Products

Emulsified Silicone Oil (Ultra-Small Particle Size)

    • Product Name: Emulsified Silicone Oil (Ultra-Small Particle Size)
    • Alias: emulsified-silicone-oil-ultra-small-particle-size
    • Einecs: 63148-62-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    645191

    Product Name Emulsified Silicone Oil (Ultra-Small Particle Size)
    Appearance Milky white emulsion
    Silicone Content Typically 20% - 60%
    Particle Size Less than 100 nanometers
    Ph Value 6.0 - 8.0
    Ionic Type Non-ionic
    Viscosity 100 - 1000 cP (at 25°C)
    Stability Excellent stability against dilution and hard water
    Solubility Dispersible in water
    Flash Point > 150°C
    Density Approx. 1.0 g/cm³
    Storage Temperature 5°C - 35°C
    Application Textiles, personal care, release agents, polishes
    Shelf Life 6 - 12 months (in unopened packaging)
    Environmental Property Low VOC, environmentally friendly

    As an accredited Emulsified Silicone Oil (Ultra-Small Particle Size) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Emulsified Silicone Oil (Ultra-Small Particle Size) is packaged in 25kg high-density polyethylene drums, ensuring secure storage and convenient handling.
    Shipping Emulsified Silicone Oil (Ultra-Small Particle Size) is shipped in tightly sealed, corrosion-resistant drums or high-density polyethylene containers to prevent contamination and leakage. Containers are clearly labeled with hazard information and must be stored upright, protected from extreme temperatures and sunlight, and handled according to relevant chemical shipping regulations.
    Storage Emulsified Silicone Oil (Ultra-Small Particle Size) should be stored in tightly sealed containers, away from direct sunlight, heat sources, and incompatible materials such as strong acids or bases. Maintain storage temperatures between 5°C and 35°C in a well-ventilated, dry area. Prevent freezing and avoid excessive agitation to preserve emulsion stability and prevent separation or degradation of the product.
    Application of Emulsified Silicone Oil (Ultra-Small Particle Size)

    Applications of Emulsified Silicone Oil (Ultra-Small Particle Size) in Industrial Manufacturing

    As an original producer of ultra-small particle size emulsified silicone oil, we provide solutions directly integrated by industrial clients in multiple specialized sectors. The following application fields reflect authentic downstream usage, with a focus on exact compliance codes, dosage ranges, process stages, and finished product types in each segment.

    1. Textile Finishing and Functional Fabrics

    Leading textile plants adopt our ultra-fine emulsified silicone oil for their softening and handle-enhancing treatments, especially on synthetic, blended, and cellulosic fibers. Finishing lines rely on its micro-particle characteristics to achieve uniform surface modification with low yellowing risk. The material is dosed during the final pad-dry-cure or exhaustion stage post-dyeing, yielding fabrics with improved smoothness, hydrophilicity or water repellency depending on end use and formulation. Strict international standards such as Oeko-Tex and REACH affect its allowable components and application limits, making continuous process control and traceability vital.

    Industry compliance standards

    • OEKO-TEX Standard 100
    • ZDHC Manufacturing Restricted Substances List (MRSL)
    • EU REACH Annex XVII (general and textile-specific chemicals)
    • GB/T 29862 (Chinese textile chemical regulations)

    Typical usage ratio

    • 1.0–3.0% owf (on weight of fabric) for hand modification
    • Up to 6.0% owf for specialty hydrophilic finishes
    • Dosage adjusted for fabric weight, desired softness, and machine type

    Downstream process integration

    • Added in finishing bath during final pad-dry-cure for wovens and knits
    • Metered dosing into jet or overflow dyeing machines for synthetic fibers
    • Spray or foam application for denim and technical textiles

    Final product types

    • Performance sportswear
    • Home textiles (towels, bed linen)
    • Automotive upholstery
    • Industrial nonwovens

    2. Water-Based Automotive Polish and Care Chemicals

    Emulsified silicone oil with ultra-small particles delivers outstanding gloss and water beading in automotive formulations. Major car care compound assemblers use it as a core slip agent and conditioning ingredient within aqueous wax and polish blends. The exceptional dispersion stability minimizes separation, supporting long-term product shelf life and batch-to-batch consistency. Compatibility with nonionic and selected anionic surfactant systems contributes to clear, non-oily film deposition on painted and plastic surfaces. Compliance with VOC directives, GHS labeling, and automotive OEM chemical requirements must be maintained to ensure market acceptance and end-user safety.

