Decades ago, cooks and manufacturers realized native starch didn’t always hold up under heat, cold, or long shelf times. Food started changing as supermarkets took over and convenience took center stage. Regular starch from corn or potatoes worked for grandma’s pies, but mass-produced products demanded more stability, especially for soups and sauces. Scientists hunted for ways to give starch more backbone, and chemical modification offered the answer. Phosphated distarch phosphate came out of this drive—a product born out of necessity, aiming to solve the problems of syneresis and breakdown under high temperatures, freezing, and stirring. This compound has seen use expand since the 1960s, as global food systems put more pressure on ingredients to perform without fail.
Phosphated distarch phosphate stands out compared to basic starches. It offers food and pharmaceutical makers a reliable thickener that can withstand processing hurdles. At its core, this modified starch combines two types of chemical changes: cross-linking with phosphate groups and esterification, both steps that make the starch more robust. It’s found in powdered form, easy to transport and dose, with a neutral flavor profile. You’ll see it on ingredient labels of gravies, pie fillings, dairy desserts, and instant puddings. The official E-number in Europe is E1413, and regulations require clear labeling to guide those with dietary restrictions.
This starch variant goes further than regular cornstarch or potato starch. It looks like a fine white powder, sometimes with a hint of cream, and leaves almost no taste or odor. Its standout feature comes from its ability to thicken cold as well as hot liquids, surviving conditions where ordinary starch would break down. The chemical structure contains phosphate groups that cross-link the starch chains. This complex network resists acid and heat, making it a favorite for canned or frozen foods. Water absorption remains stable over multiple temperature cycles, and it won’t turn runny during storage—key for ready meals and restaurant products. The molecule’s improved stability owes much to the gentle chemical reaction used in its manufacture, which raises questions about safety and nutritional impact but sets it apart as a functional ingredient.
European and North American authorities expect manufacturers to follow tight limits on residual reagents and byproducts from modification. The phosphorous content, expressed as phosphate, must fit within approved ranges, usually not more than 0.4%, depending on the code. Product purity matters a lot—ash content, moisture levels, and microbial counts all get checked before shipment. Regulatory bodies such as the FDA and EFSA maintain watchful eyes on labeling, demanding full disclosure for consumer transparency. In the United States, it appears as “modified food starch (phosphated distarch phosphate),” while Europe uses the E1413 code on ingredient lists. People with allergies or dietary concerns depend on clear and consistent labeling. These rules help to maintain trust as more processed foods fill supermarket shelves.
Phosphated distarch phosphate manufacturing begins with isolated starch granules from corn, tapioca, or potatoes. Industrial processes suspend the starch in water, then add reagents like sodium trimetaphosphate or phosphorus oxychloride. Under controlled conditions—pH, temperature, agitation—the phosphate groups link starch molecules to each other. This cross-linking step protects the final product from swelling and breaking apart during heating or freezing. Excess chemicals get washed away, and the starch dries before packing. Factories must control the process tightly to avoid over-crosslinking, which would make the starch insoluble and useless. The final product stays stable and safe for years if stored dry.
During modification, the phosphorus-based reagents substitute hydroxyl groups in the starch with phosphate ester bonds. Some molecules form bridges between starch chains, creating a three-dimensional network that resists breakage during agitation or heating. Unlike some additives, these chemical changes don’t bring in unwanted flavors or colors, and the changes to mouthfeel are subtle—more creamy than gloppy. Phosphated distarch phosphate stays soluble at a wide range of pH and holds up even in acidic environments, which means fruit fillings and salad dressings don’t turn watery after sitting on the shelf. The integrity of the modified starch supports food engineers who need to deliver predictability in processed meals and specialty formulations.
Depending on region or supplier, you might encounter this ingredient under names like “modified starch E1413,” “cross-linked phosphated starch,” or simply “phosphated disarch phosphate.” Each represents the same backbone chemistry, though the source plant—corn, potato, or cassava—can slightly alter the texture profile. Despite the variety in naming, they all circle back to a fundamental mission: making starch work better where nature drew limits. For supply chain managers and food technologists, the distinctions on specs sheets and safety data sheets do matter, since minor changes in manufacturing or base material can shift how the product works in complex recipes.
