West Ujimqin Banner, Xilingol League, Inner Mongolia, China sales9@alchemist-chem.com 1531585804@qq.com
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Ammonium Phosphatides: A Commentary

Historical Development

Curiosity drove chemists in the early 20th century to isolate and experiment with alternatives to lecithin for food emulsification. The hunt began as global food production shifted from local bakeries and factories to scaled-up industrial operations, creating a big need for stable, dependable emulsifiers. Around the 1930s, manufacturers in Europe saw magnesium and calcium salts of fatty acid esters gaining traction, which led to the discovery and subsequent adaptation of ammonium phosphatides. This product took shape through a series of modest lab experiments and was quickly ushered into commercial chocolate production. No other ingredient seemed to solve the fat-compatibility issue in chocolate confectionery so well. Decades down the line, food technologists stuck with ammonium phosphatides—now seen in nearly every major chocolate brand—because the material solved specific problems that other natural emulsifiers seemed to mishandle, especially as global supply chains stretched and raw material costs climbed.

Product Overview

Ammonium phosphatides, sometimes referenced as “ammonium salts of phosphorylated glycerides,” come about through the reaction of glycerol (often sourced from vegetable oils) with food-grade phosphoric acid and ammonia. This yields a creamy to light brown viscous liquid that looks unremarkable outside the factory, but inside the chocolate refiner it unlocks flow and texture issues that caused headaches for early confectioners. Many in chocolate production turn to this option not only because it’s effective but because it also avoids the allergen concerns that come with soy ingredients. It slides easily into recipes, representing a family of synthetic, yet plant-based emulsifiers designed specifically for the delicate balance needed in fine chocolate and fat-based fillings.

Physical and Chemical Properties

This ingredient stands out through its appearance and utility: viscous, nearly odorless, and often slightly yellow or brown, though color can shift depending on the source oil and processing conditions. Water solubility looks poor, while miscibility with fats and oils runs high—crucial in low-moisture chocolates. Technically, it covers a broad spectrum of molecular weights due to its variable origin and reaction parameters, which means every batch contains a blend of phosphate mono-, di-, and triglycerides. Melting points fall well below traditional emulsifiers like lecithin, and the product remains stable through the mechanical stress found in chocolate refining and conching processes. Density and viscosity give manufacturers a predictable experience, avoiding jams and clogs in production pipelines, something I’ve witnessed firsthand in mid-sized confectionery plants.

Technical Specifications & Labeling

Manufacturers tend to standardize ammonium phosphatide blends to meet specific purity and acid value ranges. Typically, food codex requirements demand a minimum content for total phosphorus and a cap on residual free ammonia and other unintended by-products. The label often reads “E442” across European markets, signaling compliance with European additive regulations. Ingredient lists in the US still rely on “ammonium phosphatides,” but global traceability and ingredient panels require suppliers to disclose the source oil (frequently rapeseed or sunflower) to meet allergen labeling standards. Large chocolate makers ask for documentation proving non-GMO origin and gluten-free handling, feeding directly into the trust consumers place in their favorite brands.

Preparation Method

The process usually initiates with a controlled mixture of edible-grade triglyceride-rich oil (such as fully refined rapeseed oil), phosphoric acid, and ammonia. The ingredients get combined under agitation at elevated temperatures, often above 80°C, kicking off the phosphorylation reaction. Controlling reaction time, temperature, and ammonia concentration influences the final emulsifier performance and the by-product profile. Once the reaction halts, excess ammonia and water are stripped under vacuum. The resulting product hasn’t finished at this stage—the viscous mass undergoes neutralization, filtration, and deodorization before packing. The risk of forming unwanted by-products exists, especially if temperatures soar or reactants lack purity, which means process technicians need to work carefully, leaning on quality control data every step of the way.

