Thanks to the excellent efforts of health education organizations like the American Heart Association, we’ve learned a lot about cholesterol and how it affects our health.

We know: high cholesterol levels increase our risk for heart attacks and strokes: lowering our cholesterol levels will reduce this risk and keep our hearts and blood vessels healthy; and that diet, weight loss, and exercise will all help us in our quest to lower our cholesterol levels. We also know at times, despite these good efforts, some people’s cholesterol levels are still too high.

Prescription drugs to lower cholesterol are now available and they are heavily advertised by the pharmaceutical companies that make them. What the commercials neglect to say is these medications, collectively called statin drugs, have some serious side effects. Statin drugs can cause elevations in liver enzymes, an indication of liver irritation. They are associated with myopathy, a painful disorder of muscle inflammation and muscle degeneration. Ironically, statin drugs significantly reduce CoQ10 levels in the body, a deficit that can lead to heart disease.

Statin drugs have also been linked to a rare and at times, fatal condition called rhabdomyolysis. Because of this alarming link, the makers of cerivistatin, a popular stain drug, recalled this medication from the market on August 8, 2001. The Food and Drug Administration a greed with the recall and supported the decision.

Thankfully, there is a safe solution to the dangers of high cholesterol levels. A natural dietary supplement is now available that can lower cholesterol very effectively without any harmful side effects. Backed by many years of scientific research and clinical study, pantethine and plant sterols, also known as phytosterols, are nature’s answer to dangerous prescription cholesterol lowering medications.

To understand how pantethine and plant sterols work to lower cholesterol levels, we need to first review what we know about cholesterol and heart disease.

 

Q. What exactly is cholesterol?

A. Cholesterol is a soft, waxy, fat-like substance found in every cell of the body. We need cholesterol to help digest fats, strengthen cell membranes, insulate nerves, and make hormones. Cholesterol is made primarily in the liver but also by cells lining the small intestine and by individual cells in the body. While our body makes all of the cholesterol we actually need (about 1,000 milligrams a day), we also get additional cholesterol from foods we eat.

The highest source of cholesterol are egg yolks and organ meats such a liver and kidney. No plant-derived food contains cholesterol, not even peanut butter or avocado, even though these foods are high in fat. However, all foods from animal sources such as meats, poultry, fish, eggs, and dairy products contain cholesterol.

 

Q. How does cholesterol cause heart disease?

A. Although cholesterol serves many important functions in the body, too much cholesterol in the bloodstream can be dangerous. When blood cholesterol reaches high levels, it builds up on artery walls, increasing the risk of blood clots, heart attack, and stroke.

The heart is a muscle, and like all muscles, needs a constant supply of oxygen and nutrients. The bloodstream transports these nutrients to the heart through the coronary arteries. If the coronary arteries became narrowed or clogged by cholesterol and fat deposits (artherosclerosis) and cannot supply enough blood to the heart, the result is coronary heart disease (CHD). IF not enough oxygen-carrying blood reaches the heart muscle, a sharp, sudden chest pain (angina) may occur. If the blood supply to a portion of the heart is completely cut off by total blockage of a coronary artery, the result is a heart attack. This is most often caused from a blood clot forming on top of an already narrowed artery.

 

Q. What is LDL and HDL cholesterol?

A. Cholesterol and other fats can’t dissolve in the blood and, therefore, can’t travel on their own. They have to be transported to and from the cells by special carriers called lipoproteins. The two major lipoproteins are low density lipoproteins (LDL) and high density lipoproteins (HDL). LDL is most often referred to as the “bad” cholesterol whereas HDL is known as the “good” cholesterol.

LDLs carry cholesterol throughout the body to the cells. LDLs cause artherosclerosis by clogging up our arteries with the continual buildup of fat. HDL, on the other hand, prevents this fat buildup within arterial walls, by carrying it away from the arteries, to the liver where it is eventually processed and eliminated.

 

Q. What are triglycerides?

A. Triglycerides are fats used as fuel by the body and as an energy source for metabolism. Triglyceride levels fluctuate easily, changing after every meal. Increased levels are almost always a sign of too much carbohydrate and sugar intake. Triglycerides in high amounts make the blood more sluggish and less capable of transporting oxygen, particularly through the small blood vessels. High triglycerides, along with high LDL “bad” cholesterol, are considered strong and independent risk factors for cardiovascular disease, leading to a heart attack or stroke.

There are several medications physicians can prescribe for people with elevated triglyceride levels. Some of the most effective (as well as the most harmful) are the statins. The powerful, all-natural combination of pantethine and plant sterols can safely and, just as effectively, lower both triglycerides and LDL “bad” cholesterol and increase HDL “good” cholesterol.

