|
HS Code |
800428 |
| Chemical Name | Alkyl Polyglucoside |
| Appearance | Clear to slightly hazy liquid |
| Color | Pale yellow to amber |
| Odor | Mild, characteristic |
| Solubility In Water | Completely soluble |
| Surface Activity | Nonionic surfactant |
| Biodegradability | Readily biodegradable |
| Ph Range | 6.0 - 11.5 (10% solution) |
| Origin | Derived from renewable plant sources |
| Foam Production | High and stable |
| Toxicity | Low to negligible |
| Hlb Value | 10-15 |
| Viscosity | 200-600 mPa.s (at 25°C) |
| Cas Number | 68515-73-1 |
As an accredited Alkyl Polyglucoside factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Alkyl Polyglucoside is typically packaged in 200 kg blue HDPE drums, featuring sealed lids and product labeling for safe, easy handling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Alkyl Polyglucoside: Typically loaded 16-18 metric tons, packed in 160-180 drums, ensuring safe chemical transport. |
| Shipping | Alkyl Polyglucoside is typically shipped in 200 kg HDPE drums or 1000 kg IBC tanks, ensuring product stability and safety. Containers must be tightly sealed, stored in a cool, dry, well-ventilated area, and protected from direct sunlight and moisture. Handle gently to prevent leaks or contamination during transport. |
| Storage | Alkyl Polyglucoside should be stored in tightly closed containers, away from direct sunlight, heat, and sources of ignition. Store in a cool, dry, well-ventilated area to prevent moisture absorption and degradation. Avoid storing with strong oxidizing agents or acids. Ensure containers are clearly labeled and protected from physical damage, and follow all relevant safety and regulatory guidelines for chemical storage. |
| Shelf Life | Alkyl Polyglucoside typically has a shelf life of 24 months when stored in tightly closed containers at room temperature, away from moisture. |
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Purity 99%: Alkyl Polyglucoside with purity 99% is used in household cleaning formulations, where it enhances surface cleanliness and reduces residue formation. Viscosity Grade 1500 mPa·s: Alkyl Polyglucoside with viscosity grade 1500 mPa·s is used in personal care shampoos, where it improves foaming and product texture. Molecular Weight 600 g/mol: Alkyl Polyglucoside with molecular weight 600 g/mol is used in industrial degreasers, where it increases oil solubilization efficiency. Stability Temperature 80°C: Alkyl Polyglucoside with stability temperature 80°C is used in high-temperature dishwashing systems, where it maintains emulsification performance. Critical Micelle Concentration 0.15%: Alkyl Polyglucoside with critical micelle concentration 0.15% is used in textile wetting agents, where it facilitates rapid fiber penetration. Melting Point 50°C: Alkyl Polyglucoside with melting point 50°C is used in solid detergent bars, where it provides structural integrity and consistent melting behavior. pH Range 5-11: Alkyl Polyglucoside with pH range 5-11 is used in multipurpose cleaners, where it ensures product stability and broad compatibility. HLB Value 13.5: Alkyl Polyglucoside with HLB value 13.5 is used in emulsion polymerization, where it optimizes particle size distribution in latex production. Biodegradability >95%: Alkyl Polyglucoside with biodegradability >95% is used in environmentally friendly formulations, where it minimizes environmental impact and accelerates breakdown. |
Competitive Alkyl Polyglucoside prices that fit your budget—flexible terms and customized quotes for every order.
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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Here in our plant, the day never starts without two things: a check on the reactors and a focus on consistency. Alkyl polyglucoside, widely known as APG, comes from a simple but tightly controlled reaction of plant-based fatty alcohols and glucose, something our team monitors from raw material storage right through to finished product drums. We don’t rely on rumor or market chatter about purity or environmental claims — every batch reflects what we’ve learned after years of adjusting, measuring, and rechecking both inputs and results.
For us, models aren’t just catalog numbers. They’re the blend of carbon chain lengths and degree of polymerization chosen with attention to how end customers actually use them. The difference between an APG 0810 and APG 1214 is more than a set of digits. An 0810, with C8-C10 fatty chains, brings faster wetting and lighter foam—a good fit for quick-rinsing cleaners, gentle hand soaps, and applications that call for mildness without giving up solubilizing strength. The 1214, higher on the carbon ladder, has richer foam and longer-lasting cleaning action, which suits products like shampoos, heavy-duty degreasers, and even detergents where foam stability stands out.
During production, we run each series through separate lines to avoid cross-contamination. This isn’t just about compliance, but about the reality that even a small ratio shift in the fatty chain affects how the APG dissolves, thickens, and behaves alongside other surfactants. Years of adjustment have shown us that a blend optimized for viscosity in a bathroom cleaner doesn’t translate to the needs of a textile wetting agent or a hand dishwashing liquid. Chemists and mixers in the plant know these differences by heart.
