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Succinylated Monoglycerides: A Deep Dive into Development, Properties, and Future Directions

Historical Development

Succinylated monoglycerides have an origin story tied closely to the increased industrial appetite for food emulsifiers in the mid-20th century. Food scientists, hungry for new ways to stabilize fats and oils in baked goods, set off on a journey through organic chemistry and found succinylation could modify traditional monoglycerides just enough to improve their water dispersibility and heat resistance. Their adoption ramped up alongside the mass production of processed foods, where they appeared in breads, cake mixes, and even frozen desserts. The late 1900s saw food technologists fine-tune their manufacturing processes, drawn by consumer demand for consistent quality and longer shelf lives. Health and regulatory frameworks also matured, with food safety watchdogs eyeing new additives, which led to tighter scrutinies and the need for better documentation and rigorous safety studies. The result? Succinylated monoglycerides earned a spot on ingredient lists worldwide, with manufacturing and application methods now highly refined.

Product Overview

Look at any high-volume bakery or large food production line—sooner or later, you’ll find a tank or bag of succinylated monoglycerides. These food additives act as stabilizers, surface-active agents, and dough conditioners. They work especially well in low-moisture baked products and show up in whipped toppings and even some dairy analogues. The main reason: their backbone, a monoglyceride, interacts with both fats and water, while the succinyl group further tunes this balancing act. This tweak opens the door to varied applications across confectionery, grain products, and some nutritional bars.

Physical & Chemical Properties

These white to slightly off-white powders can look a little waxy, clumping together in higher humidity unless sealed tightly. Their melting point ranges between 50 and 60°C, sitting squarely in the workable range for many processing conditions. They dissolve well in hot fats but resist water almost stubbornly, except at higher pH. Chemically, succinylated monoglycerides represent esters of glycerol where one of the available hydroxyl groups attaches to a succinyl moiety, usually synthesized by reacting food-grade monoglycerides with succinic anhydride. This configuration gives the molecule new acidic sites, altering its interaction with other food ingredients. The succinate function provides a negative charge at neutral pH, shifting the emulsification behavior compared to standard diglycerides or citric acid esters. In practice, their hygroscopic nature and moderate amphiphilicity control shelf stability and allow for tailored blending into various food matrices.

Technical Specifications & Labeling

If you read a carton label closely, you might spot these as “succinylated monoglycerides” or by a food additive number, especially in jurisdictions with strict ingredient listings, like the EU (E472g). Technical documents list minimum monoglyceride content, succinylation degree, acid value, and purity requirements. Many suppliers set the minimum monoglyceride content near 35%, while the succinyl group content generally hovers around 10–15%. These specs tie closely to product performance in different matrices—breads, margarine, or cake mixes. Labels often avoid complex nomenclature for the sake of consumer transparency, but batch certification sheets from manufacturers include values for free fatty acids, heavy metal traces, and residual solvents, along with a full toxicological profile. Global standards, like those set by Codex Alimentarius, spell out allowable concentration limits in finished foods.

Preparation Method

Commercial production kicks off using food-grade monoglyceride, derived from fat sources such as soybean or palm. Succinic anhydride, the crucial reactant, joins the mix under controlled temperatures, with an alkaline catalyst nudging the esterification reaction along. The reaction conditions—temperature, agitation, and reactant ratios—determine the final product’s quality. Modern processors use vacuum stripping afterward, chasing out unreacted anhydride and solvents. At the plant level, I’ve seen operators use spiral chillers or large vacuum tray dryers to reach a uniform product. The key challenge is getting the right degree of succinylation; too little, and emulsifying action suffers, but too much, and off-flavors or regulatory hurdles appear. Once dried, the product is milled and sifted to ensure particle size consistency, then packed in moisture-proof containers. Close attention follows at every step, from ingredient tracking to critical control points for allergen and contaminant exclusion, as demanded by both auditors and careful buyers.