 

Q. What is pantethine and how does it lower cholesterol?

A. Pantethine, a form of pantothenic acid (also known as vitamin B5) is found in foods such as liver, salmon, and yeast. Pantethine lowers cholesterol by blocking its production.

Cholesterol synthesis, or the production of cholesterol in the human body, is an incredibly complex process. It involves many biochemical reactions and enzymes activity requiring several steps.

Studies have shown that pantethine inhibits several of these enzymes and coenzymes. It blocks the activity of one coenzyme involved in cholesterol synthesis, HMG-CoA, by about 50%. This results in significantly lower cholesterol production. But, that’s not all. To compensate for the lowered cholesterol production, the liver pulls LDL out of the bloodstream. The end results? Studies have shown that on average, pantethine can lower total cholesterol levels by 16%, LDL cholesterol levels by 14%, serum triglycerides by 38%, and can raise HDL cholesterol by 10%.

 

Q. What are plant sterols and how do they lower cholesterol levels?

A. Plant sterols are the fats of plants. They are found in nuts, vegetable oils, corn, and rice. Plant sterols are structurally similar to cholesterol and are able to act as a stand-in for cholesterol and block its absorption.

The liver receives about 800 mg of cholesterol every day from intestinal absorption. Cholesterol is absorbed from the intestines through receptor sites – special channels that are shaped exactly like cholesterol molecules. The cholesterol enters these channels and is then absorbed into the bloodstream. Because plant sterols look like cholesterol, they fit perfectly into these channels. The cholesterol, being blocked from absorption, remains in our intestines where it is eventually excreted.

If we eat enough plant sterols, the amount of cholesterol transported from the intestinal tract to the liver is greatly reduced. And, just like pantethine’s effect on the liver, this cholesterol reduction causes the liver to pull LDL cholesterol out of the blood, reducing both total and LDL cholesterol levels.

 

Q. Can’t we get the benefit of plant sterols and pantethine just by eating those foods that contain them?

A. These amounts of plant sterol and pantethine found in food just aren’t enough to have much of an effect on our health. In order to lower cholesterol levels, we need to take a concentrated combination of pantethine and plant sterols in just the right ratio.

Plant sterols are bound in fibers in the plants. Even if we ate lots of raw fruits and vegetables, we wouldn’t be getting many of these beneficial plant fats. There are also several forms of plant sterols. Some ratios of these plant sterols are more beneficial than others. On the average, we eat 160 to 360 mg of plant sterols a day.

While pantethine is found in several food sources, it is difficult to get beneficial amounts from our food. There are about 12 mg of pantethine in 3 ounces of brewer’s yeast and 8 mg in an average serving of liver.

 

Q. How much pantethine and plant sterol combination should I take?

A. Many studies have examined the effects of pantethine and plant sterols on cholesterol levels resulting in the determination of the most effective amounts to take of these heart healthy nutrients.

Manufacturers of high quality nutritional supplements offer pantethine combined with plant sterols in the most beneficial ratio as determined by the research. The best results are obtained by taking a combination of 400 mg of plant sterols and 200 mg of pantethine three times a day.

 

Q. Should only people with actual heart disease or those with high cholesterol levels be concerned about cholesterol?

A. No, recent studies have shown that cholesterol lowering in people without heart disease greatly reduces their risk for ever developing CHD, including heart attacks and artherosclerosis. This is true for those with high cholesterol levels and for those with average cholesterol levels.

Most physicians would never consider prescribing statin drugs to people without actual heart disease or high cholesterol levels because of the many health risks of the drugs. But the combination of pantethine and plant sterols can naturally and very effectively help those people with heart disease, high cholesterol levels, high triglyceride levels (or all three!) as well as those of us just wanting added “health insurance” for our hearts.

 

Q. Are pantethine and plant sterols safe?

A. Yes, both pantethine and plant sterols are very safe. Some people may experience some mild stomach upset when they first take pantethine. Taking the combination of pantethine and plant sterols with meals generally solves this problem.

 

Conclusion

Americans have listened, learned, and most importantly, taken to heart the vast and vital information on the need to keep our cholesterol levels under control. The result? More and more Americans are lucky enough to die of old age. The Centers for Disease Control recently released a report stating that the average American life expectancy has reached a new high of 76.9 years, thanks in no small measure to fewer people who are dying from heart disease,

The authors of this report stated that we could push our life expectancy even higher. We can attain healthy, old age by eating right, exercising regularly, and taking other simple steps to promote good health and prevent serious illness and heart disease. Taking the all-natural combination of pantethine and plant sterols is one simple, yet powerful step, to keep our hearts and blood vessels healthy for a long, long time.