Chemical Reactions & Modifications

Phosphorylation serves as the core chemical step, latching phosphate groups to the glycerol backbone. This step creates a mixture of mono-, di-, and triphosphorylated compounds, each interacting with fat crystals in chocolate differently. Artisans and industrial producers both tinker with the degree of esterification, since the hydrophilic–lipophilic balance (HLB) directly impacts how foods behave. Some researchers have experimented with introducing modified fatty acids or branching points to tune functionality, such as improving dispersibility in reduced-fat chocolate or preventing bloom during storage. These tweaks don’t just happen in research; sometimes equipment upgrades or regional sourcing shifts drive manufacturers to trial new processes, resulting in slight but meaningful changes in emulsification even year-over-year.

Synonyms & Product Names

Beyond “ammonium phosphatides,” companies market the compound under terms like “Emulsifier YN,” “E442,” and branded names unique to each supplier. Chemical catalogs may write it as “phosphated mono- and diglycerides, ammonium salts,” but among manufacturers, shorthand and lot numbers take over. Popularity in the chocolate sector means food technologists recognize the ingredient by its role, not always by its code, due to its reputation for handling stubborn cocoa butter flow issues. In my conversations with chocolate process engineers, a single mention of “YN” usually signals decades-old trust in the additive, cemented after years of performance validation.

Safety & Operational Standards

Food safety agencies, including the EFSA and FDA, assess ammonium phosphatides as safe for use at recommended levels in a wide range of foods. Production plants stick to strict HACCP (Hazard Analysis Critical Control Point) programs when handling raw materials, since slip-ups in ingredient quality management could taint large production batches. Routine monitoring for heavy metals, solvent residues, and contaminants means manufacturers invest in analytical equipment and constant staff training. Certifications like Kosher, Halal, and non-GMO come standard, because big food producers require full traceability for every batch shipped out. Chemical safety data sheets direct plant operators on protective gear and response plans for spills; skin and eye contact can cause temporary irritation, but proper handling, closed systems, and safety reviews keep incidents low.

Application Area

Ammonium phosphatides live in chocolate, compound coatings, fat fillings, and sometimes even baked goods or margarine when a clean melt profile and smooth texture prove difficult to achieve with alternatives. The chocolate industry truly latched onto E442 because it lets factories run with lower cocoa butter levels without sacrificing snap, mouthfeel, or shine. This impacts everything from mass-market candy bars to high-end pralines, cutting raw material costs while staying true to category expectations. Ice cream and caramel producers also look to E442 when they need an emulsifier resistant to high-heat processing that doesn’t impart off-flavors. My years in food development showed time and again that switching to ammonium phosphatides, especially in chocolate recipes, rescued many fledgling projects from failure during scale-up.

Research & Development

Ongoing research focuses on replacing synthetic surfactants with more “natural” or label-friendly options, but ammonium phosphatides hold their ground through adaptability. Academic teams study its fat interaction on the molecular scale, tracking crystallization patterns, bloom development, and fat migration in chocolate storage. Industry R&D teams put effort into reducing production footprints, slashing both energy needs and chemical usage during manufacturing. Some papers from Germany and Scandinavia seek to map out long-term dietary effects, while collaborative efforts aim to blend sunflower or algae oils into the backbone for greater sustainability. These advances form the backbone of informed food formulation, drawing on direct comparison data and practical pilot plant experiments.

Toxicity Research

Dozens of animal and in vitro studies feed into the consensus on ammonium phosphatide safety. Oral toxicity looks minor at intended use levels, with most studies pointing to no observable adverse effect level (NOAEL) far beyond what consumers ever reach through chocolate or bakery products. Regulators note that the metabolic products—fatty acids, ammonia, phosphate—blend directly into existing biochemical pathways. Nonetheless, some research examines chronic intake in specific populations, like children or individuals with kidney disease, just in case metabolic loads from regular, high-level consumption could tip the balance. My opinion mirrors the guidance from regulatory agencies: industry must continue funding long-term health monitoring even for ingredients that enjoy long-standing “GRAS” (Generally Recognized as Safe) status, because food science only stays trustworthy through constant vigilance.

