According to the U.S. Centers for Disease Control and Prevention (CDC), cardiovascular disease is now the leading cause of death among Americans. In fact, it’s so widespread that treatment for it accounted for $417.9 billion in health care costs from 2020 to 2021 alone.¹

I published a landmark paper in the World Journal of Cardiology. In it, I call for nothing less than a paradigm shift in how we approach heart disease — moving away from patchwork fixes and toward restoring cellular health at its root. The World Journal of Cardiology is an internationally recognized, peer-reviewed journal that publishes cutting-edge cardiovascular research.

My paper challenges the current standard of care and outlines a new framework centered on cellular health, a direction few in mainstream cardiology are taking. This work lays the scientific foundation for practical solutions you can apply today.

Mainstream methods to treat heart disease — such as percutaneous coronary intervention (PCI), which is angioplasty with stenting, and pharmaceutical drugs — are widely used today. But although they are effective, the problem is that they do not address the root causes of heart disease, such as endothelial dysfunction and inflammation.

In the next sections, I’ve summarized the pertinent points of my research. You can also read it in its entirety by simply clicking below.²

>>>>> Click Here <<<<<

Restoring Blood Flow Isn’t Enough

PCI and coronary artery bypass grafting (CABG) have long been promoted as the cornerstone of treatment for heart disease, especially during emergencies. These procedures are designed to reopen or bypass blocked arteries, restoring blood flow and easing chest pain. But as I detail in my paper, while these interventions save lives in acute situations, they don’t stop the disease itself, leaving you exposed to future heart problems.

Drugs Lower Cholesterol, but Everything Else Stays the Same

Statins are widely considered as a cornerstone of cardiovascular disease management because they lower low-density lipoprotein (LDL) cholesterol, the type often labeled “bad cholesterol.” The thinking has been generally straightforward — reduce LDL cholesterol and you reduce heart attack risk.

In certain patients, particularly those with prior heart disease, statins do lower event rates. But lower cholesterol levels do not automatically mean the root cause of heart disease has been solved.

The takeaway for you is straightforward — statins provide a degree of relief, but they don’t resolve the problem. They simply shift your numbers and don’t rebuild your vessel health or address the oxidative damage that sparks new blockages. The underlying processes that inflame and damage your arteries continue at the same pace unless you make other changes to your lifestyle.

Linoleic Acid Contributes to Heart Disease

Going deeper into the root causes, I believe that excess intake of linoleic acid (LA) from vegetable oils is one of the biggest contributing factors to heart disease.

Minimizing Vegetable Oil Intake Attenuates Heart Disease Risk

The risk of high LA intake on your health has long been documented. For example, a 1965 paper I reviewed in my study noted that patients who were given 19 teaspoons of corn oil a day had a significant increase in heart disease risk compared to control groups.⁵ In light of this information, minimizing LA intake is a viable way of addressing heart disease by way of tackling inflammation.

• Cutting LA intake has measurable cardiovascular benefits — In the table below, I show the results of a 12-week study when participants reduced their LA intake to less than 5 grams per day.

• The numbers don’t lie — These reductions are statistically significant. In essence, restricting LA intake positively affects low-grade vascular inflammation, even if weight loss or a calorie deficit hasn’t been implemented.

• LA takes years to clear up — LA has a half-life of two years. This means that even if you follow a low-LA diet for an entire year, you’ll only be removing about 30% of prior accumulation. Nonetheless, health benefits can be expected even before other interventions are implemented.

• Sources of LA — The most apparent source of LA is industrialized vegetable oils, such as soybean, corn, and safflower oils. However, less obvious sources include conventionally raised poultry and pork because of their feed, which is high in LA.

The message from the research is clear — lowering LA to less than 5 grams of your daily calories lowers inflammation, resulting in better heart health. This doesn’t require complicated strategies. Just remove vegetable oils from your diet, avoid fried and ultraprocessed foods, and choose grass fed animal fats. Each of these strategies lowers your residual risk of heart disease and helps restore your vascular health.

Exploring Novel Methods That Address Heart Disease

With the issues of PCI and CABG now known to the public, scientists are exploring other approaches like chelation therapy and nanoparticle delivery systems to directly attack hardened, calcified plaques inside the arteries that go beyond symptom relief and reverse structural damage that fuels heart disease. Below, I’ll go over different interventions that I outline in my study:

The Road to Better Heart Health

I encourage you to read my paper, which you can access by clicking the link at the beginning of this article. If you find the medical jargon overwhelming, I’ve also uploaded a simplified version of my research, which you can download below. There, I summarize all the benefits and drawbacks of the different treatment approaches.

>>>>> Click Here <<<<<

Based on the research I’ve gathered, heart disease will likely claim 25 million lives throughout 2025 despite the numerous advances in therapies and surgeries available. Thus, it makes more sense to focus on prevention rather than acute treatment when heart disease rears its ugly head.

Frequently Asked Questions (FAQs) About Heart Disease Treatments

More than 7 million Americans are now living with Alzheimer’s disease, a condition characterized by progressive memory loss, confusion, and changes in behavior that worsen over time. Alzheimer’s is the most common form of dementia, and according to researchers, this number will reach 13 million by 2050, creating an enormous medical and social burden.¹

However, emerging research provides a revolutionary shift in the early detection of Alzheimer’s — according to the studies, a simple eye exam might be able to provide the first visible evidence of this disease, long before traditional symptoms appear. This opens the door to a safer and more accessible screening method, as well as gives hope in better management of the condition.

The Blood Vessels in Your Retina May Reveal Alzheimer’s Risk

A 2025 animal study published in Alzheimer’s & Dementia journal explored if changes in the eye’s blood vessels could act as early warning signs of Alzheimer’s disease, allowing routine eye exams to reveal this disease years before symptoms set in.²

Conducted by researchers at the Jackson Laboratory (JAX), the research focused on the retina, the light-sensitive layer of tissue at the back of your eye, to determine if abnormal blood vessel patterns in the eye could serve as a clear biomarker for brain changes linked to dementia.³

“Most people over 50 have some kind of vision impairment and get checked annually for prescription changes,” Alaina Reagan, a neuroscientist and one of the study authors, explained. “Are they more at risk if they have these vascular changes, and is that a point when doctors could start mitigating brain changes? That could be 20 years before cognitive damage becomes noticeable to patients and their families.”

This research transforms routine eye care into a powerful tool to protect your brain health. Having an early warning system built into something you’re already doing opens up a pathway to earlier treatment — and better outcomes become far more realistic.

Genetics Shape How Your Eyes Age and Reveal Brain Health Risks

The researchers of the featured study have also conducted previous research on how genetic differences affect the way eyes age and how those changes connect to brain health. Their findings, published in Molecular Neurodegeneration earlier this year, investigated whether the retina could show signs of aging that mirror what happens in the brain. Their goal was to determine if specific genetic backgrounds create distinct retinal changes that could predict neurological decline.^7,8

Visual Sensitivity Loss Can Signal Alzheimer’s Risk Years Ahead

These studies from the JAX team are not the first to look at the connection between eye health and dementia risk. In 2024, researchers from Loughborough University in the U.K. released a study on how vision testing could reveal Alzheimer’s risk — as early as 12 years before diagnosis.

The study, which was published in the Scientific Reports journal, focused on whether reduced visual sensitivity — the ability to detect fine details, contrast, or subtle changes in the environment — could act as a long-term predictor of dementia. Instead of relying only on brain scans or memory tests, the researchers suggested that eye-based assessments could be paired with standard psychological tests to strengthen early detection.¹⁰

Practical Steps to Protect Your Eyes and Brain from Alzheimer’s

If you are worried about Alzheimer’s, the most important thing to understand is that the root cause of the damage is not memory loss itself — it starts years earlier with broken-down energy systems in your cells, blocked protein clearance, and weakened blood vessels in both the brain and the eyes. When you address these causes head-on, you give yourself a fighting chance to slow down or even prevent the decline. That’s why what you do today matters. Here are five steps I recommend you start putting into practice.

Frequently Asked Questions (FAQs) About Eye Exams and Alzheimer’s Detection

The breakthrough is a family of approaches that scientists call targeted delivery. Instead of dropping a raw compound into your digestive tract and hoping for the best, targeted delivery wraps that compound in a carrier engineered to survive the journey and release its cargo where it counts. If the old way was tossing a letter into a river and praying it floats to the right house, targeted delivery is hand-couriering it to the doorstep and getting a signature.

Let me walk you through how it actually works, because once you understand the mechanics, the marketing language on modern supplement labels stops being mysterious and starts being meaningful.

Lipid Nanoparticles — Borrowed from the Frontier of Medicine

You have very likely benefited from lipid nanoparticle technology already, perhaps without knowing it. It is the same broad class of delivery system that made several of the most important medicines of recent years possible. The fact that this technology has now matured enough to apply to everyday nutrition is, to me, one of the most exciting developments in the field.

A lipid nanoparticle is a microscopic sphere built from fat-like molecules that encloses an active compound inside it. Two things make this powerful. First, because the carrier is itself fat-soluble, it can ferry fat-loving compounds that would otherwise refuse to dissolve in the watery gut. Second, because the particle is vanishingly small, it slips across the intestinal barrier far more readily than a raw compound could on its own.

According to research compiled on PubMed, nanocarriers including liposomes, solid lipid nanoparticles, and related systems have been shown to improve the oral bioavailability of notoriously hard-to-absorb compounds in several ways at once: protecting them from degradation in the gut, increasing their effective solubility, and reducing the fraction lost to first-pass metabolism in the gut wall and liver. The compound arrives intact because it traveled first-class instead of swimming the river alone.

Liposomes — The Bubble That Protects Its Cargo

A liposome is a specific and well-studied form of this idea: a tiny bubble whose wall is made of the same kind of material that forms your own cell membranes. Because the liposome's outer shell is so similar to the membranes of your cells, it is both gentle on the body and remarkably good at merging with cells to deliver its contents.

Reviews of vesicular delivery systems in the scientific literature describe consistent improvements in the stability and bioavailability of difficult compounds when they are carried inside liposomes and related vesicles. Compounds that were previously dismissed as too poorly absorbed to be useful become viable when they are protected and delivered this way. The vesicle takes the hits of digestion so the cargo does not have to.

Microencapsulation — A Shield That Opens on Cue

The third major technology, microencapsulation, solves a slightly different problem. It surrounds an active compound in a protective shell that shields it from stomach acid and then releases it at the right point further along the digestive tract. Think of it as a bodyguard that absorbs every blow during the dangerous part of the journey, then steps aside to let the cargo out exactly where it is supposed to act.

This is especially important for compounds that are destroyed early in digestion, or that need to act in a specific location rather than being absorbed high in the gut. Without protection, only a tiny fraction of such a compound typically survives to reach its target. With an enteric coating or microencapsulation, a far greater share arrives intact and on target. The location of release becomes something you can engineer rather than leave to chance.

