What Sweeteners Contain Erythritol: Brands and Foods

Erythritol is one of the most widely used sugar alcohols in low-calorie and sugar-free products, showing up in tabletop sweetener brands, protein bars, sugar-free chocolates, flavored drinks, and even toothpaste. If you are scanning ingredient lists to find or avoid it, the short answer is that erythritol appears in a surprisingly broad range of products, often as a bulking agent rather than the headline sweetener. Understanding which categories of foods and sweetener brands rely on it can save you a lot of time flipping packages at the store.

Tabletop Sweetener Brands That Rely on Erythritol

The most concentrated source of erythritol in most people’s diets comes from granulated or powdered tabletop sweeteners designed to replace sugar spoon-for-spoon. Erythritol is the primary ingredient by weight in many of these products, even when the brand name highlights a different sweetener on the front label. Truvia, one of the best-selling stevia-based sweeteners, lists erythritol as its first ingredient; the stevia leaf extract (rebaudiana) is present in tiny amounts because it is hundreds of times sweeter than sugar and only a pinch is needed. Swerve, marketed as a baking-friendly sugar replacement, is almost entirely erythritol blended with oligosaccharides. Lakanto, a monk fruit sweetener, follows the same formula: erythritol provides the bulk and the granular texture, while monk fruit extract delivers the intense sweetness. This pairing is common because monk fruit extract alone is so concentrated that you would need an almost invisible amount to sweeten a cup of coffee, and that does not work when a recipe calls for a cup of sugar. Mixing it with erythritol gives the blend a volume and mouthfeel closer to table sugar.

Monk fruit and stevia brands rely on erythritol so heavily because the high-intensity plant extracts lack physical bulk on their own.¹ Other brands follow the same approach: Wholesome Sweeteners’ allulose blends, some Splenda Naturals products, and Pyure organic stevia all include erythritol on their ingredient panels. If the sweetener is sold as a granulated product that measures cup-for-cup like sugar, there is a strong chance erythritol is doing most of the heavy lifting for texture and volume.

Packaged Foods and Beverages Where Erythritol Shows Up

Beyond the sweetener aisle, erythritol has become a staple ingredient in the booming market for “keto-friendly,” “sugar-free,” and “zero-sugar” packaged foods. You will find it in categories you might expect and a few you might not:

Protein and energy bars: Brands like Quest, Built Bar, and many smaller keto-focused lines use erythritol to sweeten their bars without adding sugar or significant calories.
Sugar-free chocolate and candy: Lily’s Sweets (now owned by Hershey) built its brand around erythritol-sweetened chocolate. ChocZero, Smart Sweets, and Dr. John’s candies also rely on it.
Ice cream and frozen desserts: Enlightened, Rebel Creamery, and Halo Top (in some formulations) use erythritol alongside other sweeteners to cut sugar while keeping a creamy texture.
Flavored beverages: Some zero-calorie flavored waters, sports drinks, and ready-to-drink coffees include erythritol. Bai Antioxidant Infusion is a well-known example, listing erythritol as its second ingredient after water.
Baked goods and bread: Keto bread brands such as Base Culture and ThinSlim Foods use erythritol in muffins, brownies, and sandwich bread marketed to low-carb consumers.
Condiments and sauces: Sugar-free ketchups, barbecue sauces, and salad dressings from brands like Primal Kitchen and G Hughes sometimes contain erythritol to replace the sugar that normally gives these products their familiar sweetness.
Oral care products: Certain sugar-free gums, mints, and toothpastes use erythritol partly for sweetness and partly because polyols do not promote tooth decay the way sugar does.

Polyols like erythritol are used as non-cariogenic sweeteners across both food and oral care applications.² The ingredient has spread so widely in part because it has a clean, sugar-like taste without the strong cooling sensation or bitter aftertaste that plagues some other sugar alcohols.

How to Spot Erythritol on a Label

Erythritol is always listed by name in the ingredient panel, so you do not need to decode any obscure chemical synonyms. In the United States, it appears plainly as “erythritol.” In the European Union, it can also be listed by its E-number, E968, though most consumer-facing products spell it out. What can be confusing is its placement. In many “stevia” or “monk fruit” products, erythritol is the first ingredient, meaning it is present in the largest quantity. The high-intensity sweetener that the product is named after may be the last or second-to-last ingredient by weight.

On U.S. Nutrition Facts panels, erythritol falls under “Sugar Alcohols,” a subcategory of total carbohydrates. Some brands voluntarily break out erythritol separately; others lump all sugar alcohols together. If you are trying to track your intake for digestive comfort, look for that sugar alcohol line. In the EU, erythritol’s caloric value is labeled at zero, while U.S. labeling conventions typically treat it as having negligible calories as well, since your body absorbs most of it but excretes it unchanged rather than burning it for energy.