Regulatory agencies across the globe, including FAO and WHO’s Joint Expert Committee on Food Additives, have evaluated phosphated distarch phosphate and set strict guidelines. Manufacturers must keep residual phosphate well below accepted daily intake levels, with continuous testing to assure compliance. Factory workers handle the pure materials with gloves and masks, as dust can irritate the lungs or skin. Plant and distribution safety actively prevent contamination or cross-contact with allergens. Consumer safety links directly to these practices—the same ingredient used in gluten-free baking serves millions who depend on food safety for health and wellbeing. Some cultures worry about chemically modified ingredients, so ethical labeling and honest science communication matter. Government rules and industry certifications give consumers a base level of confidence, though public debate about food additives never fully settles.
Processed foods rely on phosphated distarch phosphate for good reason. Pie fillings, gravies, sauces, and ready-to-eat meals demand thickening agents that keep textures consistent under heat, cooling, and reheating. Dairy desserts like custards and yogurts depend on this ingredient for smoothness and stability, especially in recipes that see shifting pH and sugar levels. Gluten-free bread and cakes call for modified starch to mimic elasticity lost from wheat protein. Beyond food, pharmaceuticals use this starch in tablet formulations for predictable disintegration and even release of active ingredients. Even some personal care products use modified starch for viscosity control. Fast food chains and restaurant groups value ingredients that last and perform, helping to reduce food waste and freezer burn. Retailers also lean on these advantages, making quality appear effortless in the eyes of shoppers.
Recent years have seen active search for eco-friendly processes and better structure-function relationships in starch chemistry. Research groups across Asia and Europe publish studies on how to minimize byproduct formation, cut water and energy use, and recover valuable co-products during production. Advanced microscopy lets food scientists watch live how starch granules swell and interact with other food components during cooking. Genetically modified varieties of source plants have been engineered for higher yield or purity, changing the economics of manufacturing. Some new applications combine phosphated distarch phosphate with other gums or proteins to create custom textures or accommodate specialty diets. Published literature keeps growing, feeding into R&D departments that focus on consumer demand for clean labels, allergen-free options, and sustainability.
Experts have studied phosphated distarch phosphate for decades. JECFA and FDA reviews look closely at short and long-term toxicity in animal studies, checking for any carcinogenicity, reproductive toxicity, or accumulation in organs. Long-term feeding trials with animals at high doses found no adverse effects or evidence of bioaccumulation. Human studies confirmed the body treats modified starches like ordinary starch—they hydrolyze to sugars or pass through the gut largely unabsorbed. As oversight keeps improving, regular re-evaluation by health authorities helps to catch any emerging risks or consumer trends. The established safety record supports inclusion in global food codes, but cautious review continues, particularly as processing methods or consumer exposure patterns change.
Phosphated distarch phosphate shows no signs of fading in popularity. As plant-based, free-from, and convenience foods take more shelf space, demand for this ingredient remains solid. Researchers look for biodegradable materials and new plant sources to keep food manufacturing sustainable. Efforts to streamline regulations for international trade have brought greater standardization, giving small manufacturers better access to a global market. New digital tools help optimize batch control and quality, reducing waste and supporting traceability at every step. Consumer preferences for clear labeling and transparency signal more communication from makers, not less. Looking out, the industry keeps innovating as expectations for food quality, nutrition, and sustainability keep rising.
Walk through a grocery store and glance at the back of a ready meal, yogurt, or a jar of sauce. The list rarely skips additives, and phosphated distarch phosphate pops up more often than people imagine. This modified starch earns a place in foods that call for just the right kind of texture and stability. Food producers don’t just throw it in for show; they turn to it because it stands up to processing that destroys regular starches. High heat and shearing—think about frozen dinners, canned goods, or pie fillings—can break apart natural starch. This additive refuses to fall apart so quickly, holding the food together until you take it home.
Ask anyone who cooked gluten-free pasta or tried to thicken jam without corn starch: keeping food thick and firm isn’t easy. Native starches fail under stress, turning sauces runny or bread crumbly once they cool or freeze. Phosphated distarch phosphate acts like an insurance policy for food texture, helping dressings stay creamy and frozen desserts stay spoonable out of the freezer. This modified starch doesn’t just offer thickening power; it resists breaking down even after being reheated or frozen, which is what makes it the backbone in foods meant for longer shelf lives or repeated processing cycles.