Why Particle Size Is the Whole Game

The thread connecting all of these technologies is size. When a compound is milled down or formulated at the nanoscale and protected by an appropriate carrier, several things change at once. Its surface area increases dramatically, which improves how readily it dissolves. Its ability to cross biological barriers improves. And its vulnerability to being lost in transit drops.

The same molecule that passed through you untouched in a conventional tablet can become highly absorbable when it is delivered at the right size, in the right carrier, released in the right place. Nothing about the molecule itself changed. Everything about its delivery did. That is the lever, and it is a far more powerful one than simply increasing the dose.

What the Transformation Actually Looks Like

It helps to make this concrete. Consider what happens to the kinds of compounds I described in the first article — the ones that perform so poorly in conventional form.

A fat-soluble plant compound that clumps and passes through largely unabsorbed in a standard capsule behaves completely differently when it is reduced to nanoscale particles and carried in a lipid vehicle. Now it disperses readily, slips across the gut wall, and arrives in circulation in a meaningful amount. The compound did not change. Its delivery did, and that changes its ability to produce real-world effects.

A compound that needs to act in the lower gut but is normally absorbed and lost high in the digestive tract behaves completely differently when it is microencapsulated. The protective shell carries it past the early absorption zone and releases it where it is supposed to work. A molecule that was effectively wasted becomes a molecule that does its job.

This is the recurring story across the delivery literature, and it is why I find the field so compelling. We are repeatedly discovering that compounds dismissed as "not very effective" were never given a fair chance. They were effective all along; they simply never arrived. Fix the arrival, and the effectiveness was waiting there the whole time.

Where This Technology Is Heading

The trajectory here matters. Delivery science is not standing still — it is advancing rapidly, much of it driven by decades of investment in pharmaceutical delivery that is now flowing into nutrition. The same precision that lets modern medicine target where and when a compound is released is increasingly available for the compounds nature already gave us.

What this means in practice is that the gap between conventional supplements and well-delivered ones is widening, not narrowing. The products built around delivery are getting better, while the products built around brute-force dosing are staying exactly where they have always been. For consumers willing to look past the milligram count, this is a genuinely exciting moment — the difference between the two approaches has never been larger.

In practice, the most sophisticated formulations combine these approaches. A compound might be reduced to nanoscale particle size for solubility, enclosed in a lipid carrier for transport across the gut wall, and given a protective coating so it is released in the right location. Each layer addresses a different leak in the pipe. Together, they can transform a compound's real-world performance. Here is how the old approach and the new approach compare, step by step:

Which Technology for Which Job

These approaches are not interchangeable, and the best formulators choose among them based on what a particular compound needs. Understanding the differences helps you read a label with a more informed eye.

Lipid nanoparticles and liposomes shine when the central problems are solubility and crossing the gut wall. For fat-loving compounds that refuse to dissolve and struggle to be absorbed, enclosing them in a lipid carrier addresses both problems at once. This is the right tool for many plant compounds and fat-soluble nutrients.

Microencapsulation shines when the central problems are survival and location targeting — when a compound is destroyed early in digestion, or needs to be released at a specific point further along the tract rather than absorbed immediately. The protective shell is what makes targeted release possible.

Nanoscale particle sizing is often combined with the others rather than used alone. Reducing particle size increases surface area and solubility, which improves the performance of nearly any delivery approach it is paired with.

In the most sophisticated products, these are layered together — nanoscale sizing for solubility, a lipid carrier for transport, and a protective coating for targeted release. Each layer plugs a different leak in the delivery pipe described in the first article.

How to Read an 'Advanced Delivery' Claim

Because these terms carry real meaning, they have also attracted marketing that uses them loosely. A few questions help separate substance from decoration:

This is the heart of what I have been calling 22nd Century supplements: products designed from the delivery system outward, so that what is printed on the label more closely matches what reaches your cells. We are not inventing new vitamins. We are taking the compounds nature already gave us and finally delivering them the way the body can actually use.

In the next article, I will show you the first place we chose to prove all of this — a molecule whose benefits are deeply documented but which conventional supplements almost entirely fail to deliver. The choice, once you see it, is obvious.

Ask Pax About Your Stack

Open your Pax app and ask: "Based on my labs and goals, which nutrients should I be prioritizing — and for each one, what delivery format gives me the best absorption?" Pax translates the science in this article into guidance built around your specific biology, not a generic recommendation. That is exactly what it was made to do.

>>>>> Click Here <<<<<

FAQ

Test Your Knowledge with Today's Quiz!

Take today’s quiz to see how much you’ve learned from yesterday’s Mercola.com article.

The breakthrough is a family of approaches that scientists call targeted delivery. Instead of dropping a raw compound into your digestive tract and hoping for the best, targeted delivery wraps that compound in a carrier engineered to survive the journey and release its cargo where it counts. If the old way was tossing a letter into a river and praying it floats to the right house, targeted delivery is hand-couriering it to the doorstep and getting a signature.

Let me walk you through how it actually works, because once you understand the mechanics, the marketing language on modern supplement labels stops being mysterious and starts being meaningful.

Lipid Nanoparticles — Borrowed from the Frontier of Medicine

You have very likely benefited from lipid nanoparticle technology already, perhaps without knowing it. It is the same broad class of delivery system that made several of the most important medicines of recent years possible. The fact that this technology has now matured enough to apply to everyday nutrition is, to me, one of the most exciting developments in the field.

A lipid nanoparticle is a microscopic sphere built from fat-like molecules that encloses an active compound inside it. Two things make this powerful. First, because the carrier is itself fat-soluble, it can ferry fat-loving compounds that would otherwise refuse to dissolve in the watery gut. Second, because the particle is vanishingly small, it slips across the intestinal barrier far more readily than a raw compound could on its own.

According to research compiled on PubMed, nanocarriers including liposomes, solid lipid nanoparticles, and related systems have been shown to improve the oral bioavailability of notoriously hard-to-absorb compounds in several ways at once: protecting them from degradation in the gut, increasing their effective solubility, and reducing the fraction lost to first-pass metabolism in the gut wall and liver. The compound arrives intact because it traveled first-class instead of swimming the river alone.

Liposomes — The Bubble That Protects Its Cargo

A liposome is a specific and well-studied form of this idea: a tiny bubble whose wall is made of the same kind of material that forms your own cell membranes. Because the liposome's outer shell is so similar to the membranes of your cells, it is both gentle on the body and remarkably good at merging with cells to deliver its contents.

Reviews of vesicular delivery systems in the scientific literature describe consistent improvements in the stability and bioavailability of difficult compounds when they are carried inside liposomes and related vesicles. Compounds that were previously dismissed as too poorly absorbed to be useful become viable when they are protected and delivered this way. The vesicle takes the hits of digestion so the cargo does not have to.

Microencapsulation — A Shield That Opens on Cue

The third major technology, microencapsulation, solves a slightly different problem. It surrounds an active compound in a protective shell that shields it from stomach acid and then releases it at the right point further along the digestive tract. Think of it as a bodyguard that absorbs every blow during the dangerous part of the journey, then steps aside to let the cargo out exactly where it is supposed to act.

This is especially important for compounds that are destroyed early in digestion, or that need to act in a specific location rather than being absorbed high in the gut. Without protection, only a tiny fraction of such a compound typically survives to reach its target. With an enteric coating or microencapsulation, a far greater share arrives intact and on target. The location of release becomes something you can engineer rather than leave to chance.

Why Particle Size Is the Whole Game

The thread connecting all of these technologies is size. When a compound is milled down or formulated at the nanoscale and protected by an appropriate carrier, several things change at once. Its surface area increases dramatically, which improves how readily it dissolves. Its ability to cross biological barriers improves. And its vulnerability to being lost in transit drops.

The same molecule that passed through you untouched in a conventional tablet can become highly absorbable when it is delivered at the right size, in the right carrier, released in the right place. Nothing about the molecule itself changed. Everything about its delivery did. That is the lever, and it is a far more powerful one than simply increasing the dose.

What the Transformation Actually Looks Like

It helps to make this concrete. Consider what happens to the kinds of compounds I described in the first article — the ones that perform so poorly in conventional form.

A fat-soluble plant compound that clumps and passes through largely unabsorbed in a standard capsule behaves completely differently when it is reduced to nanoscale particles and carried in a lipid vehicle. Now it disperses readily, slips across the gut wall, and arrives in circulation in a meaningful amount. The compound did not change. Its delivery did, and that changes its ability to produce real-world effects.

A compound that needs to act in the lower gut but is normally absorbed and lost high in the digestive tract behaves completely differently when it is microencapsulated. The protective shell carries it past the early absorption zone and releases it where it is supposed to work. A molecule that was effectively wasted becomes a molecule that does its job.

This is the recurring story across the delivery literature, and it is why I find the field so compelling. We are repeatedly discovering that compounds dismissed as "not very effective" were never given a fair chance. They were effective all along; they simply never arrived. Fix the arrival, and the effectiveness was waiting there the whole time.

Where This Technology Is Heading

The trajectory here matters. Delivery science is not standing still — it is advancing rapidly, much of it driven by decades of investment in pharmaceutical delivery that is now flowing into nutrition. The same precision that lets modern medicine target where and when a compound is released is increasingly available for the compounds nature already gave us.

What this means in practice is that the gap between conventional supplements and well-delivered ones is widening, not narrowing. The products built around delivery are getting better, while the products built around brute-force dosing are staying exactly where they have always been. For consumers willing to look past the milligram count, this is a genuinely exciting moment — the difference between the two approaches has never been larger.

In practice, the most sophisticated formulations combine these approaches. A compound might be reduced to nanoscale particle size for solubility, enclosed in a lipid carrier for transport across the gut wall, and given a protective coating so it is released in the right location. Each layer addresses a different leak in the pipe. Together, they can transform a compound's real-world performance. Here is how the old approach and the new approach compare, step by step:

Which Technology for Which Job

These approaches are not interchangeable, and the best formulators choose among them based on what a particular compound needs. Understanding the differences helps you read a label with a more informed eye.

Lipid nanoparticles and liposomes shine when the central problems are solubility and crossing the gut wall. For fat-loving compounds that refuse to dissolve and struggle to be absorbed, enclosing them in a lipid carrier addresses both problems at once. This is the right tool for many plant compounds and fat-soluble nutrients.

Microencapsulation shines when the central problems are survival and location targeting — when a compound is destroyed early in digestion, or needs to be released at a specific point further along the tract rather than absorbed immediately. The protective shell is what makes targeted release possible.

Nanoscale particle sizing is often combined with the others rather than used alone. Reducing particle size increases surface area and solubility, which improves the performance of nearly any delivery approach it is paired with.

In the most sophisticated products, these are layered together — nanoscale sizing for solubility, a lipid carrier for transport, and a protective coating for targeted release. Each layer plugs a different leak in the delivery pipe described in the first article.