Active CoQ10

 

The benefits of Coenzyme Q10 have become increasingly well-known. This important nutrient has been shown in clinical trials to improve heart function, reduce the side effects of certain drugs used to treat cancer, and slow the progression of serious brain diseases such as Parkinson’s disease. Now research has opened a new chapter in the CoQ10 story, highlighting the benefits of ubiquinol, the active form of CoQ10, to increase energy and stamina, and reduce some of he physical signs of aging.

In this issue of Ask the Doctor we will review the benefits of Coenzyme Q10, and discuss the differences between CoQ10 and its active form –ubiquinol.

 

Q. What is CoQ10?

A. CoQ10 is a natural, fat-soluble nutrient present in virtually all cells. CoQ10 also is known as ubiquinone. That’s because CoQ10 is ubiquitious and exists everywhere there is life. CoQ10 is vital to adenosine triphosphate (ATP) production. ATP is the energy-rich compound used for all processes requiring energy in the body. Although CoQ10 is produced by the body and exists in some limited dietary sources, these levels may be insufficient to meet the body’s requirements. CoQ10 levels diminish with age and as a result of dietary inadequacies and various disease states. Also, some drugs, especially a group of cholesterol lowering prescription drugs known as “statins,” (Pravachol, Zocor, Lipitor, etc.) significantly reduce CoQ10 levels in the body.

 

Q. What is ubiquinol? Is it the same or different from CoQ10?

A. Ubiquinol and CoQ10 are very closely related. Ubiquinone, or CoQ10, is the oxidized form of the molecule. This means it has to be converted to a non-oxidized form before it can perform its work. Ubiquinol is the active form of this nutrient. Our bodies convert CoQ10 to ubiquinol – which is the form needed to produce cellular energy. Until recently, it was not possible to use ubiquinol as a supplement because it is very unstable outside the human body. But research has now found a way to keep this molecule stable so it can be successfully taken in supplement form.

 

Q. If CoQ10 gets converted to ubiquinol anyway, can’t I just take CoQ10?

A. While it is true that our bodies can convert CoQ10 to ubiquinol, it isn’t true that we all do this equally well. In fact, as we age, our ability to convert CoQ10 to ubiquinol declines. And some people even have a gene that makes them less effective at this conversion than the majority of the population. IN fact, several common health issues have been associated with less than optimal ratios of CoQ10 to QH. For healthy people the ideal ratio is approximately 97% Ubiquinol to 3% CoQ10. But in people with diabetes, for example, the ratios have been found to range from 43% ubiquinol to 47% CoQ10 in mild diabetes, to only 24% ubiquinol to 76% CoQ10 in severe diabetes. These numbers are for men; the numbers for women vary by 2 to 5 percentage points.

So for older folks, the 30-50% of people who have the gene that impairs CoQ10 conversion, or for people who have serious health concerns, supplementing with ubiquinol instead of CoQ10 might be the smart choice.

 

Q. What are the health benefits of CoQ10 and Ubiquinol?

A. There have been many studies showing that CoQ10 is beneficial in treating and preventing heart disease and conditions such as high blood pressure atherosclerosis (hardening of the arteries), angina, and congestive heart failure (CHF). It’s been shown that heart attacks tend to occur when CoQ10 levels are low in the body. Exciting new research has found that CoQ10 in a unique delivery system supplementation may slow the progression of symptoms associated with neurological diseases such as Parkinson’s disease, ALS, Huntington’s disease and Alzheimer’s disease.

In addition, CoQ10 is beneficial for diabetes, immune dysfunction, cancer, periodontal disease, prostate cancer, and neurological disease. While the research on ubiquinol is still very new, it is reasonable to expect that its benefits will be equal to or perhaps even better than CoQ10, because it is the more active form.

 

Q. Why is CoQ10 especially important for preventing and treating heart disease, and for neurological diseases like Parkinson’s disease?

A. The heart and brain are some of the most metabolically active tissues in the body. Both require large amounts of uninterrupted energy, which means these tissues also need increased amounts of ubiquinol. Research has shown that many people with heart of brain diseases have serum CoQ10 levels that are lower than those of healthy people. Correcting such deficiencies often can produce significant results. However, these diseases become more common as we age – right at the time our ability to convert CoQ10 to its active form, ubiquinol, declines.

