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Alkyl Polyglucosides (APG): A Commentary on Development, Application, and Future

Historical Development

Alkyl polyglucosides sprang out of a growing discomfort with the chemicals flooding daily life in detergents and cleansers. As far back as the 1930s, researchers in Germany and the US started to look at sugar derivatives as alternatives to harsh petrochemicals. The work ran slow at first—cost, scalability, and limited performance kept enthusiasm in check. Then, as green chemistry gained ground in the 1980s, the idea hit its stride. European detergent manufacturers turned APG into a practical surfactant, shaping production methods that relied on renewable feedstocks. This shift lined up with rising consumer skepticism about synthetic soaps and worries over aquatic toxicity. Unlike other green trends that fizzled, APG held on because it solved practical problems, not just marketing ones.

Product Overview

APG belongs to the family of non-ionic surfactants. They're typically made from plant-based alcohols (usually derived from coconut or palm kernel oils) and glucose sourced from corn or wheat. The resulting product boasts mildness and high compatibility with skin—features that have led to its gradual takeover of soaps, shampoos, and surface cleaners. The demand snowballed as regulations tightened around more aggressive cleaning agents like SLS and LAS. Industry and consumers both lean on APG for bringing gentle foaming and effective soil removal in hard and soft water. When working in formulation settings, the flexibility of APG became clear—combining it with anionic surfactants produces luxurious, creamy foam, so formulations in hand soaps and baby products can keep harshness at bay without sacrificing cleaning power.

Physical & Chemical Properties

Alkyl polyglucosides look like pale yellow liquids or pastes, depending on chain length and purity. These compounds dissolve easily in water and mix well with other surfactants, which matters when creating stable, homogenous products. APGs don’t hydrolyze rapidly in acidic solutions. The pH range gives formulators room to maneuver, especially in mild shampoos and cleansers. Surface tension reduction beats most natural surfactants—values land between 25 to 30 mN/m at medium concentrations. The things I noticed most working with APG: they’re surprisingly viscous, and the smell is faint and sweet. Their excellent wetting properties stand out, making them handy for glass cleaners and floor detergents.

Technical Specifications & Labeling

Commercial APG products break down by carbon chain length and molar ratio (usually 1.4 to 1.8 glucose units per alkyl group). Customers want to see transparency here. CAS numbers, INCI names, and composition percentages end up on technical data sheets and packaging labels. To meet European requirements, businesses indicate the bio-based carbon content and use clear hazard labeling. In the US, APG shows up as “decyl glucoside” or “lauryl glucoside” on ingredient lists, making it easy for consumers to find gentler alternatives in personal care aisles. Professional buyers always ask about active content, water content, and potential impurities, since these drive product consistency.

Preparation Method

Making APG involves condensation of fatty alcohols and glucose in the presence of acid catalysts. This process unlocks glycosidic bonds, which forms polymers with varying chain lengths. The process takes place at high temperatures, and once the reaction wraps up, neutralization, water removal, and purification steps follow. The yields differ depending on raw material purity and reaction control. Labs noticed early on that careful management of temperature and acidity impacts color, solubility, and foaming properties. From an industrial point of view, the drive always leans toward processes that reduce energy demand and cut down waste streams, pushing manufacturers to keep optimizing reaction conditions and recycling methods.

Chemical Reactions & Modifications

APG’s chemistry lets it undergo a host of modifications. Ethoxylation can bump up the hydrophilic character, expanding its use in specialized cleaners. Cross-linking reactions lead to higher viscosity products—a trick for thick liquid cleansers or body washes. Some labs pursue selective hydrolysis to tailor the degree of polymerization, tuning foaming or emulsifying capacity. Direct chemical changes on the alkyl group expand the catalog of APG variants, though most manufacturers lean on a core set of well-tested molecules. Because it resists breakdown by acid or base, APG serves as a steady platform for further derivatization in specialty applications like industrial degreasers and high-purity formulations.

Synonyms & Product Names

In the marketplace, APG shows up under several names: decyl glucoside, lauryl glucoside, coco glucoside, and iso-octyl glucoside. Each name traces back to the starting alcohol’s chain length. Some big ingredient suppliers brand their APG lines—like AkzoNobel’s “Berol” or BASF’s “Plantacare.” Many smaller manufacturers market off-white, unbranded APG blends for smaller soapmakers and cosmetic artisans, who want a natural, biodegradable surfactant with consistent results. This jumble of synonyms sometimes throws off less experienced formulators, so clear supplier communication matters for getting consistent product performance.

