Sunday, June 26, 2016

Coenzyme Q10 and ubiquinol are two vitally important supplements that many are still unaware of.

The Many Health Benefits of Coenzyme Q10 and Ubiquinol

June 26, 2016 |By Dr. Mercola



Coenzyme Q10 and ubiquinol are two vitally important supplements that many are still unaware of. 
Risa Schulman, Ph.D., is a biologist and functional food expert who has spent the last two decades researching these and other supplements.
"I kind of pulled together my love of human physiology, plant physiology and the environment into a lifelong career, looking at how compounds in plants and various natural products can help us to keep our bodies working optimally," she says.
"My mission is to dig into the science and separate the wheat from the chaff ... and then to get the word out to the public as to what the health benefits are, how they can be used, and what things are useful."

Coenzyme Q10 Versus Ubiquinol

Ubiquinol is the reduced version of coenzyme Q10 (CoQ10, aka ubiquinone). They're actually the same molecule, but when CoQ10 is reduced it takes on two electrons, which turns it into what we call ubiquinol.
In your body, this conversion occurs thousands of times every second inside your mitochondria — the "engine" of each cell in which energy is produced
"The reason it does this flipping back and forth between these two forms of the molecule is that this is part of the process that helps us to change our food into energy," Schulman explains.
"This is very important to healthy functioning, and obviously important for all muscles, in particular your heart muscle, which works hardest of all the muscles."
In addition to converting food into energy, ubiquinol also has a number of additional functions. For starters, ubiquinol is a lipid-soluble (fat-soluble) antioxidant, meaning it works in the lipid portions of your body, such as your cell membranes. It's one of the very few antioxidants that are fat-soluble.
"Vitamin E is one of the other ones that is very well known. But ubiquinol is actually more powerful than vitamin E, because vitamin E cannot completely lodge itself inside the membrane where all the oxidative activity is happening whereas ubiquinol can."
The second thing that sets ubiquinol apart from other antioxidants is that it can regenerate itself. Vitamin E, for example, cannot. In fact, vitamin E is regenerated by ubiquinol. Ubiquinol is also the only fat-soluble antioxidant that's actually generated within your body and doesn't have to be ingested from your food.

Why Ubiquinol Is a Better Choice for Many

Ubiquinol production ramps up from early childhood up until your mid- to late 20s. By the time you hit the age of 30, it begins to decline. Young people are able to use CoQ10 supplements quite well, but older people do better with ubiquinol as it's more readily absorbed.
According to Schulman, some people cannot convert CoQ10 to ubiquinol at all in their bodies, and they definitely need to use ubiquinol or they won't get any of the benefits.
"If someone takes a CoQ10 supplement, the body very quickly will convert it to ubiquinol, because that's the preferred form. It will transport that CoQ10 through the blood, as ubiquinol, into the tissues and eventually into the mitochondria,"she explains.
“But there are some people who lack the enzyme that helps to convert the CoQ10 to ubiquinol. That could be partly due to aging, but it’s also genetic. There’s something called a single nucleotide polymorphism SNP).
There's a particular SNP that's called NQO1. When a person has either one or two copies of this SNP, their ability to convert CoQ10 is either slightly or severely compromised.
What that means, practically, is that if this person takes a CoQ10 supplement ... their body can't convert it in a way that makes it usable. Those people in particular can benefit very much from taking ubiquinol, instead of ubiquinone."
Research has shown that Hispanic and Chinese populations are especially prone to having this single nucleotide polymorphism. There are also genetic tests you can get that can identify whether you have it.

How to Regenerate CoQ10 Naturally

Interestingly, recent research shows you can improve your body's conversion of CoQ10 to ubiquinol by eating lots of green leafy vegetables, which are loaded with chlorophyll, in combination with sun exposure.
Once chlorophyll is consumed it gets transported into your blood. Then when you expose significant amounts of skin to sunshine, that chlorophyll absorbs the solar radiation and facilitates the conversion of CoQ10 to ubiquinol.
You can also improve absorption of CoQ10 by taking it with a small amount of healthy fat, such as some olive oilcoconut oil, or avocado.

