and consistent performance at ambient temperatures.

    Cloud point 60°C: Fatty Alcohol Ethoxylate with cloud point 60°C is used in oilfield demulsifiers, where it achieves effective phase separation in high-temperature environments.

    Hydrophilic-lipophilic balance (HLB) value 12: Fatty Alcohol Ethoxylate with HLB value 12 is used in cosmetic creams, where it promotes stable oil-in-water emulsions and uniform texture.

    Stability temperature 80°C: Fatty Alcohol Ethoxylate with stability temperature 80°C is used in industrial laundering applications, where it maintains surfactant activity at elevated wash temperatures.

    Particle size 5 microns: Fatty Alcohol Ethoxylate with particle size 5 microns is used in agrochemical suspension concentrates, where it ensures homogeneous distribution and prevents settling.

    Residual alcohol content <0.5%: Fatty Alcohol Ethoxylate with residual alcohol content less than 0.5% is used in food-grade lubricants, where it minimizes contamination and complies with safety standards.

    Free Quote

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    For samples, pricing, or more information, please contact us at +8615371019725 or mail to sales7@bouling-chem.com.

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    Tel: +8615371019725

    Email: sales7@bouling-chem.com

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    Certification & Compliance
    More Introduction

    Introducing Fatty Alcohol Ethoxylate: Practical Value, Real Production Experience, and Insights from the Field

    The Continuity of Progress: Why Fatty Alcohol Ethoxylate Remains a Key Raw Material

    Fatty alcohol ethoxylate stands out as one of the most adaptable nonionic surfactants in industrial chemistry. Our roots in direct chemical manufacturing let us see firsthand how this substance has evolved from being a specialty ingredient for select applications to a workhorse that supports industries from textiles to household cleaners. The backbone of its value rests in the ease of shifting the ethoxylation numbers, which allows us to produce a whole spectrum of performance grades. Our series ranges from C12-C14 Lauryl Alcohol Ethoxylates with 7EO or 9EO to more robust C16-C18 chains with 10EO or higher. Each brings different properties to the table, meeting different process requirements.

    Unlike generic surfactants, tailoring the chain length and ethoxylation degree unlocks performance shifts, changing cloud points, foaming profiles, and solubility. For laundry detergents, a C12-C14 with higher ethoxylation gives strong emulsification with moderate foaming, supporting both stain removal and low-residue rinsing. In contrast, when textile dyeing processes call for wetting and dispersing agents, we move towards lower ethoxylation, which balances hydrophilicity and oil soil removal. Direct customer interaction often exposes us to requests for optimized HLB (hydrophilic-lipophilic balance) and balanced stability against electrolytes, both of which we can address through real-time lab adjustment and pilot-scale validation.

    Specification and Quality Control: From Plant Floor to Customer Tank

    Each lot begins with careful selection of fatty alcohol sources, ranging from synthetic Ziegler products to natural coconut or palm kernel derivatives, tied to traceable batches. We track acid values, saponification levels, and monitor EO conversion during ethoxylation. Quality fluctuations show up instantly, impacting downstream blending, so we operate GC and HPLC analysis at several process points with every shift. Our lab keeps an eye on cloud point, pour point, and active matter well beyond standard product checklists. These quality steps do more than hit spec targets; they prevent surprises in the customer’s facilities, especially for downstream formulators who run high-throughput blending systems.

    Some customers track free fatty alcohol content rigorously, especially in agriculture emulsifiers where stability under hard water is critical. Feedback cycles between our technical and field support teams help us tighten QC windows year after year. Our average EO distribution deviations have narrowed by nearly 10% over the last five years, thanks to real-world product application feedback.

    Learnings from Using Fatty Alcohol Ethoxylate in Real Applications

    The core selling point remains the wide latitude for tuning — something rarely replicated with other surfactants. A detergent formulator working with hard municipal water looks for high calcium tolerance; we adjust the chain length and EO to improve stability and minimize precipitation, integrating end-user feedback from commercial laundry plants. In agriculture, emulsifiable concentrate formulations demand low-foam and superior oil/water partitioning. Here, our focus shifts toward higher chain length and mid-range ethoxylation. Years of R&D showed that certain EO numbers improve uptake and penetration while keeping physical stability in complex pesticide packages.