Why Erythritol Is Everywhere in Low-Carb Products

Erythritol occupies a unique sweet spot (literally) among sugar substitutes. It is a sugar alcohol, which places it in the same family as xylitol, sorbitol, and maltitol. But it behaves differently from those cousins in ways that make it attractive to food manufacturers.

First, it is naturally found in small amounts in fruits like melon, watermelon, pears, and grapes, as well as in fermented foods such as cheese and soy sauce.³ That natural pedigree helps brands market it as a more “natural” option compared to synthetic sweeteners like sucralose or aspartame, even though the erythritol in your protein bar was produced through industrial fermentation rather than being extracted from watermelons.

Second, and more practically, erythritol contributes physical bulk. High-intensity sweeteners like stevia, monk fruit, and sucralose are so potent that you need only milligrams to sweeten a serving. That works fine in a packet of drink mix, but it falls apart in baking, where sugar’s volume, browning, and moisture-binding properties matter. Erythritol provides about 60 to 70 percent of the sweetness of table sugar while delivering the physical mass that recipes need. Its production costs are higher than those of more intense sweeteners, which is why it typically appears alongside them rather than alone: the intense sweetener handles the last 30 to 40 percent of sweetness cheaply, and erythritol handles the bulk.⁴

How Your Body Handles Erythritol

One reason erythritol has earned favor over other sugar alcohols is how cleanly it passes through the body. Most of it is absorbed in the small intestine through passive diffusion, and then your kidneys excrete it unchanged in your urine. Studies tracking labeled erythritol in humans found that roughly 78 to 90 percent of what you swallow shows up in urine within 24 hours, unmetabolized.⁵ Older metabolic work confirmed the same pattern: no detectable fermentation in the gut, no rise in breath hydrogen (a marker of bacterial fermentation), and nearly complete urinary recovery.⁶

This matters because the sugar alcohols that do cause digestive grief, like sorbitol and maltitol, are poorly absorbed in the small intestine. Whatever your small intestine does not pick up travels down to the colon, where gut bacteria ferment it and produce gas, bloating, and sometimes diarrhea. Erythritol largely sidesteps that process because most of it gets absorbed before reaching the colon.⁷

That said, your body’s ability to absorb erythritol has limits. At higher doses, absorption slows down, suggesting a saturable process.⁵ In practical terms, if you eat a modest amount spread across the day, your gut handles it without complaint. If you sit down and eat an entire bag of sugar-free candy in one sitting, you may overwhelm your absorption capacity and end up with some of the same issues other sugar alcohols are notorious for.

Digestive Tolerance Compared to Other Sugar Alcohols

If you have ever eaten a handful of sugar-free gummy bears and regretted it an hour later, you have experienced what poorly absorbed sugar alcohols can do. Erythritol’s reputation for gentleness is backed by head-to-head comparisons. In a controlled study comparing erythritol and xylitol at various doses, 50 grams of xylitol triggered significantly more nausea, bloating, gut rumbling, cramping, and watery stool compared to a sugar control. The same 50-gram dose of erythritol only produced a modest increase in nausea and gut rumbling, with no significant increase in other symptoms. At lower doses of 20 and 35 grams, erythritol caused no measurable uptick in digestive complaints at all.⁸

Research in children painted a similar picture. In young children given erythritol-containing beverages, doses up to 15 grams produced no significant increase in diarrhea or severe gut symptoms compared to a placebo. The 20- and 25-gram doses did push past the threshold, producing more episodes of loose stool in the first 24 hours.⁹ For context, most single servings of erythritol-sweetened foods contain somewhere between 5 and 15 grams, so staying within comfortable territory is not hard unless you are consuming multiple servings in rapid succession.

This tolerance advantage is a big part of why food manufacturers favor erythritol over maltitol or sorbitol. Products sweetened with maltitol are the ones behind most “sugar-free candy horror story” reviews online. Erythritol avoids that PR problem while still checking the sugar-free box.

The Cardiovascular Controversy

In 2023, a widely reported study linked high blood levels of erythritol to increased risk of heart attack and stroke, which understandably alarmed people who had been using it daily. The nuance that often got lost in the headlines is that the study measured circulating erythritol in the blood, and your body actually produces erythritol on its own. Erythritol is a byproduct of the pentose-phosphate pathway, a metabolic route that processes glucose, meaning elevated blood levels of erythritol could be a marker of metabolic stress rather than a cause of cardiovascular problems.¹⁰

Since that initial alarm, additional research has added perspective. A 2025 review examining studies on critically ill patients receiving large intravenous doses of sugar alcohols, as well as Mendelian randomization analyses (which use genetic variants to test causal relationships), found no link between sugar alcohols and significant cardiovascular risk.¹¹ The question is not fully settled, and researchers continue to study whether dietary erythritol at typical consumption levels affects clotting or vascular function. But the current weight of evidence suggests the original scare was driven more by association than by causation. If you have existing cardiovascular risk factors and are concerned, it is reasonable to discuss your sweetener choices with your doctor, but the evidence does not support panic.