Future Prospects

Ongoing public interest in “clean label” and allergen-free food choices drives a new phase of experimentation for ammonium phosphatides. Some producers look to enzymatic or biocatalytic processing routes, hoping to dial down the use of harsh chemical reagents while keeping the functional edge that sets E442 apart in chocolate. Sustainability remains a challenge, especially as demand rises and raw material supply struggles to keep pace. I see increasing collaboration between oilseed growers, chemists, and food processors to generate even more traceable, high-performance versions of the emulsifier, perhaps focusing on upcycled or specialty oils. Food safety standards will grow tighter, and industry will have to document not just absence of harm but evidence of benefits—whether in resource use, workflow efficiency, or waste reduction. Companies at the forefront will adapt by forming tighter relationships with ingredient suppliers and investing in analytical tools that support rapid innovation.




What are ammonium phosphatides used for?

Smooth Chocolate, Everyday Science

Most folks know chocolate as a treat, but not many stop to think about what gives it that silky-smooth mouthfeel. Ammonium phosphatides play a key role here. These emulsifiers help chocolate flow easily during production, especially in the so-called “conching” stage. Without them, blending cocoa, sugar, and fats turns into a sticky mess. Big chocolate producers have used ammonium phosphatides for ages. The food industry relies on consistent results, and this ingredient delivers.

Where They Show Up

Walking through a supermarket, you’ll spot ammonium phosphatides—sometimes called E442—on ingredient lists for chocolate bars, coatings, and other confections. They don’t just work in candy. Chewing gum, bakery creams, and margarines also benefit. Manufacturers want their products to look good and ship well, so they look for ingredients that help combine fat and water without separating. That’s what ammonium phosphatides bring. Many consumers notice better texture and fewer greasy spots, even if they don’t know why it happens.

Why Brands Choose Ammonium Phosphatides

Food companies once turned mostly to lecithin, often sourced from soybeans, to get chocolate to flow right. Interest in ammonium phosphatides picked up because it gives greater control over texture and thinning, even at small doses. This comes in handy for selling chocolate across warm climates, where controlling consistency takes on fresh importance. As allergies and food preferences shift, this option also helps folks avoid soy allergies. Palm oil, from which ammonium phosphatides get made, carries its own set of issues, but there’s no denying the real-world results this emulsifier offers.

Health and Environmental Questions

People sometimes worry about ingredients they can’t pronounce. Food safety authorities in Europe and other major markets have cleared ammonium phosphatides for use in reasonable amounts. The science says they break down during digestion and don’t build up in the body. Still, folks ask what goes into their snacks. It’s worth mentioning that some ammonium phosphatides come from sustainably managed palm oil, although not all do. People and brands have pushed for greener palm oil production, and some chocolate names have taken the lead by certifying their supply. There’s still work to do since large-scale agriculture causes deforestation and harms wildlife, particularly in Southeast Asia. It all comes down to choices made further up the supply chain.

Room for Change

Anyone who loves chocolate wants it to feel right and taste the way it should. Ammonium phosphatides deserve some thanks for that. Still, food makers face growing calls to balance innovation with real respect for health and the environment. Consumer trust depends on openness. Brands can earn respect by showing where their ingredients come from and improving environmental practices. If more producers sourced their palm oil responsibly and showed proof, shoppers would gain peace of mind.

Chocolate and food technology keep evolving. That’s good news for anyone hoping their favorite treats stay both delicious and responsibly made. The story of ammonium phosphatides shows how science and values meet on store shelves, inviting all of us to learn more and make choices that count.

Are ammonium phosphatides safe to eat?

What Are Ammonium Phosphatides, Anyway?