People often wonder if these modified starches deserve a spot in the ingredient list. Food authorities—such as the FDA and EFSA in Europe—have cleared phosphated distarch phosphate for use based on current science. Their review includes looking for negative effects on gut health and whether it contributes to allergies. Most of this starch passes through the digestive system unchanged, behaving much like dietary fiber. Some studies even suggest small benefits, like acting as a prebiotic. Still, like any processed ingredient, it draws attention from folks who want cleaner, simpler foods.
The processed food industry moves where consumers demand. Plenty of shoppers are now asking for fewer artificial ingredients and less chemical-sounding names. That makes companies rethink their use of modified starches. Some turn to old-fashioned methods—like slow cooking grains or using natural gums—to replace phosphated distarch phosphate. For instance, chia seeds or psyllium husk produce thick textures with an ingredient list you can read out loud with ease. Others keep looking for new solutions from plant science that offer stability and texture without the baggage that comes with complex chemical modification.
Understanding what goes into processed foods and why helps people make better choices. Phosphated distarch phosphate won’t vanish from shelves soon. It keeps costs low and products consistent for busy families. Still, there’s a growing push for time-tested and transparent ingredients. If you value fewer additives, learning to cook from scratch or picking brands that use simpler ingredients starts to look more appealing. For everyone else, knowing that food safety watchdogs have taken a hard look at phosphated distarch phosphate can offer some peace of mind.
Phosphated distarch phosphate often shows up in ingredient lists you find on packaged foods at the supermarket. This name refers to a modified starch. Food makers use it because it holds up well to heat, acid, and mixing. For example, soups, canned fruits, puddings, or sauces often contain it, so they keep their texture during processing and storage.
Food scientists have been working with modified starches for decades. The "phosphated" part means the base starch, which usually comes from corn, wheat, or potato, has been chemically changed. In this case, small amounts of phosphate are added to help the starch resist breaking down when cooked or mixed with other ingredients. Some folks might feel uneasy seeing a complex chemical name on packaging, but understanding where it comes from can reassure eaters trying to make informed choices.
Regulators in the United States, European Union, Australia, and many other countries allow food companies to use phosphated distarch phosphate. The U.S. Food and Drug Administration and the European Food Safety Authority classify it as generally recognized as safe. These groups only give such status after reviewing published research, often including animal and human studies, to make sure the additive does not bring health risks at usual consumption levels.
Looking at long-term health, research shows this modified starch moves through the digestive system much like regular starch. Gut enzymes break it down. The phosphate groups used to modify the starch get used by the body or excreted as waste. Over the years, I have not seen any credible evidence connecting this starch to cancer, genetic mutations, or other long-term health problems.
People living with celiac disease or severe gluten intolerance need to check the source starch. Most manufacturers mark this additive as gluten-free on packaging if it comes from corn or potato. Individuals with rare phosphate metabolism disorders might need to keep track of their intake, though most people process phosphate from common foods without trouble. Anyone with severe food allergies should reach out to food companies for specifics about source ingredients.
If you wish to avoid this or similar additives, home cooking brings control over your ingredients. Whole foods, from fresh vegetables to grains and fruits, bring fewer surprises on labels. I like to make simple sauces at home with cornstarch or flour as thickeners—these work for many everyday dishes. Reading labels and looking out for unnecessary additives can keep your meals closer to how you want them.
Food additives like phosphated distarch phosphate show how technology tries to solve problems related to texture, shelf life, and mass production. Most people do not eat massive amounts of this starch in any single meal. Focusing on a varied diet with plenty of fruits, vegetables, lean proteins, and whole grains puts any minor risk far in the background. When questions about a food additive like this come up, trusted public health sources and talking to healthcare professionals with a nutrition background help clear confusion.
Trust and transparency in the food system rely on evidence-based evaluation by food safety agencies, honest labeling by producers, and continued research. Living in a world with more packaged and prepared foods, reading up and making informed decisions keeps our plates safer, tastier, and a bit less mysterious.
Supermarket products these days seem to overflow with ingredient names that sound like science experiments. Phosphated distarch phosphate pops up on labels for everything from salad dressings to instant puddings. It acts as a modified starch, helping foods stay thicker and fresher, especially through freezing and reheating. Modified starch just means the original starch—often potato, corn, or tapioca—gets altered to improve certain qualities.
A gluten-free lifestyle changed meal planning for me years ago. Like millions living with celiac disease or gluten sensitivity, even small amounts of gluten can cause major problems—think brain fog, stomach pain, fatigue. So, scanning every ingredient label turned into a survival habit, not a dietary choice. Here’s why everyone living gluten-free pays such close attention to ingredients like phosphated distarch phosphate.