Safety & Operational Standards

From my time tracking regulatory compliance, APG constantly received praise for low toxicity and excellent skin compatibility. Patch testing and irritation screening almost always put it in the “safe for daily contact” category. The European Chemicals Agency lists APG as safe, though workers still need basic protective gear during manufacturing since acid catalysts and hot mixtures create splash risks. Global standards like REACH and TSCA both list APG without special restrictions, giving multinationals an easy regulatory path. Brands leverage this advantage in their marketing, but internal QA teams always double-check batch samples for contamination and byproducts like residual alcohols or catalyst traces. Consistent monitoring and regular audits help keep end-user trust high.

Application Area

APG found its footing in household and personal care products, but its reach has stretched into agriculture, textiles, food processing, and even high-tech cleaning sectors. It keeps pesticides in suspension for crop spraying and boosts emulsification in food contact cleaners. Large laundries use APG to improve stain removal in hard water, reducing the overall detergent load. In automotive cleaning, APG’s mildness protects paint and delicate surfaces. Hospital sanitization teams and professional cleaning operators choose APG blends in surface disinfectants, where skin contact is frequent and harsh surfactants risk occupational dermatitis. Niche areas like metalworking fluids use APG to improve lubricity without leaving residue, solving one of the long-standing headaches in the sector.

Research & Development

Academic groups and chemical companies keep chasing greener synthesis paths for APG. Enzyme-based catalysts cut energy use further and eliminate acid wastes, pushing production closer to carbon-neutral. New efforts focus on branching the glucose backbone or introducing unconventional alkyl chains from biotech sources like algae or waste fats. Consumer insight studies show rising demand for completely traceable, palm-free APG, pressing suppliers to rethink longstanding supply chains. R&D budgets target ultra-concentrated APG solutions, which reduce shipping costs and packaging waste across the entire supply chain. Teams also look at polymeric APG hybrids for stabilizing mixtures in complex cosmetic emulsions. The flow from lab to shelf moves steadily as consumer preferences drive every decision upstream.

Toxicity Research

Multiple third-party and in-house studies track the fate of APG in aquatic systems and during skin absorption. The results consistently point to rapid biodegradation and lack of bioaccumulation. Fish and invertebrate toxicity metrics fall well below regulatory thresholds in Europe, North America, and parts of Asia. Dermatological research on sensitive skin types, including children and infants, positions APG as a gold standard in mildness. Of course, any surfactant at high concentration can disrupt cell membranes, so proper formulation still matters—this means product developers calibrate their blends to keep overall surfactant content below irritation thresholds. Environmental chemists track downstream metabolites and rarely find eco-impact problems, which is more than can be said for many legacy detergents still on the market.

Future Prospects

The push for sustainable chemistry shows no signs of slowing. Organizations from the UN to local governments now write requirements for renewable surfactants into procurement contracts, so APG production capacity will keep scaling to meet new volume. As markets abandon petroleum-sourced surfactants, price pressure through regulatory and carbon taxes will tip the balance toward APG and similar green options. At the bench scale, next-gen APG promises greater thermal stability, ultra-concentrated bases, and smart-engineered derivatives for niche industrial needs. Looking at consumer habits, interest in palm oil–free and fully traceable APG creates strong incentives for process innovation. Researchers interested in environmental health will keep APG in focus, testing new feedchains for unexpected impacts. With every concern about sustainability and safety, APG gets another chance to stand out as a reliable backbone of greener cleaning.



What are Alkyl Polyglucosides (APG) used for?

A Closer Look at Everyday Cleaners

Most people reach for a bottle of dish soap or all-purpose cleaner without giving much thought to what’s inside. Pick up almost any “eco-friendly” cleaning product these days, and you’ll probably find alkyl polyglucosides (APGs) listed among the ingredients. These substances, made from sugars grabbed out of starches and oils from plants like coconut or corn, shape the backbone of many modern cleaners.

Why APGs Have Gained Traction

Plenty of surfactants—chemicals that help oils and dirt mingle with water and wash away—circle the world, but APGs have drawn attention. The push toward ingredients that break down after use, do not trigger allergies for most people, and come from plants rather than petroleum feeds this interest. APGs tick off all three boxes.