You often see ammonium phosphatides on chocolate wrappers or ice cream tubs. These are emulsifiers, which means they help blend oil and water. Food makers like them because they keep chocolate smooth and prevent fat from rising to the surface. Unlike soy lecithin, ammonium phosphatides come mostly from vegetable oils—rapeseed is a common source.

Are They Safe to Eat? The Science So Far

People worry about strange-sounding ingredients. Complaints about unfamiliar additives fill parenting groups and healthy eating forums. Scientists and food safety agencies took these concerns seriously and dug deep. The European Food Safety Authority (EFSA) carried out a full review, looking at toxicity and any links to cancer, allergy, or changes in liver function. The U.S. Food and Drug Administration gave ammonium phosphatides a green light as well.

EFSA set an acceptable daily intake of 30 mg per kilogram of body weight. That means an average adult would have to eat a huge stack of chocolate bars every day—far more than most people do—to reach the limit. Studies on rats and mice found no unusual effects at levels even above this mark. No evidence hints at effects on hormones or the nervous system, either.

Worries About Food Additives

Lots of folks try to cut additives because of stories about gut health, attention problems, or allergies. For ammonium phosphatides, serious side effects just don’t show up in proper studies. No spike in allergy reports or food intolerance comes up in public food safety records. Parents of kids with egg or soy allergies sometimes feel a bit relieved, since ammonium phosphatides don’t come from those sources.

A few watchdog groups call for more studies. Food research never stands still, and it’s always smart to keep tabs on new evidence. Still, the evidence paints a pretty calm picture so far. Health authorities check up on these ingredients often—especially ones stuck in sweets kids like.

Should We Care?

Nobody gets healthier by eating lots of additives, but moderation matters. Ammonium phosphatides keep your chocolate smooth. They let factories use less cocoa butter, which may cut down the cost and the saturated fat. If you’re after fewer processed foods, the best bet is to go for plain dark chocolate or stick to foods with a short ingredient list.

Labels matter. For people who want control over what goes in their bodies, reading that tiny print helps. If ammonium phosphatides bother you, look for “E442” or check for “emulsifier” followed by the full name. More food makers post ingredient lists on their websites and answer questions from curious shoppers.

Better Choices for a Better Diet

No need to panic about ammonium phosphatides, but don’t ignore the bigger picture. Most of us eat too many ultra-processed foods. Cooking at home, eating fresh fruit, and skipping packaged snacks do far more for health than cutting one emulsifier. If you do pick up a chocolate bar, it’s okay to focus on taste and simple joys instead of every single word on the wrapper.

It’s good to know what’s in your food. It’s even better to think about the whole diet, not just one additive. Balanced eating and a little bit of label reading can go a long way.

Are ammonium phosphatides natural or synthetic?

Talking Straight About What Ends Up in Food

Anyone who reads the ingredient list on the back of a chocolate bar has likely come across a puzzling name: ammonium phosphatides. This odd term pops up in more products than most people realize, often as E442 in Europe. People who care about what lands on their fork, or who deal with food sensitivities, want to know—where do these additives come from, and are they natural or synthetic?

How Ammonium Phosphatides Are Made

I remember working a summer in a small chocolate shop. The owner insisted on using lecithin instead of other emulsifiers, partly because of customer questions about chemicals in their candy. This got me digging into what makes a food “natural” or “synthetic”. Ammonium phosphatides start out as plant oils—often rapeseed (canola) oil. That sounds natural enough, but the process doesn’t stop there. Manufacturers treat the oils with chemicals like phosphoric acid and ammonia, pushing them through several reactions to get a substance with very different properties from the oil in your kitchen.

Natural, in most people’s minds, means plucked, pressed, or cut from nature with little fuss. After the oil goes through chemical changes, ammonium phosphatides cross a line in most definitions. Food standards agencies classify them as “nature-identical” or “derived from natural sources through chemical synthesis.” This means the starting point comes from plants, but the end product owes its qualities to factory chemistry. Strictly speaking, ammonium phosphatides are synthetic, regardless of their origin as seeds and plants. Anyone claiming they remain “natural,” in the way olive oil or honey is natural, stretches the word beyond what most shoppers expect.