    Scaling from lab to production isn’t about copying a recipe. Factors such as reactor agitation profile, heat transfer efficiency, and the EO addition curve play a vital role. We faced foaming and batch instability challenges in older reactors; modern controls plus online viscosity monitoring let us manage EO feed rates tightly, ensuring product reliability. Consistency matters more than any spec sheet can state. A textile plant using our C12-C14 7EO grade reported fewer machine stoppages and less dye streaking not because of theory, but because our viscosity and cloud point controls matched their process window. We don’t just produce to number targets — our process and post-blending tweaks reflect years of pilot plant testing and listening to customer engineers.

    Mistakes, Innovations, and Constant Adjustments

    Years ago, a major customer returned several bulk shipments due to layer separation in their concentrated agricultural emulsions. We found insufficient EO distribution and traced it back to a temporary reagent supplier. That episode cost us time and margin, but it drove our decision to invest in multi-point EO dosing and better in-line monitoring. We learned that even small batch deviations can cause downstream chaos: phase splits, buildup inside mixers, or poor dilution when customers scale up their own batches. These are problems a trader or distributor rarely faces first-hand. Direct accountability changes how a manufacturer does business.

    Innovation has come not only from positive feedback but from failures. When an early batch of fatty alcohol ethoxylate for sulfate surfactant blends produced high foaming in dishwashing liquids, we went back to process chemistry. We tweaked the EO range and improved purification, reducing free alcohol carryover. The learning curve drove our QC cycles tighter than industry norms called for. A direct line from our production floor to customer R&D teams shows up in improved blend stability, better rinse performance, and lower residues in finished products. We don’t abstract these as “value-added” features. They’re concrete results, built from mistakes and tight feedback loops between our people, our process, and manufacturers who use our products in thousands of tons per year.

    Head-to-Head Comparisons: Where Fatty Alcohol Ethoxylate Succeeds and Where It Falls Short

    Fatty alcohol ethoxylates sit alongside several other nonionic surfactants on the market, such as nonylphenol ethoxylates (NPE) or alkyl polyglucosides (APG). Years of direct manufacturing give us a nuanced perspective on where each type shines — and where fatty alcohol ethoxylates carve out an edge. Compared to NPE, fatty alcohol ethoxylates offer a much better environmental profile, especially on regulatory metrics such as biodegradability and aquatic toxicity. They have nearly phased out NPE in our portfolio for European and North American formulations. APGs provide plant-based claims and strong ecological credentials, but they often fall short in high-alkalinity or high-shear systems. Fatty alcohol ethoxylates handle electrolyte loads better and keep performance consistent in blends with soaps and anionic surfactants.

    Price often tips the scale. Our fatty alcohol ethoxylates usually beat APGs in terms of cost per active, and outcompete both NPEs and APGs in high-volume commodity applications. But sometimes — in cases like premium low-foam dish soaps or eco-label cleaners — customers will pay more for alternatives because of branding, odor, or texture. We have no illusions that one surfactant fits all. Instead, our production team focuses on roles where fatty alcohol ethoxylates solve specific pain points: stability in complex detergent bases, resolubility after freeze-thaw cycles, or low turbidity in glass cleaners. In textile wetting agents, their robust wetting power and salt resistance keep them staple components, even as newer chemical classes come and go.

    Balancing Regulations, Environmental Considerations, and Sustainable Sourcing

    The regulatory environment changes constantly; we do not have the luxury of ignoring it. The push for more stringent REACH, GHS, and TSCA standards puts a spotlight on nonionic surfactants, especially those with questionable breakdown products. As manufacturers, we learned to build backward traceability into our fatty alcohol supply chains, keeping tabs on renewable sourcing levels, natural versus synthetic splits, and quantifying palm kernel ratings. RSPO mass balance or segregated supply doesn’t just help marketing — it directly affects which multinationals continue using our grades.

    We witnessed how some customers shifted away from NPE due to warnings about aquatic persistence. The switch to fatty alcohol ethoxylates happened rapidly, but it came with heightened questions about environmental performance: how rapidly do our products biodegrade? Do any breakdown products create problems? We now run regular OECD 301B and 302B tests, drawing data straight from representative lots — not just ideal lab samples. Our R&D investment in lower-toxicity, faster-biodegradation blends came from pressure applied by downstream users, especially in regions with active NGO oversight. Our in-house advisers stay on top of the literature and integrate feedback from emerging regulatory guidance into both production recipes and labeling.