By nature, gluten comes from wheat, barley, and rye. Most phosphated distarch phosphate comes from corn, potato, or tapioca—none of which contain gluten. These sources score high marks for safety among the gluten-free community. Very few manufacturers use wheat to make this modified starch, and the ones who do usually declare wheat as a source, since food labeling laws demand honest allergen disclosure.
Gluten-free living means trusting, but also verifying. I’ve talked to dietitians and combed through expert statements from organizations such as the Celiac Disease Foundation and Gluten Intolerance Group. These organizations echo the idea: as long as the starch used doesn’t come from wheat, the phosphate cross-linking process doesn't add gluten. If the package reads “gluten-free,” brands in America and Europe follow strict standards—less than 20 ppm (parts per million) gluten, which protects most sensitive individuals.
Food factories can stretch across acres, where ingredients travel down shared equipment lines. Cross-contamination comes into play. A product made from corn or potato but prepared on the same equipment as wheat sometimes ends up with trace gluten. Without a clear gluten-free label, I call or write to the company, checking if they keep gluten off their lines for those modified starches.
Some countries, like Australia, have even stricter gluten-free labeling policies. In these places, if you see “phosphated distarch phosphate” listed under gluten-free foods, rest easy. In the U.S., the Food and Drug Administration enforces truth in labeling—slip-ups bring harsh fines, and people aren’t shy posting complaints online. This type of transparency gives shoppers like me a shield of confidence.
Don’t trust vague hunches and never believe hearsay from an online forum alone. Read whole labels every time, especially for processed foods and anything labeled as “modified starch.” If wheat, barley, or rye helped make that starch, the ingredients should say so, or a big “contains wheat” notice will sit below. Companies that specialize in gluten-free foods usually print that right on the front.
Spending extra time on research protects your health. Call hotlines or search for FAQ sections on company websites, especially for imported foods. Choose products with certification from trusted gluten-free organizations whenever possible. No snack or shortcut is worth risking brain fog, gut wrenching pain, or worse.
Trustworthy labeling, responsible manufacturing, and allergen transparency are not luxuries for those with gluten restrictions—they’re necessities. Product consistency matters in ways that most shoppers never have to consider. As ingredient lists grow longer, personal research becomes part of the grocery routine. Each time I see phosphated distarch phosphate, I default to checking the source and looking for real assurances. That’s how living gluten-free gets safer and less stressful, one ingredient at a time.
Phosphated distarch phosphate doesn’t draw a crowd or headline food labels, but it fills a real gap for processed foods. Companies have leaned on it because it thickens, stabilizes, and keeps food textures steady even after freezing, thawing, or reheating. I found the name on ingredient lists while hunting for quick dinners and snacks. If a food company wants mashed potatoes to stay creamy after a zap in the microwave or a pudding to avoid breaking down after being chilled, this modified starch keeps things right.
Pick up a pack of instant puddings or powdered desserts in any supermarket. Those smooth, shelf-stable treats owe their texture to phosphated distarch phosphate. Ready meals, especially sauces or gravies that pull together under pressure, rely on it, too. Take a stroll down the frozen aisle: pre-cooked meals with sauces and gravies, even gluten-free pastas and gluten-free breads, put this ingredient to work. I’ve checked plenty of soup labels, canned or pouch, and thickener blends almost always include a modified starch like this one.
It spills over into snack foods. Potato chips, especially stacked chips and formed snacks, often use modified starches to bind potato flakes for that even crisp texture. Cheese dips, processed cheeses, and salad dressings reaching for a smooth pour or spread include it, because no one wants gooey dressing. Even low-fat yogurts sometimes boost body with phosphated distarch phosphate so people enjoy a satisfying spoonful.
I’ve cooked enough at home to know how starches act up. Cornstarch works miracles in hot gravy, but freeze it, and the texture turns weepy. Food manufacturers avoid that problem—the phosphate makes the starch gel stable across temperature swings. I saw technical reports from EFSA (European Food Safety Authority) and U.S. FDA stating it’s approved as a food additive in moderate amounts, meaning it’s passed safety checks for how much people actually eat.