Function in the Chocolate Industry

The reason these additives turn up in chocolate? Big chocolate companies want consistency, smoothness, and a long shelf life in their bars. Cocoa butter costs keep rising, and supply chains get squeezed by weather and competition. Ammonium phosphatides help make chocolate flow better during production. They also replace some lecithin, which has experienced price swings, especially after soy and sunflower crops faced uncertainty. The big brands embrace anything promising stability, scalability, and less reliance on expensive raw cocoa butter. For the home chocolate maker or artisan, those benefits matter less compared to reputation and simple labeling. For mass production, even a small cut in cost multiplies across millions of bars.

Questions Shoppers Should Ask

This kind of sourcing and processing isn’t good or bad by itself. Still, labeling could use more honesty. Most people want to recognize what they’re eating or at least pronounce it. Trust in big brands drops when labels seem misleading or ingredients get too complicated. A 2023 Food Insight survey found consumers still connect “natural” labels to health, even when the science says otherwise. This means the onus falls on manufacturers to draw a clear line between plant-based and synthetic chemicals. Better transparency would let people make informed decisions rather than guess or Google ingredients in the grocery aisle.

Moving Toward Clarity and Choice

Food science keeps evolving. New plant-based alternatives, such as sustainably fermented lecithin, have started to gain ground. Companies who opt for less processed emulsifiers often shout this on their packaging, betting that trust and simplicity win customers. Regulators can set stricter rules about what the term “natural” means on processed foods, keeping marketing honest and shoppers informed. At the same time, consumers need more than clever buzzwords—real details on where, how, and why additives appear in foods they put on their table.

Do ammonium phosphatides contain allergens?

Understanding Ammonium Phosphatides

Ammonium phosphatides show up on food labels, especially in chocolate and confectionery. Producers use them to make chocolate smooth and stop cocoa butter from separating. They sound pretty technical, but they come from common ingredients—oil and a bit of chemical tweaking. Usually, they start with rapeseed oil or sometimes sunflower. Not every label explains the source, which keeps folks guessing about safety, especially if someone in the family has allergies.

Allergy Concerns—Oil Source Matters

People with food allergies read every ingredient with care. Nuts, dairy, gluten, and soy—these stand out as top worries. Ammonium phosphatides themselves don’t link to any well-documented allergic reactions. Each batch, though, depends on the base oil. Most producers opt for refined rapeseed oil. The thing with highly refined oils is that almost all the protein—the stuff that causes allergic reactions—gets stripped away in the process. According to food safety authorities, like the European Food Safety Authority (EFSA) and the U.S. Food and Drug Administration (FDA), highly refined oils rarely trigger allergies.

I’ve had friends with nut and seed allergies ask if chocolate with ammonium phosphatides is safe. The answer often rests on how the oil was processed. Refined oils bring peace of mind, but unrefined versions may carry trace proteins that could trigger problems. Solid labeling could help people feel sure about what they eat.

Labeling and Transparency—A Consumer’s Perspective

Full transparency on food labels should be the norm. Anyone who’s dashed through grocery aisles with an allergy list knows the routine: scan, squint, double-check, and hope for no hidden surprises. Producers don’t always name the oil source or clarify if it’s refined enough to remove allergens. Sometimes the answer’s online, tucked in FAQs, but the package stays vague.

I’ve learned that regulations in the EU and U.S. focus on major allergens. Recalls and warnings pop up for soy, milk, and nuts, but ammonium phosphatides lie low on the radar. Still, the more info people get on the label, the fewer mistakes they make. Knowing whether a product contains or is derived from a source like rapeseed, sunflower, or something else is critical for those with unusual or multiple allergies.

What Could Improve Confidence?