How to Read an 'Advanced Delivery' Claim

Because these terms carry real meaning, they have also attracted marketing that uses them loosely. A few questions help separate substance from decoration:

This is the heart of what I have been calling 22nd Century supplements: products designed from the delivery system outward, so that what is printed on the label more closely matches what reaches your cells. We are not inventing new vitamins. We are taking the compounds nature already gave us and finally delivering them the way the body can actually use.

In the next article, I will show you the first place we chose to prove all of this — a molecule whose benefits are deeply documented but which conventional supplements almost entirely fail to deliver. The choice, once you see it, is obvious.

Pax Connects the Science to Your Biology

Targeted delivery only matters once you know what you actually need. That's where Pax comes in. Our 22nd Century AI health coach reviews your at-home lab results and goals, identifies the nutrients most relevant to your situation, and — for each one — points you to the delivery format the science supports. Start free today. Open Pax here → pwa.paxhealthcoach.com

>>>>> Click Here <<<<<

FAQ

Test Your Knowledge with Today's Quiz!

Take today’s quiz to see how much you’ve learned from yesterday’s Mercola.com article.

Type 2 diabetes affects nearly 35 million Americans and more than 450 million people worldwide,¹ and the numbers are still climbing. Behind these figures are individuals navigating the daily challenge of controlling their blood sugar.

For decades, experts believed that pairing metformin, the most widely prescribed diabetes medication, with exercise was beneficial.² This recommendation, reinforced by clinical guidelines since 2006, is grounded in the idea that exercise improves glucose control and cardiovascular health, while metformin helps regulate blood sugar levels.³

Now, researchers are questioning whether this long-standing combination truly delivers on its promise, and emerging evidence suggests the answer may not be as straightforward as once thought.

Study Challenges Beliefs About a Popular Diabetes Drug

A 2025 study conducted by researchers from Rutgers University, published in The Journal of Clinical Endocrinology and Metabolism, examined how metformin interacts with exercise. In their clinical trial, the researchers found that metformin may actually blunt or weaken the improvements typically gained from exercise,⁴ including improved blood vessel function, aerobic fitness, and blood sugar control.⁵

Facts About Metformin

Metformin is an oral antidiabetic medication from the biguanide class, and was approved for use by the U.S. Food and Drug Administration (FDA) in 1994. It lowers blood sugar without prompting the pancreas to produce more insulin, making it a safer alternative to older diabetes drugs that can cause hypoglycemia.¹²

Metformin May Not Be as Harmless as You Think

Metformin is commonly prescribed for blood sugar management and is often compared with newer options such as GLP-1 injections. However, like most pharmaceutical solutions, it comes with certain risks. Long-term use can lead to adverse effects, including:

What Increases Your Risk of Diabetes?

While obesity, genetics, and an unhealthy diet composed of ultraprocessed foods are major factors that increase your chances of developing diabetes, there's an interesting twist — Avoiding certain habits can also raise your risk. These aren't the usual suspects, but they play a surprisingly important role in how your body handles blood sugar.

Your HOMA-IR Score Helps You Identify Insulin Resistance Early

If metformin causes side effects and might reduce exercise benefits, ask yourself, "Do I really need it?" Before choosing medication, assessing your body's response to insulin and risk of insulin resistance is helpful. One easy way to gauge this is with the HOMA-IR test, which stands for Homeostatic Model Assessment of Insulin Resistance.

Doctors frequently prescribe metformin as the initial treatment for insulin resistance, but HOMA-IR provides a more innovative method. It assists you and your healthcare provider in determining whether medication is genuinely necessary or if lifestyle modifications can suffice.

If you want to read more about HOMA-IR and insulin resistance, check out "Are Mood Disorders Actually Metabolic Diseases Rooted in Insulin Resistance?"

Tips for Drug-Free Diabetes Management

Lifestyle changes such as diet and exercise have been shown to prevent Type 2 diabetes more effectively than metformin alone. Studies confirm that weight loss, regular physical activity, and balanced eating significantly improve insulin sensitivity and glycemic control.²⁹ Beyond the basics, here are practical strategies that can help you take charge of your blood sugar naturally:

Frequently Asked Questions (FAQs) About Metformin and Diabetes Management

Dry eye disease affects a large share of adults worldwide and an even greater proportion of older populations. Cataract surgery, despite its reputation for restoring crisp vision, frequently leaves patients with burning, gritty, watery eyes that struggle with reading, screens, and bright light. For a meaningful portion of patients, that discomfort lingers for months.

Standard care typically relies on lubricating drops, steroids, and anti-inflammatory medications. These add moisture but do little to repair the damaged ocular surface driving the irritation in the first place. That's where Manuka honey appears to behave differently.

Rather than simply wetting the eye, it seems to address the underlying problem, calming inflammation, supporting tissue repair, and protecting vulnerable tissue from microbial stress all at once. The Spanish trial put that idea to a direct test, and the results were notable enough to help explain why this old folk remedy is suddenly drawing serious scientific attention.

Natural Eye Relief Showed Stronger Results Than Standard Drops in This Study

Cataract surgery temporarily disrupts the eye's surface barrier, leaving tissue more vulnerable to irritation and microbial stress. Manuka honey has long been used in wound care because it blocks the growth of harmful microbes while supporting tissue regeneration. Published in Frontiers in Ophthalmology, the 2026 study followed 53 adults recovering from cataract surgery.

Researchers compared two groups: one used Manuka honey eye drops, while the other used standard sodium hyaluronate artificial tears.² Every participant used their assigned drops four times daily for one month after surgery alongside standard postoperative medications. The researchers tracked symptom severity, redness, tear stability, and visual function at multiple time points to see which intervention provided stronger relief.

Calm the Inflammation That Dries Out Your Eyes

Dry eye after cataract surgery starts when the eye's surface becomes inflamed and unstable. Your tears evaporate too quickly, tiny nerve endings become exposed, and your eyes stay trapped in a cycle of burning, redness, and blurry vision. The goal is not simply adding moisture; it's calming the irritation damaging the surface of the eye while supporting repair of the tear film itself.

That's exactly why the Manuka honey study stood out — it addressed inflammation, tissue healing, and microbial stress all at once.

*These findings are primarily from a small clinical study conducted in a postoperative setting. Results may not apply to all individuals or clinical situations.

This article is for informational purposes only and does not constitute medical advice. Consult a qualified healthcare provider before making changes to your health regimen.

FAQs About Manuka Honey Eye Drops

Test Your Knowledge with Today's Quiz!

Take today’s quiz to see how much you’ve learned from yesterday’s Mercola.com article.

By 2050, the United Nations projects that one in four people worldwide will be over 65, bringing age-related health concerns into sharper focus.¹ As you enter these later decades, subtle shifts in your body’s rhythms emerge, and among them, changes in liver health often develop quietly, influencing how you feel from day to day. More than 100 million Americans already live with some form of liver disease, many unaware until it has reached an advanced stage.²

Over a lifetime, years of filtering, processing, and adapting to daily demands gradually diminish your liver’s efficiency, making it more susceptible to stress and injury. This gradual slowdown often manifests as lingering fatigue, digestive changes, or an overall decline in vitality that is easy to attribute to age alone.

Even so, the liver’s capacity for renewal remains one of its most powerful qualities, and that resilience is nurtured at any stage of life. Because much of its decline is shaped by factors within your control, you have a clear opportunity to protect and strengthen it, so it continues to function with the efficiency that has supported your health for so long.

The Important Functions Your Liver Performs Daily

Your liver is one of the largest organs in the body and performs more than 500 vital functions, many of which take place simultaneously.³ Everything you eat, drink, breathe, and absorb through your skin eventually passes through this organ for evaluation and processing. Without its continuous work, your body’s internal balance, from metabolism to immunity, would unravel in a matter of days.

The liver regrows lost tissue, restoring its size and function even after significant injury. This regeneration involves the proliferation of hepatocytes, bile duct cells, and supporting structures, and is fueled by growth factors and cytokines. However, with advancing age or ongoing assault from toxins, infections, or fat buildup, this capacity slows and scar tissue accumulates, reducing function.

Who’s at Risk and Why Most Don’t Know Until It’s Advanced

According to a paper published in The Lancet Regional Health Europe, liver disease often develops quietly over the years. In its earliest stages, when cells are beginning to sustain damage and fibrous tissue starts to replace healthy ones, there are usually no clear symptoms.

The liver’s ability to adapt and compensate masks the injury until a substantial portion of its function is lost. By the time fatigue, abdominal discomfort, or swelling appear, the condition has often reached a more advanced stage.¹⁷

Early detection matters. With the right screening methods and attention to risk factors, liver damage can be identified and addressed before it progresses to irreversible stages. Learn more about this in “Rising Liver Disease Cases Demand Immediate Attention, Experts Warn.”

Dietary Strategies to Protect Your Liver Health

The foods you eat either lighten or add to your liver’s workload. Consider adopting the strategies below to target the most common dietary stressors while supplying the building blocks your liver needs to recover and thrive well into old age.

6 Lifestyle Habits That Keep Your Liver Resilient

As you get older, your liver becomes more vulnerable to the wear and tear of daily life. Your lifestyle habits become more important to support its ability to recover. The small, consistent choices you make each day help slow or even reverse metabolic strain, inflammation, and fat buildup, keeping your liver in a healthy state.²⁶

Liver-Supporting Supplements to Add Into Your Routine

While supplements should never replace the foundation of nutrient-dense food, consistent sleep, movement, and low toxic load, certain compounds give your liver added support, especially when stress, aging, or limited intake create nutrient gaps. These include:

By combining evidence-based supplementation with the other lifestyle and dietary strategies above, you give your liver the tools to maintain resilience, accelerate repair, and sustain its metabolic efficiency as you age.

Frequently Asked Questions (FAQs) About Liver Health

For years I've been warning about one of the most dangerous shifts in the modern food supply — one that nearly everyone is still overlooking. It's not sugar. It's not healthy carbs. It's a polyunsaturated fat called linoleic acid, or LA, that's hiding in nearly every packaged product, fried dish, and restaurant meal you eat. And unlike other nutrients, this one doesn't leave your body easily. Once it gets in, it stays, silently damaging your mitochondria, fueling inflammation, and breaking your metabolism from the inside out.

You might think you're eating right, but if your health has plateaued despite your best efforts, LA is likely still finding its way in. And because it embeds into your fat tissue and cell membranes for years, the effects are both long-term and far-reaching. Most people have never heard of LA, and even fewer understand how it disrupts cellular energy production. But once you see the evidence, and how it affects your ability to heal, lose weight, think clearly, and stay resilient, you won't look at your food the same way again.

