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HS Code |
565813 |
| Inci Name | Cetearyl Olivate (and) Sorbitan Olivate |
| Origin | Plant-derived |
| Type | Non-ionic emulsifier |
| Physical Form | Creamy-white solid or flakes |
| Solubility | Oil-soluble |
| Hlb Value | Around 9-11 |
| Recommended Usage Rate | 2-8% |
| Ph Stability | pH 3-10 |
| Biodegradability | Readily biodegradable |
| Compatible Oil Phase | Wide range of vegetable and mineral oils |
| Function | O/W (oil-in-water) emulsification |
| Skin Feeling | Light, non-greasy |
| Certification | COSMOS/Ecocert approved |
| Applications | Creams, lotions, serums |
| Shelf Life | 2 years (unopened) |
As an accredited Naturally - derived Non - ionic Emulsifier factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a 1 kg resealable pouch, labeled “Naturally-derived Non-ionic Emulsifier,” featuring safety instructions and batch details. |
| Shipping | The naturally-derived non-ionic emulsifier is securely packed in airtight, chemical-resistant containers to preserve stability during transportation. Each shipment is labeled according to relevant safety standards and handled by certified carriers. Standard shipping includes protection from extreme temperatures and moisture, ensuring the product arrives in optimal condition, ready for safe commercial or laboratory use. |
| Storage | **Storage of Naturally-derived Non-ionic Emulsifier:** Store in a cool, dry, well-ventilated area away from direct sunlight and sources of heat. Keep container tightly closed and properly labeled. Avoid exposure to moisture, contaminants, and incompatible substances. Store at recommended temperatures specified by the manufacturer. Ensure good housekeeping to prevent spills and contamination. Handle according to good industrial hygiene and safety practices. |
Applications of Naturally-derived Non-ionic Emulsifier in Industrial ManufacturingOur naturally-derived non-ionic emulsifier undergoes strict production and quality control at our site. It offers high stability and reproducibility in challenging industrial processes. We supply this material as an integral emulsification and dispersion agent, enabling controlled performance in regulated environments. Below, we detail industrial application scenarios where downstream producers use our emulsifier with precise compliance, formulation, and processing guidance. 1. Personal Care Emulsion ProductionPersonal care manufacturers rely on our non-ionic emulsifier to create stable creams, lotions, and serums. It permits the dispersion of oil phases into water-based systems and supports fine-tuned viscosity and skin feel profiles. Producers select this material for paraben-free and naturally-positioned formulations. The emulsifier integrates at the oil-water pre-emulsion step, ensuring lasting emulsion stability during fill and shelf-life. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Industrial Water-based Paints & CoatingsCoating formulators use our non-ionic emulsifier to stabilize pigment dispersions and prevent phase separation in water-based paints and primers. It allows controlled particle size and enables low-VOC and APEO-free claims. The emulsifier enters prior to pigment milling, helping meet performance and regulatory requirements across finished paints for building and infrastructure sectors. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Food-grade Emulsified Additives ManufacturingFood ingredient producers adopt our naturally-derived emulsifier for its GRAS status to stabilize food additives including flavors, food colors, and nutritional lipids. This emulsifier helps create clear beverage emulsions and prevents separation in sauces. Integration starts at flavor encapsulation or ingredient blending, providing dispersion control and end-product clarity while meeting strict food safety and labeling requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Agricultural Suspension Concentrates FormulationAgrochemical formulators select our non-ionic emulsifier to stabilize suspension concentrates and emulsifiable concentrates for crop protection. It provides stable dispersal of actives and carriers, allowing lower use of co-solvents. During SC manufacture, processors add the emulsifier before wet milling, supporting fine particle size control under stringent environmental and residue regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Pharmaceutical Ointment and Cream ProcessingCertain topical pharmaceutical manufacturers use our emulsifier for its low irritancy and natural origin, supporting the formulation of medicated creams and ointments. It allows precise phase dispersion and facilitates uniform active ingredient release. Process engineers add the emulsifier when melting or blending oil and aqueous medicinal phases, controlling emulsion particle size and batch homogeneity according to pharmacopoeial validation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive Naturally - derived Non - ionic Emulsifier 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 admin@ascent-chem.com.