Manufacturers could create real trust by spelling out oil sources and refining details on their packages. Clear allergen labeling helps families avoid rolling the dice at snack time. Food safety isn’t just about meeting rules—it’s meeting people where they are. If someone doesn’t have to call a hotline or search online just to eat a chocolate bar, that feels like progress.

Doctors and dietitians often say, “When in doubt, skip it.” For people with allergies, especially kids, asking for full ingredient details isn’t picky—it’s about staying safe and healthy. Simple facts, listed clearly, make a huge difference.

No food should leave people guessing. Ammonium phosphatides show how even something that seems safe can raise questions if companies don’t keep their audience in the loop. Straightforward labeling doesn't just follow standards—it respects the real lives behind every purchase.

What foods commonly contain ammonium phosphatides?

The Sweet Truth About Chocolate

Ammonium phosphatides often pop up in chocolate, especially the creamy, melt-in-your-mouth kind you find in major grocery stores. The reason? Chocolate makers look for smoother, easy-flowing chocolate without the premium price of pure cocoa butter. Ammonium phosphatides act as an emulsifier, keeping cocoa and fat from separating. Brands use it in milk and dark bars, and it shows up in plenty of chocolate coatings—think cookies, ice cream bars, and even some boxed bakery treats. Just flip over most commercial chocolate bars, especially European brands, and "E442" or "ammonium phosphatides" appear on the label. If your kitchen is anything like mine, with a steady stash of mid-priced chocolates, chances are you’ll find this ingredient if you start checking labels.

Spreads, Margarine, and Convenience Foods

Spreads and margarine sometimes list ammonium phosphatides among their ingredients. Big-brand margarine tubs, particularly low-fat or vegan versions, use them for texture and shelf-life. These additives help oil and water stay together, so the spread stays soft and easy to use straight out of the fridge. It matters for people who need consistency on toast every morning, or for anyone baking with margarine as a butter replacement. Convenience snacks—especially chocolate dessert pots, sandwich cookies, or pre-packaged cakes—often sneak in ammonium phosphatides. I grew up believing that chocolate desserts only needed cream, cocoa, and sugar. Now I realize manufacturers balance cost, flavor, and texture with help from a long list of additives, E442 being one of the most common.

Candy and Ice Cream Coatings

Walk through a supermarket candy aisle and scan for candies and pralines covered in smooth chocolate. These products often rely on ammonium phosphatides to keep chocolate from seizing up during manufacturing and storage. The result: a glossy, crack-free coating that doesn’t get chalky over time. The same goes for the thin shells on ice cream bars—companies use ammonium phosphatides to ensure the shell snaps neatly but doesn’t become crumbly or grainy. On a summer day with a kid tugging at your sleeve for a chocolate-dipped cone, you’re probably feeding them something with ammonium phosphatides in the mix.

Why Ingredient Transparency Matters

Reading a label can feel overwhelming, especially with chemical names like "ammonium phosphatides." The ingredient itself passes food safety checks in most countries. EFSA and FDA review studies about potential health effects, including allergy risks, long-term toxicity, or impact on gut health. No strong evidence links ammonium phosphatides to health issues when consumed as part of a regular diet. But food science keeps evolving, and transparency remains critical. People should know what’s inside processed foods so they can choose what fits their lifestyle and values.

Parents, people with food sensitivities, or those who follow plant-based diets may look for products free from additives like ammonium phosphatides. Some stick to single-origin chocolate bars, local bakery goods, or fresh spreads, trading off price or convenience for ingredient simplicity. Label literacy and open ingredient lists give power back to the shopper. Given today’s food landscape, it’s worth taking those extra moments in the store to scan for what’s inside the wrapper. Every consumer deserves the facts so they can make those small, daily food choices with confidence and clarity.