Chemical Reactions & Modifications

At the lab bench, the reaction between monoglycerides and succinic anhydride stands as one of those pleasingly predictable pathways in fat chemistry. The hydroxyl group on the glycerol backbone takes on the anhydride; a new ester linkage forms, popping open the anhydride and creating a monoester with a carboxylic acid tail. This transformation generates a molecule that holds onto both hydrophobic and hydrophilic traits, shaping its emulsification abilities in everything from batters to dairy analogues. Researchers still tweak these molecules, sometimes introducing mixed fatty acid chains or playing with the position of the succinyl group. Some teams chase higher saturation, hoping for thermal stability, while others aim for cleaner labels by minimizing by-products. This room for innovation drives product development, as manufacturers juggle performance needs with labeling and taste.

Synonyms & Product Names

Market names don’t stray too far from chemistry, but the landscape does contain variety. You’ll find labels reading “succinylated mono- and diglycerides,” “E472g,” or brand-specific marks that hint at fat source and purity, such as “Succinex” or “SucDGM.” Industry folk pass around terms like “SMG” without much explanation—though technical documents spell out the full designation. In regulatory environments, synonyms sometimes crop up depending on labeling laws or legacy supplier lists, yet it's the underlying chemistry that sellers and safety officers keep front of mind during audits or product launches.

Safety & Operational Standards

Food safety authorities in North America, Europe, and Asia set boundaries for both manufacturing conditions and allowable concentrations in finished products. Many facilities align with FSSC22000 or ISO 22000 to ensure process integrity. Strict controls over source oils, traceability of succinic anhydride, and batch-by-batch heavy metal screening kick into gear early. Operators wear personal protective equipment during the reaction phase, since succinic anhydride can irritate skin and mucous membranes before it’s fully reacted. Final products undergo organoleptic checks—taste, smell, color—before passing shelf-life and microbiological tests. In my experience, regular documentation trumps occasional spot-checks: detailed records help if any recall or trace-back investigation unfolds. Auditors looking for Good Manufacturing Practices find comfort in comprehensive cleaning protocols, allergen segregation, and robust documentation, all common in advanced fat-processing facilities.

Application Area

Look at the spread of bakery applications—whipped cream analogues, sandwich loaves, or snack bars—and succinylated monoglycerides quietly power many of these behind the scenes. They help keep bread fresh, provide structure to whipped toppings, lend shine to glazes, and support some frozen desserts in resisting heat shock. Outside of food, these compounds gave early promise in cosmetics as dispersing agents for pigments and oils. In pharmaceuticals, some patents mapped a future for their use as drug carriers thanks to their amphiphilic structure, though scale-up in these fields has moved slowly. Advances in plant-based and vegan product development breathe new life into their use, where formulators chase better mouthfeel without relying on traditional dairy or egg emulsifiers.

Research & Development

Academic journals over the past decade brim with studies examining molecular structure, performance in gluten-free or high-protein foods, and digestion pathways in animal models. Methodical work on molecular mobility and crystallization behavior underpins improvements in cake mix stability or long-life bread. Some research teams collaborate directly with manufacturing partners, scaling up promising lab blends for pilot-plant trials. Alternative fat feedstocks also sit squarely in R&D crosshairs, as sustainability concerns push producers away from palm-based raw materials. In sensory labs, taste panels evaluate repeats of bread, whipped topping, or chocolate glaze trials, focusing on any off-flavors or texture differences that might push a product off grocery shelves. Close work with legal and regulatory specialists ensures that every new tweak makes it through the food safety hoops, especially as global harmonization trends close loopholes for grey-market additives.

Toxicity Research

Extensive toxicological studies shape the reputation of succinylated monoglycerides in the food world. These include acute, subchronic, and chronic studies in rodent models, usually complemented by in vitro digestion models and, increasingly, advanced cell culture work. Most findings have placed them in the low-risk category, with reported no-observed-adverse-effect-levels (NOAEL) often far above typical dietary exposures. Digestion-related breakdown produces glycerol, fatty acids, and succinate, all of which follow well-charted metabolic pathways. Some researchers remain vigilant, monitoring for rare sensitization or allergenicity, as well as possible impacts on gut flora in high-exposure populations. Food regulatory bodies review all new toxicological data before permitting expanded usage; real-world consumption trends also feed into these safety assessments through nutrition surveillance programs. This oversight means consumers and manufacturers have a shared reassurance about long-term safety, as long as supply chains avoid adulteration.