    Industry compliance standards

    • EU Directive 2004/42/EC (VOC for paints and varnishes)
    • GHS (Globally Harmonized System for Classification and Labelling of Chemicals)
    • Automotive OEM in-house chemical acceptance lists (Daimler, Volkswagen, GM, etc.)
    • California CARB Consumer Product Regulations (US, for VOCs)

    Typical usage ratio

    • 2.0–8.0% by weight in ready-to-use emulsion polishes
    • Lower (0.5–1.5%) in maintenance sprays or quick detailers
    • Adjusted for desired gloss level and anti-static effect

    Downstream process integration

    • In-tank emulsion blending with waxes and surfactants
    • High-shear mixing to stabilize the dispersion
    • Quality control for viscosity and emulsion clarity

    Final product types

    • Car body polishes
    • Interior cleaning sprays
    • Dashboard conditioners
    • Tire dressings

    3. Leather Dressing and Synthetic Leather Manufacturing

    Synthetic and natural leather product facilities use ultra-small particle emulsified silicone oil to enhance softness, handle, and abrasion resistance during finishing. For wet end and dry end treatments, processors target deep penetration and surface uniformity without oily migration or fogging—factors vital for automotive, luxury goods, and footwear sectors. Regulations focus on VOC content, migratory residue, and exclusion of regulated organosilicon substances. Proper integration with acrylic, PU or biopolymer-based topcoats enables performance tailoring for distinct product segments such as automotive interiors, fashion bags, and technical sports shoes.

    Industry compliance standards

    • EN ISO 17075-1:2017 (Leather – Chemical determination of chromium VI)
    • EN 15987 (Leather – Requirements for labeling and substances restrictiveness)
    • REACH Regulation (EC) No 1907/2006 – SVHC listing, for leather imports/exports
    • California Proposition 65, as applicable to leather goods

    Typical usage ratio

    • 1.0–4.0% in wet-end leather fatliquoring baths
    • 2.0–7.0% in synthetic leather PU finishing dispersions
    • Adjusted according to final leather softness and gloss level required

    Downstream process integration

    • Homogenization in aqueous fatliquoring or retanning stages
    • Direct blending with finishing coat slurries for synthetic leathers
    • Synchronized quality checks for migration and aging resistance

    Final product types

    • Automotive seat upholstery
    • Premium handbags and wallets
    • Performance footwear
    • Synthetic leather rolls for garment production

    4. Silicone-Based Mold Release Agents in Rubber and Plastics

    Rubber compounding and thermoplastics manufacturers require highly stable, low-residue mold release agents. They incorporate finely emulsified silicone oil to ensure even coverage, minimal buildup, and fast demolding cycles for tires, gaskets, seals, and technical parts. Direct food-contact applications require full compliance with regional food safety regulations, while industrial molders monitor for mold life, release cleanliness, and part surface finish. Blends are often formulated in the 1–5% range depending on the complexity of the molded article and substrate polymer, using batch or continuous dosing inline with base resins or by spray application to molds.

    Industry compliance standards

    • FDA 21 CFR 175.300, 177.2600 (Silicone release agents for food contact plastics/rubber)
    • BGVV XXI Recommendation (EU food-contact rubber)
    • ISO 9001:2015 (process quality for technical goods)
    • RoHS Directive 2011/65/EU (Restriction of hazardous substances in electrical components)

    Typical usage ratio

    • 1.0–5.0% by weight in mold release concentrate emulsions
    • 0.2–1.0% direct spray or wipe on mold plates for precision parts
    • Dosage basis: substrate, mold design, final demolding target

    Downstream process integration

    • Mix-in with mold release base fluids or concentrates
    • Automatic spray or brush application to molds prior to casting or injection
    • Quality testing for transfer, residue, and surface finish uniformity

    Final product types

    • Rubber O-rings and seals
    • Automotive molded gaskets
    • Plastic electrical connectors
    • Consumer appliance rubberized parts

    5. Paper and Packaging Surface Treatment

    Paper conversion plants employ ultra-small emulsified silicone oil as an antistatic, anti-blocking, and gloss agent during the surface treatment of high-grade release papers, food wrappers, and specialty packaging. Integrated into size press or off-machine surface coating formulary, it delivers uniform layer formation with minimized impact on printability. Regulatory focus centers on food contact safety, compliance with migration limits, and certification for use in direct and indirect packaging. Dosing rates depend on grammage, target gloss, and barrier effect, with process adaptation required for in-line coating versus batch immersion practices in multi-grade packaging lines.

