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Acesulfame Potassium: Shaping Modern Food Sweetening

Historical Development

Acesulfame Potassium started its story by accident. In 1967, German chemist Karl Clauss discovered this compound at Hoechst AG after he licked his finger during a routine experiment. Back then, the pressure for alternatives to sugar was building. Health professionals worried about the links between sugar and chronic diseases like diabetes and obesity. Early research had its skeptics, yet demand for calorie-free sweeteners grew with changing diets. Food safety authorities in Europe approved acesulfame potassium in the early 1980s. The US FDA followed in 1988 for specific uses and later expanded its approval. Over the decades, this sweetener found its way into soft drinks, desserts, and even pharmaceuticals.

Product Overview

Known on ingredient lists as Ace-K or E950, acesulfame potassium promises intense sweetness. It arrives as a white, odorless, crystalline powder, often blended with other sweeteners to mask aftertaste and build flavor. The food industry counts on its stability under heat and acidic conditions, which opens more doors for processed and baked products. Tabletop sweetener packets, diet sodas, chewing gum, and yogurt often rely on Ace-K. Some brands opt for its clean label recognition and compatibility with sucralose and aspartame. Clear guidelines exist for purity and handling, usually above 99% purity as demanded by regulatory standards in both food and pharmaceutical industries.

Physical & Chemical Properties

Acesulfame potassium holds the chemical formula C4H4KNO4S. Sweetening strength lands at roughly 200 times that of sucrose, and it carries zero energy value upon digestion — the body excretes Ace-K unchanged. Melt point sits high, beyond 225°C, offering resistance to heat-driven decomposition. Its solubility in water ensures rapid distribution in beverages and syrups. This material doesn’t ferment, so it never feeds molds or spoilage organisms in packaged foods. Slight bitterness can creep in above a certain concentration, which manufacturers balance by formulating blends instead of relying on Ace-K alone.

Technical Specifications & Labeling

National and international pharmacopoeia and food codes set the bar for ace-K specification. ISO and FCC outline purity, permissible levels of potassium, moisture, and traces of organic or inorganic impurities. Labels in the EU show “E950,” while American packaging lists its full name, usually alongside aspartame or sucralose. Ingredient sheets highlight physical grades—powder or granular—tailored for specific product lines. Pharmacies stock a pharmaceutical grade in tablet and liquid forms for medications aimed at diabetics and calorie-conscious consumers. Any product containing Ace-K must adhere to stated maximum levels determined by governing health agencies such as EFSA and FDA; foods meant for infants or children face tighter scrutiny and lower allowable amounts.

Preparation Method

Production hinges on the reaction between acetoacetic acid derivatives and potassium salts of sulfonamides. The process moves through several batch stages—neutralization, crystallization, filtration, and drying—much like chemical work in college labs but on an industrial scale. Chemical engineers reduce unwanted by-products by careful pH balancing and temperature control. Waste streams require attention, as regulations target both chemical residues and energy use in manufacturing. Emerging “green” chemistry approaches experiment with renewable starting materials or solvent recycling, as regulatory and public pressure pushes for a cleaner footprint.

Chemical Reactions & Modifications

Ace-K stands out thanks to its resilience in acidic and basic environments, which helps lock in sweetness during cooking or soda bottling. It resists breakdown under light, oxygen, and moderate heat, unlike some rivals that lose punch with shelf time. Conjugation with other substances rarely occurs in finished foods, because the structure resists further modification under normal culinary or storage conditions. The potassium in Ace-K is tightly bound, and the compound stays chemically inert in most recipes. Researchers have probed blend ratios to reduce the bitter edge, running sensory trials to pinpoint mixtures that taste as close as possible to sugar.

