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Distarch Phosphate: A Down-to-Earth Perspective

Historical Development

Way back, people tried to stretch natural resources to match growing food demands, which kicked off the journey of distarch phosphate. Corn, potato, and wheat gave the world plenty of starch, but each batch reacted differently to heat, acid, or mechanical stress. Early processors wanted bread that stayed soft longer and noodles that held up in soup. By the time the food industry reached the 1940s, chemists and bakers joined hands to modify starch. Adding phosphate groups let them create distarch phosphate, giving it more backbone for the factory line. Large-scale production followed, especially after the mid-century push to industrialize food manufacturing. It changed not just the shelf but the dinner table—letting people freeze, reheat, and enjoy the same meal with little fuss.

Product Overview

Distarch phosphate works as a modified starch where phosphate crosslinks hold two starch chains together. Any shelf in a big grocery store shows just how much processed food leans on this ingredient—sauces, canned soups, instant puddings, or even yogurt. Its structure stands up to freezing, high temperatures, and repeated cycles of cooking and cooling. In my own kitchen, I’ve seen it keep gravies silky and desserts stable. The food industry likes its reliability: adding it to a mix tightens textures and prevents watery results during storage.

Physical & Chemical Properties

Distarch phosphate does not feel or behave like regular flour or cornstarch. Once phosphate groups link to starch molecules, granules turn more firm. This change stays even after you chill, freeze, or heat your recipe. Viscosity holds up despite time or shifting temperatures—a real gain for anyone churning out foods that travel long distances before reaching a shelf. With a mild or neutral taste and an almost invisible effect on color, it slides into a product without drawing attention. For folks tracking chemistry, the added phosphate content ranges around 0.04%–0.4%, depending on intended use. Water absorption increases, swelling power rises, and granular integrity resists breakdown even in strong acid or alkali. Food scientists exploit this, especially with ready-to-eat meals.

Technical Specifications & Labeling

In most countries, distarch phosphate appears as E1412 on food labels or as INS 1412 in the global marketplace. Producers must document phosphate content, degree of substitution, granule size, and limits for remaining reagents. Regulations set tight boundaries—residual phosphorus shouldn’t exceed guidelines, and products need checking for microbiological stability. Consumers find it listed plainly among ingredients, as labeling laws push for transparency. Any product using distarch phosphate has passed regional safety evaluations, like those by EFSA or FDA, and must meet technical standards for consistency, safety, and purity. The clear identification reassures those parsing ingredient lists for dietary or allergy reasons.

Preparation Method

Factories start by soaking native starch in water. Then they add phosphorylating agents, often sodium trimetaphosphate or sodium tripolyphosphate. These chemicals help create the crosslinks that scientists want. The reaction happens at controlled temperatures, sometimes with added alkali to maintain the right conditions. After time in a stirred reactor, the modified starch gets washed, filtered, and dried. Final cleaning steps remove unwanted byproducts. Big processors check every batch for purity and structure before shipping it to food companies. In my view, the success of distarch phosphate comes from balancing control—the process must go just far enough to strengthen starch but not so far as to affect taste or digestibility.

Chemical Reactions & Modifications

Crosslinking stands as the defining reaction for distarch phosphate. Here, phosphorylating agents link two or more starch chains through a phosphate group. This action blocks the granule from swelling too much or breaking when exposed to acid, heat, or stirring. While other modified starches only use oxidation or acid thinning, distarch phosphate’s method packs in extra resilience. One challenge lies in controlling the reaction: too little crosslinking and the starch acts like its native version; too much and it grows rubbery or can’t hydrate correctly. Scientists tweak conditions, ratios, and reaction times to hit the sweet spot. Competing modifications—for instance, hydroxypropylation—tend to deliver different functionality. Distarch phosphate appeals for stability and clean flavor.

Synonyms & Product Names

Outside technical circles, distarch phosphate gets called modified food starch, E1412, or crosslinked starch phosphate. Brands toss around trade names, sometimes pointing out the origin—corn, wheat, potato—or hyping unique qualities for niche industries. Chemical suppliers may give in-house codes, but food packaging in stores nearly always sticks to E1412 or modified starch. For shoppers, these names might not mean much, yet any food scientist or chef with an eye on performance knows what skill set each synonym brings to the plate.

