Ultimate Guide to Sugar Substitutes: When to Use Them & How They Impact Our Health background image
July 28, 2023

Ultimate Guide to Sugar Substitutes: When to Use Them & How They Impact Our Health

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Key Takeaways:

  • Artificial sweeteners are cheaper to produce than regular cane sugar — which means packaged food producers are using them more often than we think. Grocery store products like yogurt, baked goods, protein bars, ice cream, soft drinks, tea, coffee creamer, and many more commonly include artificial sweeteners.
  • Why is sugar bad news? Most likely, because we’re consuming more than ever before in human history (Seriously, sugar intake has increased by around 30% in recent years). Extreme sugar intake is associated with higher inflammatory markers — increasing your chances of autoimmune disorders and gut issues.
  • When it comes to choosing the best healthy sweetener, we look to nature. All-natural sweeteners like maple syrup and honey (in moderation), are not only not toxic to the body but also contain minerals, vitamins, and antioxidants that support our health.

Have you ever eaten a spoonful of yogurt and thought, “That leaves an odd aftertaste.”

Maybe you’ve noticed the unique taste — and maybe you haven’t.

Whether your palate is sensitive to them or not, artificial sweeteners are everywhere. You may be consuming them daily without realizing.

Many of them were popularized in the 1970s and praised for their low calories and efficient production cost. Today, they are commonly discussed in a dieting context, but most people aren’t aware of how often they are used in everyday grocery store products.

If you’re not checking your ingredient labels, you are likely consuming artificial sweeteners regularly… and that’s not good news for your health.

Here’s our breakdown of artificial sweeteners: the good, the bad, and the even worse.

Table of Contents:

Is Sugar Actually Bad for You?

Just in case clever marketing and health trends have made you forget, sugar — as in glucose — is necessary for human survival. Our bodies naturally crave and depend on glucose for energy and vitality. But the method in which we consume that sugar can deeply impact our health and wellness — even down to a cellular level.

Processed sugars, for example, are absolutely unhealthy when consumed regularly.

Especially when paired with toxic oils and food additives, they may promote things like:

  • Inflammation
  • A weakened immune system
  • Gut imbalances
  • Candida overgrowth
  • Blood sugar imbalance and insulin resistance
  • High blood pressure

But what alternatives do we have to processed sugars? And are artificial sweeteners the better option?

Despite marketing as “zero calorie” or “sugar free,” artificial sweeteners aren’t the risk-free alternative they’ve been made out to be.

Different Types of Sugar: Natural, Processed, & Artificial

Thanks to heavy processing methods and artificial ingredients, our food vocabulary has expanded in recent years. Understanding the difference between natural sugar, processed sugar, and artificial sweeteners can help you make healthy food choices based on facts. 

Natural Sugar

Found in fruits, veggies, and whole grains (yep, these are all broken down into glucose in the body), natural sugar is anything that hasn’t been processed or refined. Two of our favorite natural sugars for baking or adding to your coffee include maple syrup and raw honey. If you’re craving something sweet, this is the best way to consume sugar (besides eating whole fruit).

Processed Sugar

Regular cane sugar, sugar beets, monk fruit sweetener, stevia, and agave nectar are all considered processed sugars. While they maintain more natural properties than artificial sweeteners, they still lose a lot of vital nutrients during the refinement process. Many of the vitamins, minerals, and fiber are lost — providing very little nutrients to the body.

In some cases, these sugars may drastically spike blood sugar levels, due to the loss of fiber. Cane sugar and sugar beets are great examples.

Artificial Sweeteners 

Although they are marketed as a “healthy” alternative to sugar, this couldn’t be further from the truth. Actually, artificial sweeteners are cheaper to produce, so companies can earn more profit when they’re sold. 

High fructose corn syrup, aspartame, and Splenda (some examples of artificial sweeteners) are made in a lab. They’ve already been linked to numerous medical conditions and should be avoided at all costs. Since some of them taste several times sweeter than natural sugars, they also have the ability to skew your sense of taste when it comes to sweet foods, making you crave more and more to satisfy your sweet tooth. 

What You Need to Know About Sugar Substitutes

Sugar substitutes come in a wide variety. Some are extremely bad for you (read: linked to nonalcoholic fatty liver disease, weight gain, and insulin resistance), while others seem to provide promising results to curb sugar cravings. 