Ubiquinol Combats Free Radicals in Your Mitochondria

About 90 percent or more of the reactive oxygen species (ROS) in your body are produced in your mitochondria. Using the analogy of the mitochondria as an engine, the combustion (metabolism) that takes place in there creates exhaust fumes — damaging byproducts.
One of the functions of ubiquinol is to mop up those byproducts. When ubiquinol is lacking, the byproducts remain and begin damaging the cell. Ubiquinol is particularly beneficial for your heart health, a marker for which is C-reactive protein. When C-reactive protein is elevated it suggests you have a heightened risk for heart disease, as it's a marker for inflammation.
Two other markers for inflammation are gamma-glutamyl transferase (GGT), which is an early marker of heart failure, and NT-proBNP. There's an association between the levels of these two markers and ubiquinol as well. When ubiquinol is supplemented, both these markers go down and genes associated with them are downregulated.

The Case for a Healthy High-Fat Diet

Over the past 15 years, scientists have begun to recognize that ROS are not 100 percent bad. They're also important signaling molecules. If you indiscriminately suppress them you can actually run into complications with the Law of Unintended Consequences. In my view, a wise strategy is to simply feed your body a cleaner fuel to suppress excess ROS generation.
To continue the analogy of your mitochondria being an engine, to prevent pollution you want to use a cleaner-burning fuel. Glucose is an inherently "dirty" fuel that generates lots of ROS, whereas healthy dietary fats, including saturated fats, burn much cleaner and more efficiently.
In fact, burning carbohydrates is associated with a 30 to 40 percent increased production of ROS compared to burning fat. It makes a lot of sense that if you produce fewer ROS to begin with, then you don't have to be as careful about supplying your body with antioxidants. (Personally, I have some concern over indiscriminate use of antioxidants, but not necessarily ubiquinol.)
“Counter to how we’ve all been trained to think in the last years, regarding the free radical theory of aging, you don’t want to suppress it all the time,” Schulman says. “In fact, free radicals actually play a very critical positive role in the body because they turn on various very important functions.
Nitric oxide, for example, has free radical properties. It's a critical signaling molecule and is also critical for the health of your arteries. I haven't read anything in the literature regarding whether there's a discriminating or non-discriminating suppression of reactive oxygen species by ubiquinol in the mitochondria.
But my understanding of the biochemistry and the bioenergetics that are happening there leads me to believe that it's more of a random process."
Another strategy you could use to reduce the production of excess ROS involves the timing of your last meal of the day. Many make the mistake of eating a large meal before they go to bed.
By supplying your body fuel at a time when very little is needed leads to the generation of excess ROS that then must be countered with antioxidants. Avoiding food for at least three hours or more before bedtime can take the load off your body by preventing excess ROS production in the first place.
Finally, making sure you are not overloaded with iron is another powerful strategy. Believe me, iron overload is every bit as dangerous as vitamin D deficiency. If you are an adult male or non-menstruating woman then you are at high risk. 
Please make sure you get your ferritin level checked and confirm that the level is below 80 nanograms (ng)/milliliters (ml), preferably between 40 and 60 ng/ml. If it is higher than that then it is imperative that you regularly donate your blood or have therapeutic phlebotomies to get it in that range.

Statin Users Are in Dire Need of CoQ10

At least 1 in 4 American adults over the age of 40 are currently taking a statin drug to lower their cholesterol. Soon that number is expected to reach 1 in 3. Statins work by inhibiting the enzyme HMG-CoA reductase, which is one of the facilitators of your body's production of cholesterol. But statins also impair production of CoQ10, and the resulting depletion can have very severe consequences.
"This is a very important topic," Schulman says. "Many who take statins have the side effects of muscle pain, fatigue and memory loss — to such a point that compliance becomes an issue; people don't want to be on statins anymore. It's been documented and recognized medically that these are real effects and that they're due to the statins. What's actually happening? The way a statin works is that it blocks your body's production of cholesterol.
We're always thinking about cholesterol from the diet ... Most people don't realize that cholesterol in the body comes from two places: from the diet and from your internal production of cholesterol. Cholesterol is quite important to your body, because cholesterol is one of the major components of cell membranes. It's also the precursor for all the sex hormones. It's not all bad. It's just bad when there's too much and that depends on what kind as well."
Besides shutting down your body's ability to produce ubiquinol, statin drugs also shut down the conversion of vitamin K1 to vitamin K2, which is critically important in many body functions, including heart health.
Impairing these three pathways — the production of cholesterol and CoQ10, and the vitamin K1 to K2 conversion — has adverse effects on the production of energy and on cardiovascular health, and here's why: when you reduce your ubiquinol levels, the conversion of your food to energy becomes less efficient, which leads to lower energy, fatigue and muscle pains.
And the longer you're on a statin drug, the more ubiquinol-starved your body becomes and the more severe the side effects become. Recently published papers have also detailed the cardiovascular repercussions of statins. As it turns out, they actually end up causing many of the disease endpoints the drugs promised to prevent. But that's not all!