Future Prospects

Future demand for succinylated monoglycerides appears set to grow, not only due to their functional role but because food technology keeps evolving. The clean label movement and plant-origin claims both spur reformulation efforts, often requiring more transparency about additive sourcing and processing. Environmental pressure on palm oil—the traditional monoglyceride source—drives exploration of sustainable alternatives, including algae-derived fats or upcycled cooking oil streams. Researchers continue tinkering with molecular structures, aiming to deliver even better thermal tolerance or allow for use in novel, high-protein, or high-fiber food systems. Regulatory frameworks move slowly, but demand for harmonized standards will push trade groups and industry bodies toward mutual recognition and data sharing. Given ongoing dietary shifts—more vegan options, more shelf-stable snacks—the role of advanced food emulsifiers like succinylated monoglycerides will only grow. This growth aligns with a shared focus on food safety, supply-chain transparency, and scientific validation, delivering something both reliable and innovative as palates and products change.




What are Succinylated Monoglycerides used for?

What Are Succinylated Monoglycerides?

Succinylated monoglycerides sound like something straight out of a chemistry lab, but their story often begins in the kitchen. These ingredients act as emulsifiers. They bring together substances that usually don’t mix, which proves quite handy in plenty of foods found on grocery shelves.

Where People See Succinylated Monoglycerides

For years, I’ve paid close attention to labels after a family member started getting stomach aches from some processed foods. That habit taught me to notice odd-sounding ingredients, and succinylated monoglycerides come up regularly in baked goods—think soft breads and sweet pastries.

Bakers and food producers pick these additives since they help oil and water find common ground. In bread, for example, they help keep the texture soft for longer. They also lend a hand in preventing staleness. By doing this, companies can sell products with longer shelf lives but still give a fresh taste. This is a win for the businesses, sure, but also for families who want their sliced bread to last the week instead of drying out after two days.

Beyond the Bakery: More Uses

Food isn’t the only place where succinylated monoglycerides step up. You’ll spot them in non-dairy creamers and powdered drink mixes. Mixing powder into water tends to leave clumps or a weird separation—nobody likes that in morning coffee. Succinylated monoglycerides help dissolve the powder smoothly, which is something I can appreciate every time my instant coffee turns out lump-free.

Some frozen desserts—and even sauces hiding at the back of the fridge—get smoother, creamier results thanks to these emulsifiers. Their ability to make things blend well goes beyond convenience. For people managing allergies or needing gluten-free options, these ingredients help create foods that look and taste much closer to the originals, instead of dry or crumbly substitutes.

Are They Safe to Eat?

Food safety keeps people worried, especially when the ingredient sounds more like a chemistry set component. Succinylated monoglycerides come from fatty acids—usually those found in vegetable oils—and are generally considered safe under guidelines set by food agencies such as the FDA and EFSA. They’ve approved their use in specific amounts. While no food additive is completely without questions, research hasn’t turned up public health risks at the level used in foods today. I always think it’s iffy to trust packaging alone, so looking out for balanced, science-based sources helps put these worries into perspective.

Challenges and Looking Ahead

One challenge is the appetite for “clean labels.” More shoppers want ingredient lists they can understand without a science degree. The food industry faces pressure to find natural alternatives or keep ingredient lists short. This brings opportunities for researchers to look for plant-based blends or newer techniques that can do the same job as succinylated monoglycerides, but with ingredients closer to their natural state.

Education also becomes powerful here. If more brands honestly explain why these emulsifiers matter—how they help make food tastier, safer, and last longer—trust can build. As someone who started reading labels for health reasons, knowing what an ingredient does and where it comes from goes a long way toward making smarter choices at the store. The conversation around food additives needs to continue so people can keep both quality and safety on their plates.

Are Succinylated Monoglycerides safe for consumption?

What Are Succinylated Monoglycerides?

Succinylated monoglycerides often appear on ingredient lists for baked goods, frozen desserts, and some processed foods. These substances act as emulsifiers—making oil and water mix a little better and keeping baked foods fresher for longer. Food scientists figured out how to take regular monoglycerides, which already have a long history in food, and modify them with succinic anhydride. That adds new properties, but it also triggers questions about how the body handles these changes.