We go by this rule of thumb: the more natural, the better. 

The Most Common Sugar Substitutes, Ranked

The good, the bad, and the even worse. This chart shows which sugar substitutes are worth a try and which ones should stay in the lab.

Our Ranking

Sweetener Name

What You Should Know About It

Where You’ll Find It

Risks or Benefits

Worst High Fructose Corn Syrup

Inexpensive to use in production, high fructose corn syrup has replaced sugar in numerous packaged products since its rise to popularity in the 1970s.

Artificial pancake syrup, candy, processed foods, soda, juice cocktails, ketchup, crackers, chips, canned fruit, and more.

This sugar substitute has been linked to high blood pressure, inflammation, insulin resistance, weight gain, and nonalcoholic fatty liver disease. 

Worst

Splenda

Splenda itself is made in a lab and contains chlorine. But when sold, 95% of the product’s bulk is made from fillers, like dextrose.

Chewing gum, desserts, packaged foods and beverages, gelatin, and ice cream.


Commonly used to sweeten coffee or tea.

Splenda isn’t recognized by the body (which is why it’s considered low-calorie). In studies, it’s linked to diabetes, IBS, leaky gut, and may release carcinogens when heated.

Worst Aspartame

A low-calorie sweetener, aspartame is 200 times sweeter than table sugar. For this reason, the consumption of aspartame could increase sugar cravings over time.

Aspartame is commonly found in chewing gum, packaged foods, desserts, cough drops, and yogurt. 

It’s linked to oxidative stress, cognitive dysfunction, mood swings, migraines, and cardiovascular issues. Just to name a few!

Okay

Erythritol

Erythritol is a popular artificial sweetener because it naturally occurs in the body. Research shows some risks to consuming it, however, it may have benefits for dental health. 

Chewing gum, jam, health foods, processed foods, packaged tea or soft drinks, and ice cream.

A recent study names erythritol as a high-risk sweetener associated with major cardiovascular events. However, some studies have shown erythritol to decrease incidents of dental cavities.

Okay

Stevia

A processed sweetener, stevia is made from the leaves of a South American plant.

Baked goods, health foods, soft drinks, tea, soy sauce, ice cream, and yogurt.

While stevia is a more natural sweetener option, it can cause some digestive issues for people with a sensitive gut.

Okay

Agave

Another processed sweetener, agave nectar comes from the sap of the agave plant. 

Cereal, granola, health foods, teas, gelatin, bread, and sweetened dairy products. 

Agave nectar is low on the glycemic index (meaning no blood sugar spikes). However, it’s extremely high in fructose and may cause liver problems.

Better

Coconut Sugar

Although processed, coconut sugar does maintain some of its natural properties — which is good news for health-minded bakers.

Baked goods, health foods, yogurt, ice cream, protein bars, and snacks.

Coconut sugar isn’t quite as healthy as natural options like honey and maple sugar, but it does maintain trace amounts of minerals, vitamins, and antioxidants despite processing. It’s lower on the glycemic index, too. 

Better

Monk Fruit

For centuries, monk fruit has been used as a medicinal aid — supposed to help with digestive issues. When made into a sweetener, monk fruit is around 200 times sweeter than sugar. 

Baked goods, protein bars, teas, health foods, soft drink substitutes, ice cream, and chewing gum.

While it’s new to the sugar scene, monk fruit may contain antioxidants and gut health benefits. It may also aid in weight loss and decrease inflammation.

Best

Raw Honey

One of earth’s most natural sweeteners, raw honey may be the original sweetener we consumed (and one of the best). 

Protein bars, homemade goods, tea.

Honey is naturally antimicrobial and antibacterial — which is good news if your gut is out of whack. Although it’s a true form of sugar, it doesn’t spike insulin as drastically as cane sugar and may contain antioxidant properties.

Best

Maple Sugar

Gathered from the sap of maple trees, maple sugar is a delicious sugar substitute straight from Mother Nature.

Maple sugar candy, maple syrup, tea, coffee, health foods, ice cream, yogurt, and baked goods.

Maple sugar has been harvested for thousands of years — there’s a science to it! Maple sugar with no additives contains numerous vitamins and minerals, antioxidants, and could even improve digestion.


Refining Your Palate: Which Sweetener Should You Choose?