Safety & Operational Standards

Food authorities in the US, Europe, and most major economies have capped phosphate content, established daily intake limits, and demanded safety checks after every production run. Distarch phosphate should not contain toxic residues or encourage crystal formation in food. During manufacturing, companies train staff to work safely with chemical reagents and keep facilities clean to avoid contamination. In my work with quality control, every batch went through microbial testing and chemical analysis before heading to blending or packaging. Regulators want to ensure that operational procedures prevent not just accidents but bad batches that could make it to consumers. Any mistake sticks out quickly—products don’t gel, sauces turn runny, or health inspectors pick up on residues in routine audits.

Application Area

Distarch phosphate shows up in foods that need staying power—gravy powders, pie fillings, sauces, puddings, tinned fruit, and frozen vegetables. Cooks turn to it for recipes that have to face the stress of thermal cycles or end up on a dinner plate weeks after manufacturing. In the home bakery, it improves cake shelf life. Big food companies lean heavily on it in processed dairy, frozen ready meals, thick soups, pre-cooked pasta, and gluten-free products. Beyond food, some pharmaceutical manufacturers use it as a binder or disintegrant in tablets, and the paper industry leans on it for coatings that resist grease and moisture.

Research & Development

Ongoing research looks to tweak distarch phosphate for even better freeze-thaw stability and clarity in end products. Labs measure viscosity, retrogradation, resistance to acid and shear, and effects on nutritional quality. One hot topic is greener methods—reducing chemical waste or seeking less energy-intensive processes during production. Some teams study hybrid starch blends to deliver custom texture while lowering the amount of additives. As new food trends gain steam, from plant-based meat to shelf-stable baby food, manufacturers ask for starches standing up to novel challenges. University labs and private R&D departments work closely, and every year brings small shifts that ripple through giant industries.

Toxicity Research

Global agencies have repeatedly examined how distarch phosphate acts in the body, how it digests, and whether its byproducts threaten health. Large-scale animal feeding studies and metabolic trials in humans revealed no significant risks at levels approved for food use. An Acceptable Daily Intake (ADI) remains in place, with bodies like JECFA, EFSA, and US FDA reviewing new evidence periodically. One persistent area of study involves phosphate overload in populations relying heavily on processed food, as too much phosphate in the diet can raise concerns over bone health or kidney function. So far, the contributions from this modified starch stay well beneath any red flags in a balanced diet. Even as regulators remain watchful, no recent studies suggest a major hazard in real-world use.

Future Prospects

The next stretch in the story of distarch phosphate will depend on both food innovation and regulation. As consumers ask for shorter ingredient lists and less synthetic processing, starch chemists look for ways to mimic distarch phosphate’s stability with fewer additives or even gentler chemicals. Advances in genetic engineering of crops or enzyme-catalyzed modifications might unlock new forms of resilient starches requiring milder processing. At the same time, growing demand for climate-friendly food chain solutions could pressure manufacturers to cut waste and energy use all along the supply line. Food safety agencies plan regular reviews as knowledge evolves, and labs keep tabs on any new signals. The humble crosslinked starch endures—quiet, reliable, and ready for the next recipe or industrial challenge.




What is Distarch Phosphate used for?

Why Distarch Phosphate Matters in Food and Beyond

Distarch phosphate shows up in grocery carts every day, though most of us never notice. I first spotted it on a box of instant mashed potatoes in my own pantry, tucked among names like maltodextrin and cornstarch. Curious, I started digging. This modified starch, made by treating regular starches such as potato, wheat, or corn with a small dose of phosphorus-containing compounds, brings more than just a mouthful of syllables.

What distarch phosphate really does is solve a whole bunch of everyday problems—especially for food processors. When you cook with simple cornstarch, it thickens that gravy, but let it cool and things turn gluey fast or start to separate. Add a few cycles of freezing and thawing, and dinner's off. That spongy texture in frozen meals, the clear thick sauce in canned fruit salads, the steady consistency of instant puddings—all owe a debt to distarch phosphate. By making minor chemical tweaks, scientists have given this starch a superpower: it stays stable under heat, freezing, and long storage. It helps food keep the same taste and look from factory to fork.

The Hidden Life of Distarch Phosphate in Our Food

Many people today want food with fewer foreign-sounding ingredients. Still, without modifed starches, the foods most families enjoy wouldn’t look or taste right. I’ve seen businesses struggle to keep soups or yogurts creamy without stabilizers. Regular starches break down over time, turning to water or forming unpleasant lumps. Distarch phosphate keeps the texture right over weeks, not just hours. This is why big brands and small bakeries turn to it, especially in products where appearance counts as much as nutrition, like sauces, fillings, and even gluten-free bread mixes.