What Do Regulators and Researchers Say?

The U.S. Food and Drug Administration puts succinylated monoglycerides in the “Generally Recognized As Safe” category for certain uses. This decision doesn’t come out of thin air. Researchers feed both lab animals and volunteers reasonable amounts—far more than any person would eat in a day—to watch for side effects, toxicity, or any warning signs. These studies usually show no issues at typical levels found in food.

Safety reviews from groups like the Joint FAO/WHO Expert Committee on Food Additives look for both short-term and long-term effects. They also tend to ask: Does the body break down these molecules or do they build up somewhere harmful? Tests show that digestive enzymes can break the succinylated form down into smaller bits, which the body can process the way it handles other fats. No evidence suggests long-term buildup or serious risks for most people.

Everyday Exposure

Reading a label rarely tells the whole story. Most people get their intake from a range of processed foods, but the total amount stays small thanks to tight regulations. Serving sizes of cookies or ice cream typically contain fractions of a gram, well below levels that scientists have tested for any kind of risk.

Sensitive groups like children, pregnant women, or people with medical conditions get special attention during guideline setting. Scientists account for these limits, often setting maximum levels that are five or ten times lower than thresholds found in lab studies. Food manufacturers also have incentives to stay below official limits, since overdoing additives can foul up texture or taste.

Concerns and Ongoing Debate

Natural food advocates sometimes worry about any food with additives—no matter what the label or research says. Many argue that less processed food is a better choice for health and sustainability reasons. Some people react to food additives in general, but succinylated monoglycerides rarely appear on lists of common triggers for sensitivities or allergies.

EU regulators take a watchful stance. They approve specific uses but ask for ongoing research and honest labeling, so shoppers can pick according to their own preferences. Consumer watchdogs push for transparency, which leads to better choices overall.

What’s Next?

Plenty of room exists for more research, especially studies that reflect real-world diets over years or decades. Some food researchers have looked at the rise in ultra-processed foods and wonder how all these ingredients work together inside the human body. As someone who pays attention to both science and everyday cooking, I often notice that the best food choices happen with clear information and a balance between convenience and old-fashioned ingredients.

People can control their own exposure simply by reading labels, cooking more at home, and favoring foods with ingredients they recognize. Anyone with specific health concerns should talk with a medical pro who keeps up with emerging research, not just label claims.

Food science keeps moving forward. Staying curious and asking questions makes sense—especially when it comes to things we eat every day and share with family.

What foods commonly contain Succinylated Monoglycerides?

Understanding What Ends Up in Our Food

Succinylated monoglycerides often slip past most folks reading an ingredient label. This additive works as an emulsifier, keeping things stable and smooth. I’ve spent plenty of time in grocery store aisles picking out products, only to wonder what exactly is doing the heavy lifting in processed foods. Once I started researching, it surprised me how many familiar items get a boost from this ingredient.

Baked Goods and Bread—Where It All Begins

Think about the last burger bun or hoagie roll you had. Commercial bakeries rely heavily on succinylated monoglycerides. Bread made in bulk needs a soft crumb, a longer shelf life, and sometimes a bit more bounce than you get at home. Without these emulsifiers, factory-baked sandwich bread would go stale faster and crumble too easily. Pan loaves, hot dog buns, English muffins—these staples only last on store shelves thanks to these kinds of additives.

Desserts and Frozen Treats

Walk up to an ice cream freezer and pick out any well-known brand. Ice cream makers use succinylated monoglycerides to stop fat and water from separating. Want a creamy texture you can scoop straight from the freezer? This emulsifier keeps tiny ice crystals from ruining the party. Some grocery store cheesecakes, cream pies, and whipped toppings pick up this ingredient too, especially where they need a long shelf presence.

Snack Foods

Potato chips, crackers, and cookies don’t just show up at the supermarket crunchy and fresh by accident. Mass-produced snacks often need more than just fat and flour. These foods soak up succinylated monoglycerides for their ability to help fats blend smoothly during mixing and baking. It's a detail I picked up by watching behind-the-scenes videos on commercial snack factories. The additives help toast up an even color and lock in oil, reducing greasiness.