The modern food industry is always trying to draw us toward the latest and greatest. A sugar substitute claims to be lower on the glycemic index, lower in calories, and better for digestion — and we all buy in. But after a few studies, we begin to realize the massive health risks of feeding our bodies unnatural foods.

Then another bigger and better sugar substitute comes out of the woodwork… and the cycle begins again.

It’s our belief that we should always go back to nature as our guide to food. Sweeteners that have been used for thousands of years, like raw honey and maple sugar, are not only not harmful to our bodies (in moderation), but they include benefits like antioxidants, minerals, vitamins, and so much more. Can your favorite artificial sweetener do that?

At the end of the day, tried and tested advice around sugar consumption remains the same as it has been for many years. Eat sweet things in moderation — and limit your consumption of processed foods (this will cut down a lot on your sugar consumption). When using sweeteners at home (for baked goods or coffee and tea), opt for healthier options like maple sugar or honey and in some cases, monk fruit or stevia if you have no digestive issues with them and prefer a blood sugar friendly option. 

Your Digestive Health and Sugar Consumption — What You Need to Know

Cane sugar is a traditional food — used across the globe as a sweetener for virtually everything. Why are concerns about sugar just now (as in the last decade or so) coming to light?

One of the reasons is that we’re consuming more sugar than ever before (Seriously, sugar consumption has increased 30% in the last 3 decades).

Another reason is because so many people are struggling with digestive issues and autoimmune disorders — both often driven by inflammation.

Studies show that sugar is inflammatory — and with our consumption increasing, it’s no wonder people are becoming more sensitive.

In addition to watching your sugar intake, one of the ways you can protect your gut and target systemic inflammation is by incorporating butyrate into your supplement routine.

Butyrate is a short-chain fatty acid that your microbiome naturally produces (although most people aren’t producing enough). It’s known to increase insulin sensitivity, making it easier for your body to process the occasional sweet treat. Additionally, it’s been found to reduce inflammation and gastrointestinal discomfort.

Related Articles

Ashley Palmer | 10.27.2026

Semaglutide Can Change What People Want to Eat. Here's What Your Gut Has to Do With It.

Imagine you order the meal you've loved for a decade, and a few bites in, you realize you just don't care about it. You're not full, exactly. Just uninterested.

Many people taking semaglutide (a GLP-1 medication) describe this experience. Foods that were reliable favorites suddenly seem greasy, or too sweet, or just vaguely off. Scientific American captured the strangeness: a former food writer losing interest in cooking, longtime favorites tasting wrong.

The obvious explanation is that these medications make you feel full sooner. But fullness doesn't explain why a specific curry tastes bitter now, or why a go-to wine suddenly tastes off. Something more is happening, and it points to a hormone your body has been producing your whole life.

In this article, we'll look at what the newest research suggests semaglutide does to food preferences, what GLP-1 actually does inside the body, and where your gut microbiome and a short-chain fatty acid called butyrate fit into that system.

Table of Contents:

  • Semaglutide Isn't Only Changing How Much People Eat
  • Your Gut Was Making GLP-1 Long Before Ozempic
  • Where the Microbiome Comes In
  • Can Butyrate Support Natural GLP-1 Production?
  • Why Butyrate Matters Beyond One Hormone
  • Support the System, Not Just the Signal
  • The Bigger Story Your Gut Was Already Telling

Semaglutide Isn't Only Changing How Much People Eat

Researchers are starting to document what users have been describing anecdotally.

A 2026 observational study of hospitalized Japanese patients with type 2 diabetes found that those on semaglutide showed significantly reduced preference for sweet carbohydrates, non-sweet carbohydrates, and non-sweet fats — while preferences for protein and dietary fiber stayed essentially unchanged. This wasn't a blanket loss of interest in food. It was a selective shift.

For someone focused on weight loss, eating less may be the point. Still, a reduced appetite for fats is worth paying attention to, since dietary fats supply essential fatty acids and help the body absorb fat-soluble vitamins.

Taste perception may also contribute. In a 16-week, randomized, placebo-controlled study of 30 women with obesity and PCOS, semaglutide improved overall taste recognition scores and altered brain activity in response to both food images and a sweet solution. In other words, participants' sense of taste sharpened, which may help explain why some foods suddenly seem too strong.