That's why I want to walk you through the data, starting with the video above, narrated by Anthony Gustin, former functional medicine clinician and founder of Zero Acre Farms.¹ It breaks down where LA comes from and why it's so harmful in the modern diet. But while Gustin's analysis is spot-on, the oil his company sells as a solution is anything but safe.

Your Body Treats LA Like a Toxin but Stores It Anyway

The video above, based on clinical observations and nutritional biochemistry, reveals a disturbing trend: unlike sugar or starch, your body doesn't just burn off LA after you eat it.² Instead, it locks LA into your fat cells, where it sits, generates toxic byproducts and quietly rewires your metabolism.

LA Hides in Restaurant Meals and Even Personal Care Products

Restaurants are one of the worst sources of dietary LA not just because of the oil they use, but how they use it. Fryers run at high temperatures for hours or even days, oxidizing the oils repeatedly. Gustin points out that these degraded oils form compounds that damage DNA, impair immune function, and contribute to everything from heart disease to neurodegeneration.

Don't Fall for the 'Healthier' Vegetable Oil Trap — Zero Acre Farms Is Not the Answer

Zero Acre Farms oils are promoted as safe, sustainable alternatives to vegetable oils, but they're genetically engineered and rich in oleic acid. In other words, they're made in a lab and consist almost entirely of monounsaturated fats. That sounds better on paper, but oleic acid at high concentrations still disrupts how your mitochondria function. Your cells don't know, or care, if the damage came from soybean oil or oleic acid. The stress response is the same.

Cutting Your LA Load Starts with These Simple Swaps

If your metabolism feels sluggish, your energy isn't what it used to be or your inflammation just won't calm down, LA is likely part of the problem. This fat builds up slowly in your tissues, and once it's there, it sticks around. But that doesn't mean you're stuck.

The way forward is to stop adding more of it and give your body the space to start clearing what's already stored. You don't have to overhaul everything overnight. But you do need to make targeted, consistent changes that reduce LA at the source. Here's how to get started.

FAQs About the Effects of LA on Your Health

It also teaches the wrong lesson — that nutrition is something separate from food. You eat your meals, and then, almost as an afterthought, you take your "health pills." But that is not how your body works. Nutrients do not act in isolation. They are part of a living system, interacting with food, digestion, bile, stomach acid, enzymes, gut microbes, and the timing of your meals.

That is why I believe the next real advance in supplements is not simply better ingredients. It is better delivery. And for many nutrients, the best delivery system may not be another capsule at all. It may be a clean powder you sprinkle directly onto your food.

Supplements Should Support Your Diet, Not Replace It

This is the most important point, so I want to be blunt about it. Supplements are not drugs. Drugs are designed to force a biochemical effect — to block a pathway, suppress a symptom, or replace a missing signal. There are times that is necessary. But that is not nutrition.

Nutrition provides raw materials and biological signals your body uses to maintain normal function. So a supplement should be built as an addition to a diet of real, whole foods, never as a substitute for one. If you are using supplements to paper over poor meals, you are using them backward.

The goal is not a life where breakfast is junk, lunch is rushed, dinner is processed, and then you swallow 20 pills to "make up for it." That is the same reductionist thinking that helped create the modern health crisis in the first place. The better model is simple: food first, targeted supplementation second. Sprinkle-on-food powders reinforce that order. Instead of separating the supplement from your meal, they fold it into the meal.

The Real-World Problem with a Handful of Capsules

Capsules have their place. They protect fragile ingredients, mask unpleasant tastes, allow precise dosing, and travel well. But they carry a cost almost no one talks about: people simply stop taking them.

Many people dislike swallowing capsules, and some cannot easily swallow them at all. Others start a program with enthusiasm, then abandon it when the routine becomes a burden. Five capsules become eight. Eight become 12. Before long, someone who just wanted to support their health feels like they are managing a prescription regimen. That is not empowering, it is exhausting.

This matters because compliance is one of the least appreciated factors in health. The research on medication is sobering: among older adults managing multiple conditions, a higher treatment burden and more complex regimens track directly with worse adherence, and in one multicenter study more than two-thirds of patients did not take their medications as directed.¹ The same friction applies to supplements. A product that sits unused in your cabinet does nothing, no matter how good the formula is.

Swallowing itself is a real barrier, and not a trivial one at that. Difficulty swallowing pills is common enough that clinicians routinely crush tablets or open capsules for patients who struggle — a workaround that can backfire by altering the dose and how the ingredient behaves.²

And the bigger the pill, the worse it gets: in one large analysis, oversized tablets and capsules were by far the strongest predictor of swallowing difficulty, raising the odds nearly tenfold.³ When the active dose is several grams, a capsule is simply the wrong tool.

Why Sprinkle-on-Food Powders Change the Equation

A sprinkle-on-food powder changes the entire experience. Instead of opening several bottles, counting capsules, and swallowing them with water, you add a scoop to food you were already going to eat — yogurt, oatmeal, applesauce, cottage cheese, a smoothie bowl, nut butter, even certain savory dishes. The supplement becomes part of a normal eating pattern. The advantages stack up quickly:

This is especially relevant for fiber, prebiotics, amino acids, minerals, collagen peptides, resistant starches, and microbiome-supporting compounds — exactly the ingredients where dose is everything. Higher fiber intake is one of the most consistent signals in all of nutrition science: a meta-analysis of 64 cohorts and more than 3.5 million people found that greater total fiber intake was associated with roughly 23% lower all-cause mortality, 26% lower cardiovascular mortality, and 22% lower cancer mortality.⁴

But you cannot put a meaningful 5-gram dose of fiber into one or two capsules. You would need a handful. That is poor design.

The same is true for the compounds that feed your gut. Fermentable fibers and prebiotics are converted by your microbiome into short-chain fatty acids (SCFAs), especially butyrate, which fuels the cells lining your colon, helps maintain the integrity of your gut barrier, and helps regulate your immune system.^5,6 These effects depend on getting real, food-level doses to the colon.

In controlled trials, prebiotic doses are measured in grams — for example, several grams of resistant starch per day to shift the gut microbiome.⁷ A powder you stir into food delivers that effortlessly; a capsule cannot.

This Won't Work for Every Supplement

Of course, powder delivery is not universally applicable. Some ingredients taste terrible. Some are unstable when exposed to moisture or oxygen. Some need protection from stomach acid, or need to be released in the small intestine or colon. Some are needed in tiny, precise doses better suited to capsules. Some are oils, which require softgels or liquid formats.

So this is not a move away from capsules across the board. It is a move away from using capsules when they are not the best tool. The right question is not, "Can we put this into a capsule?" The right question is, "What delivery system best matches the needs of this ingredient and the daily life of the person using it?" For many food-compatible nutrients, the answer is a clean powder in a foil pack and a small scoop.

Why I'm Rethinking Glass

For years, glass seemed like the obvious superior material. It is inert, it feels premium, it contains no plasticizers, and it is recyclable, at least in theory. In practice, however, glass recycling is far less consistent than most people believe. Many municipalities no longer want mixed glass in curbside bins because it breaks, contaminates other recyclables, damages sorting equipment, and often has poor local market value. Even when glass is collected, it is not always recycled.

Glass breakage has also been one of our biggest shipping challenges. A shattered supplement bottle is not just an inconvenience — it creates waste, replacement shipments, customer frustration, warehouse complications, and safety concerns. A package is supposed to protect the product and the customer. If the package itself becomes a recurring failure point, it deserves to be reconsidered.

But the deeper problem with glass has nothing to do with breakage. Glass is an excellent oxygen barrier, yet even a glass jar re-admits a fresh charge of air every time you open it — and for our most sensitive ingredients, that repeated oxygen exposure, not the material of the container, is what erodes potency.

Glass is also heavy: a jar can weigh around 140 grams against roughly 33 grams for a foil-lined canister, which inflates shipping cost on every order. So glass remains the right choice for a small number of products — but it is a targeted tool, not the platform for our whole line.

Why Oxygen Is the Real Problem

When I looked closely at what actually causes our best products to lose their potency, the answer was not the container material. It was oxygen. For actives whose strength is governed by oxidation — butyrate, live probiotics, polyphenols, delicate lipids, and many oils and flavor systems — oxygen is a slow, invisible failure.

The product passes testing, ships, sits on a shelf, gets opened day after day, and by the middle of its shelf life it is materially weaker than the label says. That is the worst kind of quality problem: one you experience but cannot see.

Oxygen reaches a product three ways, and a package has to defeat all three. It permeates slowly through the container wall. It leaks in around the cap, the threads, and the seal. And — the one almost everyone misses — it floods back in every time you open the container, replacing the protected air inside with a fresh charge of ordinary air. A plastic bottle fails on all three counts. A glass jar fixes the first two but not the third, because it still re-admits air on every open.

Why We're Moving to Aluminum-Foil Packaging

The format that solves all three is aluminum-foil packaging — foil pouches and foil-lined canisters — run with what we call an anaerobic fill: the air is flushed out with nitrogen, an oxygen absorber inside the pack mops up whatever remains or seeps in over time, and a desiccant controls moisture.

The foil itself is a near-perfect barrier, and the oxygen absorber is what lets a multi-dose pack be opened every day without the contents slowly oxidizing. It is lighter than glass, it does not shatter, and it protects the active far better than any bottle.

One distinction matters here. This only works with true aluminum foil, not the cheaper metallized film that looks almost identical on a shelf. Real foil has an oxygen barrier 10 to 100 times better than the metallized look-alike, and for sensitive products that difference is the whole point — so we specify solid foil, not a foil-look film, on every package.

The exact format depends on the product. A wide, flat-bottom pouch works for most powders. A quad-seal pouch or a foil-lined paper canister gives a premium look for collagen or protein. A spouted, screw-cap pouch is ideal for sprinkle-on and scoop-dosed powders. A few of our most sensitive capsules stay sealed in individual foil blisters until the moment you take them. And for repeat purchases, a reusable canister paired with low-cost foil refills keeps the barrier where it belongs while cutting waste.

The Honest Caveat About Plastic and Microplastics

I would be doing you a disservice if I pretended plastic were free of concerns. Micro- and nanoplastics are now found throughout the environment and the human body, and the research linking them to oxidative stress, inflammation, and harm across multiple organ systems is growing quickly.⁸ They have even been detected in human reproductive tissues, including placenta and follicular fluid.⁹

The Minderoo-Monaco Commission on Plastics and Human Health laid out, in detail, how plastics and their additives touch human health at every stage of their life cycle.¹⁰ I take that seriously, and as a general rule I still favor glass over plastic for the things you consume, particularly liquids.

So why accept any plastic contact at all? Because the exposure routes that shed the most micro- and nanoplastics — liquids, heat, UV light, and mechanical abrasion — are largely absent when a dry powder sits at room temperature inside a foil pack and gets spooned onto food. The foil does the barrier work, and the thin food-grade layer that seals it rarely encounters the conditions that drive plastic to shed.