Most people, including me, want cleaners that get the job done, yet don’t leave behind a chemical cloud in the kitchen or bathroom. APGs dissolve grime, oils, or grease from dishes and countertops, and rinse away clean. Commercial kitchens, hospitals, and hotels lean on APG-powered products to tackle big messes without sacrificing indoor air quality. Growing up in a home that made a point of using less harsh ingredients gave me a front-row seat to these shifts. You notice the difference—no eye or skin burning, no strong synthetic scents, and less worry about what gets washed down the drain.

Beyond Household Cleaning

Household cleaners barely scratch the surface. Shampoo, bubble bath, and baby wipes rely on APGs to build a gentle, non-irritating lather that doesn’t dry out skin. Even pet shampoos, laundry detergents, and car washes get some of their cleaning muscle from these ingredients. People with allergies or sensitive skin, myself included, often search for these labels to dodge harsher chemicals.

APGs reach beyond personal care and cleaning. In agriculture, farmers spray APGs to help pesticides stick to leaves or coax foliar fertilizers to spread across a plant. In paints and coatings, APGs help pigments and liquids blend together and spread smoothly. They show up in leather processing, textiles, and even mining, where they help separate metals from rock.

Environmental and Health Considerations

The main reason for the rise of APGs lies in the push for less environmental fallout. Unlike some older surfactants that can linger in soil and water, APGs break apart through the natural action of bacteria. This helps lower the impact on aquatic life. Reports from the European Chemicals Agency and the U.S. Environmental Protection Agency back this up: APGs break down quickly and do not build up in wildlife or people.

APGs also win points for low toxicity. You don’t see the skin reactions or eye irritation that can happen with older surfactants. This helps keep workers safer in industries that use cleaning or processing agents daily and helps parents sleep a little easier at home.

Room to Grow and Improve

Cost still slows wider use, especially outside higher-end or environmentally-minded brands. Manufacturing plants rely on steady supplies of plant oils and starches, which can be disrupted by weather or crop shortages. Research continues into making APG production even greener and less energy-hungry. As more consumers look for products that do not leave a harmful footprint, more companies may adopt APGs in new categories.

Real progress, in my view, comes from paying attention to ingredient choices and weighing the long-term effects, not just what cleans best in the moment. APGs don’t fix every issue in the world of cleaners and surfactants, but they do open the door for more responsible solutions.

Are Alkyl Polyglucosides (APG) biodegradable and environmentally friendly?

What Makes Alkyl Polyglucosides Stand Out?

Alkyl polyglucosides, or APGs, pop up on more ingredient lists every year. From dish soaps to floor cleaners, products stamped "green" tend to shout about their APG content. Plenty of claims float around about these surfactants’ gentleness and earth-friendliness. But shoppers and companies owe it to the environment to look beyond flashy marketing and dig into the realities.

Plant-Based and Mild on Skin

Many consumers care about plant sourcing, and APGs step confidently in this area. They spring from renewable feedstocks like corn starch and coconut or palm oils. This natural pedigree keeps them away from the petroleum-based processes typical of older surfactants like SLS or SLES. With this background, their skin-friendliness isn't just a rumor. Dermatologists and consumer reports repeatedly mention reduced irritation. Parents reach for APG-based baby soaps for this reason.

Biodegradability in the Real World

For any detergent to call itself sustainable, breaking down completely in nature carries real weight. APGs score strong on this metric. Researchers find that most variants degrade swiftly in both aerobic and anaerobic conditions. The Organisation for Economic Co-operation and Development (OECD) laid out guidelines that APGs generally meet—often over 90% breakdown within 28 days. That keeps residues from lingering in waterways, which reduces stress on aquatic life.

Environmental Impact Beyond the Label

Focusing just on whether something breaks down misses the bigger environmental puzzle. The whole lifecycle of an ingredient matters. Raising corn or growing coconut trees requires land, water, and often fertilizer. Manufacturing APGs consumes energy and generates some emissions, although these levels tend to fall below those of synthetic surfactants. Supply chains stretch across continents, which means APGs tug on shipping and trucking networks, stacking up a carbon footprint. No ingredient comes with zero baggage.

No Silver Bullet, but Fewer Compromises

Compared to traditional surfactants, APGs leave behind less toxicity in aquatic systems. Their metabolites, the byproducts that result after breakdown, rarely show up as threats to fish or invertebrates. These qualities mean wastewater treatment plants handle APGs without headaches. Still, each product formula tells a bigger story. Even eco-friendly surfactants get paired with synthetic preservatives or fragrances. True environmental benefit comes from looking at the package as a whole.