Synonyms & Product Names

Ace-K wears a few hats—acesulfame potassium, acesulfame K, potassium salt of 6-methyl-1,2,3-oxathiazine-4(3H)-one 2,2-dioxide, and its more familiar food code, E950. Brands market it under catchy trade names like Sunett and Sweet One. Product catalogs, especially in bulk and B2B trade, switch between these labels depending on market and regulation. Most consumers only ever see the abbreviated names at the bottom of ingredient lists, yet the compound behind each synonym remains the same. Staying up to date on regional labeling prevents accidental omission or regulatory trouble.

Safety & Operational Standards

Decades of safety studies and rigid regulatory review shape Ace-K’s permitted uses. Toxicology reports and multi-generational feeding studies in animals gave no evidence for cancer, mutagenicity, or damage to organs at permitted levels. Agencies like JECFA and FDA set the Acceptable Daily Intake (ADI) at 15 mg per kg of body weight. Keeping doses safely below that ceiling reassures manufacturers and public health advocates. Workers handling Ace-K follow standard food manufacturing controls—ventilation, gloves, and dust control—because high exposures may trigger minor irritation or respiratory complaints. Producers verify every batch with chromatography or spectroscopy to confirm purity and rule out contaminants.

Application Area

Ace-K covers a lot of ground, with early popularity in carbonated drinks and low-calorie desserts. Beverage companies chase a particular taste profile—sharp sweetness with low lingering—so the blend works best in citrus sodas and fruit-flavored waters. Chewing gum developers exploit Ace-K’s heat stability to power sweetness released over a long chew. The bakery sector uses it for muffins, snack bars, and low-sugar cookies because acesulfame potassium holds up in oven heat unlike some rivals. A growing corner of the market turns to Ace-K for pharmaceutical products, helping mask chalky or bitter flavors in medicines, cough syrups, and chewables. Even some oral hygiene products carry this sweetener to please the palate and encourage use among kids.

Research & Development

R&D in food science never slows. Ongoing work tries to tweak the balance of Ace-K with other high-intensity sweeteners for less aftertaste and better shelf stability. I see research teams modeling how Ace-K interacts with gut microbiome, focusing on long-term metabolic impacts, especially as sugar substitutes become dietary staples. Ingredient suppliers team up with large food brands, running sensory panels and texture analysis to lock in customer satisfaction. New process methodologies, like microencapsulation, turn Ace-K into time-release formats for better performance in novel snack products. University labs often chase more sustainable manufacturing avenues or seek enzymatic synthesis, where milder production conditions might cut chemical waste and energy use.

Toxicity Research

In the flood of headlines labeling sweeteners as unsafe, acesulfame potassium stands behind a solid wall of evidence for its safety at recommended levels. Rigorous animal studies tracked health over years. No links to tumors, genetic mutations, or reproductive problems at human-relevant doses. Rare allergy cases exist, but only anecdotal reports pop up now and then. Human trials have looked at metabolism and renal excretion, confirming it does not accumulate in tissues. Regulatory agencies regularly scan new data and update reviews, with the consensus currently in favor of Ace-K safety in the diet. Still, critics call for more research on sub-chronic effects, children’s vulnerability, or possible synergy with other dietary additives.

Future Prospects

Food and beverage makers keep betting that demand for low and zero-calorie options will climb. Governments crack down on added sugar, and anti-obesity policies gain teeth. Ace-K sits in the toolkit for reformulating household staples under new nutritional guidelines. Interest in “natural” sweeteners might dent Ace-K’s dominance, but cost, versatility, and long-term safety data keep its position strong. Future versions could see acesulfame potassium combined with flavor modulators or prebiotic fibers to change how the body responds beyond sweetness alone. Researchers dive into smarter manufacturing—smaller footprints, renewable inputs, less waste. As new regulations hit, continuous investment in both product and process innovation acts as the real insurance for Ace-K’s place in the foods and supplements of tomorrow.




What is Acesulfame Potassium and how is it used?