That is a meaningfully different risk profile than a hot liquid sitting in plastic. It is a deliberate, narrow trade-off: glass for the highest-risk uses like liquids, foil where its protection wins and the exposure risk is lowest.

The Closure Matters as Much as the Container

The jar closure is the part almost no one thinks about. When people picture packaging, they fixate on the container — glass versus plastic, clear versus amber. But the closure is where two of the biggest problems actually live: how well the pack keeps oxygen out, and, for a powder, whether it can reseal properly.

A screw cap is a leak path by design — air works in around the threads and under the liner, which is one more reason a heat-sealed foil pack outperforms a bottle: there is no cap to leak. Powders bring a second, very practical trap. A standard press-to-close "Ziploc" zipper fails on fine powder — particles lodge in the groove, the profile stops engaging, and within a week or two the pack no longer seals.

Any powder we put in a resealable pouch therefore gets a powder-proof closure — an evacuation-port zipper, a particle-plow slider, a hook-and-loop seal, or a threaded spout — never a plain zipper.

A closure can also carry hidden chemistry — BPA-based coatings, PVC plastisols, phthalate plasticizers, or PFAS-treated papers — and those are not abstract worries. Researchers have now documented that more than 1,800 known food-contact chemicals can migrate out of packaging, and evidence of human exposure exists for roughly a quarter of the 14,000-plus chemicals used in food-contact materials — many with hazardous properties.¹¹

PFAS in particular leach out of food-contact materials, and that leaching increases with temperature.¹² The chemistry in these classes is exactly what you want to avoid: bisphenol A (BPA) is linked in pooled human analyses to insulin resistance, type 2 diabetes, hypertension, obesity, and cardiovascular disease,¹³ and phthalates are associated with a long list of reproductive and developmental harms, including effects from prenatal exposure.^14,15

There is even a striking real-world example that makes the point: beverages packaged in glass bottles have been reported to carry more microplastic particles than the same drinks in plastic — traced not to the glass, but to the paint on the metal caps. The closure, again.

For our powder products, the closure has to meet the same standard as the pack. We look at the full stack — the closure resin, the liner material, the induction or foam seal, the adhesive system, the printing inks, the gasket layer, the desiccant, the direct food-contact surface, and how all of it behaves under real storage conditions.

The safest design is usually the simplest: a real foil pack, a powder-proof closure, and a clean induction or foam seal made without BPA, BPS, BPF, PVC, phthalates, PFAS, or unnecessary coatings — with the nitrogen flush, oxygen absorber, and desiccant doing the preservation work inside.

If a product is meant to be used daily with a scoop, the package has to support daily use: an opening wide enough for easy scooping, a powder that pours instead of caking into a brick, a closure that reseals tightly every time, a seal that adds no unwanted chemistry, and a pack that survives a pantry, a suitcase, or a gym bag.

Packaging Is Part of the Formula

Most people think the formula ends when the ingredients are blended. I do not see it that way. The formula includes the delivery system. The delivery system includes the package. And the package includes every material that touches the product or protects it from the environment.

This is especially true for powders, which are vulnerable in ways capsules are not. They absorb moisture, clump, segregate when particle sizes differ, stick to the scoop, pick up odors, and lose potency if a probiotic or nutrient is not protected.

So for a sprinkle-on-food powder, the package has several jobs at once: keep the product dry, keep oxygen out, preserve potency, prevent clumping, avoid chemical migration, open and close easily, travel safely, resist breakage, support daily compliance, and make the product feel like part of food rather than a drug routine. That is the level of detail this deserves.

The Bigger Shift: From Pill Burden to Food-Based Health

The supplement industry has trained people to think in capsules and bottles. But your body thinks in meals, digestion, absorption, microbial metabolism, and biochemical context. A powder you sprinkle on food is not just a different package; it is a different philosophy. It says: your diet is the foundation, this product belongs with food, it is not a substitute for food, and it is not a drug. It is targeted support that fits the way your biology already works.

Not every product will change. Some should stay capsules, some should stay softgels, and some require specialized delivery. But wherever the ingredient allows it, I want to reduce pill burden, improve compliance, cut breakage, make travel easier, and rethink packaging from the standpoint of both health and function.

What You Can Expect Going Forward

First, delivery. We will ask whether each ingredient belongs in a capsule, a powder, a softgel, a liquid, a delayed-release form, or a food-compatible system.

Second, packaging. We will judge a package not by whether it looks premium, but by whether it keeps oxygen and moisture out, protects potency, survives shipping, supports daily use, and avoids unnecessary chemical exposures.

Third, compliance. A product only works if you actually use it. The easier we make that, the more likely it becomes part of your daily routine.

That is the future I am working toward: fewer handfuls of capsules, more food-compatible formats, smarter packaging, and a more honest relationship between supplements and diet. Supplements should not pull you away from food. They should help you use food more intelligently. That is the real purpose of this shift.

The Bottom Line

If you take one idea from this, let it be this: the best supplement in the world is worthless if it ends up sitting in your cabinet. Format and packaging are not afterthoughts — they decide whether you take the product, how much of the active you actually get, and what else comes along for the ride.

For the right ingredients, a clean powder you sprinkle on real food solves the compliance problem, delivers doses a capsule never could, and keeps the experience rooted in food. Choose your formats and packaging with the same scrutiny you give your ingredients, pay as much attention to oxygen and the closure as to the container, and keep food first.

Frequently Asked Questions

This article is for informational purposes only and does not constitute medical advice. Consult a qualified health care provider before making changes to your health regimen.

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The supplement industry, largely unregulated and often misunderstood, has become a wild west of marketing claims, questionable quality, and profit-driven decisions that frequently override health outcomes. As someone who has spent decades in this field, I've watched with growing concern as venture capital and private equity interests have in many cases led to significant quality degradation while simultaneously mastering the art of marketing mediocrity.

Let's take a walk together through the reality of today's supplement industry, pulling back the curtain on practices that many companies would prefer to keep hidden. The beautiful packaging, celebrity endorsements, and sophisticated marketing campaigns often mask a troubling truth: many supplements simply don't deliver what they promise, either through inadequate ingredients, poor manufacturing practices, or ineffective delivery systems.

Why Many Supplements Are Expensive Waste

The degradation of quality begins at the ingredient level. Many companies prioritize profit margins over therapeutic effectiveness. They source the cheapest possible ingredients while investing heavily in marketing to convince consumers of their premium quality.

How Venture Capital Is Eroding Supplement Standards

The entrance of venture capital into the supplement industry has contributed to these challenges. When venture capital firms invest in supplement companies, they often seek strong growth and higher profit margins within a relatively short timeframe, which can place pressure on quality control, ingredient sourcing, and manufacturing processes.

Increasing Profit Margins May Threaten Supplement Testing Protocols

Testing protocols, perhaps the most critical aspect of supplement manufacturing, often suffer the most under profit pressure. Proper testing should occur at multiple stages: raw ingredient validation, in-process testing, finished product verification, and stability testing over time. Each of these steps costs money and takes time — exactly what venture-backed companies are pressured to reduce.

Quality Versus Profit

Marketing has become increasingly sophisticated at masking these issues. Companies invest heavily in scientific advisory boards, often comprised of respected researchers who have little to no input on actual product formulation. They fund small, poorly designed studies to support marketing claims while ignoring more rigorous research that might question their products' effectiveness.

This independence also allows for transparent communication about product limitations and appropriate uses. When a company doesn't face pressure to constantly increase sales and margins, it can provide truthful information about when supplements are and aren't appropriate, helping consumers make more informed decisions about their overall health.

The Reality of Manufacturing Excellence

Manufacturing quality in the supplement industry requires an unwavering commitment to detail and precision that few companies are willing to maintain. Every step of the production process demands intensive attention and significant resource investment.

How to Choose Supplements That Deliver on Their Promises

The human element proves equally crucial. Training and retaining qualified staff requires significant investment in both time and resources. Expert formulators, quality control specialists, and manufacturing technicians need to maintain consistent standards while adapting to new research and improving technologies. This expertise cannot be replaced by automated systems or undertrained staff following basic protocols.

Understanding these manufacturing and quality issues empowers you to make better choices and support companies maintaining high standards despite market pressures to cut corners.

The future of the supplement industry depends on preserving manufacturing quality and independence from profit-driven compromise. Only by understanding and supporting these principles can we ensure continued access to truly effective supplements for health optimization.

A Personal Commitment to Quality and Truth

I've watched with growing concern as many once-respected supplement companies have succumbed to the pressures of venture capital and private equity investment. These patterns reflect exactly why I've maintained complete independence in my company's operations and manufacturing practices.

I'm sharing these concerns with you now because I believe you deserve to understand what's really happening in the supplement industry. The change in quality we're witnessing isn't accidental — it's often the result of prioritizing profit over health outcomes. As venture capital increasingly dominates the industry, finding truly effective supplements becomes increasingly challenging.

Beyond Profits — A Mission to Protect Supplement Standards and Consumer Health

My commitment goes beyond maintaining quality in our own products. Through continued education efforts, I'm dedicated to exposing the practices that compromise supplement effectiveness. You deserve to understand why some supplements work while others don't, why quality manufacturing matters, and how to identify companies that maintain rigorous standards.

This isn't just business — it's a mission to protect and advance natural health solutions against the rising tide of profit-driven degradation.

Disclaimer: The claims and observations in this article represent the author's professional experience and industry observations. The effectiveness of individual supplements vary. These statements have not been evaluated by the Food and Drug Administration (FDA) and are not intended to diagnose, treat, cure, or prevent any disease. This article is for informational purposes only and is not medical advice. Always consult a qualified healthcare professional before changing your supplement regimen or health practices, especially if you have an existing medical condition.

Frequently Asked Questions (FAQs) About the Supplement Industry

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Editor's Note: This article is a reprint. It was originally published September 15, 2024.

I had the privilege of speaking at the Ron Paul Institute, addressing a room full of courageous individuals who are standing up for truth and freedom in these challenging times. It was an honor to share my insights and passion for health with such an engaged audience.

You can listen to my speech in its entirety above, as I share the culmination of my decades of research into the true causes of disease and premature death, along with groundbreaking insights that can transform your health and longevity.

The Courage to Stand Up for Truth

I began by acknowledging the bravery of those in attendance. As an example, I highlighted Mike, the event's recording technician, who lost his job for refusing to take the COVID jab. This kind of courage is exactly what we need more of in society today.

For over 50 years, I've been passionately pursuing the truth about health and technology. This journey has led me to write 18 bestselling books and build one of the world's largest natural health websites. However, my work has also made me a target of the mainstream media and medical establishment.

As I shared with the audience, the biggest honor I ever achieved in my life was being named the No. 1 source of misinformation during the COVID-19 pandemic. While said somewhat tongue-in-cheek, this "honor" underscores how threatening truthful information is to those controlling the narrative.