    Industry compliance standards

    • FDA 21 CFR 176.170 (Paper and paperboard in contact with aqueous and fatty foods)
    • BfR Recommendation XXXVI (German food-contact paper grade specifications)
    • EN 1230-1:2009 and EN 1230-2:2009 (European sensory testing for paper packaging)
    • ISO 22000 (Food safety management systems for paper packaging line)

    Typical usage ratio

    • 0.5–2.0% by weight of coating slurry for release paper
    • 1.0–3.0% for high-gloss barrier wrappers
    • Adjusted for basis weight and application technology

    Downstream process integration

    • Direct dosing into size press or surface sizing/kiss-coating stations
    • Inline mixing with starch or carboxymethyl cellulose in packaging laminators
    • Automated monitoring of coating homogeneity and final surface properties

    Final product types

    • Release paper for labels and tapes
    • Food sandwich wraps and interleaving sheets
    • Luxury carton liners
    • Specialty printing paper grades

    Free Quote

    Competitive Emulsified Silicone Oil (Ultra-Small Particle Size) 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

    Email: admin@ascent-chem.com

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    Certification & Compliance
    More Introduction

    Emulsified Silicone Oil (Ultra-Small Particle Size): Practical Benefits and Insider Insights from Our Manufacturing Floor

    Understanding the Emulsified Silicone Oil Landscape

    Anyone who has worked directly with emulsions in a production environment knows just how much trouble off-spec dispersion and agglomeration cause. Emulsified silicone oil with ultra-small particle size stands apart from standard emulsions. Our own lines have run both traditional and compact particle dispersions. We watched operators struggle with phase separation, stability loss, and uneven performance using lesser grades of emulsified silicone oil. Our shift to small-particle technology came directly from those factory-floor frustrations. Tooling up for smaller particles changed the outcome for our customers, reducing their rework rates and keeping their mixing times predictable.

    What Makes This Emulsion Different

    Emulsified silicone oils begin with polydimethylsiloxane as the backbone, chosen for its hydrophobic nature and outstanding slip properties. We use a tried-and-true emulsion polymerization method, perfected over years of feedback from chemists and plant engineers. Ultra-small particle size, which we control tightly during production, consistently comes in below 0.1 microns in the average model used for textile, leather, paper, personal care, and industrial coatings. Old-generation emulsions often float between 0.5 and 1 micron—those particles never fully wet out in the many recipes our customers expect to run.

    After switching to this finer emulsion, our textile clients reported a smoother hand feel in their treatments and fewer instances of spotty fabric. In coatings, our customers observed increases in gloss and water repellency using our smaller-particle models. Reaching this performance level took years of R&D, much of it working alongside production partners who tested prototype batches on their real equipment, not in lab glassware. We’ve learned that the benefit goes beyond just tiny measurements. These ultra-small silicone particles distribute through mixtures in a way that genuinely transforms process stability, shelf life, and visual clarity.

    Our Model: Meeting Real-World Production Demands

    We developed Model XSO-010 as the go-to for processors needing consistent small particles, a milky-white emulsion, and stable results under repeated heating and cooling cycles. Each drum rolling off our line gets checked for viscosity at both 25°C and 40°C. We track particle size distribution not just at the batch’s peak, but throughout shipping simulations. Our technical staff spend plenty of hours troubleshooting at customer plants, so formulas feature robust surfactant packages and low volatile content.

    More than once, we’ve stood in a customer facility and watched big-particle emulsions separate or foam up in-line. Our Model XSO-010 resists these pitfalls. Operators tell us they notice less clogging and build-up in their nozzles and finer deposition on yarn and fiber. Paint and coating shops working with automatic mixers have confirmed longer intervals between filter changes—downtime drops, and we all get to focus on process improvements, not cleaning out clumps.

    Applications Seen from the Manufacturer’s Perspective

    Long before a brochure or technical bulletin ever reaches the public, this type of silicone emulsion has already worked through repeated pilot runs. In leather and textile plants, we watch how easily a small-particle emulsion soaks into fibrous structures. Finer droplets pass through spray heads and coat more evenly, compared to conventional emulsions that often pool in surface valleys or bead up on tighter weaves. Our batch logs show reduced complaints about sticky finishes or uneven shine.