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Tel: +8615365186327
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For decades, we have built chemistry from the ground up. We have stood over reactors and kettles and watched raw materials blend, react, and transform under our care. Every batch has challenged us to deliver cleaner results, not just for our customers but for our own peace of mind. The introduction of our naturally-derived non-ionic emulsifier is more than a new product line. It marks a step forward in how we approach formulation and sustainability.
Back in the early 2010s, demand for milder, greener solutions began to climb from the laboratory up through purchasing departments. That request wasn’t just noise—it was a clear signal. Customers wanted to move away from petrochemical-derived agents, not just for the sake of branding but to address both regulatory pressures and consumer conscientiousness. Our team watched synthetic surfactant bans roll in for rinse-off and leave-on personal care goods. Industrial buyers voiced concerns about persistent residues in rinse water.
We understood that traditional emulsifiers, while effective, often included traces of ethylene oxide, sulfates, or quaternary ammonium compounds. Those components can carry environmental persistence or even skin irritancy. These problems pile up as volumes grow. With large-scale manufacturing runs, the downstream consequences aren’t theoretical: they turn up in wastewater, show up during plant cleaning, and sometimes make it to the customer’s complaint line. The need for a natural, non-ionic emulsifier became obvious, not just for compliance but for genuine operational improvement.
Our road to this emulsifier started with the raw materials. We looked to renewables—especially plant oils and sugars. After dozens of bench-scale trials, we settled on fatty alcohols from coconut oil, reacted with plant-derived glucose via enzymatic catalysis. Our facility now handles this reaction in dedicated vessels to prevent cross-contamination with older quaternized surfactant cycles.
The resulting product carries minimal odor and low color. Granular control over the reaction’s temperature and agitation speed keeps byproducts in check, giving us a tighter distribution of molecular weights and better batch-to-batch predictability. On the line, operators notice cleaner pours and far easier clean-up at day’s end.
Our model currently included in this line-up carries an HLB value tuned for o/w emulsions (oil-in-water) that commonly appear in standard cream and lotion manufacturing. For more complex formulations—say, silicone-in-water systems for leave-in hair treatments—we adjusted the sugar backbone for higher stability under broad pH ranges. Our QA team monitors each batch using chromatography and surface tension measurements, never relying solely on out-of-spec warning alarms.
Years of watching valves, flows, and blending times taught us that customers ask for numbers, but they want predictability. Our current model offers active content exceeding 95%—a result we back with consistent real-world lab data, not just internal spec sheets. Pour point sits around 22°C; lightweight enough for regular pumps but solid enough that the product doesn’t separate when left idle in the factory drum. The pH drifts only slightly in diluted solutions, landing somewhere between 6 and 8, which fits most applications without adjustment.
One property that stands out is the product’s resilience to high shear and heat. On one 800 kg run last winter, a customer’s mixer went over 80°C during an irregular cycle time. Their operators called us expecting a write-off—what they got was a stable, non-gritty emulsion, all because our non-ionic agent held up under stress. That customer now keeps only this emulsifier in their supply room, cutting their order complexity by half.
We have tested this emulsifier in countless pilot batches for personal care, food, and even agricultural formulations. It works best added to the oil phase before heating, though we’ve seen formulators also dose it directly into water with similar results. A few customers tried cold process addition, especially for CBD creams and sensitive actives, and reported rapid, lump-free dispersion. That wasn’t a surprise to us. The sugar-derived scaffold of the molecule interacts cleanly with fatty components, without the sticky residues that plague some glycerol or sorbitan-based agents.
Because it doesn’t rely on a charge mechanism, this emulsifier tolerates a much wider pH range than cationic or anionic options. Detergents, acids, and even some strong bases can’t derail its performance. In one food preservation project, a client ran repeated acid stress tests based on strong citrus extracts and ended up shelving their older lecithin products in favor of our emulsifier. They stopped worrying about separation or back-mixing, and their blending tank cycles sped up by nearly a third.
In heavy-duty cleaners and industrial degreasers, operators noticed improved rinse-off with less effort. Our on-site maintenance crew, who care more about cleanup than chemical theory, tell us this reduces their downtime by almost an hour every evening. These small improvements translate straight into cost savings and less frustration.
Our manufacturing crew keeps a running log of production side-by-sides, so we have accumulated years of practical findings. One pattern jumps out: classic non-ionic synthetic emulsifiers and even mid-grade tweens or PEG-based products still dominate in legacy processes. Those molecules work, but they often leave behind micro-residues, and the environmental tally grows as production scales up.