The Corruption of Modern Medicine

Let me be clear: modern medicine has been hijacked. It's controlled primarily by pharmaceutical companies and has been thoroughly corrupted, tracing back to the influence of John D. Rockefeller. Medical schools teach doctors to follow rigid protocols focused on diagnosing conditions and prescribing medications or surgical interventions, without addressing the true, foundational causes of disease.

Society is now so reliant on pharmaceuticals that 6.3 billion prescriptions are filled every year in the U.S. That's 17 prescriptions per year for every American.¹ These pharmaceuticals are not improving public health, however. Despite spending $4.5 trillion annually on health care,² the U.S. has some of the worst health outcomes among developed nations.

The Unified Theory of Cellular Health

The core of my speech focused on what I call the unified theory of health. This theory, which I've developed over decades and detail in my book "Your Guide to Cellular Health," explains why people get sick and die prematurely.

The fundamental issue is that your cells are not producing enough energy. This energy, in the form of ATP (adenosine triphosphate), is critical for every function in your body. Without energy, your cells can't repair and regenerate themselves.

Our bodies produce energy through a fascinating process that starts with the sun. The sun's energy is converted into chemical bonds in our food, which we then break down and transport to our cells. Inside our cells, we have these incredible structures called mitochondria — they're like tiny power plants.

These mitochondria produce ATP, which is basically the energy currency of our bodies. To give a sense of scale, a healthy person produces about 200 million quadrillion ATP molecules per second — that's a two followed by 21 zeros. If you were to weigh all the ATP molecules you produce in a day, it would be roughly equivalent to your body weight. However, that’s if you’re healthy. In reality, most people are only making half their body weight in ATP daily.

The 3 Major Threats to Cellular Energy

So why aren't we producing enough energy? There are three primary factors decimating our cellular energy production:

The Gut-Mitochondria Connection

Another critical piece of the health puzzle is the relationship between mitochondrial function and gut health. When mitochondria are damaged, they can't properly remove oxygen from your intestines. This allows harmful bacteria to flourish, producing endotoxins that further damage your health.

A thriving intestinal ecosystem encompasses a wide range of microorganisms that collaborate to safeguard your health. Cultivating beneficial oxygen-intolerant bacteria, including key species such as Akkermansia, enhances your gut's defense mechanisms and creates an environment conducive to overall well-being.

These advantageous bacteria break down dietary fibers to generate short-chain fatty acids (SCFAs), particularly butyrate. Butyrate serves as nourishment for your colon's epithelial cells, fortifying the intestinal barrier. SCFAs also encourage mucin production, establishing a protective layer against harmful bacteria.

A decrease in oxygen-intolerant bacteria results in heightened intestinal permeability, commonly known as leaky gut. This condition allows toxins, partially digested food particles, and harmful microbes to penetrate your bloodstream, initiating systemic inflammation and long-term health complications.

Oxygen-intolerant bacteria play a crucial role in transforming indigestible plant fibers into beneficial fats. They flourish in an oxygen-free environment, which necessitates sufficient cellular energy to maintain. However, the factors mentioned above — seed oil consumption, exposure to endocrine-disrupting chemicals (EDCs) found in plastics and EMFs — hinder this energy production, making it challenging to sustain the ideal oxygen-free gut environment.

Further, in my opinion, a primary cause of death is endotoxemia leading to septic shock. This occurs when endotoxin is secreted by facultative anaerobes, also referred to as oxygen-tolerant bacteria, which should not be present in your gut.

These pathogenic bacteria produce a highly potent form of endotoxin, or lipopolysaccharide (LPS), which triggers inflammation if it crosses your compromised gut barrier into systemic circulation. Consequently, leaky gut or an imbalanced microbiome is one of the fundamental causes underlying all diseases.

The Path Forward — We Will Win

Despite the grim picture painted by these health threats, we will ultimately prevail in this battle for health freedom and truth. Regarding the censorship and suppression I and many others have faced from tech giants like Google, their power is waning. In a lawsuit, the U.S. Department of Justice declared Google a monopoly,⁴ and there’s going to be an avalanche of additional lawsuits against them.

This creates an opportunity for new, more ethical technologies to emerge. I'm at the forefront of developing AI tools that will revolutionize how we access and interact with health information.

This system will leverage cutting-edge technology to make personalized, evidence-based health guidance accessible to billions of people around the world. I'm particularly excited about the AI-powered system we're developing that will allow individuals to engage in real-time, personalized conversations about their health, drawing from the vast body of scientific literature.

This technology has the potential to revolutionize not just health care, but education as a whole. It's a one-to-one, individualized approach that will transform how we learn and understand complex information. I want to emphasize how crucial it is for you to take control of your own health. This starts with understanding what you're putting into your body, particularly through diet.

A Movement for True Health

My speech at the Ron Paul Institute was an opportunity to share the culmination of my life's work in health and technology. The enthusiasm and engagement from the audience reinforced my belief that we are on the cusp of a health revolution.

By understanding the true causes of disease — particularly the threats to our cellular energy production — and leveraging new technologies to spread this knowledge, we can create a world where vibrant health is the norm, not the exception.

I left the event more motivated than ever to continue this fight for health freedom and truth. Together, we can and will transform the landscape of health and medicine, empowering individuals to take control of their well-being and live life to its fullest potential.

Our goals are ambitious. We're not just talking about health care — we're talking about replacing plastics with biodegradable alternatives, destroying industrial agriculture, and completely transforming our food system. Because at the end of the day, food is medicine. Remember, knowledge is power, but only when it's applied.

Take what you've learned here, dive deeper into the resources I've mentioned and start taking control of your health today. Also, I recommend reading my book "Your Guide to Cellular Health." Together, we can create a healthier, more vibrant world — one person, one cell, one mitochondrion at a time.

The Revolutionary Path to Healing and Longevity

"Your Guide to Cellular Health: Unlocking the Science of Longevity and Joy" is not just a manual — it's your passport to a revolution in personal wellness. This comprehensive guide will empower you with life-changing knowledge to help unlock your body's innate healing abilities and achieve lasting vitality. This isn't about quick fixes or temporary solutions. It's about fundamentally transforming your health at its very foundation — your cells.

One of the many paradigm-shifting concepts that I explored in-depth throughout the book is a revolutionary approach to carbohydrate consumption that may challenge your preconceptions. In the following section, I'll give you a glimpse of this groundbreaking content.

Keep in mind that this represents only a fraction of the innovative strategies and insights waiting for you in the full text. Let this serve as a tantalizing preview of the transformative knowledge you'll learn in this book.

Carbs Made Simple — A Color-Coded System to Guide Your Gut Health Journey

The method that I discuss in my book ranks carbohydrates based on their impact on your biology, specifically in relation to your gut health. This approach recognizes that the traditional complex vs. simple carb dichotomy likely does not tell the whole story when it comes to individual health outcomes.

Instead, it suggests that the relationship between your gut health and carbohydrate metabolism could be key to unlocking improved overall wellness. It's not about following a one-size-fits-all diet, but rather about understanding how your unique gut biology interacts with different types of carbohydrates.

Surprisingly, for many people, this approach favors simple carbs over complex ones. This is because they usually have less-than-optimal gut health. If you have a compromised gut system and you consume complex carbs, the fiber and prebiotics in these carbs can feed oxygen-tolerant gut bacteria and worsen your symptoms.

The following chart breaks down several types of carbohydrate sources and how they fit into this plan. We can categorize them into three groups: green, yellow, and red.

In the green category are the most easily digestible simple carbs that provide quick energy without overtaxing your compromised digestive system. You will focus on these carbs initially, because simple carbs provide a quick energy boost for your cells and mitochondria. It's like giving your body's energy factories an immediate fuel injection, while allowing your gut to rest and heal at the same time.

Next is the yellow category, which includes carbs that offer more nutrients and fiber compared to the green category, yet are still relatively easy on the digestive system. Finally the red category, the most complex carbs, offers many health benefits but can be challenging for a compromised gut to handle.

So how can you begin implementing this approach? If you have severely compromised gut health, start with pure sugar water. This is a temporary measure to jumpstart the healing process. Mix one-half pound, up to a full pound, of pure dextrose (glucose) into a half gallon of water and sip it slowly all day. Don't drink more than an ounce at a time to avoid spiking your insulin.

Once your gut health has improved, you can switch your primary carb source to whole foods. More than likely, you'll also need to eat more frequently than you're used to during this transition to avoid hypoglycemia. Eating every three to four hours, with snacks throughout the day, is crucial when relying on simple carbs for energy.

As your mitochondrial energy production continues to improve and your gut starts to heal, you will begin the transition back to complex carbs. This is a slow and steady process — don't rush it.

Once you're able to include more complex carbohydrates in your diet, you'll start to notice significant benefits. You'll be able to extend the time between meals to between four and six hours, and many people find they can comfortably switch to a three-meals-a-day approach. This is because complex carbs digest more slowly, providing a steady stream of energy.

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This innovative approach to carbohydrate consumption is just a small taste of the groundbreaking concepts introduced in my book. The ideas presented here are part of a larger framework designed to revolutionize your understanding of health and nutrition. The book goes far deeper into these concepts, offering a wealth of information that challenges conventional wisdom and provides practical strategies for optimizing your health.

"Your Guide to Cellular Health" is backed by nearly 2,600 references, most from papers published in the 2020s. Each reference includes links to the full-text original papers, empowering you to explore the studies firsthand and draw your own conclusions.

By reading the full book, you'll gain access to a treasure trove of cutting-edge knowledge and innovative approaches that have the potential to transform your health in ways you might never have imagined possible.

Editor's Note: This article is a reprint. It was originally published November 12, 2023.

In this video, I interview William (Bill) Harris, Ph.D., an internationally recognized expert on omega-3 fatty acids. He's been studying omega-3s since 1980 and has published more than 300 scientific papers on fatty acids and health.

A few years ago, he founded the Fatty Acid Research Institute (FARI)¹ in South Dakota, which specializes in epidemiological research, where they look at the relationship between blood omega-3 levels and risk for disease. He's also a faculty member of the University of South Dakota School of Medicine.

"We're trying to build a case that omega-3 levels in the blood are as, if not more, important than knowing your cholesterol level when it comes to your health and being able to control it," he says.

The Omega-3 Index

What he's referring to is the level of omega-3 in your red blood cell membranes. Two decades ago, his team developed a red blood cell membrane-based omega-3 test called the Omega-3 Index. You can take the Omega-3 Index test at their website for only $54.95.

The Index measures the amount of EPA and DHA, the two long-chain omega-3s found in marine sources, in red blood cell membranes, expressed as a percentage of the total fatty acids in the membrane.

"We thought that was absolutely the best way to assess your body's omega-3 status, and so we've been using that ever since," he says. Harris has conducted correlation studies showing the Omega-3 Index test reflects the status of the heart in heart transplant patients, for example. Commenting on the usefulness of the index, Harris says:

"It responds very well to increased intake of EPA and DHA, like a good biomarker should, and higher levels have been linked to better health across the board of a variety of disease conditions, so I think it really is meaningful."