    Industrial coaters look for active spreading and quick drying. Our product’s particle size allows the silicone phase to cross-link more efficiently in acrylic and styrene-butadiene systems. Rather than floating off as tacky residue, it anchors across the coated layer. Automotive detailing blends pick up this fine phase quickly, giving anti-glare and slip extremely fast without haze or streaks. We see the same preference growing among formulators of personal care creams. Small, stable droplets mean creams absorb without a greasy aftertouch, and the off-white color supports a broader range of pigment and fragrance additions.

    Upstream, in paper manufacturing, our technical partners rely on the emulsion’s easy dilution in both low and high hardness water systems. No surfactant scum, no bridging, and no uncontrolled foam. The positive feedback comes from production teams who spend late nights troubleshooting lines, not just marketing groups. The ultra-fine phase keeps the lines running smoothly, day after day, even at higher throughput.

    The Path to Stable, High-Quality Emulsion Production

    Most challenges in building a better silicone emulsion come from the fundamental incompatibility between oil and water. Over a decade, we’ve experimented with different dispersants, shear techniques, and silicones. Only under continuous process control, with temperature and mixing rates logged in real time, have we kept particle size reliably small. Every shift, our operators watch for signs of secondary agglomeration. Raw material batches shift with weather, but our lab inspects rheology and surfactant ratio before ever hitting the main kettles. We’ve learned that even small tweaks in dispersant structure can cause day-and-night changes in final emulsion stability.

    Our staff routinely train on both process chemistry and practical handling. Rinsing tanks, maintaining pump seals, and adjusting pH on the fly all figure into keeping downtime low and contamination out. In the late-stage blending, minor additions of anti-microbial agents and defoamers protect shelf life—a lesson learned after a single year with field returns before 2010. Technical support follows every order, because nearly every user’s line throws a surprise after a formula change or seasonal shift. Our approach balances high-flexibility production with steady quality. If a customer’s end-use process changes, we help adjust viscosity or pick a secondary surfactant package right at the manufacturing level, not leaving them to dilute or tweak at the factory floor.

    Key Differences from Standard Silicone Emulsions

    We have manufactured and evaluated both the old and the new. Bulk silicone emulsions with larger droplets can work fine for some applications, but we consistently see that customers get less stable mixes and higher separation when particle sizes are uncontrolled. Big particles tend to settle faster or float, pulling out of suspension in high-shear mixing or after sitting at rest. They’re also more prone to foam—a direct headache for any operator using pumps or high-speed blenders.

    Ultra-small particle emulsions behave more like true solutions, passing through mixing and filling lines with less resistance. The droplet phase protects the silicone backbone better, which in turn extends the shelf-life of blended compounds or finished goods. Some industries push for reduced VOC content; our fine-phase models require less auxiliary solvent or surfactant to work, which lines up with increasingly strict environmental rules. The shift to ultra-small particle size didn’t just improve user performance; it lowered our own waste disposal numbers and reduced hazardous by-product generation throughout the plant.

    Specs We Watch—And Why They Matter

    In day-to-day production, tracking the right specifications brings consistency. For these ultra-small particle silicone oils, our plant focuses on average particle diameter, viscosity across temperature ranges, solids percentage, pH, and emulsion color. The particle size ties directly to dispersion ability and shelf stability. A lower viscosity handles better in automated dosing systems and keeps lines from jamming up during pickup runs or short stops. In export markets, we’ve received feedback that customs and downstream fillers notice non-conforming color or stratification right away. We keep our visual threshold narrow, based on real experience with returned drums in hot summer months.

    Solid content runs between 30 and 60 percent in our most used grades, tailored by the requirements of the process, not marketing. The actual sweet spot for many industries lands near 35 percent—thick enough for good performance, not so thick it scums or cakes in storage. Our measurements aren’t just numbers for a technical sheet—they stop arguments between logistics, buyers, and factory floor staff who actually move the material hour by hour. pH control, barely discussed in most sales pitches, keeps the silicone phase active, especially in textile finishing or personal care.

    The Importance of Application Know-How in End-Use Success

    Every chemist and process engineer who’s ever tried to swap out an old emulsion for a new one has war stories about clogged lines and failed blends. In our own support calls, variable process water quality and temperature swings cause the biggest trouble. We’ve built our product so the silicone phase resists broad changes in mixing or make-up water—practice on the filling lines shaped every formulation. Customers switching from traditional dispersions to our ultra-small particle emulsion often comment on improved ease of cleaning and fewer unexpected shutdowns. Their confidence in pushing plant output higher came after months of zero deposits in valves and minimal gelling during downtime, not just after reading a brochure.