Dairy Imitations and Plant-Based Milks

Fans of oat milk, almond milk, and non-dairy creamers pour these every morning expecting them to blend into coffee and cereal with zero separation. Emulsifiers make sure that works out in real life. Succinylated monoglycerides can stabilize blended drinks, so nobody ends up with a strange clump at the bottom of the glass. Some processed cheeses also lean on the same additive for meltability and shine.

What This Means for Shoppers

Plenty of folks never check labels unless there’s a food allergy. Yet those who want fewer additives face a real challenge. Choice isn’t always simple, especially with time or budget limits. I’ve cut back on certain processed foods by baking bread at home or picking simpler ice cream. Still, it’s tough—almost every shelf in big grocery chains holds something with extra emulsifiers.

Reducing Reliance and Making Informed Choices

Some companies have started exploring natural alternatives, using things like lecithin from sunflower or soy, or experimenting with new plant-based blends. More transparency from producers could go a long way. Clearer labels help people decide for themselves how much of these additives fit into their own everyday routines. From my own kitchen, I’ve noticed that sticking to short ingredient lists takes more work but can bring peace of mind. Knowing what’s behind that “soft and fluffy” texture or “creamy” swirl can help anyone make better choices, starting with breakfast all the way to dessert.

Are Succinylated Monoglycerides suitable for vegans and vegetarians?

Understanding Succinylated Monoglycerides

Succinylated monoglycerides show up on the ingredients list of plenty of processed foods, sometimes in bread, ice cream, or baked goods. Chemists blend glycerol with fatty acids, mixing in succinic acid to change their behavior and make them work better as emulsifiers.

Where the Ingredients Come From

Looking closer at the source matters. Glycerol can come from plants such as soybeans, but companies also use animal fats. Succinic acid usually comes from petroleum or can be made through fermentation using certain bacteria. Most commercial production of fatty acids leans heavily on either vegetable oils or animal fats—there's no rule forcing brands to specify which. Food manufacturers sometimes look for whatever is cheapest for the job. Those details impact whether vegans and vegetarians can eat the final product.

Labeling and Transparency

Reading food labels doesn't always clarify what’s inside. Succinylated monoglycerides likely sound safe enough to someone avoiding animal products, but food manufacturers usually won't list the exact origin on the package. Unless a label says "vegan" or "vegetarian," there’s no promise about the source. Most processed food labeling standards worldwide don't require deeper details. The FDA considers these ingredients as "generally recognized as safe," so food makers have plenty of wiggle room.

Why Ingredient Sourcing Matters

For those who care about animal-free diets, every mystery ingredient raises real concerns. Cooks in my own family with plant-based diets have spent extra time emailing companies, hoping for a clear answer about obscure labels. Yet, companies often hide behind trade secrets or give general statements. This leads to headaches and sometimes mistrust. None of this encourages loyalty from people who stick to plant-only diets by principle or necessity.

Pushing for Change in the Food Industry

Some voices in the vegan and vegetarian community now demand transparency. Plant-based brands lead the way, using only vegetable-sourced additives and saying so on their labels and websites. Other manufacturers face increasing pressure to reveal sourcing. Regulatory agencies could help by requiring companies to specify the origin of tricky food additives like these.

Taking Charge as a Consumer

Anyone worried about succinylated monoglycerides can take a few practical steps. Start by scanning for vegan or vegetarian certifications on labels. If a brand doesn’t spell it out, contact customer service. Some companies keep a FAQ about ingredient origins, though responses vary. Open-source lists, maintained by vegan advocates, can offer useful guidance on what brands use plant or animal sources today. Stay alert—recipes and suppliers change, so what is vegan this year might not be next time.

The Role of Personal Experience

In my experience as someone who takes ingredient lists seriously, there’s real value in community. Word-of-mouth, online forums, and advocacy groups can clarify what’s really in the foods we buy. Direct conversations with smaller food brands sometimes reveal more than you’ll see on a package.

Looking Toward a Solution

Greater clarity can empower vegans and vegetarians to make choices matching their values. Ingredient transparency builds trust. Food companies benefit from loyal customers when they answer questions plainly. Open communication and stricter labeling rules would remove the guesswork around additives like succinylated monoglycerides for plant-based eaters everywhere.