Higher Omega-3 Consistently Linked to Better Health

Harris goes on to discuss the relevance of epidemiological, population-based studies, which is where you look at large datasets of people. The Framingham study is one classic example, where they sought to determine why so many men were dying of heart attacks in a Boston suburb in the 1940s.

Healthy men and women were recruited and data were collected on their lifestyles, diet, and bloodwork. Participants were then followed for decades, to see who died of heart attack. The Framingham studies developed the concept of risk factors, which for heart attack include high blood pressure and smoking.

In the mid-1970s, offspring of participants in the original Framingham study were recruited for additional research. This is known as the Framingham Offspring Study, and it included Omega-3 Index testing of stored blood samples.

"The people, on average, were about 65 at the time that blood was drawn in the early 2000s. We then asked the question, 'If you have a high (or low) omega-3 index at that age, does that predict any disease outcomes?' Yes, it does. It predicts risk for Alzheimer's disease. It predicts risk for heart disease. It predicts risk for death from any cause.

With higher levels of omega-3, people live longer. That's a microcosm of the kinds of studies we work on at the Fatty Acid Research Institute because there have been 50 or 60 Framingham-type studies all around the world. [A]lmost all have measured omega-3 levels and disease outcomes. This is our sandbox!"

What About the Omega-6 to Omega-3 Ratio?

Another ratio commonly referred to is the omega-6 to omega-3 ratio, but Harris doesn't think this ratio is nearly as useful or important as the omega-3 index. For starters, it's not very precise because there are other omega-3 fats besides EPA and DHA, such as DPA and ALA.

There are also seven different types of omega-6 fatty acids, and we don't know a whole lot about them. One exception is linoleic acid (LA), which I've written about on many occasions. I also cowrote a paper on LA² with Christopher D'Adamo, which was published in the peer-reviewed journal Nutrients in July 2023.

"So, when you say omega-6 or omega-3, you don't really know what the denominator is and what the numerator is, and it presumes that all the omega-3s behave the same and have the same health benefits, and all the omega-6s have the same health benefits or detriments, which is really not true," Harris explains.

"That's not very nuanced in my view, because we've seen some studies where some omega-6 fatty acids are apparently good. They're associated with better outcomes, whereas, others are not. So, to pool them into one metric where you don't know how it's made up is another reason I don't like this particular ratio.

I guess the third one is, you can have a high level of omega-6 and a high omega-3, or a low omega-3 and a low omega-6 and have exactly the same ratio. It's really the amount that's there that's the most important. What we're lacking in America, or in the West in general, is the long-chain omega-3s. That's the biggest problem.

I hate to distract from that problem by digging into the omega-6 side of it because some people could say, 'Well, I can fix my ratio just by eating less omega-6 and not increasing my omega-3,' and I don't think that's going to help."

The counterargument to that would be that there are enzymes, desaturases and elongases, that take the baseline essential fats — ALA and LA — and convert these precursors into the long chains products, EPA/DHA and ARA, and if you overwhelm the system with LA, you essentially monopolize those enzyme systems and the omega-3 products are harder to make.

If you consume preformed long-chain omega-3s, then that is not an issue, but if you don't, then excessive omega-6s will prevent the conversion of omega-3. Limiting omega-6 can, in this way, be somewhat helpful, as it allows for the shorter chain omega-3 (ALA) to be converted to the longer chain EPA and DHA. Harris responds:

"That's true, but there are certain metabolites of even arachidonic acid that are beneficial. For example, lipoxygenase A1 is anti-inflammatory, and prostacyclin prevents platelet aggregation.

There are metabolites of linoleic acid itself that don't go through arachidonic that have at least beneficial relationships with blood pressure and inflammation. It's a much more complicated system, I think, than just omega-6 is bad, omega-3 is good. It's just much more nuanced than that."

OmegaQuant does offer an omega-6 to omega-3 ratio test called Omega-3 Index plus Omega-6/Omega-3 Ratio. But when it comes to addressing a bad ratio, Harris still believes the best way to do that is to increase your EPA and DHA intake, as opposed to merely lowering your omega-6 intake.

Why Omega-3s Are So Beneficial to Health

So, what is it about omega-3 EPA and DHA that makes them so important for health? In summary, these fatty acids:

Why Fish Oil Is Not an Ideal Omega-3 Source

While most reach for fish oil to increase their omega-3 level, this isn't the best choice. In fact, most “fish oils” on the market today are actually synthetic ethyl esters, which are different from the triglyceride and phospholipid forms omega-3 found in sea foods, which are roughly 50/50 triglycerides and phospholipids. Krill oil also delivers omega-3 primarily in the phospholipid form. Harris explains:

"Yes, there are two natural forms. The omega-3s are found in triglycerides, which we classically think of as oils. A triglyceride has three fatty acids on each molecule. Typically, in most fish that are rich in omega-3, one of those three will be EPA or DHA, so about 30% of the fish oil will be omega-3. That's the triglyceride.

The other natural form that marine omega-3s are found in is phospholipids. Phospholipids are the primary constituents of cell membranes, and it's in the cell membrane where the omega-3s do their primary work.

There are two spots for fatty acids on a phospholipid, and it depends on the fish, but typically about maybe 20% to 30% of the phospholipids have EPA and DHA. Those two forms are natural. You get both triglycerides and phospholipids when you eat a salmon steak or any other 'oily' fish; these are the highest in omega-3.

The ethyl ester is a completely synthetic product. It starts out as a raw fish oil. That's where that EPA and DHA molecules come from in the first place, but at the refinery, all the fatty acids get chopped off of the triglyceride backbone. Then they throw away the monounsaturates, the saturates and the small amount of omega-6s, and that leaves the omega-3s by themselves.

The omega-3s have to be hooked to something before encapsulation, and so the favorite thing is to hook them up to ethanol (alcohol) to make 'ethyl esters.' When all they have in the vat is now omega-3 ethyl esters, then they can pack more EPA and DHA into each capsule, so the concentration is higher.

Virtually all of the pharmacologic products that are omega-3-based are ethyl esters, and they have been used since the mid-1990s. But there is nothing 'natural' about an ethyl ester. I guess there's debate on how effective they are. We do know that if you take the ethyl ester on an empty stomach, you're not really going to absorb it. They're very poorly absorbed.

Their absorption can be improved if you take the ethyl ester with a fatty meal, because that will stimulate the digestive juices and allow some of it to be absorbed, but it's not the best form for absorption. Triglycerides and phospholipids are much better forms for absorption."

In November 2023, I spoke to a few hundred people at the Documenting Hope Conference in Orlando and was able to share my latest insights on how to optimize your health and prepare for the next crisis. I was surprised that people fly in from around the world to see me.

Are Ethyl Esters Beneficial?

In the Italian GISSI-Prevenzione Trial,³ published in 1999, heart attack survivors were given one capsule of Omacor (an ethyl ester form with 840 mg of EPA+DHA per 1 g capsule) a day. After two to three years of follow-up, they reported a tremendous drop in cardiovascular death and all-cause mortality.

However, there was no placebo group. They merely compared it to standard of care. It was also an open-label trial, with no objective assessment of compliance.⁴ Moreover, the study was funded by companies that sell the product, so there's a conflict of interest there that may have influenced the results.

Indeed, since then, several studies have used Omacor (or Lovaza, the U.S. version) and have produced mixed results. Some showed no benefit at all, others were positive. An example of the latter is the REDUCE-IT Study, which used an EPA-only ethyl ester called Vascepa, made by Amarin. Patients at high risk for heart disease were given 4 grams a day.

Compared to placebo, at the five-year mark, the treatment group had a 25% lower risk of cardiovascular disease, nonfatal heart attacks, and all-cause mortality. That was a very positive outcome. However, the placebo was an indigestible mineral oil, which may have confounded results. Did Vascepa really improve health, or did the “placebo” increase the risk of cardiac events?

"That's been hotly debated," Harris says. "Of course, if your placebo really is harmful, even if your drug does nothing, it will look like the latter is doing great because it's doing better than the placebo, which is supposed to be neutral.

Well, there is considerable evidence now that at least some of the apparent benefit of the EPA ethyl ester was derived from a worsening of outcomes in the placebo group. Taking 4 grams, almost a teaspoon of mineral oil a day for five years, well, that's just not natural at all."

How Much Omega-3 Do You Need?

So, in summary, the best sources of omega-3 DHA and EPA are cold-water fatty fish like wild-caught Alaskan salmon (farm-raised salmon has omega-3 but in lower amounts than it used to since farmers have been adding vegetable oils to the salmon feed), mackerel, herring, sardines, and krill oil.

The next question is, how much do you need for optimal health and disease prevention? This brings us back to the Omega-3 Index. Most Americans have an index of 4% to 5% of EPA/DHA in their red blood cell membranes, and the target is thought to be between 8% and 12%.

From Harris' studies, raising your index from 5% to 8%, you need roughly 1,000 mg to 1,200 mg of EPA/DHA per day. As for the ratio of EPA to DHA, Harris says the general recommendation is either a 60-to-40 or 40-to-60 mix. "Just don't do a 10-to-90 mix." The ratio is a nonissue if you're getting your omega-3s from fatty fish, which provide these fatty acids in a fairly balanced amount.

"Personally, I try to eat fish a couple of times a week," Harris says. "But I don't always succeed, so I do what a lot of people do. I take a supplement. I take about 1,400 mg a day, EPA and DHA."

The best way to determine the dose you need is to do an Omega-3 Index test, available from OmegaQuant. It's a dried blood spot test and the kit is sent to your home. The basic test is about $50, and you get your results about five days after it's received in the lab. After a few months of supplementing, retest to see where you're at, and adjust your dose accordingly. In closing, Harris notes:

"Again, my mantra is the Omega-3 index. EPA and DHA [levels] are what need to be improved, need to be increased. It's not a silver bullet, but it's one thing you CAN do something about cheaply, safely, easily, quickly. There's not a disease yet that we've seen that has not benefited from having a higher omega-3."

Few plants bridge the worlds of folk wisdom and modern science as elegantly as Plectranthus neochilus — better known as Vicks plant, lobster flower, or in Brazil, boldo-rasteiro. This aromatic member of the mint family, instantly recognizable by its pungent, menthol-like scent and fleshy leaves, has long been part of traditional healing practices across Brazil and southern Africa.

Healers once relied on it to calm the stomach, ease headaches, and clear the liver — but scientists are now uncovering a much broader spectrum of benefits hidden in its essential oil. Research is revealing that this resilient herb is far more than a household digestive aid. Its complex blend of bioactive compounds interacts with key biological pathways that influence metabolic balance, immunity, and microbial defense.