It’s not just texture. Distarch phosphate also helps cut down on waste. Food makers lose less product to spoilage, and families don’t toss away runny leftovers as often. For nonprofits running meal programs, shelf-stable foods mean smoother operations and more reliable service. All this adds up to less food in the dumpster, a real win as climate change and landfills become bigger issues.

What the Science Says About Safety

No food ingredient should get a free pass on safety. Rigorous reviews by groups like the Joint FAO/WHO Expert Committee on Food Additives keep ingredients like distarch phosphate under the microscope. Studies show most people digest and process it like regular starch. Health agencies in the US, EU, and Asia set strict limits to make sure phosphorus levels stay far below anything risky—good news for folks even with sensitive kidneys.

Still, folks with allergies must stay alert. While distarch phosphate itself isn’t a known trigger, the original starch often comes from wheat, corn, or potatoes. Reading every ingredient label remains the best self-defense.

Looking Ahead: Choices and Solutions

As someone who cares about both nutrition and transparency, I want labels to make sense to every parent, cook, and shopper. Food companies miss a chance if they just hide these ingredients in jargon. Honest labeling, better consumer education, and yes, simple recipes where possible, make a real difference. At the same time, distarch phosphate shows how applied science can raise food quality and cut waste. Families, farmers, and food banks all benefit from less spoilage and better-tasting meals. The next time someone spots “distarch phosphate” on a label, maybe they’ll see not just a chemical name, but a solution earned from decades of practical experience and continuous safety review.

Is Distarch Phosphate safe to consume?

Looking at Distarch Phosphate in Everyday Foods

Distarch phosphate doesn’t usually make headlines. You spot it deep in ingredient lists, tucked between starches and additives. It turns up in things like noodles, sauces, and sometimes even yogurt. Many folks have asked whether it’s safe or if anyone should steer clear. These questions keep coming up in local online forums, family group chats, grocery aisles—myself included, staring at a box of instant mashed potatoes late at night.

What Experts and Science Tell Us

Distarch phosphate belongs to a family called “modified starches.” Food manufacturers tweak starches from corn, potato, or wheat with phosphate salts. This makes the starch more stable under heat or when mixed with acidic foods. Most research shows modified starches don’t cause toxic effects in people. The European Food Safety Authority, US Food and Drug Administration, World Health Organization, and Health Canada all reviewed available evidence and allowed the use of distarch phosphate in food. Each emphasized the ingredient doesn’t hang around in the gut. Your body breaks down most of it just like it does basic starch, churning it into simple sugars.

Some studies looked for problems at high doses in lab animals or people. Changes in stool consistency appeared at very high consumption levels—far more than anyone usually eats from an average diet. No evidence tied it to allergic reactions, cancer, or long-term gut trouble in healthy adults. The Joint FAO/WHO Expert Committee on Food Additives pointed out that normal eating habits keep intake far below levels linked to any sort of negative effect.

Practical Health Concerns

Trust doesn’t always come from papers and agencies. Many consumers worry about additives in food, especially those with unfamiliar names. Friends of mine avoiding artificial ingredients often sidestep products with too many modified starches. Some parents get nervous about anything “processed,” especially for kids. These concerns come from a real place. People want to protect themselves and loved ones from risks, whether they’re visible or invisible.

The average person eating a standard Western diet won’t pull much distarch phosphate per meal. Global safety reviews suggest the body handles it well, especially in low quantities you find in prepared foods. Still, some individuals might want to avoid modified starches if they follow strict dietary philosophies or deal with certain rare allergies. Those with kidney issues may receive advice to keep phosphate intake low, but the contribution from this particular ingredient usually stays insignificant compared to other sources.

What Works for Consumers

Transparency helps people make informed decisions. Ingredient lists using plain language and clear labels build trust. Research about food safety often gets filtered through scientific jargon, which leaves regular shoppers with confusion. More straight talk from nutritionists and regulatory bodies would help. If you want fewer additives, stick to fresh, one-ingredient foods and basic cooking methods. For others, keeping an eye on diet variety and paying attention to how your body feels works best.