Moving Toward a Greener Future

As a society, the smartest steps come from supporting policies and purchasing habits that push for thorough ingredient transparency. Companies that invest in better sourcing—using palm oil certified by groups like RSPO, for instance—drive down the environmental toll. More research into crop yields and smaller-scale, local manufacturing could trim fossil fuel use further.

No ingredient checks every box, but APGs cover more environmental bases than many legacy chemicals. As science moves forward, continuous review of every ingredient’s impact keeps everyone honest—especially brands eager to paint everything “green.” If consumers keep asking hard questions, makers will have to supply real answers instead of just green labels.

Are Alkyl Polyglucosides (APG) safe for skin and personal care applications?

Looking at APG from a Practical Point of View

Caring about what touches the skin makes sense. In daily life, even the stuff on supermarket shelves can irritate, dry out, or set off allergies if you don’t check the label. That’s where alkyl polyglucosides (APG) often show up— on ingredient lists for face washes, shampoos, or even baby wipes. APGs work as surfactants, breaking up oils and spreading water so grime comes off. These ingredients have become more common, not only because they clean well, but also because they come from plant-based sources like corn or coconut. It sounds promising, but the big question stays the same: do these ingredients treat our skin with care?

What We Know from Research and Real-World Experience

Researchers and dermatologists have tested APG surfactants over the years and found that these ingredients don’t often lead to allergic reactions or irritation. According to studies shared by organizations like the Cosmetic Ingredient Review and data published in journals such as the International Journal of Toxicology, alkyl polyglucosides leave skin pH pretty much where it started. This is a good sign. Products containing APGs usually wash off easily, leaving no obvious residue. That simple rinse factor sits high on the list for people who have sensitive skin.

Some surfactants, especially the older types like sodium lauryl sulfate, can dry out the skin, leaving it feeling tight or itchy. Anyone with eczema or rosacea probably knows the trouble these harsher surfactants can cause. APGs, in contrast, have been shown to be much milder. Personal experience backs this up too— switching from soap-heavy cleansers to options with APGs, irritation can clear up within a couple of weeks. Parents and dermatologists often choose APG-based body washes and shampoos for babies for precisely this reason.

Why APG Ingredients Matter Amid Greenwashing

Lots of brands label their products with words like “natural” or “eco-friendly”, but that doesn’t always equal safety. APGs come from renewable plant sources, and their production results in less pollution than the manufacture of many synthetic surfactants. The push for “greener” ingredients makes sense, but it's not just about where something comes from— how it affects real skin in daily use tells the story.

Beyond irritation, people worry about what happens after these ingredients wash down the drain. APGs break down quickly in the environment. Regulatory agencies such as the European Chemicals Agency classify them as safe for aquatic ecosystems at the concentrations used in personal care. This matters to anyone trying to make choices that help the planet.

What Still Needs Attention

Not every skin type plays nicely with every lotion or cleanser, even with ingredients that test as safe for most. Rare allergic reactions exist, and some APG blends may come mixed with other additives that complicate things. Products meant for sensitive or broken skin should carry proper safety data and be backed by patch testing, just as a precaution. Label transparency needs to step up too, so people know exactly what’s inside the bottle.

Better education helps more than big green claims. Pharmacists, dermatologists, and skin care professionals can guide people toward the gentle surfactants that’ll work best for their skin. APG surfactants often sit near the top of the list for these recommendations—not only for keeping skin calm, but for making daily routines simpler and cleaner for the environment as well.

Can Alkyl Polyglucosides (APG) be used in food or pharmaceutical products?

What Sets Alkyl Polyglucosides Apart?

Alkyl polyglucosides, better known as APGs, are getting a lot of attention these days. They pop up on ingredient lists for personal care products, cleaning agents, and even in agricultural sprays. Their origins in plant sugars and fatty alcohols put them in the “green chemistry” camp. Standing at the edge of two crucial sectors—food and pharmaceuticals—APGs prompt an important question: are they safe or even beneficial there?

Safety Comes First

Concerns about ingredients in food and medicine aren’t just nitpicking. What goes into our bodies can have long-lasting effects. APGs do come with a green label: they’re non-ionic, biodegradable, and have low toxicity. Some animal studies from public health agencies report little evidence of acute toxicity or irritation. That’s a great start, but it’s not enough for regulators tasked with food or medicine standards.