    Supporting Real-World Manufacturing: Challenges, Solutions, and the Value of Transparency

    From daily experience, we know that our value to customers isn’t phrased in abstract terms, but in solving day-to-day headaches. In the past year, a global laundry detergent company called us in after facing blocked pipelines and filter fouling due to separator instability. Our technical manager spent two days on-site, collecting line samples and flow data, and identified an excess of free fatty alcohol due to a minor plant malfunction on our end. Fixing the underlying EO reaction control issue solved both the immediate production stoppage and delivered a lesson to our own process team. Every failure makes our internal SOPs stricter, and we use those lessons to sharpen our quality commitments.

    Fatty alcohol ethoxylates sometimes face criticism for their petrochemical supply chain. Our ongoing investment in natural-sourced fatty alcohols and RSPO-certified palm kernel derivatives reflects a practical response to end-user demands. Every lot carries a sourcing audit for sustainability compliance. We work alongside farms and upstream processors to iron out supply discontinuities due to weather, disease, or geopolitical tensions. It’s not glamorous — it’s practical project management. Every up or downturn in pricing or supply constraints goes straight into our own cost models, then influences customer forecasts. The advantage of direct manufacturing is visibility: seeing the real-world impact of policy or climatic events on supply, from the plantation to the tank in our own yard.

    Market Trends and How Manufacturing Adapts

    Market demand for fatty alcohol ethoxylates tracks closely to established industrial output. A downturn in the textile industry or a slow season in agricultural spraying prompts immediate adjustments on our plant’s production calendars. Global surges in personal care or home cleaning products — seen distinctly during recent pandemic-driven spikes in hygiene — drive up-grade demand. Our team responds by ramping up relevant grades with higher active content or tuning foaming action at short notice.

    We learned that long-term customer loyalty depends on more than price or speed. One long-standing detergent company relied on us for custom C14-15 8EO, as their downstream plant had tight solubility and cloud point windows. During a disruptive freeze event that sent EO prices shooting up, we communicated our challenges openly and worked on split deliveries and shared batching. That’s a typical example of what manufacturers in our position experience. Direct exposure to operational variables — EO supply chain fluctuations, reactor downtime, port delays — gives us a realistic sense of risk and inspires open communication with customers. Distribution middlemen rarely have skin in the game. For us, every ton out of spec means direct customer impact and wasted time and resources.

    Why Direct Manufacturing Matters: Industry Wisdom and Relentless Improvement

    Fatty alcohol ethoxylate competes and cooperates with an evolving cast of surfactants. The advantage of controlling the process from start to finish shows up in open troubleshooting, real batch tracking, and responding to increasingly specific technical needs. Only a producer with a physical plant understands how small adjustments, such as minor tweaks in EO dosing or blending, ripple out into real-world performance. Tighter process control, stronger supply chain accountability, and firsthand feedback loops all make us more than just a link in the supply chain.

    Over the years, major industry shifts — tightening environmental rules, demand surges during health crises, sudden supply chain disruptions — have taught us to stay ready and nimble. This isn’t theoretical. Past incidents, from transportation delays to raw material interruptions, have forced us to make costly adjustments in real time. Our response gets shaped by years of working with technicians, plant managers, and R&D teams from every customer segment we serve. Fatty alcohol ethoxylates stay relevant because their flexibility in formulation, reliable performance, and sustainability improvements continue to meet evolving industrial needs.

    Looking Ahead: Continuous Evolution in Surfactant Manufacturing

    Recent years have seen end-users push for more transparency, reduced environmental impact, and verified sourcing. As a manufacturer, this means supporting batch-level traceability, developing new formulations with lower carbon footprints, and offering flexibility during market instability. We have invested in alternative feedstocks to diversify supply and support natural-claim products, but we retain the technical capability to step up synthetic routes when cost or availability demand.

    We remain committed to hands-on technical support, close supply chain partnerships, and ongoing process improvement. Our journey with fatty alcohol ethoxylate stands as a testament to what direct manufacturing can achieve: a blend of chemistry knowledge, customer empathy, and hard-won resilience in the face of shifting markets and tightening standards. Each batch, each project, and each lesson — whether sparked by a customer complaint or a regulatory change — becomes a stone in the foundation for tomorrow’s solutions.