Food safety authorities across the globe agree distarch phosphate, eaten in the amounts present in typical packaged foods, sits comfortably inside safe limits. No need to panic if it shows up in your occasional snack or meal—just another tool for keeping grocery staples shelf-stable and easy to prepare. If you prefer to skip it, plenty of simple, minimally processed alternatives exist on store shelves.

Is Distarch Phosphate gluten-free?

Understanding What Distarch Phosphate Actually Is

Distarch phosphate often lands on ingredient lists for sauces, soups, and a lot of packaged foods. It's a modified starch, which basically means the starch has been changed a bit to help food handle heat and thickening better. You’ll see it in instant puddings or gravies that want to stay smooth no matter how many times they’re heated up. Modified starches like this come from things people already eat: corn, potatoes, wheat, or even rice.

Where Gluten Slips In

Gluten sneaks into an ingredient when wheat turns up in the supply chain. That’s the core of the concern for anyone with celiac disease or gluten sensitivity. Corn and potatoes don’t need gluten to grow, but wheat brings gluten naturally. Distarch phosphate itself doesn’t introduce gluten on a chemical level. It’s totally possible for the final ingredient to be absolutely gluten-free—if the starch didn’t come from wheat or barley.

I’ve seen the label “gluten-free” earn a lot of trust. For many families, myself included, accidental gluten exposure means more than an upset stomach. It could mean days of recovery. So, tracking the source of every additive becomes personal and not just a technical debate. Labels help, but ingredients often cross borders and factories, which means risk of wheat sneaking in through shared equipment. According to the Celiac Disease Foundation, any food with a gluten-free label in the US can’t contain more than 20 parts per million gluten. In Europe, it’s even stricter. This gives some peace of mind—but doesn’t make shopping less confusing.

The Fast Facts: Is Distarch Phosphate Gluten-Free?

If distarch phosphate uses potato, corn, or tapioca as its starting point, and contamination isn’t an issue, it should be gluten-free. Problems show up when wheat gets used or equipment has traces of wheat. Regulatory agencies like the FDA and EFSA actually recognize that modified starch can come from both gluten and non-gluten sources, and they recommend food makers declare allergens like wheat clearly.

Transparency matters more than marketing here. I’ve met parents who read labels like detectives, calling manufacturers just to confirm where the starch comes from. Most major brands using wheat-derived distarch phosphate need to show “wheat” somewhere in the ingredient list in many countries. But small producers or imported products can slip through the cracks.

Better Safe Than Sorry

If you or someone you love needs to go strictly gluten-free, the best bet is to pick brands that outright state “gluten-free” on the package. When that label isn’t there, go for brands that say their modified starch is from corn or potatoes. Celiac societies recommend checking with manufacturers if there’s any doubt. Online food safety databases and gluten-free certification logos help cut down on anxiety and guesswork in the aisles. I’ve called hotlines myself—sometimes you get a clear answer, sometimes it feels like chasing shadows.

For food producers, better transparency isn’t just about avoiding lawsuits. It helps real people manage their health. Clear sourcing, straightforward allergen statements, and third-party testing go a long way. In the end, people just want to feel confident the food they grab off the shelf isn’t going to make them sick. That trust comes from clear labeling and open lines of communication, not just legal compliance or fine print.

Does Distarch Phosphate have any side effects?

What Is Distarch Phosphate?

Distarch phosphate shows up in a lot of modern food labels, especially in processed foods. This modified starch thickens sauces, holds up well under heat, and extends shelf life in a way regular starch can’t. It usually comes from plants like corn or potatoes. In the food industry, manufacturers count on it because it resists breaking down during cooking, freezing, or other harsh conditions. Many shoppers spot it in gravies, canned soups, or frozen dinners and wonder what it means for their bodies.

Everyday Consumption and Regulatory Approval

Plenty of research highlights that distarch phosphate passes through the digestive system, mostly unchanged, much like other resistant starches. As a food additive, food safety agencies, including the U.S. Food and Drug Administration (FDA) and the European Food Safety Authority (EFSA), classify it as “generally recognized as safe” (GRAS). These organizations base their decisions on studies that look at both short-term and long-term health impacts.

Gut Reactions: Possible Side Effects

The biggest concern comes from the digestive tract. Many people, myself included, notice that certain processed foods don’t always sit right. Distarch phosphate, acting as a resistant starch, sometimes causes bloating or gas, especially if you’re not used to a lot of fiber or resistant starch in your meals. Bacteria in the gut ferment this type of starch, leading to those familiar symptoms.