A 2025 study found the opposite: reduced sensitivity across all five basic tastes in people taking GLP-1 medications compared with matched non-users. That means the more accurate takeaway isn't "Ozempic makes food taste different" so much as "GLP-1 signaling reaches further into how we experience food than many researchers expected."

None of these studies settles the question on its own. But together they point somewhere useful: GLP-1 isn't only a satiety signal. It appears to play a role in how appealing food seems in the first place.

Your Gut Was Making GLP-1 Long Before Ozempic

Here's what often gets lost: GLP-1 wasn't invented by a pharmaceutical company.

GLP-1 is a hormone your intestines release on their own, produced mainly by specialized cells called enteroendocrine L-cells. These cells sit in the gut lining, acting as sensors that detect what's arriving from your meal and releasing hormones that coordinate the response.

GLP-1 helps regulate insulin release, slows how quickly the stomach empties, contributes to satiety, and carries information from the gut to the brain. GLP-1 medications didn't create a new pathway. They target one your body was already running.

But there's an important difference, and a lot of wellness marketing glosses over it. Your body's own GLP-1 is broken down within minutes of release. Semaglutide is engineered to resist that breakdown and activate GLP-1 receptors far more strongly, for far longer.

Supporting your body's own GLP-1 signaling through food or the microbiome isn't a lesser version of taking semaglutide. It's a different thing entirely.

Where the Microbiome Comes In

Your gut bacteria eat what you don't digest.

When fermentable fibers and resistant starch reach the colon, bacteria ferment them and produce short-chain fatty acids (SCFAs), mainly acetate, propionate, and butyrate. These aren't waste products. They're signaling molecules, and the cells lining your intestines are built to receive them.

Intestinal cells carry receptors, including FFAR2 (also called GPR43) and FFAR3, that detect short-chain fatty acids. When SCFAs bind these receptors on L-cells, they trigger an internal cascade that can influence the release of gut hormones, including GLP-1 and a related satiety hormone called PYY.

So the pathway is real: fiber arrives, microbes ferment it, metabolites are produced, gut cells sense them, hormones get released, and the gut communicates with the pancreas and the brain. That last link is worth sitting with — your gut and brain are in constant conversation, and food-derived microbial metabolites are part of what they're saying to each other.

The quick version of this compresses to: fiber → butyrate → GLP-1 → less hunger. The actual biology is an ecosystem with many signals, of which butyrate is one.

Can Butyrate Support Natural GLP-1 Production?

The mechanistic evidence is strong. The human evidence is thinner, but still developing.

A small 2026 study in adults with obesity found that oral sodium butyrate combined with L-arginine significantly increased circulating GLP-1. That's encouraging, but the study had only seven participants, butyrate wasn't tested on its own, and participants reported no difference in hunger or fullness.

By contrast, in a 2025 randomized controlled trial of 50 adults with obesity, people taking sodium butyrate alongside a reduced-calorie diet saw reductions in weight, BMI, and waist circumference, but their serum GLP-1 didn't change significantly.

A 2026 randomized, double-blind trial of 46 adults added more nuance. After 12 weeks of sodium butyrate plus a moderately reduced-calorie diet, participants with obesity lost a meaningful amount of weight. Participants who also had type 2 diabetes did not, although their blood sugar control improved.

That pattern echoes an earlier finding. In a 2018 study, four weeks of oral butyrate improved insulin sensitivity in lean men but not in men with metabolic syndrome.

Together, these suggest butyrate's effects depend heavily on metabolic context: who you are, what your microbiome looks like, and where the butyrate ends up. But GLP-1 is only part of the story.

Why Butyrate Matters Beyond One Hormone

Focusing only on GLP-1 undersells what butyrate does.

Butyrate is the primary fuel source for colonocytes, the cells lining your colon. Not a supporting nutrient. Their main energy supply. Those cells use butyrate to power the work of maintaining a functioning gut lining, the barrier that decides what passes from your digestive tract into your body and what doesn't.

This is where the cellular health picture comes together. A well-fueled intestinal lining supports a healthy gut barrier. A healthy barrier supports a stable environment for the microbial community living there. And that community produces metabolites that signal to the rest of the body — including the gut-to-brain communication involved in appetite and satiety.

Butyrate sits at the center of that loop as both fuel and message. That role holds regardless of what the GLP-1 research eventually concludes.