What Makes Acesulfame Potassium Stand Out

Acesulfame potassium, or Ace-K as it shows up on food labels, came onto the scene in the late 1960s. It isn’t a sugar, but it packs a whole lot of sweetness—about 200 times sweeter than regular table sugar. I remember reading nutrition labels as a kid and always skimming past the odd chemical names, not knowing much about them. Now, I see Ace-K everywhere: diet sodas, sugar-free gum, protein shakes, even in toothpaste and some medicine. It’s clear food makers rely on it to deliver that sweet punch without the calories.

Why Companies Choose Ace-K

Cost plays a big part. Acesulfame potassium stays stable under heat and in acidic drinks, so it holds up in sodas and baked goods. Unlike some sweeteners, it doesn’t break down during cooking and storage, so companies can use it in recipes from cookies to canned peaches. They also like that it blends well with other low-calorie sweeteners. For example, when combined with aspartame or sucralose, Ace-K helps round out the flavor and mask the bitter notes you sometimes get from other sugar substitutes. It’s a problem solver for tastes that can come off too metallic or artificial.

Questions Around Safety

Many people wonder if it’s safe to eat foods containing Ace-K. Over the years, studies have looked at possible cancer risks, metabolism, and any impact on kids and pregnant individuals. Major food safety agencies like the FDA, European Food Safety Authority, and Health Canada have reviewed research and consider Ace-K safe for the general population when eaten in normal amounts. That said, not everyone feels reassured. Some smaller animal studies suggest possible health effects with massive, unrealistic doses. Realistically, most people don’t come close to eating those amounts. My own family keeps a balance, using both sugary and sugar-free products, but I watch for overdoing it—especially for the kids, since their smaller bodies could technically hit higher doses faster.

Weighing the Pros and Cons

Acesulfame potassium lets people enjoy sweets without loading up on calories. For folks managing diabetes or watching their weight, this comes as a big benefit. Too much sugar links to tooth decay, obesity, and diabetes, so the option for something that tastes good without the health baggage makes sense. But relying too heavily on “sugar-free” everything doesn’t necessarily lead to a healthier diet. It’s easy to eat a pack of sugar-free cookies and think you’re making a healthy choice, even if the rest of the ingredients don’t offer much nutrition.

Moving Forward: Balance and Clearer Labeling

It helps to pay attention to ingredient lists and nutritional information. Some people have sensitivities or just don’t like the aftertaste of Ace-K. Brands could be more transparent about the sweeteners they use, maybe offering more products without any artificial sweetener for those who prefer to skip them. Eating less processed food and focusing on whole ingredients—fresh fruit instead of flavored drinks, oats instead of breakfast bars—takes some planning, but often pays off in better health. From where I stand, Ace-K is a tool in the food industry’s kit. Like any tool, the result depends on how it gets used and how honest companies are about what’s in the food we eat.

Is Acesulfame Potassium safe for consumption?

Understanding Acesulfame Potassium

Acesulfame potassium pops up in many things you might have in your fridge or pantry—diet sodas, chewing gum, baked snacks, and even some flavored yogurts. This artificial sweetener has been around since the 1960s, sweetening foods without sugar’s calories. It's about 200 times sweeter than regular sugar, which is why food companies go for it—they use a lot less to reach the taste they want. The sweet taste in that can of zero-sugar soda often comes from a blend, and acesulfame potassium usually tags along for that job.

Safety Checks by Trusted Agencies

Many people feel wary about chemicals and food additives, and not without reason. Over the years, organizations like the U.S. Food and Drug Administration (FDA), the European Food Safety Authority (EFSA), and Health Canada have put acesulfame potassium under the microscope. The FDA green-lit its use after going through several studies, and the safe daily intake sits at 15 milligrams per kilogram of body weight. EFSA set a slightly tougher recommended amount, but their scientists came to the same verdict—it’s fine to use in food when sticking to these guidelines.