Statins Severely Compromise Your Metabolism

As mentioned, one of the most rational strategies to reduce ROS production is to burn clean fuel. Ultimately, that results from eating a diet high in healthy high-quality fats. When fat is metabolized, ketones are created — a fat-soluble molecule that is readily burned in the mitochondria without causing the production of excess ROS.
Ketones are produced in the liver, and the enzyme that produces ketones is the same that produces cholesterol, namely HMG-CoA reductase. So when you're taking a statin drug, you also severely diminish your liver's ability to make ketones, thereby compromising your ability to benefit from a clean fuel (fat). In short, your metabolism becomes severely compromised.
Even if you're taking vitamin K2 and ubiquinol, you still have to address the fact that you cannot make ketones, because you cannot take a ketone supplement. Ultimately, this has cardiovascular consequences as well, because your heart is the most mitochondrial-dense tissue in your body. If you deprive your cardiac tissue of fuel, by definition you impair your cardiovascular health.

Ubiquinol Benefits Heart Failure Patients

Heart failure is nearly at epidemic levels. There's a specific physiological condition called diastolic dysfunction where your ventricle hardens. As a result, your heart cannot properly refill with blood during diastole. This can eventually progress to heart failure. Unfortunately, many who have this condition don't even know it. There are markers that can be used to screen for it though, including NT-proBNP and GGT.
"There are a couple of papers out there now that talk about actual physician experience with patients with heart failure. They had some of these patients on CoQ10, and then they ended up switching to ubiquinol because of the better absorption. But the bottom line is that they saw a reversal in the New York Heart Association class.
That's the New York Heart Association's way of rating the severity of the disease. They see reductions in the severity of the disease. They see improvement in the ejection fraction, which is a measure of how well the heart is working in patients ... This is one of the other fantastic benefits of ubiquinol and something that both doctors and patients should know about,"Schulman says.
I personally think all heart failure patients should be on ubiquinol. To me, failure to do so is medical negligence. When it comes to heart health, a more general benefit is that ubiquinol also acts as an antioxidant in your blood, where it prevents the oxidation of LDL cholesterol, thereby helping prevent atherosclerosis. This is another important heart health function of ubiquinol.

Suggested Dosing Recommendations

Dosing requirements will vary depending on your individual situation and needs, but some general guidelines can still be made. As a general rule, the sicker you are, the more you need. According to Schulman, the highest amount she's seen used in a research setting was 600 milligrams (mg) per day, and that was for severely ill people.
If you're just starting out with ubiquinol, start with 200 to 300 mg per day. Within three weeks, your plasma levels will typically plateau to its optimum level. After that, you can go down to a 100 mg/day maintenance dose. This dose is typically sufficient for healthy people. If you have an active lifestyle, exercise a lot, or are under a lot of stress due to your job or "life" in general, you may want to increase your dose to 200 to 300 mg/day.
Remember, if you're on a statin drug you MUST take at least 100 to 200 mg of ubiquinol or CoQ10 per day, or more. To address heart failure and/or other significant heart problems you may need around 350 mg per day or more. Ideally, you'll want to work with your physician to ascertain your ideal dose. Your doctor can do a blood test to measure your CoQ10 levels, which would tell you whether your dose is high enough to keep you within a healthy range.
CoQ10 (or ubiquinol) is also appropriate for those with other chronic diseases besides heart problems, such as diabetes, amyotrophic lateral sclerosis (ALS), chronic fatigue and autism for example. Ideally, you'll want to split the dose up to two or three times a day, rather than taking it all at once, as this will result in higher blood levels.
Other dosing guidelines, as presented by Dr. Stephen Sinatra (a board-certified cardiologist, and a prominent expert in the field of natural cardiology) include:
Hypertension, 200 mg/day
World class athletes who need extra ATP turnover, 300 to 600 mg/day
Heart transplant or severe congestive heart failure (CHF), 300 to 600 mg/day in divided doses
Arrhythmia, 200 mg/day
Typical athletes, 100 to 300 mg/day
Mitral valve prolapse, a combination of 400 mg magnesium and 100 to 200 mg of ubiquinol