Erythritol and Dogs

Pet owners who have heard that xylitol is deadly for dogs sometimes worry that erythritol poses the same threat. It does not. Xylitol triggers a massive insulin release in dogs, which can cause life-threatening drops in blood sugar and acute liver failure at doses as small as 0.15 grams per kilogram of body weight. Erythritol, by contrast, has been tested in dogs at repeated doses well above 5 grams per kilogram per day without producing adverse effects.¹² The two sugar alcohols are chemically related but behave very differently in canine metabolism. That said, just because erythritol itself is not toxic to dogs does not mean a product containing it is safe; many sugar-free treats combine erythritol with xylitol or with chocolate, both of which are dangerous. Always check the full ingredient list before sharing any human food with a pet.

How Erythritol Is Made

Despite occurring naturally in fruits and fermented foods, the erythritol in commercial products is not squeezed from grapes. It is produced through microbial fermentation, typically using yeasts or fungi that convert glucose (often derived from corn starch) into erythritol as a natural byproduct of their metabolism. These microorganisms produce erythritol as a response to osmotic stress, essentially using it as a protective molecule when their environment becomes too concentrated with sugars. The process is broadly similar to how beer or yogurt is made: feed a microorganism a sugar, collect the product it generates. After fermentation, the erythritol is purified and crystallized into the white powder you see in bags on store shelves.

Production costs remain higher than those for more intense sweeteners, which is one reason erythritol is almost always paired with stevia, monk fruit, or sucralose rather than used as a sole sweetener.⁴ Research is ongoing to improve fermentation yields and bring costs down, but for now, the economics explain why pure erythritol bags at the store tend to cost more per pound than sugar, and why blended products dominate the market.

Baking and Cooking Quirks

If you have bought a bag of erythritol to bake with at home, you have probably noticed it does not behave exactly like sugar. Erythritol dissolves well in warm liquids, but as baked goods cool, it can recrystallize on the surface, leaving a slightly gritty or crunchy coating. This is especially noticeable in cookies and brownies. Powdering erythritol in a blender before using it helps reduce (though not eliminate) this effect. Many home bakers mix erythritol with allulose, another low-calorie sugar, to get better texture: allulose stays soft and does not crystallize, compensating for erythritol’s tendency to do the opposite.

Erythritol also does not caramelize or brown the way sugar does, so baked goods made entirely with erythritol tend to come out paler. It provides no food for yeast, meaning it will not work in traditional yeast-risen bread recipes. And because it is only about 60 to 70 percent as sweet as sugar, recipes that use it as a one-to-one replacement can taste slightly less sweet than expected. Most experienced low-carb bakers add a few drops of liquid stevia or monk fruit extract to bridge that gap.

One property that works in erythritol’s favor is its cooling effect on the tongue, similar to mint but milder. In ice cream and frozen desserts, this cooling sensation blends right in. In a warm chocolate chip cookie, it can feel a little odd. Commercial food manufacturers often mask the cooling effect by combining erythritol with other ingredients that suppress it, but home bakers working with simpler recipes may notice it more.

Reading the “Net Carbs” Math

Many low-carb and keto products subtract erythritol from their total carbohydrate count to arrive at a “net carbs” figure printed on the front of the package. The logic is that since erythritol is absorbed but not metabolized for energy, it has essentially no impact on blood sugar. This is generally supported by the metabolic data showing that erythritol passes through and is excreted unchanged.⁶ However, “net carbs” is not a term regulated by the FDA, so different brands calculate it differently. Some subtract all sugar alcohols, including maltitol, which actually does raise blood sugar to a meaningful degree. If you are monitoring your blood glucose closely, pay attention to which specific sugar alcohols are being subtracted, not just the net carb number on the front of the box.

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PubMed Central. Erythritol: An In-Depth Discussion of Its Potential to Be a Beneficial Dietary Component
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PubMed Central. Erythritol as sweetener—wherefrom and whereto?
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PubMed Central. Absorption and Metabolism of the Natural Sweeteners Erythritol and Xylitol in Humans: A Dose-Ranging Study
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PubMed. Metabolism of erythritol in humans: comparison with glucose and lactitol
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PubMed Central. Gastrointestinal Disturbances Associated with the Consumption of Sugar Alcohols with Special Consideration of Xylitol: Scientific Review and Instructions for Dentists and Other Health-Care Professionals
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