 

Q. How might ubiquinol be important for the heart?

A. Heart Health: A study on patients admitted to the hospital with an acute myocardial infarction (AMI) found that CoQ10 can provide rapid protective effects in patients with a heart attack if administered within three days of the onset of symptoms. Seventy-three patients received CoQ10 (120 mg/d). The study’s control group consisted of 71 similarly matched patients with acute AMI. After treatment, angina pectoris (severe chest pain signifying interrupted blood flow to the heart), total arrhythmias (dangerously irregular heartbeats), and poor function in the left ventricle (the essential chamber of the heart) were significantly reduced in the CoQ10 group compared to the placebo group. Total deaths due to sudden cardiac failure and nonfatal heart attacks also were significantly reduced in the CoQ10 group compared with the placebo group.

In another study, CoQ10 was studied in 109 patients with high blood pressure (hypertension). The patients were given varying doses of supplemental CoQ10 with the goal of attaining a certain blood level (greater than 2.0 mcg/l). Most patients were on medications to treat hypertension. Half the patients were able to stop taking some or all of their prescription drugs at an average of 4.4 months after starting CoQ10. The 9.4% of patients who had echocardiograms, performed both before and during treatment, experienced a highly significant improvement in heart wall thickness and function. This improvement was directly attributed to CoQ10 supplementation.

Congestive heart failure (CHF) is a debilitating disease that affects 5 million people in the U.S. It causes edema, difficult breathing, and impaired circulation. In another study, CoQ10 restored healthy heart function in CHF patients. Patients received 100 mg of CoQ10 or a placebo twice daily for 12 weeks. Before and after the treatment period, the investigators introduced a catheter into the right ventricle of patients’ hearts to determine the degree of CHF damage to the heart muscle. The patients’ heart muscles at rest and work improved significantly. The researchers concluded CHF patients would greatly benefit from adjunctive CoQ10 treatment. Since ubiquinol is the active form of CoQ10, it may be able to overcome the hurdles to providing maximum impact, most importantly, age and genetic related inefficiencies in converting CoQ10 to active CoQ10 (Ubiquinol).

 

And Neurological Health?: A study sponsored by the National Institutes of Health showed that supplementing with CoQ10 in a unique delivery system was associated with a slowing of the progression of Parkinson’s disease. Participants were divided into 4 groups and their physical skills (coordination, walking, etc) and mental skills were evaluated. Each group then received 300 mg, 600 mg, or 1200 mg of a special form of chewable CoQ10, or a placebo. The researchers evaluated the participants after 1, 4,8, 12, and 16 months of treatment. Each participant was again scored on motor, mental, and activities of daily living skills.

The results of the study showed that the people who took the highest dosage of CoQ10-1200 mg-experienced the least decline in their physical abilities. The results were so encouraging that the researchers will be continuing with new studies, suing higher dosages to see if the results can get even better.

Huntington’s disease (HD) is a devastating and degenerative inherited disease that is always fatal. In fact, no other medication, drug, or nutritional supplement has ever been shown to cause a decline in the progression of this terrible disease. A study compared CoQ10 against remacemide (an investigational HD drug made by AstraZeneca Pharmaceuticals), in 347 HD patients who were in the early stages of the disease. Remacemide blocks glutamate, the neurotransmitter scientists think may cause the death of brain cells that occurs in Huntington’s disease. While remacemide had no effect on the progression of HD, CoQ10 showed a trend toward slowing the disease by an average of 15%. This meant the HD group taking CoQ10 was able to handle every day activities of life a little longer than the patients taking remacemide or a placebo. They also were able to focus their attention better, were less depressed, and less irritable.

The 15% slowing of decline can result in about one more year of independence of HD patients. Needless to say, the gift of an additional year of health in the lives of HD patients is incredibly significant.

Because of these impressive results, researchers are hopeful that supplemental CoQ10 will have beneficial effects for people with other neurological diseases such as ALS and Alzheimer’s disease, too. Studies are under way to confirm these effects.

Using the active form of CoQ10 helps to assure that, regardless of age or illness, the CoQ10 can have the greatest impact.

 

Q. What have been the results of research studies with Ubiquinol?

A. One of the most interesting effects of Ubiquinol that has been reported so far is its ability to slow the physical signs of aging. In laboratory studies, administration of stable ubiquinol to mice forestalled the changes associated with aging – rounded spine, patchy fur and irritated eyes. While the mice who received ubiquinol did not necessarily live longer than the mice that didn’t, they lived better. But it is important to note that these mice were bred to die at a young age. Human studies are needed to determined true impact on longevity.