Our naturally-derived non-ionic emulsifier reveals its strengths in these direct comparisons. It rinses cleaner, does not foam excessively, and doesn’t carry a synthetic scent. In a pilot with a customer who imports natural raw botanicals for skin care, our product paired with essential oils produced a softer, more stable emulsion that survived six months of accelerated shelf life tests. Unlike some plant-derived competitors—especially older lecithin-based or mono/diglyceride emulsifiers—our agent doesn’t introduce taste or yellowing to food-grade or cosmetic products.
We have noticed that its stability outpaces many legacy materials. Where PEGs can degrade under UV, and cationic agents deactivate with certain actives, our product remains neutral and chemically inert in most final formulas. That means fewer rejected batches and less troubleshooting, especially for new staff or contract manufactures who don’t have time to diagnose complex phase challenges.
Handling chemicals day in and day out brings real-world knowledge. Our team’s hands have worn gloves through thousands of shifts, and we see how fumes, spills, or persistent residues take a toll—not just on equipment but on people. Since moving a segment of our line to naturally-derived, non-ionic emulsifiers, air quality samples taken around the mixers come out noticeably cleaner. We don’t see the lingering haze that follows some synthetic runs, and our wastewater output now passes more stringent local environmental standards with margin to spare.
We drew a line early: no use of palm oil derivatives, no ingredients with known reproductive toxicity, and zero persistent bioaccumulative hazards. Our natural feedstocks come from coconut and beet-sourced sugars, all traced through digital audits with our upstream partners. This choice does more than boost paperwork compliance—it keeps manufacturing staff, and our neighboring communities, safer. Our tank farm operators are the first to notice: incidents are down, respirators see less use, and visitors spend more time on tours before needing a break outside.
We test every batch for trace contaminants, particularly 1,4-dioxane, a potential byproduct in ethoxylated compounds. Our protocols show that typical concentrations fall well below reporting limits, and in most runs, result as non-detectable. We have heard from buyers on every continent who value this choice, not because it makes for better marketing, but because it represents a step toward cleaner production at large scale.
Legacy systems come with baggage. Customers have described everything from persistent oil rings on tanks to dermatitis complaints on the production line. We lived with these headaches ourselves until we switched. After our own tank wash teams spent less time battling stubborn residues, we knew the benefits extended downstream. Non-ionic, plant-based scaffolds don’t cling as hard to steel or glass. Standard caustic rinses now take half as long, and fewer cleaning chemicals means less risk for our operators during changeovers.
On larger production projects, we saw losses from phase splitting—oil and water refusing to hold together through fill and packaging. Inefficient emulsifiers force you to slow filling speed, risking mess or even rejected bulk. Our current model maintains phase stability throughout, even as fill lines hit higher speeds. We’ve documented fill weights staying accurate across hundreds of units, without surprise overflow or underfill. For clients paying contract fees per unit, that consistency saves real money.
We began by supplying specialty personal care manufacturers—creams, serums, body washes—each with their own formulation quirks. Over time, our product entered broader fields: food stabilization, natural cleaner blends, even specialized agricultural adjuvants.
Our food industry clients highlighted non-migratory behavior. The product doesn’t contribute off-flavors or change product texture even at usage rates above 1%. In salad dressings, mayonnaise, and vegan spreads, it maintains the “creamy” mouthfeel that consumers associate with freshness but doesn’t separate on the shelf. Trial batches at our pilot plant consistently score well with sensory panels, with tasters unable to detect any added sweetness or aftertaste—a result we trace back to the sugar’s clean profile.
For industrial and institutional cleaners, the story runs parallel. Formulators report rapid wetting, reduced streaking on glass or metal surfaces, and easy rinsing on high-use floors. In glass cleaner prototypes, our product demonstrated lower streak potential compared to old-line non-ionic synthetics and outperforming some premium cationic blends. Janitorial staff at one commercial facility reported less build-up on mops and buckets, trimming maintenance intervals by 40%.
Agricultural blenders encounter a unique problem: pesticides and foliar feeds don’t always divide evenly in water-based carriers. Our non-ionic emulsifier brings the wetting power needed to coat leaves evenly, thriving in complex tank-mix scenarios. Field testing under variable pH and mineral loads delivered steady results—less caking, no nozzle clogging, and fewer complaints from applicators harvesting or spraying at scale. Customer yields tracked upward in some regions, a testament to more efficient application without wasted product settling at the tank’s bottom.