Saturday, June 11, 2016

How Nutrition Influences Cancer

How Nutrition Influences Cancer

June 11, 2016      
By Dr. Mercola
Is it possible that chromosomal damage is simply a marker for cancer and not the actual cause of the disease? Compelling evidence suggests this is the case, and in the featured lecture, orthopedic surgeon Dr. Gary Fettke reviews some of this evidence.
Having battled cancer himself, Fettke came to realize the influence of NUTRITION on cancer, and the importance of eating a diet high in healthy fats and low in net carbohydrates (total carbs minus fiber, i.e. non-fiber carbs). Fettke is not the only one promoting the metabolic model of cancer.
Earlier this year I interviewed Travis Christofferson, author of a phenomenal book called "Tripping Over the Truth: The Return of the Metabolic Theory of CancerIlluminates a New and Hopeful Path to a Cure," on this topic.

The Metabolic Model of Cancer

The Cancer Genome Atlas project that began in 2006 set out to sequence the genomes of cancer cells. It was the largest government project ever conceived, involving 10,000 times the amount of genetic sequencing done by the Human Genome Project. Alas, the results didn't conform to their original expectations.
The evidence clearly showed that something other than mere gene mutation was at play. The mutations found in cancer cells were simply too random. Some cancers didn't even have any genetic mutations driving them. So what then could the driving factor be?
In a nutshell, the nuclear genetic defects typically thought to be responsible for cancer actually occur further downstream. Mitochondrial damage happens first, which then triggers nuclear genetic mutations that may lead to cancer.
Moreover, scientists are now finding that mitochondrial dysfunction is at the core of virtually ALL diseases, placing mitochondrial function at the very center of just about any wellness or disease prevention program.
As Fettke notes, one of the primary considerations is glucose metabolism within your mitochondria — a theory initially brought forth by Dr. Otto Warburg in the 1920s.
In 1931, Warburg won the Nobel Prize in Physiology or Medicine for his discovery that cancer cells have a fundamentally different energy metabolism compared to healthy cells. As it turns out, cancer cells do not have the same metabolic flexibility as healthy ones.

Cancer Cells Are Metabolically Limited to Feed on Sugar

A cell can produce energy either aerobically, in the mitochondria, or anaerobically, in the cytoplasm. Anaerobic metabolism generates excessive levels of lactic acid, which can be toxic.
Warburg discovered that in the presence of oxygen, cancer cells overproduce lactic acid, and this became known as the Warburg Effect. So what does this tell us about the nutritional origins of cancer? In a nutshell, Warburg's findings tell us that sugar "feeds" cancer while fats "starve" it.
Healthy cells can use either glucose or ketone bodies from fat as an energy source, but cancer is metabolically restricted to using glucose only. Cancer cells for the most part lack metabolic flexibility and simply cannot metabolize ketones, and this is whynutritional ketosis appears to be so effective against cancer.
Cancer could actually be more accurately classified as a mitochondrial metabolic disease. Few people inherit genes that predispose them to cancer. Most inherit genes that prevent cancer. Inherited mutations typically disrupt the function of the mitochondria, and the heightened risk for cancer is a result of that weakness.
The good news is you can optimize your mitochondrial function by addressing certain lifestyle factors such as diet and exercise, and this knowledge opens up a whole new way of looking at and treating cancer.
As explained by Fettke, the metabolic model of cancer is "based around energy and growth; random chromosomal mutations are secondary." Furthermore:
"All cells require an energy source of adenosine triphosphate (ATP). They also require building materials that are either sourced locally or transported in normal cells convert glucose primarily into ATP and a little into maintenance.
Cancer cells do the opposite. There's a diversion of glucose away from ATP production to the building materials required for cell growth ... The other building materials require protein and fatty acids and cancer steals those from its surroundings.
That invasion of surrounding tissue accounts for how cancer spreads and metastasizes ... The driving force behind all of this is oxygen-free radical production.
I believe the free radical production then causes the DNA damage in a random fashion, and account for the chromosomal abnormalities. So, if we can find the source of the oxygen free radicals, we might be onto something."