In our operation, final product clarity, pH control, and color aren’t only about what’s on the spec sheet—they’re also about what customers see when they open a drum. We target actives content above 50% for most liquid APGs, with water as the main diluent. Cloud point matters to blender operators: if a formula clouds in storage, costly reformulations happen. That’s why we keep APGs stable over a wide temperature range, targeting cloud points suited for every climate. Sodium chloride, a byproduct, cannot go unchecked; our controls keep salt to industry-appropriate minimums. The less salt, the broader the downstream application, from delicate baby wipes to stubborn floor cleaners.
Many APG buyers check on things like Gardner color or HLB value on a datasheet, but across the loading dock, the first test is visual. We’ve worked on the upstream purification steps to keep APG as close to water-white as practical. It signals control, not just marketing.
In day-to-day manufacturing, APGs stand out for their mildness—important for formulators developing household and personal care products meant for constant skin contact. The dermatological friendliness isn’t just textbook; we see it every time a worker on our shift-line does a quick wash-up with APG-based liquid soap and feels no dryness or irritation. This comes from using renewable glucose as the starting point, without sulfation or harsh petrochemical residues.
Cleaning professionals, too, notice the difference. APG-based detergents cut grease from kitchen hoods and workspaces, dispersing oils evenly rather than just moving them around. In industrial applications, the solvent compatibility and nonionic character mean APG pairs without hassle alongside anionic, cationic, or amphoteric partners. Most common use cases—institutional floor maintenance, hard surface cleaning, bottle washing—benefit from the stable foam and straightforward rinseability. Unlike some conventional ether sulfates, APG foam breaks evenly without forming persistent scum, cutting down cleaning and rinsing times.
Agricultural customers have reported that spray adjuvants with APG improve leaf wetting, which for them converts to better pesticide spread and absorption. Their operators can dial down solvent additives and trust APG to do the job in a plant-safe manner — we’ve seen field photographs submitted with clear coverage differences on dusty leaves. In textile processing, APG carries dyes evenly and speeds up scouring, which shortens production turns. Our APG neither harshens nor saponifies fibers, and textile finishers appreciate this reliability after real-world trials.
We’ve handled traditional surfactants like sodium lauryl ether sulfate (SLES) and nonylphenol ethoxylates (NPEs) for years. APG’s one big difference lies in its absence of EO, PO, and aromatic residues. NPEs, once a mainstay for degreasing and emulsification, now run into growing regulatory scrutiny because of persistent environmental breakdown products. In contrast, our APG process produces only sugars and fatty acids on breakdown — both safely biodegradable. We check for this with ongoing wastewater monitoring, not just certificates.
Many customers bring up the misconception that APG comes with foaming drawbacks. In real terms, APG can foam as much or more than traditional SLES, just with a different bubble structure: softer, denser foam, less prone to collapsing in hard water. Multiple test runs confirm APG’s stability curve in mid-acidic to slightly alkaline formulations. In glycol ether blends, APG appears to stabilize emulsions longer—a difference noted both in the lab and on the blending floor during extended storage.
Compared to linear alkyl benzene sulfonates (LABS), APG aligns better with low-toxicity requirements in ecocert- and green-label formulations. LABS breaks down more slowly in aquatic systems and imparts a distinctive chemical odor at higher loadings. We trace residual odor and waste stream analysis in our labs, and the results consistently show cleaner profiles with APG, especially for brands targeting plant-based or “no nasties” claims. Formulators building a sulfate-free or dye-free line bypass harsh raw materials and benefit from APG’s straightforward handling and mixing.
Mixing APG with other ingredients challenges even the most seasoned blender, especially around viscosity changes and system compatibility. Unlike some mainstream surfactants, APG pushes pH higher at high concentrations, so batches need careful adjustment to prevent haze or separation. We’ve responded with in-house guides on dilution ratios and optimal blend points, based on failed and successful plant runs as much as spec sheet chemistry.
Protecting APG from microbial contamination also takes up significant attention. Because glucose elements in APG serve as potential growth substrates, our plant maintains closed-loop filling and installs UV sterilizers along liquid transfer lines. Each batch’s microbial count gets checked before any shipment goes out. Decades of returns data show that leaks and venting problems bulk up in warm months, prompting extra tank cleaning cycles and pH monitoring. This human intervention matters more than any software alert. We’ve upgraded valves, improved filter quality, and insisted suppliers reduce dust in their glucose, all based on the practical goal of safe, clean product in every outgoing load.
Supply swings in coconut- and palm-derived fatty alcohols—key inputs for APG—often trigger market-wide shortages and cost spikes. Since these shocks ripple through the chemical industry without warning, we maintain a diversified sourcing program, favoring vendors with certified sustainable practices. Tracking the carbon origin and chain length by gas chromatography keeps our product spec stable despite upstream shifts. We never accept off-spec feedstock—a lesson learned through hard-won experience in customer claims and missed deliveries during tight markets.