    Beyond batch-to-batch consistency, this emulsion’s easy integration with both surfactant-heavy and surfactant-lean recipes opened up cross-market potential. If another industry calls for a pH tweak or raw water variance, we’ve already stress-tested those changes in both Asia and North America. Real success came from taking feedback directly from operators and product managers who rely on the emulsion for daily output, not just from lab tests in controlled conditions. Those conversations changed our internal QC parameters—for example, we started checking phase settle time and mixing clarity after a large textile finisher flagged mid-season batch haze years ago.

    Troubles and Solutions Along the Way

    No production run ever goes perfectly, and anyone in the chemical business can list unexpected mixing, foaming, or downtime events. We saw materials with larger particle silicone pull out hard water deposits, so we researched better stabilizers. After a stretch of cold shipping winters, we added freeze-thaw stabilizers and started testing for stability at -10°C and up to 50°C. Customer feedback on initial dilution rates and residual surface tackiness led to subtle changes in emulsifier ratios.

    Field issues taught us that some anti-static additives clash with silicone emulsions, sometimes causing visible streaking. In those cases, we built custom batches with surfactants tuned for higher ionic compatibility instead of waiting for complaints. Over several production cycles, we started logging blend times, actual drum storage conditions at client sites, and even the local climate’s impact on separation or color. Open communication, detailed process records, and a readiness to run small-lot pilot batches allowed us to keep improving the product. We believe workarounds come best from understanding the process reality, not just the chemistry.

    Sustainability and Environmental Responsibility Built Into Manufacturing

    The movement toward greener chemistry isn’t an abstract slogan in our plant. Over the past five years, high-pressure audits and government checks forced us to examine every input and byproduct. By narrowing particle size, we use fewer surfactants and defoamers—our waste streams dropped, and we noticed this in both reported numbers and actual waste tank pump-outs. Lowering volatile organics, by opting for more eco-stable silicone bases, means local utilities see cleaner effluent. Our R&D team worked on biodegradable surfactant blends that meet evolving restrictions in North America and Asia.

    Smaller droplet technology lets downstream users employ less product per final mix. In practice, this shrinks the total chemical load in textile or paper process water and makes for easier post-process cleaning. The real savings for our customers show up in less sludge, fewer costly disposal contracts, and reduced regulatory paperwork. Our lasting partnerships were built on showing end-to-end process improvements out of the production line, not theoretical life cycle gains. Industry meetings and crop-inspection events often spark the next round of formula tweaks, as customers raise stricter emission standards or plan further water re-use.

    Challenges Not Just in Production—But in the Market

    Making a top-grade small-particle silicone emulsion is only half the battle. Educating users to appreciate process improvements takes calling out labor, maintenance, and long-run cost reductions, not just counting up the raw cost per kilo. We work closely with purchasing leads, quality technicians, and front-line mixers. Our teams listen to worries about handling, skin safety in the plant, compatibility with dye and pigment batches, and legacy tank contamination—all realities for any manufacturer.

    Through countless pilot batches, we found that only real, demonstrated improvement on the factory floor wins over the skeptics. Product performance must hold up to the operator’s “coffee break test”—does the emulsion still behave two hours after sitting in a makeup tank or after an extended line stop? Our detailed technical support doesn’t just solve problems after the fact. It ensures new users know how to ramp up with less risk, and existing users get the most out of their production runs.

    Where Ultra-Small Particle Emulsified Silicone Oil Fits Tomorrow’s Needs

    As industries push toward more automated, higher-speed processing systems, the demands for consistent, reliable emulsions increase. Plants running 24-hour shifts depend on materials that don’t separate, don’t clog, and keep producing the same level of finish or slip every single time. Based on real-world experience, we see ultra-small particle silicone oil emerging as the right solution across a wide range of industries, from high-end textiles and leathers to food packaging films and car care. The advantages show up not just in the spec sheet, but in the shift logs, maintenance records, and real output figures from factory to packaging line.

    Multiple decades on the manufacturing floor taught us that success comes from understanding the operator’s day, not from fancy claims or numbers alone. That’s why our approach stays centered on feedback, continuous improvement, and partnership with those who rely on our emulsions for their everyday production. Our ultra-small particle size silicone oil isn’t just a chemical—it’s a reflection of thousands of hours spent refining, improving, and delivering better outcomes for producers, technicians, and engineers tackling modern line demands.

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