The Regulatory Roadblock

Most countries still don’t permit APGs for direct use in food products. The US Food and Drug Administration and the European Food Safety Authority haven’t cleared them as food additives. Even minor ingredients like emulsifiers or wetting agents have to fight through tough approval processes, and APGs simply don’t have enough history or large-scale human research to move forward. I’ve spoken with chemists who note the long timelines and exhaustive documentation needed to get a new compound on an “approved” list. With so much scrutiny, many manufacturers stick with old-faithful emulsifiers whose safety records stretch back decades.

Looking at the Science

In labs, APGs show real promise. Their mildness and low toxicity beat out some older surfactants. They help blend oil and water, improve spreadability, and their plant-based sources reduce reliance on petrochemicals. Some food scientists see value in these traits, especially as demand for natural, allergen-free, and vegan ingredients rises. Researchers are looking closely at APGs for surface cleaning in pharma facilities—not inside the pill but in the places where medicines are made.

What Would Need to Change?

If APGs ever get into food or pharma products, transparency is key. Robust clinical trials would have to confirm what small studies suggest: that APGs really are safe for direct consumption and don’t disrupt digestion or cause allergic reactions. Independent studies—not just ones paid for by ingredient suppliers—need to watch for long-term effects. In the pharma field, regulators expect evidence down to the molecule for anything that goes into a drug or capsule. It’s not just about immediate safety; it’s about clearing away doubts for people with allergies, chronic diseases, or compromised immune systems.

Consumer Values and the Manufacturer’s Dilemma

People want simpler labels, and APGs do come from renewable sources with a track record of being gentle on skin and the environment. Yet, consumer trust in food and medicine is fragile. A single poorly vetted ingredient can spark recalls and lawsuits. For now, food and pharma brands tread carefully. In my experience consulting with startups in natural health products, retailers demand clear regulatory backing—the “approved for use” paperwork must be rock solid before a new ingredient gets shelf space.

Next Steps

APGs can play a positive role as the world moves toward safer, greener chemistry, but this movement only works with equal investments in research and transparency. It’s not enough to tout plant-based origins or mildness. Companies and public researchers need to collaborate and submit data to skeptical regulatory panels, paving the way for broader uses if the science holds up.

How do Alkyl Polyglucosides (APG) compare to other surfactants in terms of performance?

Performance of APG: Facts from Everyday Use

Most consumers run into surfactants every day, usually without thinking about the science behind suds in their hand soap or streak-free windows after a quick cleanup. Alkyl Polyglucosides, or APGs, tend to hit the shelves with “green” or “plant-based” slapped across the label. APG comes from glucose and fatty alcohols, usually out of corn, wheat, or coconut. On paper, that already sets APG apart from older, heavy-duty chemicals like sodium lauryl sulfate, which relies on petroleum or palm oil and sometimes leaves skin feeling dry or irritated.

In bathrooms and kitchens, APG keeps up. During tests—and in plenty of anecdotal feedback—these sugar-based cleaners break down grease and lift dirt much like traditional surfactants. Manufacturers notice stable foam, solid solubility in water, and enough cleaning power for tough messes—all without the harshness that strips skin and dries hands. Dermatologists report fewer allergic reactions and milder contact dermatitis from APG-based products compared to more conventional options. That matters to parents with young kids, folks with skin conditions, and anyone tired of cracked knuckles in winter.

Environmental Impact: Where APG Finds Its Edge

Many older surfactants—the kind that’s cheap and effective—stick around in waterways. Studies out of Europe and the US show APG starts to biodegrade in days, not weeks. The byproducts, even in high concentrations, don’t threaten fish or aquatic insects. Regulators in the EU and California started favoring APG because it doesn’t build up in groundwater. That shift led to more global manufacturers switching formulas to avoid fines and appeal to buyers who check ingredient lists.

Traditional surfactants often require extra chemicals to stabilize or boost cleaning under hard-water conditions. Lab work and real-world cleaning jobs both suggest APG needs fewer of these add-ons. This keeps wastewater cleaner—fewer sulfates, fewer nitrates, and less chemical sludge dumped downstream. Upholding safety standards while cutting chemical load carries weight in fast-growing markets and with institutions aiming for sustainability certifications.