Packed foods holding their own for weeks without growing watery or rubbery matter for big families and folks who rely on ready meals. But consumers deserve transparency, especially people with unusual allergies or digestive sensitivities. The World Health Organization, among others, has noted that modified food starches like these rarely trigger allergic reactions. But the “phosphated distarch phosphate” label only tells half the story—it won’t specify if the starch source was wheat, corn, or potato. That can throw a wrench in meal planning for anyone with celiac disease or a wheat allergy.
Truthful food labeling changes the whole experience. If packages listed the original source and the function of every modified starch, it would save shoppers time and anxiety. Some food manufacturers already go the extra mile, disclosing both the source and the type of modification. It only takes small label changes to keep trust strong. At home, skipping ultra-processed goods and sticking to food close to its natural form usually avoids these additives altogether. People with special diets find support in community food-swapping groups or online forums where ingredient mysteries get solved fast.
Factories may always need stabilizers and thickeners, but shoppers pressing for clean, clear labeling goes a long way. We shouldn’t have to rely on chemistry degrees to know what’s in a weekly shop.
Phosphated distarch phosphate isn’t a household name, but it’s easy to spot on food labels, tucked in with other additives. Food scientists add it to processed grub—canned soups, sauces, ice cream. It makes things thicker and keeps them from separating. Companies lean on it because it’s reliable and it helps keep costs manageable.
Science has a decent understanding of what happens to this modified starch in the gut. Our digestive systems barely break it down, so most of it moves on to the colon and gets handled by bacteria there. Nutritionists put it in the “resistant starch” bucket. That means it acts a little like fiber, feeding the bacteria that keep colons happy.
European Food Safety Authority and the U.S. FDA have both checked out phosphated distarch phosphate and came back with a thumbs up for general safety. Results from animal studies, including ones with high doses, didn’t turn up cancers or dangerous organ changes. Still, just because something is labeled “safe” doesn’t mean there’s never a trade-off or downside, especially when people pile on heavily processed foods each day.
Most people won’t notice anything if they eat normal amounts of phosphated distarch phosphate. The stomach handles it about like it does rich fiber foods—by moving it along, sometimes with a little extra gas as gut bacteria get to work. Sometimes, people with sensitive stomachs talk about mild bloating or cramping if they eat foods heavy in modified starches, but there isn’t evidence that this starch triggers allergic reactions or severe health problems.
Still, anytime folks up their intake of indigestible carbs, the digestive system might protest for a day or two. Gas, soft stool, and more frequent trips to the bathroom aren’t uncommon. Most bodies adjust given a bit of time, just like when swapping white bread for a fiber-rich loaf.
Occasionally, people live with chronic gut issues—irritable bowel, Crohn’s, ulcerative colitis. For these groups, even a little extra resistant starch messes with gut harmony. Doctors sometimes suggest dialing back foods with these starches. Aside from stomach upsets, researchers haven’t nailed down any long-term threat tied directly to phosphated distarch phosphate. With over a century in processed foods, this starch doesn’t set off the alarm bells that some newer additives have.
One piece missing from most research is what this additive looks like in the real world—mixed with all the salt, sugar, and stabilizers stacked up in packaged meals. Most safety reviews check exposure one additive at a time, not the soup of chemicals modern diets often include. Nutritionists recommend centering meals on basic, whole foods, not because an occasional bowl of canned soup will hurt, but because processed food habits add up in lots of little ways we barely notice.
Paying attention to how your body reacts can flag real issues faster than any label. If certain foods always leave a stomach unsettled, skip them. Choosing fewer ultra-processed foods trims down not only phosphated distarch phosphate but a laundry list of other chemicals the body never needed to thrive. Simple, homemade meals naturally sidestep a lot of these questions, but when life gets busy, reading labels and understanding what’s going into lunch makes a real difference.
Eating isn’t about chasing the latest ingredient to cut; it’s about knowing your own body and eating with purpose. Most folks won’t have trouble with phosphated distarch phosphate, but no one needs a diet built on thickeners and powders.