As global buyers keep setting higher bars for clean label declarations, formulators want traceability and proof—not vague assurances. Our in-house technical team works directly with procurement and regulatory contacts at customer facilities. They have written submission letters supporting REACH, TSCA, and international registration, laying out clear sourcing and manufacturing documentation.
The drive for transparency in ingredients pushes us to keep refining our process. With every order, we log raw material provenance, batch conditions, and sampler records. Insider audits and customer visits confirm compliance, but they also improve our robustness. When third-party evaluators want details on every intermediate, our staff walk them through the full chain, answering technical questions with first-hand experience instead of rehearsed scripts.
We view regulation as an engine, not an obstacle. Many of the changes we have made—redesigned storage for plant-based feedstocks, dedicated cleaning protocols, new environmental monitoring—stem directly from listening to regulators and our customer partners. When a new compliance wrinkle emerges, we solve it together, using small-batch trials and real-world feedback to guide improvements. That approach has cut our waste output, improved energy use, and led to safer, more consistent emulsifiers for everyone down the chain.
In customer feedback sessions, what resonates most is the experience on the line. One formulator for a natural baby wipe brand recounted frustration with past emulsifiers that left sticky residues requiring extra rinses. After switching, their team reported not only smoother application but fewer skin complaints from end users. Over months, their warranty returns dropped, and satisfaction marks climbed.
A beverage customer, pivoting toward clear-label energy drinks, struggled with older plant-based emulsifiers that foamed excessively and dulled flavor notes. Our product brought clarity, reducing surface turbidity and delivering tastier prototypes. Their plant manager called out lower maintenance downtime as an unexpected—but highly valued—side effect.
Inside our own operations, manufacturing staff tell us they prefer working with this non-ionic agent. They face fewer odors in closed rooms. Assemblers cleaning kettles between runs finish in less time and have reported improved air quality in work areas evaluated during annual health surveys. These informal endorsements speak as strongly as any third-party test or certificate.
From a manufacturing perspective, every innovation gets measured in consumed energy, waste output, and staff health. Since embracing naturally-derived, non-ionic emulsifiers, our drum reconditioning cycles dropped—less residue means less water and detergent used. We’ve trimmed batch rinse steps, meaning less hot water consumption per shift. Our environmental officer now logs lower COD (chemical oxygen demand) and BOD (biological oxygen demand) values in plant effluent.
Shipping has grown more efficient, too. With higher activity per kilo, customers handle fewer drums, freeing up warehouse space. We have transitioned to lighter, recyclable packaging since our product’s lower viscosity does not demand reinforced plastic barrels. Staff spend fewer hours dealing with bulky packaging waste, which contributes to better overall morale and reduced handling injuries.
We don't see our role as simply a supplier—we partner with our customers. We run small-lot pilots alongside their teams, adapting formula ratios for tricky actives or seasonal sourcing challenges. Our R&D staff remain available for technical troubleshooting during all project stages. Whether a customer faces unanticipated stability issues, high-shear mixing problems, or tricky regulatory hurdles, their call goes directly to our senior chemists.
Each batch tells a story: the raw materials chosen, the batch record signed off, the feedback loop from the customer’s plant. We rely on these practical insights to keep improving. If an industry trend shifts—say, toward even milder or more biodegradable emulsifiers—we are already laying the groundwork, benchmarking green chemistry routes for tomorrow’s needs.
We know that every reformulation comes with risk. Changing an emulsifier can disrupt countless downstream processes, from procurement to marketing. Our commitment is to manage those transitions hand-in-hand, ensuring that every new launch, every line extension, runs smoother over the months and years. We only introduce a new ingredient after our own plants, our supply chain, and our downstream users have lived with it and signed off.
Decades at the bench and on the plant floor have taught us that new solutions don’t just show up—they are built, refined, and put through their paces in the field. Introducing a naturally-derived non-ionic emulsifier marks another step along a long road rooted in chemistry and responsibility. Every batch, from the source crop to the filling station, echoes our drive for safer workplaces and higher performing products.
We listen carefully to feedback—both praise and complaints—and carry those lessons through to every new run. This product isn’t just another item on a spec sheet. It’s the result of our team’s daily effort, our constant push for cleaner production, and our customers’ unyielding demand for better performance and sustainability. As we look ahead, our path remains guided by that same balance of innovation and real-world practicality.