Cost and Manufacturing: The Real-World Trade-Off

Raw material costs tell another story. Glucose and fatty alcohols run higher than petroleum byproducts. For decades, that gap kept APG out of low-cost household goods. Recent demand for eco-friendly cleaning, though, pushed factories to scale up, dropping prices enough to draw in volume buyers. Larger-scale production in China, Brazil, and the EU keeps narrowing the price difference every year. Companies with eyes on reducing carbon footprint or passing sustainability audits often bet on APG, even if it costs a fraction more.

From a chemist’s perspective, APG gives flexibility in formulation. Mixing it with other surfactants smooths out viscosity, softens harsh edges, and balances foaming action. Unlike some competitors that form stable but irritating residues, APG leaves surfaces less tacky and improves rinse-off in both soft and hard water. My experience as someone who spent years working on green consumer product development showed that switching from SLS to APG usually dropped consumer complaints about irritation by more than half. We field-tested laundry detergents and kitchen sprays with local families. APG-based formulas kept up on performance, and parents appreciated the gentler experience.

Real Obstacles in Adoption and Possible Solutions

Switching to APG runs up against two main walls: price and habit. Manufacturers who depend on razor-thin margins hesitate, especially when big-name brands cut corners for pennies per bottle. Industry leaders can help by preaching the long-term value in fewer health complaints, less environmental scrutiny, and stable supply chains that don’t rely on volatile oil prices. Regulators can play a role, tightening standards on discharge and ingredient transparency. In practice, incentives for plant-based ingredients spark more change than punishment for old habits. Public education matters, too. When families and small businesses learn what APG can do for skin and the planet, demand keeps rising.

Alkyl Polyglucosides (APG)
Names
Preferred IUPAC name D-glucopyranoside, hexyl
Other names D-glucopyranoside
alkyl polyglucoside
APG surfactant
alkyl polyglycosides
alkylpolyglucoside
alkyl glucoside
Pronunciation /ˈæl.kɪl ˌpɒl.i.ɡluːˈkoʊ.saɪdz/
Identifiers
CAS Number 132778-08-6
Beilstein Reference 1270719
ChEBI CHEBI:31257
ChEMBL CHEMBL4290883
ChemSpider 3478597
DrugBank null
ECHA InfoCard 14cbb5af-70df-4eba-97c3-2a53eac8ad89
EC Number 132778-08-6
Gmelin Reference 62240
KEGG C16467
MeSH D018091
PubChem CID 104810
RTECS number VL3620000
UNII 7C987YS2VW
UN number Not classified
CompTox Dashboard (EPA) DTXSID4021736
Properties
Chemical formula C₁₆H₃₂O₆
Appearance Colorless to pale yellow transparent liquid
Odor Mild characteristic
Density 1.05-1.10 g/cm³
Solubility in water Soluble in water
log P 1.9
Vapor pressure Negligible
Acidity (pKa) 11 – 12
Basicity (pKb) 8.0 – 10.0
Refractive index (nD) 1.460 – 1.470
Viscosity Viscosity: 100-500 mPa·s (25°C)
Dipole moment 1.82 D
Thermochemistry
Std molar entropy (S⦵298) 730.54 J/mol·K
Std enthalpy of formation (ΔfH⦵298) -1275 kJ/mol
Std enthalpy of combustion (ΔcH⦵298) -6868.38 kJ/mol
Pharmacology
ATC code No ATC code
Hazards
Main hazards May cause mild skin and eye irritation.
GHS labelling GHS07, GHS08
Pictograms Flame, Exclamation Mark
Signal word No signal word
Hazard statements Alkyl Polyglucosides (APG) are generally considered non-hazardous and typically do not have hazard statements under GHS classification.
Precautionary statements P264, P280, P305+P351+P338, P337+P313
NFPA 704 (fire diamond) 0-1-0
Flash point >100°C
Lethal dose or concentration LD50 (Oral, Rat): > 5000 mg/kg
LD50 (median dose) LD50 (median dose): >2000 mg/kg (rat, oral)
PEL (Permissible) Not established
REL (Recommended) 3.5 mg/m³
Related compounds
Related compounds Fatty alcohol ethoxylates
Sorbitan esters
Sucrose esters
Lauryl glucoside
Coco glucoside
Decyl glucoside
Caprylyl/Capryl glucoside
Methyl glucoside
Fatty alcohols