What the Research Says

Studies covering acesulfame potassium span decades. Most point to it passing through the body quickly and leaving almost unchanged. It doesn’t linger or build up in your system. Animal testing looked at cancer risks, birth defects, and other worrying effects at levels much higher than normal people consume. Results didn’t raise red flags.

Concerns about long-term health still make headlines. Some researchers explored if these kinds of sweeteners change gut bacteria or impact appetite. Animal trials brought up a few questions—such as whether high doses in rodents could signal risk for people. But actual daily use by humans falls far below those high levels. A 2023 review by a team from the University of Toronto summed it up by saying regular intake within official guidelines remains safe, with no good evidence linking it to cancer or serious illness in humans.

Real-World Perspective Matters

People often ask me about artificial sweeteners because they want to cut sugar or manage diabetes. I look at how folks actually use them—not just lab experiments. Few people overload on sweeteners day after day. Most grab a diet drink at lunch or reach for sugar-free gum during the workday instead of loading up on sugar. For those with diabetes, recipes with acesulfame potassium allow for desserts without shooting blood sugar past what’s healthy. It gives more freedom to folks who have to watch every carb and calorie.

Still, a balanced plate beats a steady diet of sweetened drinks and processed snacks—sugar-free or not. Artificial sweeteners can serve as tools for cutting calories or sugar, but whole foods—fruits, vegetables, simple proteins—provide what the body needs for long-term health. It’s easy to see these additives as villains, but compared to the health effects of high sugar intake, they offer another option.

The Role of Choice and Information

Clear food labels make a difference. If people know what sweetener goes into their drinks or snacks, they pick what matches their health needs. Concerns by some about taste or aftertaste prove real for many, and everyone’s preferences count. Those with rare conditions—such as allergies or phenylketonuria—do have to read labels closely and may want to limit certain sweeteners. For most others, acesulfame potassium falls into the wider story of choosing what to eat with honest info in hand.

Food safety rests not just on scientific studies but on staying alert for new findings. Regulations change over time as science builds, and trusted health agencies update their rules if needed. For now, given the research and oversight, acesulfame potassium used within set limits remains a safe tool in the kitchen and food industry—a choice, not a threat.

Does Acesulfame Potassium have any side effects?

What Is Acesulfame Potassium?

Acesulfame potassium pops up in a lot of diet sodas, sugar-free gum, and light yogurt. Many folks know it under names like Ace-K or E950. The main reason people pick up products with this sweetener comes down to one thing: fewer calories with some sweetness still in the mix. I often read nutrition labels, trying to avoid added sugar, and Ace-K’s name shows up all over my pantry.

The Side Effect Concerns

As someone who’s spent a fair bit of time digging through health forums and recent research, I’ve seen waves of worry about artificial sweeteners. Some people say these substitutes mess with metabolism or trigger headaches. With Ace-K, the concern often centers around possible connections to cancer or disruptions in gut bacteria.

Early studies from decades ago raised worries about cancer risk. At high doses, some rats got tumors. That news got a lot of attention and probably scared off plenty of shoppers. But the dose given to rats far outweighs what anyone would ever eat in a daily diet. The FDA, along with food agencies in the EU, Canada, and Australia, checked the data and called Ace-K safe for human consumption. Their recommended upper limit is 15 mg per kilogram of body weight each day—a level that’s tough to reach for most adults, even for soda fans.

Everyday Reactions

People have different reactions to sweeteners. Friends of mine complain about occasional headaches after drinking diet shakes loaded with several kinds of artificial sweeteners, including Ace-K. I’ve read studies that suggest some people might feel mild stomach discomfort or changes in taste. The research is mixed: some studies show no strong link between Ace-K and headaches or stomach pain, others suggest there could be issues for a small slice of the population.

A new topic comes up a lot—gut health. Small-scale research hints that sugar substitutes might change the way bacteria work in the intestines. Nobody has reached firm conclusions here, but there’s a debate among doctors and scientists about whether sugar alternatives mess with the bacteria in our digestive tract. I’ve watched friends experiment with “artificial sweetener breaks” to see if it affects digestion or bloating. Results seem all over the map.