Do Succinylated Monoglycerides have any side effects or allergens?

What Are Succinylated Monoglycerides?

Succinylated monoglycerides show up on a lot of food labels. They often work as emulsifiers, helping oil and water mix in products like baked goods and dairy. The main ingredients come from fatty acids and food-grade succinic anhydride. Both components have established safety records according to the FDA and European Food Safety Authority.

Safety and Side Effects: Should We Worry?

People worry about chemicals in food, usually for good reason. Over the years, scientific panels have set acceptable daily intake limits by watching what happens when rats, pigs, or even humans eat these kinds of emulsifiers. Health agencies agree that consuming them in ordinary food portions doesn't appear to cause health problems for most folks.

That said, some people have sensitive stomachs. Large amounts of emulsifiers can lead to minor gut complaints: bloating, gas, and loose stools. Nothing life-threatening, but definitely annoying if your digestive system already struggles with processed foods. Succinylated monoglycerides break down into glycerol and succinic acid, both of which the body processes naturally. If I eat foods loaded with these additives, I usually notice my stomach gets a little unsettled, especially if the rest of my diet is full of packaged snacks.

Allergen Potential: Who Needs to Watch Out?

Allergy is a real fear for many. Most food scientists say succinylated monoglycerides themselves don’t trigger classic allergic reactions, like nuts or shellfish. No anaphylaxis or immune-mediated responses have ever linked back to these additives in research tracked by global food safety agencies.

One exception sometimes hides in how they’re made. Some manufacturers use animal-derived fats, and anyone with a beef or pork allergy should check food labels or contact companies for more info. People avoiding animal products for religious or ethical reasons run into a similar roadblock. I once bought a store-brand loaf that didn’t have a clear source listing — it took ten minutes on the phone with customer service before I found out the manufacturer couldn’t guarantee plant-based fats.

What’s the Evidence So Far?

Hundreds of safety studies exist on food emulsifiers, including succinylated monoglycerides. Most use animal models or large groups of volunteers who report gut symptoms. The experts look for long-term toxicity, cancer risk, birth defects, and allergic responses. The usual verdict: no credible evidence shows harm at the doses humans encounter in a varied diet.

But food science never sits still. Every few years, new research points fingers at modern emulsifiers, linking some of them to possible changes in gut bacteria and inflammation in animals. Succinylated monoglycerides aren’t usually at the center of these studies, but anyone prone to digestive trouble or worried about microbiome health might consider limiting them just in case.

Better Information and Possible Solutions

Transparency wins trust. Food manufacturers can do a better job making sources clear, using plain language on packaging or websites. Consumer education helps too. People with tough-on-additives digestive systems get the most relief by cooking more at home, sticking to simple ingredient lists, and learning to recognize which foods make them feel best.

Regulators and watchdog groups continue to collect reports from doctors and consumers. If a credible link ever shows up between succinylated monoglycerides and real harm, health agencies can update rules and labeling to keep people safe. Until then, most folks can eat foods with this emulsifier in moderation, with little risk of allergy or major side effects.