Some studies from the past ten years point out that large amounts – not your average serving in a microwave meal – may cause stomach rumblings, diarrhea, or a laxative effect. Children or folks with a sensitive stomach seem more likely to mention these complaints. People with pre-existing gut issues, like irritable bowel syndrome, often feel stronger reactions after eating foods thickened with these modified starches.

Food Allergies and Sensitive Populations

Allergy risks appear very low. Distarch phosphate comes from common sources like corn or potatoes. The modification process removes proteins likely to cause reactions. Still, anyone with allergies to the original ingredient should play it safe and read labels closely. Rarely, a person might react to trace leftovers from the base starch, but this falls outside typical experience.

Looking Closer at Additive Intake

The bigger picture often gets lost in all the chemical names: processed foods usually contain far more than just distarch phosphate. Other preservatives, salt, sugar, and fats contribute to health risks more directly linked to diet-related diseases. The problem is rarely the modified starch alone but how these additives pile up in processed foods.

Health experts agree on a simple truth – the fewer heavily processed foods on your plate, the less you need to worry about hidden ingredients like modified starches. Picking meals with lots of whole or minimally processed ingredients gives me peace of mind, and plenty of nutritionists say the same.

What Can Help?

Cooking more often with fresh ingredients makes it easier to avoid the excess thickeners used mostly for texture and convenience. If you deal with digestive discomfort after ready-made meals, taking a closer look at the label may shed some light. Slowly increasing fiber, drinking enough water, and balancing your diet supports digestive health overall.

Food labels don't always make it easy, but reaching for whole foods rather than ultra-processed ones remains a steady way to sidestep any worry about obscure ingredients like distarch phosphate.

Is Distarch Phosphate suitable for vegans?

Looking at the Source

Distarch phosphate, tucked away in labels as E1412, pops up often in processed foods. Think soups, sauces, puddings, and instant treats. Most folks might shrug it off as another technical-sounding additive, but for vegans, every ingredient counts. This modified starch usually comes from plants. Common sources include corn, wheat, potatoes, or rice. In its basic form, it’s plant-based and doesn’t depend on any animal for its makeup.

Scrutinizing the Production Process

Curiosity doesn’t stop at the source—production methods can trip things up for anyone avoiding animal products. During the manufacturing of distarch phosphate, the plant starches get treated with chemicals, often sodium trimetaphosphate or phosphorus oxychloride. These agents transform the texture and shelf-life of foods but don’t bring anything animal-derived into the mix. Large manufacturers, especially those exporting globally, keep a close eye on plant-only production, aiming to serve the growing crowd looking for vegan options.

Cross-Contamination Risks

Though the starch itself holds up, concerns start creeping in with processing facilities. Shared equipment can spell problems if a place handles milk powders or gelatin the same day it churns out starches. Some vegan groups insist on certifications for this reason. Still, mainstream suppliers tend to source plant-based chemicals for the job, more for cost, safety, and demand than anything else. Traces from cross-contamination do sneak in sometimes. Companies that label products “vegan” usually have safeguards in place, but folks ought to read up on the manufacturer or look for that vegan label.

What About Food Additives?

Distarch phosphate isn’t always alone in finished products. Many vegan shoppers see three-syllable additives and start wondering about their origins. Stabilizers, emulsifiers, or colorings sometimes tip the vegan balance in the wrong direction. For distarch phosphate, the modification relies on phosphorus salts—sourced from minerals, not animals. This offers peace of mind, but sausages, sweets, and spreads on the shelf could include other, less friendly companions. Reading ingredients becomes a full-time job.

Health and Transparency Matter

Some folks get hung up on whether additives support nutrition or just stretch shelf life. Distarch phosphate doesn’t make food healthier; it simply changes texture and consistency. That’s not so different from how we thicken soup with flour at home. The bigger deal for consumers is trust—knowing a product’s real makeup. Vegan shoppers already juggle hidden animal enzymes in cheese, bone char in sugar, and gelatin in marshmallows. Transparency from brands, government regulations, and third-party audits all help people choose with confidence.

Better Labeling and Direct Communication

There’s no magic fix for ingredient label anxiety, but traceability stands out as a strong solution. Producers who trace ingredients from farm or factory to package can give shoppers clearer answers. Vegan certifications often mean regular audits and spot-checks—a real commitment that takes time and money. Digital tools make it easier now to verify a product, so scanning a code in the store lets buyers check up on ingredients and sourcing faster than ever.