Support the System, Not Just the Signal

The takeaway isn't that you should be trying to maximize GLP-1. Your metabolism and gut function are more complex than one signal.

Lasting metabolic regulation runs on an ecosystem: microbial diversity, adequate fermentable fiber, well-nourished intestinal cells, an intact gut barrier, and steady communication between gut and brain. Semaglutide shows what happens when you push one signal in that system very hard. It doesn't show that one signal is the whole system, or the only way to modulate it.

Feeding that ecosystem starts with fiber-rich whole foods: vegetables, legumes, cooked-and-cooled potatoes and rice (good sources of resistant starch), and other plant foods your gut bacteria can thrive on. Give it time. Gut environments shift over weeks and months, not days.

For targeted support, BodyBio Butyrate provides butyrate in supplement form to support the gut lining and a healthy microbiome.*

The Bigger Story Your Gut Was Already Telling

Semaglutide has taught researchers a great deal about how strongly GLP-1 signaling can influence not just hunger but desires: what sounds good, what tastes right, and what gets left on the plate.

And yet, the more interesting revelation may be how much was already happening without it. Every meal you eat feeds a microbial community that turns fiber into signaling molecules, which intestinal cells read and translate into messages sent onward to your pancreas and your brain. That conversation has been running your entire life.

Butyrate is one voice in that conversation. It fuels the cells that hold your gut barrier together and takes part in the signaling between your microbiome and the rest of your body. Supporting butyrate production in the gut won't replicate a pharmaceutical. It doesn't need to. Feeding the system well is its own goal, and the benefits build gradually, often in small shifts that are easy to miss at first.

Support your gut at the cellular level with BodyBio Butyrate.*

*These statements have not been evaluated by the Food and Drug Administration. This product is not intended to diagnose, treat, cure, or prevent any disease.

This article is for educational purposes only and is not a substitute for medical advice. If you're taking semaglutide or another GLP-1 medication, talk with your healthcare provider before adding new supplements.

Ashley Palmer | 06.16.2026

Comprehensive Guide to Butyrate: What it is, Benefits, Side Effects, & More

Butyrate is a necessary component to a balanced microbiome, also working as an inflammation guard*. One of several, short-chain fatty acids created from fermented resistant starches, low butyrate levels have been associated with serious health concerns.

Ashley Palmer | 04.24.2026

Butyrate and IBS: What Your Gut Cells Actually Need

You've tried the probiotics. You've cleaned up your diet. You're doing everything you're supposed to do, and your gut still isn't cooperating.

If you have IBS, that frustration is familiar. Bloating, urgency, unpredictable mornings, the constant guessing game of what's going to set things off.

What often gets missed in the conversation around IBS isn't a trendy new supplement or a stricter elimination diet. It's something more foundational: what your gut's own cells actually need to function.

Here's a closer look at what butyrate does, why IBS and low butyrate levels are closely linked, and how supporting the gut at the cellular level can make a difference.

Table of Contents:

  • Understanding Butyrate

  • How Butyrate Works in the Gut

  • Why This Becomes an Issue for People With IBS

  • Supporting the Body More Effectively

  • Butyrate, IBS, and the Cellular Health Connection

  • How Butyrate Supports IBS Comfort Long-Term

Understanding Butyrate

Butyrate is a short-chain fatty acid (SCFA) produced in the colon when beneficial gut bacteria ferment dietary fiber, specifically resistant starch. It belongs to a class of compounds called postbiotics, the functional byproducts of a healthy microbiome.

Unlike probiotics, which are living bacteria, butyrate is a metabolite. It's a compound your body puts to work directly at the cellular level. Understanding the difference between probiotics and postbiotics, like butyrate, is a useful shift you can make when thinking about gut health.

Why the Body Relies on Butyrate

Your colon is lined with specialized cells called colonocytes. These cells run almost entirely on butyrate, providing up to 90% of their energy needs.

When colonocytes have what they need, they do their job well. They maintain the integrity of the gut lining, regulate what passes into the bloodstream, support a healthy inflammatory response, and help keep gut motility on track. Without enough butyrate, the gut’s main source of energy, the gut simply can't do its job well.

How Butyrate Works in the Gut

Butyrate supports three interconnected systems in the gut: the gut lining, the immune environment, and gut motility.

The gut lining is just one cell layer thick. Butyrate fuels those cells and supports the tight junctions between them, the structural connections that keep the barrier intact and functioning.