Processed Food Diet Is a Major Cancer Promoter

What drives free radical production? Inflammation is a major driver, and our modernprocessed food diet is highly inflammatory.
Key culprits include polyunsaturated fats (PUFAs), trans fats and added sugar in all its forms, especially processed fructose (such as high-fructose corn syrup), as well as refined grains. Artificial ingredients can also promote inflammation.
By reducing the amount of net carbs you eat, you will accomplish four things that will result in lowered inflammation and reduced stimulation of cancer growth. You will:
  1. Lower your serum glucose level
  2. Reduce your mTOR level
  3. Reduce your insulin level
  4. Lower insulin growth factor-1 (IGF-1, a potent hormone that acts on your pituitary gland to induce metabolic and endocrine effects, including cell growth and replication. Elevated IGF-1 levels are associated with breast and other cancers)
Indeed, one of the basic reasons why a high-fat, low-net carb diet (nutritional ketosis) works so well is because it drives your inflammation down to almost nothing. And when inflammation disappears, your body can heal.

What Cancer Requires for Growth

In order to thrive and grow, cancer cells need fuel in the form of glucose, plus building materials in the form of protein, fatty acids, phosphate and acetate. These building materials are not readily available in your bloodstream, so cancer cells "steal" them from surrounding cells.
The process that allows the cancer cells to invade surrounding tissue is known as the Reverse Warburg Effect. This effect is based on hydrogen peroxide generation caused by the interaction between oxygen free radicals and water.
So invasive or metastasizing cancer, in essence, is the result of the Warburg Effect and the Reverse Warburg Effect. I highly recommend viewing the featured video to get a better grasp on these processes, and how they contribute to cancer formation and spread. As noted by Fettke, knowing all of this presents us with a whole new set of cancer prevention and treatment options, including the following:
  • Limit or eliminate sugar and net carbohydrates (non-fiber carbs) to avoid feeding cancer cells
  • Limit or eliminate PUFA oils and trans fats to prevent the formation of harmful free radicals and damaging small, dense LDL particles
  • Limit protein (I recommend using a formula of one-half gram of protein per pound of lean body mass) to avoid stimulating mTOR pathway
  • Increase antioxidant intake (via whole food and/or supplements) to counteract free radical damage
  • Increase healthy fat intake to feed healthy cells while starving cancer cells

The Importance of Diet for Successful Cancer Treatment

Remember, the foundational aspect that must be addressed is the metabolic mitochondrial defect, and this involves radically reducing the non-fiber carbohydrates in your diet and increasing high-quality fats. This does not mean a low total carbohydrate diet. You need to have plenty of fresh, organic and fiber-filled vegetables (low net carbs).
You can actually have several hundred grams of vegetables per day as the fibers will be converted to short-chain fatty acids, which will improve your ability to burn fat for fuel and also nourish your microbiome.
You can replace the non-fiber carbs with up to 70 to 85 percent healthy fats, along with a moderate amount of high-quality protein, as excessive protein can also trigger cancer growth by stimulating mTOR, which accelerates cancer growth. That's really the solution. If you don't do that, other treatments may not work.
According to Fettke, studies have shown that nutritional ketosis, i.e. eating a high-fat, low-net carb diet significantly improves health outcomes in patients undergoing conventional cancer treatment such as chemotherapy.
It's also important to remember that glucose is an inherently "dirty" fuel as it generates far more reactive oxygen species and secondary free radicals than burning fat. But to burn fat, your cells must be healthy and normal. Cancer cells lack the metabolic flexibility to burn fat and this why a healthy high-fat diet appears to be such an effective anti-cancer strategy.
When you switch from burning glucose as your primary fuel to burning fat for fuel, cancer cells really have to struggle to stay alive, as most of their mitochondria are dysfunctional and can't use oxygen effectively to burn fuel. At the same time, healthy cells are given an ideal and preferred fuel, which lowers oxidative damage and optimizes mitochondrial function. The sum effect is that healthy cells begin to thrive while cancer cells are starved.  

General Nutrient Ratio Guidelines for Mitochondrial Health and Cancer Prevention

For optimal health, you need sufficient amounts of carbohydrates, fats, and protein. However, ever since the advent of processed foods and industrial farming, it's become increasingly important to be specific when discussing these nutrients. There are healthy fats and unhealthy ones. Ditto for carbohydrates and protein. Much of the benefits or risks are related to how the food was grown, raised, and/or processed.
To achieve nutritional ketosis, it is important to keep track of your net carbs and total protein intake. Net carbs are calculated by taking the total number of carbohydrates in grams and subtracting the amount of fiber contained in the food. The resulting number is your net carbs. For optimal health and disease prevention, I recommend keeping your net carbs below 40 or 50 grams per day.