Final Thoughts

For most brands and buyers, distarch phosphate comes from the plant world, not from the barnyard. Vigilance pays off, especially as companies meet the demand for strict vegan options. A quick email or a look at a certification label can settle doubts. As food tech keeps evolving, clear sourcing and honest labels help everyone eat with fewer surprises and more peace of mind.

Distarch Phosphate
Names
Preferred IUPAC name Poly(oxy-1,4-α-D-glucan-2,3,6-triyl) phosphate
Other names E1412
Phosphated Distarch
Phosphated Distarch Phosphate
Phosphated Starch
Modified Starch
Starch Phosphate
Dihydrogen Phosphate Ester of Starch
Pronunciation /dɪˈstɑːrtʃ ˈfəʊs.feɪt/
Preferred IUPAC name phosphoryl di-α-D-glucopyranosyl di-β-D-glucopyranoside
Other names E1412
Phosphated distarch
Phosphorylated distarch
Starch phosphate
Pronunciation /daɪˈstɑːrtʃ ˈfəʊs.feɪt/
Identifiers
CAS Number 9005-84-9
Beilstein Reference 1365498
ChEBI CHEBI:63010
ChEMBL CHEMBL1208407
ChemSpider 2536949
DrugBank DB09412
ECHA InfoCard 03e0b8e8-aabe-41f4-b42a-ea3a2c76d6c3
EC Number 1412
Gmelin Reference 64968
KEGG C01425
MeSH D005409
PubChem CID 24761
RTECS number TF6390000
UNII 1G2A7Y8W98
UN number UN 3316
CAS Number 55963-33-2
Beilstein Reference 3540863
ChEBI CHEBI:62966
ChEMBL CHEMBL1208417
ChemSpider 154408
DrugBank DB14443
ECHA InfoCard 100.275.262
EC Number 1412
Gmelin Reference 145965
KEGG C01417
MeSH D004218
PubChem CID 24759
RTECS number TF9270000
UNII 162WM84T5G
UN number UN1805
Properties
Chemical formula (C6H10O5)n·(PO4)m
Molar mass Variable
Appearance White or off-white powder
Odor Odorless
Density 0.5-0.7 g/cm3
Solubility in water Insoluble in water
log P -5.769
Vapor pressure Negligible
Basicity (pKb) 12.2
Refractive index (nD) 1.333
Viscosity Viscosity: 50–800 cP
Dipole moment 0.00 D
Chemical formula (C6H10O5)n·(PO4)m
Molar mass Variable
Appearance White or off-white powder
Odor Odorless
Density Density: 1.5 g/cm³
Solubility in water Insoluble
log P -3.7
Refractive index (nD) 1.332 (at 20 °C)
Viscosity Viscosity: "10-150 mPa·s
Dipole moment 1.82 D
Thermochemistry
Std molar entropy (S⦵298) 465.8 J/(mol·K)
Pharmacology
ATC code A10BX09
ATC code A10BX11
Hazards
Main hazards Dust may form explosive mixture with air. Causes respiratory tract irritation.
GHS labelling GHS07 Warning
Pictograms GHS07,GHS08
Signal word Warning
Hazard statements No Hazard Statements.
Precautionary statements P264, P270, P301+P312, P330, P501
NFPA 704 (fire diamond) 1-0-0
Lethal dose or concentration LD50 (oral, rat) > 2,000 mg/kg
LD50 (median dose) LD50 (median dose): Oral, rat: >10,000 mg/kg
NIOSH GNF143
REL (Recommended) 20 mg/kg bw
GHS labelling GHS07, GHS08
Pictograms GHS07,GHS08
Signal word Warning
Hazard statements No hazard statements.
Precautionary statements P264, P270, P301+P312, P330, P501
NFPA 704 (fire diamond) 1-1-0
Lethal dose or concentration LD50 (oral, rat): > 10,000 mg/kg
LD50 (median dose) LD50 (median dose): >2,000 mg/kg (rat, oral)
NIOSH GNZ48270
PEL (Permissible) Not more than 50,000 mg/kg
REL (Recommended) 30 mg/kg bw
IDLH (Immediate danger) No IDLH established.
Related compounds
Related compounds Monostarch phosphate
Phosphated distarch phosphate
Hydroxypropyl distarch phosphate
Related compounds Monostarch phosphate
Phosphated distarch phosphate