At the immune level, butyrate helps the body maintain a balanced inflammatory response in the colon without triggering overactivation. And because it directly influences the rhythmic contractions that move contents through the digestive tract, it plays a meaningful role in the irregular patterns that so many people with IBS experience.

What Happens When Butyrate Levels Are Supported vs. Strained

When butyrate is available in adequate amounts, the gut lining stays resilient, motility is more regular, and digestive comfort improves, whether you have a diagnosis of IBS or not.

If butyrate levels fall short, the gut barrier may become less stable, motility can become unpredictable, and the colon's immune environment may shift. How pronounced these patterns are varies from person to person. Diet, stress, genetics, and microbiome composition all play a role in your body’s patterns too.

Why This Becomes an Issue for People With IBS

Modern Stressors on Butyrate Production

Butyrate is made by gut bacteria that ferment resistant starch, a type of fiber found in foods like cooked and cooled potatoes, legumes, and underripe bananas. The modern diet is low in these foods. That means many people simply aren't giving their gut bacteria the raw materials they need to produce adequate butyrate levels.

Antibiotic use, chronic stress, and certain medications can also reduce the population of butyrate-producing bacteria in the colon. Over time, that compounds the butyrate production gap.

Why Common Approaches Often Fall Short

Probiotics can be a valuable part of gut health support, but most probiotic strains are not butyrate-producing species. They can shift the microbiome, but they don't directly address the fuel shortage that many IBS-related symptoms may stem from.

Fiber-based approaches come with a similar challenge. In some people with IBS, increasing fermentable fiber can worsen bloating and gas before it helps, because a disrupted microbiome may not efficiently use that fiber to make butyrate.

Since butyrate works at the cellular level, the signs of low butyrate can overlap common IBS symptoms, which is part of why the connection between the two gets overlooked.

Supporting the Body More Effectively

Foundational Support for Butyrate Production

Diet is the first step to improving the body's natural butyrate production. Foods high in resistant starch give butyrate-producing bacteria what they need to function properly.

Foods that naturally support butyrate production include cooked and cooled rice, potatoes, and legumes. A steady intake of resistant starch over time does more for the microbiome than occasional high-fiber days followed by low-fiber ones.

Stress management and adequate sleep can also support a more stable gut environment. Chronic stress directly affects microbiome composition and motility through the gut-brain axis. 

When Targeted Butyrate Support Makes Sense

For people whose microbiome is disrupted or whose diet can't consistently provide enough resistant starch, direct butyrate supplementation is another option for long-term support.*

Supplemental butyrate delivers the short-chain fatty acid directly to the colon, where colonocytes can put it to use.* Clinical research has shown that sodium butyrate supplementation is associated with improvements in abdominal comfort and bowel regularity in people with IBS.

Sodium butyrate and calcium magnesium butyrate are both effective options, and the differences between which works best for your body often come down to your individual health history and mineral needs.*

Butyrate, IBS, and the Cellular Health Connection

IBS is complex, and its causes vary from person to person. But one consistent finding in the research is that people with IBS tend to have lower levels of butyrate-producing bacteria and overall reduced short-chain fatty acids in the gut. That points to a cellular resource problem as much as a microbiome problem.

When the cells lining the colon are undersupported, the entire digestive environment becomes less stable. Gut barrier function, motility, immune signaling, and communication along the gut-brain axis all depend on colonocytes having what they need to function.

Supporting the gut at the cellular level is not a replacement for other gut health practices (whole food probiotics, exercise, etc.). It’s the foundation that makes those practices more effective. When your cells are supported, the body functions more efficiently as a whole.

How Butyrate Supports IBS Comfort Long-Term

IBS can feel like a moving target, and the path toward better digestive comfort is rarely a straight line or a quick fix. Supporting your gut at the cellular level creates a more stable foundation, and that starts with making sure colonocytes have the fuel they need.*

Butyrate works best as part of a consistent approach that includes diet, lifestyle, and targeted support where needed. Progress tends to be gradual, and that's expected. It reflects the time it takes for the gut lining to strengthen and the microbiome to rebalance.

IBS makes a lot more sense when you know what the gut's cells actually need. And that clarity is often where real progress begins.

Support your gut at the cellular level with BodyBio Butyrate.*