Studies show that what was once used to soothe the gut could also support blood sugar regulation and protect against fungal infections. What makes this discovery remarkable is that a simple, time-honored garden plant — the same one many grow for its mosquito-repelling aroma — holds measurable therapeutic power.

The new evidence doesn’t replace its traditional uses; it expands them, showing how deeply nature’s chemistry aligns with human biology. This growing body of research has opened a new chapter for Plectranthus neochilus, one that invites a closer look at how its essential oils work within your body to restore strength and balance.

Essential Oils Act Like Natural Blood Sugar Balancers

A study in Current Pharmaceutical Analysis found that compounds from the essential oil of Vicks plant help regulate blood sugar in a way similar to prescription medications for Type 2 diabetes.¹ Using advanced computer models, researchers showed that these natural molecules interact with an enzyme that breaks down hormones responsible for insulin release. When this enzyme is blocked, your body keeps more of these hormones active, allowing for steadier blood sugar control after meals.

Plant-Based Essential Oil Shows Strong Action Against Drug-Resistant Fungi

The same essential oil that shows promise for balancing blood sugar also demonstrates impressive power in another area of health — fighting fungal infections that resist conventional treatment. Research published in the International Journal of Complementary & Alternative Medicine tested the antifungal strength of essential oils from Vicks plant and Tagetes erecta (marigold).²

The study targeted fungi responsible for common but stubborn skin, nail, and lung infections that are increasingly resistant to conventional antifungal drugs. These infections are especially dangerous for people with weakened immune systems, such as those undergoing cancer treatment, living with HIV, or recovering from organ transplants.

Vicks Plant Shown to Support Both Human and Environmental Health

Researchers in Brazil reviewed decades of research to understand how the same plant that fights infection and balances metabolism also strengthens ecosystems and supports sustainable agriculture.³

Published in Ciência e Natura, this review examined prior studies on the plant’s chemical composition, pharmacological benefits, and ecological importance. The authors aimed to consolidate what is known about its active compounds, its medicinal uses in traditional practices, and its applications in agriculture and environmental restoration.

How to Use Vicks Plant for Whole-Body Balance

If you’ve been struggling with blood sugar swings, stubborn fungal issues, or sluggish energy, the first thing to focus on is balance — inside and out. The studies above show that Vicks plant works by targeting the same biological roots that cause metabolic stress and immune weakness. You can use this information in real life to strengthen your system naturally and safely. Here are five practical ways to start:

FAQs About Vicks Plant for Health

You can swallow a perfectly manufactured capsule containing exactly the dose printed on the label and still absorb only a small fraction of what is inside. The rest is dismantled by stomach acid, never properly dissolved, locked inside a matrix your gut cannot break apart, or simply escorted out of your body before it does anything useful. This is not a defect in a particular brand. It is the default behavior of oral supplements, and it is the most overlooked problem in the entire field.

I want to walk you through why this happens, why it matters more than almost anything else on the label, and what the science says we can do about it. Because once you understand this, you will never look at a supplement bottle the same way again — and you will understand exactly why the new generation of products I have been working on is built so differently.

Bioavailability — The Number That Is Never Printed on the Label

The scientific term for how much of a compound actually reaches your circulation in active form is bioavailability. It is the quiet difference between the dose you take and the dose your body can use. According to research published in PubMed, the oral bioavailability of many beneficial compounds is severely limited by a chain of obstacles, each one a leak in the pipe between your mouth and your cells.

Picture the journey. A capsule has to break open and release its contents. Those contents have to dissolve in the watery, acidic environment of your gut. They need to survive that environment without being chemically transformed into something inert. They have to cross the wall of your intestine, which is selective about what it lets through. And they have to get past the first pass through your liver, which treats many compounds as foreign and begins breaking them down immediately.

A compound needs to survive every one of those steps to do its job. Miss any single one, and the impressive number on the label becomes a figure that exists on paper but not in your bloodstream. Researchers reviewing this problem have repeatedly noted that the way a compound is delivered — the surrounding matrix, the particle size, the carrier it travels in — can matter as much as, or more than, the compound itself.

Why So Much Is Lost in Transit

To understand why absorption fails so often, it helps to understand what your digestive tract is actually designed to do. It is a highly selective barrier. Its entire job is to extract what your body recognizes and needs while keeping out what it does not.

That selectivity is a feature when it comes to keeping toxins and pathogens out. It becomes a problem when the beneficial compound you want is one your gut does not efficiently recognize or transport. Several specific failure points show up again and again in the literature:

Each of these is a place where the dose on the label quietly shrinks. Stack them together, and you begin to see why a high number on a bottle can translate into a disappointingly small effect in your body.

Fat-Soluble Compounds and Minerals Struggle Most

Some of the most beneficial compounds in nutrition are also the hardest to absorb. Fat-soluble plant actives — the pigments in tomatoes, the compounds in turmeric, the antioxidants in olives and many others — tend to be poorly water-soluble by nature. In the watery environment of the gut, they resist dissolving, and what does not dissolve generally does not get absorbed.

Research on compounds like lycopene and curcumin illustrates the problem vividly. These are compounds with substantial documented potential, yet their natural bioavailability is so low that, taken in conventional form, much of the dose is wasted. Investigators studying these compounds have concluded that the central challenge is not whether the compound works, but whether you can get a meaningful amount of it into the body at all.

Minerals face a different gauntlet. They bind to other components in food and other supplements, they compete with one another for the same absorption pathways, and are frequently lost to these interactions. The result is the same: a portion of the labeled dose, sometimes a large portion, never makes it into the bloodstream.

The Compounds That Suffer Most — A Closer Look

It is worth naming some of the specific compounds where this problem is most acute, because the list includes many of the most popular supplements people take every day expecting benefits they may not be receiving.

Curcumin, the active compound in turmeric, is notoriously poorly absorbed in its natural form. It is poorly soluble in water, unstable at the pH levels found in parts of the digestive tract, and rapidly metabolized and eliminated. Taken plainly, a large share of a curcumin dose never reaches circulation in active form at all.

Carotenoids such as lycopene — the compound that gives tomatoes their red color — are fat-soluble and crystalline, which means they resist dissolving in the gut and clump together rather than dispersing. Their absorption depends heavily on the form they are delivered in and what they are taken alongside.

Many minerals face the opposite problem: they are too reactive. They bind to other dietary components, compete with one another for the same transport channels, and are frequently rendered unavailable before absorption can occur. The form a mineral is delivered in can dramatically change how much your body takes up.

The pattern across all of these is the same. The compound has documented potential. The natural form delivers only a fraction of it. And the difference between a product that addresses this and one that ignores it is invisible on the label.

How Bioavailability Is Actually Measured

When researchers want to know how bioavailable a compound is, they do not rely on the label. They give a measured dose and then track the compound and its metabolites in blood and urine over time; sampling at intervals to see how much actually appears in circulation, how high the concentration peaks, and how quickly it rises and falls.

Studies that do this reveal just how wide the gap can be. In bioavailability research on olive-derived antioxidant compounds, for instance, investigators tracked plasma and urine levels after dosing and confirmed both that the compound was absorbed and that absorption increased with the delivered dose — the kind of direct measurement that tells you what is really happening, rather than what the label implies.

The lesson from this body of work is consistent: the only way to know what a formulation truly delivers is to measure what reaches the body, and many products on the shelf have never been evaluated that way.

Why Two Identical Labels Produce Different Results

This is the practical consequence that should change how you shop. Two products can carry nearly identical labels — same compound, same milligrams — and produce completely different results in the real world. One may deliver a meaningful dose to your tissues. The other may deliver what amounts to a rounding error. And you, standing in the aisle or scrolling a product page, have no way to tell them apart, because bioavailability is invisible at the point of purchase.

This is also why so many people conclude that a particular nutrient "doesn't work for them." Often the nutrient works fine. What failed was the delivery. They never got enough of the active compound into their system to find out whether it would help. The experiment was rigged from the start by a formulation that could not survive the trip. Before you abandon a nutrient that the science says should help, it is worth asking whether you ever actually received a meaningful dose of it.

Why the Industry Optimized for the Wrong Number

If delivery matters so much, you might reasonably ask why the supplement industry spent decades competing on dose instead. The answer is partly historical and partly commercial, and it is worth understanding because it explains the landscape you are shopping in today.

Dose is easy to print and easy to compare. A consumer can glance at two bottles, see that one says 1,000 milligrams and the other says 500, and conclude the first is the better value. Bioavailability is invisible, harder to measure, and harder to communicate on a label. So the industry competed on the number people could see, and a kind of dose arms race took hold — ever-higher milligram counts, regardless of how much of that dose the body could actually use.

Raw, unformulated compound is also cheaper than a well-delivered compound. Adding a genuine delivery system — a lipid carrier, a protective coating, nanoscale processing — costs more to develop and manufacture. For a company competing purely on price and dose, those costs are easy to skip, and the consumer, unable to see the difference, rarely penalizes them for it. The result is a market full of products optimized for the label rather than for your cells.

None of this means high-dose products are fraudulent. It means the number on the front is answering the wrong question. The question that matters is not how much went into the capsule, but how much of it reaches the tissues that need it. Once you internalize that, the entire shelf looks different.

A Practical Buyer's Checklist

Until bioavailability is something every label is required to report — which it is not — you are left to read between the lines. Here is what I look for, and what I suggest you look for too:

The Research Converges on One Conclusion

When you read across the scientific literature on this topic, one theme repeats with remarkable consistency: improving delivery improves outcomes. Studies on compounds ranging from olive-derived antioxidants to carotenoids to curcumin all arrive at the same destination — when you solve the delivery problem, you unlock benefits that the raw compound simply could not provide on its own.

Read that again, because it is the entire point. The active ingredient was, in case after case, not the limiting factor. The delivery was. The compound had the potential all along; it just never arrived in usable form. And that means the path to better results runs not through ever-higher doses of poorly delivered compounds, but through smarter delivery of sensible ones.

What This Means for You

Start asking better questions about everything in your supplement cabinet. A high dose on the label means very little if most of it never arrives. When you evaluate a product, look past the headline number and ask how the compound is delivered — whether the formulation does anything at all to help the active survive digestion and reach your tissues, or whether it simply drops a raw compound into a capsule and hopes for the best. Here are a few practical habits worth adopting:

In the next article, I am going to show you exactly how the newest delivery technologies solve this problem — the science of getting the active compound where your body can use it. And in the article after that, I will show you the first place we chose to prove it, and why we started where we did.

Because the goal was never to swallow a capsule. The goal was always to get the active compound to the cells that need it. Everything else is just packaging.

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Understanding what your body actually absorbs used to require a doctor, a lab, and a great deal of guesswork. Not anymore. Pax is the AI health coach we built to put that intelligence in your pocket, with at-home lab testing, personalized interpretation of your results, and a 24/7 coach that knows your numbers and your goals.

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