| Names | |
| Preferred IUPAC name | Phosphorylated di-starch phosphate |
| Other names |
E1413 Distarch phosphate Phosphated di-starch phosphate Modified starch Starch phosphate |
| Pronunciation | /ˈfɒs.feɪ.tɪd daɪˈstɑːrtʃ fəˈsfeɪt/ |
| Preferred IUPAC name | Phosphated distarch phosphate |
| Other names |
E1413 Modified Starch Distarch Phosphate Phosphated Distarch |
| Pronunciation | /ˈfɒs.feɪ.tɪd daɪˈstɑːrtʃ fəˈsfeɪt/ |
| Identifiers | |
| CAS Number | 55963-33-2 |
| Beilstein Reference | 3546656 |
| ChEBI | CHEBI:64757 |
| ChEMBL | CHEMBL1208316 |
| ChemSpider | 17816262 |
| DrugBank | DB14543 |
| ECHA InfoCard | 05e9626f-ef9a-4f27-8c93-2a6632395e11 |
| EC Number | 1412 |
| Gmelin Reference | 588429 |
| KEGG | C03303 |
| MeSH | D020129 |
| PubChem CID | 16211070 |
| RTECS number | TH6790000 |
| UNII | 59TL6YIX04 |
| UN number | Not regulated |
| CompTox Dashboard (EPA) | DTXSID8031819 |
| CAS Number | 55963-33-2 |
| Beilstein Reference | 3831719 |
| ChEBI | CHEBI:74412 |
| ChEMBL | CHEBI:17241 |
| ChemSpider | 157356 |
| DrugBank | DB14163 |
| ECHA InfoCard | 03b651ba-3c23-49e2-8ccb-9456f0ca7f5e |
| EC Number | E1413 |
| Gmelin Reference | 69521 |
| KEGG | C02313 |
| MeSH | D047687 |
| PubChem CID | 16211253 |
| RTECS number | TF3850000 |
| UNII | 1K8V2QGR11 |
| UN number | UN3077 |
| CompTox Dashboard (EPA) | DTXSID6025985 |
| Properties | |
| Chemical formula | (C6H10O5)n |
| Appearance | White or off-white powder |
| Odor | Odorless |
| Density | 0.55 g/cm³ |
| Solubility in water | Insoluble |
| log P | -1.9 |
| Acidity (pKa) | 1.7-2.2 |
| Basicity (pKb) | 8.28 |
| Magnetic susceptibility (χ) | Diamagnetic |
| Refractive index (nD) | 1.332 – 1.338 |
| Viscosity | Viscous |
| Dipole moment | 1.98 D |
| Chemical formula | (C6H10O5)n |
| Appearance | White or off-white powder |
| Odor | Odorless |
| Density | Density: 0.55–0.65 g/cm³ |
| Solubility in water | Insoluble in water |
| log P | 0.298 |
| Acidity (pKa) | 5.2 |
| Basicity (pKb) | 12.2 |
| Magnetic susceptibility (χ) | Diamagnetic |
| Refractive index (nD) | 1.334 - 1.338 |
| Viscosity | Viscosity: 1300 - 3000 mPa.s |
| Dipole moment | 2.33 D |
| Pharmacology | |
| ATC code | A11AA03 |
| ATC code | A11AA04 |
| Hazards | |
| Main hazards | Not hazardous. |
| GHS labelling | No GHS labelling is required. |
| Pictograms | GHS07, GHS08 |
| Signal word | No signal word |
| Hazard statements | Not a hazardous substance or mixture according to Regulation (EC) No. 1272/2008. |
| NFPA 704 (fire diamond) | 0-1-0 |
| Lethal dose or concentration | LD50 (Rat, oral): > 10,000 mg/kg |
| LD50 (median dose) | LD50 (median dose) of Phosphated Distarch Phosphate: "> 10,000 mg/kg (rat, oral) |
| NIOSH | NL0000000 |
| REL (Recommended) | A/D/I/N/R/C |
| Main hazards | May cause mild skin and eye irritation. |
| GHS labelling | Not classified as hazardous according to GHS |
| Pictograms | GHS07, GHS08 |
| Signal word | No signal word |
| Hazard statements | Not a hazardous substance or mixture. |
| Precautionary statements | Not a hazardous substance or mixture according to Regulation (EC) No. 1272/2008. No special precautionary statements. |
| NFPA 704 (fire diamond) | 1-0-0 |
| Lethal dose or concentration | LD50 (oral, rat): >10,000 mg/kg |
| LD50 (median dose) | LD50 (median dose): >10,000 mg/kg (rat, oral) |
| NIOSH | Not Listed |
| PEL (Permissible) | 25,000 mg/kg |
| Related compounds | |
| Related compounds |
Monostarch phosphate Distarch phosphate Phosphated distarch phosphate Acetylated distarch phosphate |
| Related compounds |
Distarch phosphate Hydroxypropyl distarch phosphate Monostarch phosphate Phosphated starch |