Balancing Use and Health

For anyone worried about side effects, making small swaps can be smart. I’ve found that alternating between unsweetened drinks and those with sweeteners helps me keep my intake moderate. Paying attention to how my body responds says more than one-size-fits-all advice. Reading research summaries from trusted health bodies, rather than individual scare stories, helps cut through confusion.

What’s Next?

Scientists keep looking for long-term impacts of artificial sweeteners like Ace-K. More high-quality studies with real-world diets would help clear up disputes. Health agencies suggest that for most people, drinking or eating foods with Ace-K in moderation looks safe for now. Folks with special concerns about migraines, gut symptoms, or allergies can talk things over with their doctor or a registered dietitian. Focusing on whole foods, listening to personal signals, and keeping up on trustworthy nutrition research is the approach that’s worked best for me and many around me.

Is Acesulfame Potassium suitable for diabetics?

Understanding Acesulfame Potassium

Acesulfame potassium, often listed as "Ace-K," sweetens everything from gum to yogurt. It doesn’t come from sugar, so it skips the usual spike in blood glucose. Over the last decade, I’ve navigated grocery aisles with relatives who have diabetes, reading every label. Stuff like Ace-K pops up in more products each year.

Blood Sugar and Safety Considerations

Because Ace-K slips through the system unmetabolized, it doesn’t turn into glucose in the body. The American Diabetes Association gives the green light to Ace-K, saying it won’t raise blood sugar. For someone living with diabetes, this saves a lot of math at mealtime. The body flushes it out through urine, so it skips the cycle that trips up insulin.

The Food and Drug Administration approved Ace-K back in the late 1980s after a long stretch of testing. Earning that approval takes a mountain of data. Scientists fed it to lab animals in amounts that dwarf a normal diet, looking for any risk. So far, research hasn’t shown any link between typical Ace-K intake and cancer or other health disasters for humans.

The Bigger Picture: Real-World Choices

Diabetes doesn’t just call for cutting sugar. It’s about daily choices: what to eat, how to balance meals, and keeping life enjoyable. Low-calorie sweeteners like Ace-K give people more options. My aunt, for example, can drink a soda or have a pudding cup when cravings come, without a blood sugar spike that puts her health at risk. These choices matter when managing a condition for decades.

Research from the Cleveland Clinic and Harvard over recent years keeps backing up that same point. Folks using Ace-K instead of sugar have fewer blood glucose swings. Weight control becomes easier since calories drop with the sweetener swap. That doesn’t mean it’s a magic fix—no sweetener erases the need for balance.

Questions and Cautions

Critics sometimes worry that using sweeteners like Ace-K might trick the brain and appetite. A few studies suggest artificial sweeteners could encourage cravings for sweet foods, but the evidence is mixed. My experience is that it’s more about habits and routines than what’s actually in the food.

The real issue lies in using sweeteners alongside an overall healthy diet. Just swapping sugar for Ace-K in junk food won’t make those foods healthy. Too much processed food piles up sodium, fat, or additives, which can cause trouble for anyone, including people with diabetes.

Solutions for a Balanced Approach

Talking to a registered dietitian beats guessing and hoping for the best. Monitoring blood sugar and seeing how your body reacts to anything new, including Ace-K, builds confidence. I’ve seen friends use continuous glucose monitors to test out diet changes, catching patterns they’d never noticed. Tools like these, paired with consistent checkups, help people feel in control.

For people living with diabetes and craving more variety, Ace-K offers a practical way to keep life flavourful without risking health. The choice isn’t about one product—it’s about managing the whole plate, getting advice from trusted pros, and remembering that options exist beyond bland, restrictive diets.

How does Acesulfame Potassium compare to other artificial sweeteners?