Succinylated Monoglycerides
Names
Preferred IUPAC name 2,3-Dihydroxypropyl octanedioate
Other names E 472c
Succinic acid monoglycerides
Monoglycerides succinylated
Pronunciation /ˌsʌk.sɪˌneɪ.lə.tɪd ˌmɒn.oʊˈɡlɪ.sə.raɪdz/
Preferred IUPAC name 2,3-dihydroxypropyl octanedioate
Other names SMG
E472c
Succinic acid monoglycerides
Monoglyceride succinate
Pronunciation /ˈsʌk.sɪ.nɪ.leɪ.tɪd ˌmɒn.oʊˈɡlɪs.ə.raɪdz/
Identifiers
CAS Number 9047-30-1
Beilstein Reference 1631056
ChEBI CHEBI:131276
ChEMBL CHEMBL572044
ChemSpider 25769824
DrugBank DB11155
ECHA InfoCard 05e23e23-eaa6-4ae2-bb8a-0cfaecd88973
EC Number E477
Gmelin Reference 94122
KEGG C20463
MeSH D013429
PubChem CID 24733263
RTECS number WN9810000
UNII WGJ1Q45W1K
UN number UN3251
CAS Number 9047-54-1
Beilstein Reference 3572144
ChEBI CHEBI:132586
ChEMBL CHEBI:135481
ChemSpider 22245538
DrugBank DB11360
ECHA InfoCard echaInfoCard: 03d5e86e-9eae-48c7-aa6f-1e85c3eae47a
EC Number E 472c
Gmelin Reference 87176
KEGG C20348
MeSH D013432
PubChem CID 24956684
RTECS number RGK295350
UNII 2FF40Y297X
UN number UN2924
CompTox Dashboard (EPA) DTXSID7034052
Properties
Chemical formula C7H12O5
Molar mass Unknown
Appearance White or off-white powder
Odor Characteristic
Density 0.99 g/cm3
Solubility in water Insoluble in water
log P 1.83
Vapor pressure Negligible
Acidity (pKa) 4.78
Basicity (pKb) 7.7
Magnetic susceptibility (χ) Diamagnetic
Refractive index (nD) 1.445–1.455
Viscosity Viscous liquid
Dipole moment 2.89 D
Chemical formula C7H12O5
Molar mass NULL
Appearance White or off-white powder
Odor Odorless
Density 0.97 g/cm³
Solubility in water Insoluble in water
log P 0.03
Vapor pressure Negligible
Acidity (pKa) ~4.2
Basicity (pKb) 7.34
Magnetic susceptibility (χ) Diamagnetic
Refractive index (nD) 1.4480 – 1.4550
Viscosity Viscous liquid
Dipole moment 1.88 D
Thermochemistry
Std molar entropy (S⦵298) 589.3 J·mol⁻¹·K⁻¹
Std molar entropy (S⦵298) 665.8 J mol⁻¹ K⁻¹
Std enthalpy of formation (ΔfH⦵298) -1200.6 kJ/mol
Pharmacology
ATC code A16AX30
ATC code A21AA11
Hazards
Main hazards May cause eye, skin, and respiratory irritation.
GHS labelling GHS07, Warning, H315, H319, P264, P280, P305+P351+P338, P337+P313
Pictograms GHS07, GHS08
Signal word Warning
Hazard statements Not a hazardous substance or mixture according to the Globally Harmonized System (GHS).
Precautionary statements Keep container tightly closed. Store in a dry, cool, and well-ventilated place. Avoid contact with eyes, skin, and clothing. Wash thoroughly after handling. Do not eat, drink or smoke when using this product. Wear protective gloves and eye protection.
Flash point > 230°C
Autoignition temperature > 400°C
Lethal dose or concentration LD50 (rat, oral): > 33,000 mg/kg
LD50 (median dose) LD50 (median dose) of Succinylated Monoglycerides: Rat oral > 5,000 mg/kg
NIOSH Not Listed
REL (Recommended) 500 mg/kg
Main hazards May cause respiratory irritation, eye irritation, and skin irritation.
GHS labelling GHS07, GHS08
Pictograms GHS07
Signal word Warning
Hazard statements May cause respiratory irritation
Precautionary statements IF IN EYES: Rinse cautiously with water for several minutes. Remove contact lenses, if present and easy to do. Continue rinsing. If eye irritation persists: Get medical advice/attention.
NFPA 704 (fire diamond) **1-1-0**
Flash point > 220 °C
Autoignition temperature > 400 °C
Lethal dose or concentration LD50 (Rat, oral): > 5,000 mg/kg
LD50 (median dose) LD50 (median dose) of Succinylated Monoglycerides: "28,400 mg/kg (rat, oral)
PEL (Permissible) 10000 mg/kg
REL (Recommended) 20,000 мг/кг
Related compounds
Related compounds Monoglycerides
Acetylated Monoglycerides
Diacetyltartaric Acid Esters of Monoglycerides
Lactic Acid Esters of Monoglycerides
Citric Acid Esters of Monoglycerides
Related compounds Acetylated Monoglycerides
Lactylated Monoglycerides
Mono- and Diglycerides of Fatty Acids
Citric Acid Esters of Monoglycerides
Diacetyl Tartaric Acid Esters of Monoglycerides