Feedback from formulators, procurement teams, and field operatives shapes how we run our APG lines each week. A formulator who needs better viscosity control in a phosphate-free cleaner will call with specific needs, not generalities. Our technical support draws on years of practical trials and mistakes, guiding them through adjustments: what pump settings yield smoother concentrates, which blend sequence minimizes aeration, and how much sodium chloride tolerance sits comfortably in their system. We receive samples of downstream blends shipped back for troubleshooting — this tight cooperation shrinks process downtime for both sides.
Household and institutional care brands value the traceable, plant-based origin of our APG when building a green claims portfolio. The assignment of renewable content comes straight from our chain of custody tracking. We don’t add masking agents or cover up yellow hues with dyes, opting instead for purification stages that really cut residual sugar and color. This direct supply model means brand owners know and trust the single-source origin, and they avoid hidden surprises from relabeling or adulteration.
In export markets where global labels demand increasingly transparent documentation, we support every drum with audit and trace specifications. Our experience with international shipment documentation and regulatory updates lets us preempt issues rather than reacting after goods arrive. Customs queries get answered by chemists at the plant, not by brokers reading from generic spec sheets.
As process chemists and plant operators, we never consider APG a finished story. The feedstock supply and the regulatory targets keep shifting, and every production run yields some lesson. Our lab continually improves analytical testing, debugging for batch-to-batch haze or color drift before the problem reaches the customer.
We draw application insights from both large and small users. Local scale-up projects highlight edge-case issues—a builder who overdoses the surfactant in rinse-free mopping fluids winds up with sticky residue, so we advise on stepwise dilution. Homecare products need rapid mixing and low processing temperatures, which our technical team supports with live process checks, not just manual pages. The technical staff records every out-of-spec report, troubleshooting each incident, and channels these insights into our formulations and guidance for others.
We also respond quickly to ingredient sourcing concerns from APG developers seeking non-GMO, palm-free, or other custom models. Having our own reaction vessels lets us tweak production protocols for these special runs, from adjusting glucose supply to swapping in different fatty alcohols. This flexibility is hard won; we’ve had to train staff, change cleaning cycles, and even retrofit some equipment—all with full attention to both quality and traceability. These customer-led improvements show up in order accuracy and finished product consistency.
APG’s environmental record crosses from lab to field trials. By using glucose and natural fatty alcohols, we avoid several of the environmental problems linked to older ethoxylate or sulfate surfactants. The final product leaves no dioxane, phenol, or tricky decomposition byproducts behind—points proven through regular effluent monitoring. Wastewater leaving our facility gets sampled and tested for biological oxygen demand (BOD) and chemical oxygen demand (COD), confirming that APG breaks down predictably.
Collaborations with local wastewater treatment plants, alongside direct evidence from customers in Europe and North America, confirm the ready biodegradation of APG. Farmers, textile finishers, and commercial cleaners consistently report that APG-based formulations rinse cleanly, avoid film build-ups, and reduce the frequency of water changes. Regulatory updates, both at home and overseas, signal a continued move toward surfactants with clearer breakdown profiles—something our long experience with APG helps us address.
The price conversation around APG always comes up. Some buyers note a price per metric ton higher than economy-grade synthetics. In the field, the conversation shifts once staff realize APG can replace combinations of two or three other surfactants, reduces need for solubilizers, and improves shelf life. On large runs, savings stack up through reduced formulation failures, less downtime from stuck pumps or foaming over, and minimal recalls from end-user complaints about skin reactions or bad odors. That isn’t marketing—it’s what our biggest customers tell us after adjusting their processes.
Long-run cost comparisons that factor in safety, raw material stability, and shelf-life often lean in APG’s favor. In our capacity as both producer and technical partner, we lay these out plainly, backed by batch records and returns data. We prefer plain truth: APG isn’t a fit for every application, but in areas where mildness, environmental transparency, and stable sourcing matter, its record stands strong.
Everything we know about APG comes not from a distance, but from running and improving the lines, troubleshooting problems side-by-side with customers, and tracking results in labs and field sites. We believe in APG because our own shifts and years in production have shown its mildness, plant-based origin, and versatility aren’t theoretical—they play out in daily manufacturing and downstream performance.
We stand ready to help the next customer who wants to try APG for something new, address an application question, or figure out how to avoid the mistakes we’ve already made and fixed. Our team sees direct production and supply as the clearest pathway to delivering high-value, environmentally aligned, and safe surfactant solutions. The knowledge comes from the shop floor, the lab bench, and the real stories told by customers who see results—not just in the beaker, but in the final product their users trust.