Acesulfame Potassium in the Real World

Most people recognize acesulfame potassium by its food label name, Ace-K. This sweetener ends up in all sorts of foods—diet soda, sugar-free gum, protein shakes. The stuff carries a punch of sweetness about 200 times stronger than sugar, without leaving calories behind. Folks with diabetes and people watching their waistlines reach for products that use Ace-K, hoping for all the sweetness with none of the blood sugar spikes.

How the Taste Measures Up

Plenty of folks notice a bitter or metallic aftertaste from Ace-K, especially in large amounts. That’s why companies often mix it with other sweeteners, like aspartame or sucralose, to cover that up. I remember choosing diet drinks with just Ace-K when I tracked my sugar intake years ago—the taste always seemed a little “off,” compared to blends that use several sweeteners together. Sucralose holds up in baked goods and tastes a bit more like real sugar, so it often shows up in cookies and cakes where a true sugar taste matters. Aspartame tastes more subtle but breaks down in heat, so it stays out of the oven.

Sugar Substitutes and Health

Skepticism follows artificial sweeteners like Ace-K. Over the years, some folks worried about cancer risks and possible effects on metabolism. Regulators like the FDA and European Food Safety Authority have looked at dozens of studies on Ace-K. So far, they’ve agreed that it’s safe to sprinkle into foods and drinks, assuming your intake stays below the accepted daily limit. Acesulfame potassium leaves the body through urine instead of sticking around, and researchers have not shown it to build up or cause long-term harm at normal consumption levels.

Still, some studies hint that eating lots of sweeteners, including Ace-K, might throw gut health or appetite control for a loop. For folks chasing a zero-calorie lifestyle, the best bet means watching out for how much lands on your plate each day. Natural sugar alternatives like stevia are pulling in attention, too. Stevia comes from a plant, tastes sweet, and avoids artificial chemical processes. The aftertaste lingers for some, though, much like Ace-K.

Sustainability and Production

Acesulfame potassium grows out of a chemical reaction that uses acetoacetic acid and fluorosulfonyl isocyanate—hardly the kind of stuff you find in a kitchen. Unlike stevia or monk fruit extracts, Ace-K’s production draws on raw petrochemicals and energy. There isn’t a push from the big food companies to move away from Ace-K on environmental grounds yet, but more consumers voice concern about the sustainability of artificial sweeteners every year. Both sucralose and aspartame also spring from synthetic processes, and none break down easily in water treatment plants—raising questions about how much ends up in water supplies over time.

Possible Paths Forward

People keep asking for cleaner labels and fewer artificial ingredients. Soft drink makers would do well to explore sweetener blends with natural sources, such as stevia. Stronger regulations and ongoing research can help spot possible long-term health effects. Meanwhile, education remains key; understanding the science behind each sweetener helps folks make smart decisions about what lands in their grocery carts. Plenty of us look for choices that line up with our goals—better blood sugar, weight management, or just cutting calories—so transparency and options matter more than ever.