Translating Ideal Protein Requirements Into Foods

Substantial amounts of protein can be found in meat, fish, eggs, dairy products, legumes, nuts, and seeds. Some vegetables also contain generous amounts of protein — for example, broccoli. To determine whether or not you're getting too much protein, simply calculate your body's requirement based on your lean body mass by subtracting your percentage of body fat from 100, and write down everything you eat for a few days. 
Then, calculate the amount of daily protein you've consumed from all sources. Again, you're aiming for one-half gram of protein per pound of lean body mass. If you're currently averaging a lot more than what is optimal, adjust downward accordingly. You could use the chart below or simply Google the food you want to know and you will quickly find the grams of protein in that food.
Red meat, pork, poultry, and seafood average 6 to 9 grams of protein per ounce.
An ideal amount for most people would be a 3-ounce serving of meat or seafood (not 9- or 12-ounce steaks!), which will provide about 18 to 27 grams of protein
Eggs contain about 6 to 8 grams of protein per egg. So an omelet made from two eggs would give you about 12 to 16 grams of protein
If you add cheese, you need to calculate that protein in as well (check the label of your cheese)
Seeds and nuts contain on average 4 to 8 grams of protein per quarter cup
Cooked beans average about 7 to 8 grams per half cup
Cooked grains average 5 to 7 grams per cup
Most vegetables contain about 1 to 2 grams of protein per ounce

Beware of Unhealthy Fats

When it comes to fat, it's really crucial to distinguish healthy from the unhealthy ones. The vast majority of fats people eat are actually very unhealthy. As a general rule, avoid all processed and bottled vegetable oils, which are typically high in damaged omega-6 fats. (Also be careful with olive oil. While healthy, up to 80 percent of commercial olive oils are actually adulterated with oxidized omega-6 vegetable oils, so make sure it's third party-certified as genuine.)  
Another general rule: do not be afraid of naturally saturated fats! They're among the healthy ones. Sources of healthy fats you want to include more of in your diet include:
Olives and olive oil (third party-certified authentic)
Coconuts and coconut oil
Butter made from raw grass-fed organic milk, and cacao butter
Raw nuts, such as, macadamia and pecans, and seeds like black sesame, cumin, pumpkin, and hemp seeds
Organic-pastured egg yolks
Grass-fed meats
Lard, tallow and ghee
Animal-based omega-3 fat such as krill oil

Nutritional Ketosis Can Offer Hope and Health

Fettke finishes his lecture listing a number of known benefits of nutritional ketosis in the treatment of cancer, including the following:
It's safe
It's well-tolerated
It can be used with other cancer treatments (and may actually improve the effectiveness of conventional cancer treatments)
Ketones are protective to surrounding cells, reducing the power of the cancer to spread
It gives patients a sense of control, which has been shown to improve survival rates
If useful as a treatment, it should certainly be considered for prevention
It gives patients hope, which also improves survival
It's the least expensive cancer treatment available

A Radical Experiment in Nutritional Ketosis

To give you an idea of how nutritional ketosis can benefit your health beyond cancer prevention, consider the case of Dr. Peter Attia. His experiment is a very clear example of the effects diet can have on overall health markers. Attia is a Stanford University-trained physician with a passion for metabolic science, who decided to use himself as a lab rat — with incredible results. He describes his experiment in the video below.
Although he's always been active and fit, he did not have genetics on his side. His natural tendency was toward metabolic syndrome, in spite of being very diligent about his diet and exercise. So he decided to experiment with nutritional ketosis to see if he could improve his overall health status. 
For a period of 10 years, he consumed 80 percent of his calories from healthy fat and continuously monitored his metabolic markers, such as blood sugar levels, body fat percentage, blood pressure, lipid levels and others. 
He experienced improvement in every measure of health, as you can see in the table below. An MRI confirmed that he had lost not only subcutaneous fat but also visceral fat, which is the most detrimental type. His experiment demonstrates how diet can produce major changes in your body, even if you are starting out relatively fit. And if you're starting out with a low level of fitness, then the changes you experience may be even more pronounced.

BEFOREAFTER
Fasting blood sugar10075 to 95
Percentage body fat2510
Waist circumference in inches4031
Blood pressure130/85110/70
LDL11388
HDL3167
Triglycerides15222
Insulin sensitivityIncreased by more than 400 percentIncreased by more than 400 percent