Ammonium Phosphatides
Names
Preferred IUPAC name Ammonium 2-hydroxypropyl phosphate
Other names E442
Ammonium salts of phosphorylated glycerides
Pronunciation /əˌmoʊniəm fəˈsfætaɪdz/
Preferred IUPAC name Ammonium 2-hydroxypropyl phosphate
Other names E442
Emulsifier E442
Ammonium Salts of Phosphatidic Acid
Pronunciation /əˌmoʊniəm fəˈsfeɪtaɪdz/
Identifiers
CAS Number 7783-28-0
Beilstein Reference 3596296
ChEBI CHEBI:131209
ChEMBL CHEMBL1201538
ChemSpider 22217
DrugBank DB11141
ECHA InfoCard 03e222e9-317e-4b54-9f8c-0b275edc7fa8
EC Number E442
Gmelin Reference 37531
KEGG C02385
MeSH D059210
PubChem CID 129738830
RTECS number SJ6071000
UNII 2WI3K8978S
UN number UN3077
CompTox Dashboard (EPA) DTXSID7020186
CAS Number 8050-81-5
Beilstein Reference **3971099**
ChEBI CHEBI:131135
ChEMBL CHEMBL1201708
ChemSpider 21541875
DrugBank DB11183
ECHA InfoCard 03cf213b-8ad6-4559-92a3-69a56d619b63
EC Number E442
Gmelin Reference 2517
KEGG C11357
MeSH D058780
PubChem CID 129706857
RTECS number BQ0110000
UNII F8CUI89E49
UN number Not regulated
CompTox Dashboard (EPA) DTXSID5021320
Properties
Chemical formula (NH4)xHyPO4
Molar mass 605.48 g/mol
Appearance Straw to brown oily liquid
Odor Odorless
Density 0.97 g/cm³
Solubility in water Soluble
log P -4.7
Basicity (pKb) 8.43
Magnetic susceptibility (χ) Diamagnetic
Refractive index (nD) 1.449
Viscosity Viscous liquid
Dipole moment 1.82 D
Chemical formula (NH4)xHyPO4
Molar mass 201.14 g/mol
Appearance Clear, viscous, yellow to brown liquid
Odor Odorless
Density 940 kg/m³
Solubility in water soluble
log P -3.7
Basicity (pKb) 9.8
Magnetic susceptibility (χ) -57.0·10⁻⁶ cm³/mol
Refractive index (nD) 1.452
Viscosity Viscous liquid
Dipole moment 0 D
Pharmacology
ATC code A16AX28
ATC code A16AX15
Hazards
Main hazards Not classified as hazardous.
GHS labelling Not classified as hazardous according to GHS
Hazard statements Not a hazardous substance or mixture.
Precautionary statements No precautionary statements are required for Ammonium Phosphatides.
NFPA 704 (fire diamond) 1-1-0
LD50 (median dose) LD50 (median dose): >2000 mg/kg (oral, rat)
PEL (Permissible) Not established
REL (Recommended) 0.05 mg/m³
Main hazards May cause eye and skin irritation.
GHS labelling Not classified as hazardous according to GHS
Pictograms Not classified / No pictogram
Signal word No Signal Word
Hazard statements Not a hazardous substance or mixture according to the Globally Harmonized System (GHS).
Precautionary statements Precautionary statements: "Wash hands thoroughly after handling.
NFPA 704 (fire diamond) 1-0-0
Lethal dose or concentration LD50 (oral, rat) > 2000 mg/kg
LD50 (median dose) LD50 (oral, rat) > 5000 mg/kg
NIOSH Not Listed
PEL (Permissible) Not established
REL (Recommended) 0.61 mg/m³
Related compounds
Related compounds Lecithin
Mono- and diglycerides of fatty acids
Sucrose esters of fatty acids
Polyglycerol polyricinoleate
Sorbitan monostearate
Related compounds Lecithin
Phosphatidic acid
Ammonium salts
Phospholipids
Thermochemistry
Std molar entropy (S⦵298) 373.4 J·mol⁻¹·K⁻¹