Acesulfame Potassium
Names
Preferred IUPAC name Potassium 6-methyl-1,2,3-oxathiazin-4(3H)-one 2,2-dioxide
Other names Acesulfame K
Ace K
E950
Pronunciation /ˌeɪsiːˈsʌlfeɪm pəˈtæsiəm/
Preferred IUPAC name Potassium 6-methyl-2,2-dioxo-1,2-oxathiazin-4-ide-4-one
Other names Acesulfame K
Ace K
E950
Sunett
Sweet One
Pronunciation /ˌeɪsiːˈsʌlfeɪm pəˈtæsiəm/
Identifiers
CAS Number 33665-90-6
Beilstein Reference '3587262'
ChEBI CHEBI:42089
ChEMBL CHEMBL242703
ChemSpider 16121
DrugBank DB06751
ECHA InfoCard EG: 700-941-1
EC Number 950
Gmelin Reference 58483
KEGG C14322
MeSH D017347
PubChem CID 441154
RTECS number AKX27802IO
UNII '23OV73Q5G9'
UN number UN1845
CompTox Dashboard (EPA) JDFAEW64G8
CAS Number 55589-62-3
Beilstein Reference 1724102
ChEBI CHEBI:61004
ChEMBL CHEMBL1231223
ChemSpider 8486
DrugBank DB00845
ECHA InfoCard D-Glucopyranose, 1,6-anhydro-, polymer with 1,1-dimethylethyl 2-methyl-2-propenoate, 2-hydroxyethyl 2-methyl-2-prope
EC Number 950
Gmelin Reference Gmelin Reference: **105186**
KEGG C14319
MeSH D018425
PubChem CID 44107
RTECS number AKB0066000
UNII DYU172PTQ8
CompTox Dashboard (EPA) DTXSID7040522
Properties
Chemical formula C4H4KNO4S
Molar mass 201.24 g/mol
Appearance White crystalline powder
Odor Odorless
Density 1.85 g/cm³
Solubility in water 270 g/L (20 °C)
log P -1.3
Acidity (pKa) 2.0
Basicity (pKb) 0.5
Magnetic susceptibility (χ) -67.0e-6 cm³/mol
Refractive index (nD) 1.347
Dipole moment 3.18 D
Chemical formula C4H4KNO4S
Molar mass 201.24 g/mol
Appearance White crystalline powder
Odor Odorless
Density 1.85 g/cm³
Solubility in water Highly soluble
log P -1.33
Vapor pressure Vapor pressure: <0.0001 mm Hg (25°C)
Acidity (pKa) 2.0
Basicity (pKb) 0.5
Magnetic susceptibility (χ) -5.8e-6 cm³/mol
Refractive index (nD) 1.341
Dipole moment 2.92 D
Thermochemistry
Std molar entropy (S⦵298) 151 J⋅mol⁻¹⋅K⁻¹
Std enthalpy of formation (ΔfH⦵298) -882.8 kJ/mol
Std enthalpy of combustion (ΔcH⦵298) -3743 kJ/mol
Std molar entropy (S⦵298) 175.8 J·mol⁻¹·K⁻¹
Std enthalpy of formation (ΔfH⦵298) -714.2 kJ/mol
Std enthalpy of combustion (ΔcH⦵298) -3942 kJ/mol
Pharmacology
ATC code A07AX19
ATC code A16AX14
Hazards
Main hazards May cause eye, skin, and respiratory tract irritation.
GHS labelling GHS07, Warning, H319
Pictograms GHS07
Signal word Warning
Hazard statements No hazard statements.
Precautionary statements P264, P270, P305+P351+P338, P337+P313
NFPA 704 (fire diamond) 1-0-0
Autoignition temperature 310°C (590°F)
Lethal dose or concentration LD50 (rat, oral): 6,900 mg/kg
LD50 (median dose) 740 mg/kg
NIOSH BWN570000
PEL (Permissible) 15 mg/kg bw
REL (Recommended) 15 mg/kg bw
Main hazards Harmful if swallowed. May cause irritation to eyes, skin, and respiratory tract.
GHS labelling GHS07, Warning, H319
Pictograms GHS07
Signal word Warning
Hazard statements Acesulfame Potassium is not classified as hazardous according to GHS. No hazard statements.
NFPA 704 (fire diamond) 2-0-0
Autoignition temperature 310°C
Lethal dose or concentration LD50 (rat, oral): 6,900 mg/kg
LD50 (median dose) 740 mg/kg
NIOSH WN6500000
PEL (Permissible) 15 mg/kg
REL (Recommended) 15 mg/kg bw
IDLH (Immediate danger) Not listed.
Related compounds
Related compounds Acesulfame
Potassium salt
Acesulfame sodium
Related compounds Sodium cyclamate
Aspartame
Saccharin
Sucralose
Neotame