Additionally, supplemental, stable ubiquinol has been shown to increase physical energy and stamina. In an animal study, the length of time rats were able to run on a treadmill before getting tired was measured. The same rats were then given ubiquinol and the treadmill test was repeated. The length of time the rats were able to run before tiring increased 150 times.

 

Q. How can one supplement have applications for neurological diseases, heart health, and even the immune system?

A. Supplements often have more than one function, especially when it’s a substance like CoQ10, which is present in all parts of the body. All nucleated cells (most cells other than red blood cells) have mitochondria and all cells require energy to function. CoQ10 is vital to ATP production. Thus, CoQ10 has applications not only in neurological (neurons or nervous system cells) and cardiac health (myocardium or heart tissue), but also for the immune system.

 

Q. Should I take CoQ10 or ubiquinol? How much should I take?

A. While everyone can benefit from CoQ10 or ubiquinol supplementation, it appears that ubiquinol should be the first choice for older adults, people with known genetic inefficiencies in converting CoQ10 to ubiquinol, and for people with serious heart disease or neurological diseases such as Parkinson’s disease, who are otherwise supplementing with high levels of CoQ10. For people in overall good health, a high quality CoQ10 supplement with proven absorption is a good choice.

Take 200 to 300 mg of CoQ10 or 100 mg ubiquinol daily, depending on your health history. The safety of both forms has been tested, and no significant side effects reported. Occasional mild stomach upset may occur. Taking your CoQ10 or ubiquinol with meals usually alleviates this rare effect.

 

Conclusion
CoQ10 is not the only answer to the complex issues of heart disease, neurological diseases, or immune dysfunction; however, research indicates that it’s a bigger piece of the puzzle than physicians and scientists ever imagines. The more we study this naturally occurring compound, the more benefits we find. And with this new ability to provide CoQ10 in its active form, ubiquinol, for the first time, even greater benefits may be derived.

The Awesome Foursome: Coenzyme Q10, L-Carnitine,

D-Ribose, Magnesium

 

The “Awesome Foursome” of Coenzyme Q10, L-Carnitine, D-Ribose, and magnesium helps our hearts metabolize energy more efficiently and protects them from the stress of cardiovascular disease. This powerful combination of nutrients goes directly to the basic biochemistry of cellular energy metabolism. Now let’s take a closer look at how Coenzyme Q10, L-Carnitine, D-Ribose, and magnesium work in synergy to promote cardiovascular health.

 

Coenzyme Q10:

Energy Recycling through the Electron Transport Chain

Coenzyme Q10 is a powerful antioxidant that helps protect the mitochondrial membrane, mitochondrial DNA, and cell walls from free-radical attack. But its most important function in the body is its central role in energy metabolism.

Most – about 90 percent – of the ATP used by cells is recycled as food (fuel) and oxidized in the mitochondria. Fatty acids, carbohydrates, and, occasionally, proteins are carried across the mitochondrial membrane and enter the Krebs’ cycle, moving from step to step and spinning off electrons. These electrons are then handed off to the electron transport chain, where, in the presence of oxygen, the energy from the electrons is captured as a phosphate group is added to ADP to form ATP. This recycling of ATP is called oxidative phosphorylation, and the by-products of these pathways are CO2 and water.

In this fashion, Coenzyme Q10 acts as a gatekeeper of electrons, making sure they are carried to just the right place to pass on their life-giving energy.

What is critical, however, is the simple fact that without Coenzyme Q10 the electron transport chain would totally break down. And since the electron transport chain is (by far!) the largest contributor to cellular energy turnover, its loss would be catastrophic. It is also important to know that there has to be an excess of Coenzyme Q10 in the mitochondria to be maximally effective. Having just enough isn’t sufficient to do the job properly, and having a deficiency seriously affects the mitochondria’s ability to supply the cell with energy.

Cellular stress can cause Coenzyme Q10 deficiency, which places a severe strain on Coenzyme Q10 availability. People with heart disease, hypertension, gingival disease, Parkinson’s disease, and the other disorders we’ve discussed are known to be deficient in Coenzyme Q10. Whether these deficiencies are the cause or the effect of these varied medical problems, the end result is that they sap the life out of their mitochondria and reduce their energy supplies. You see, Coenzyme Q10 cannot function properly if electrons are not coming out of the Krebs’ cycle, and the Krebs’ cycle won’t work without the fuel that’s transported into the mitochondria by L-Carnitine.

 

L-Carnitine:

Transporting the Cellular Energy Fuel

Fatty acids are the preferred energy fuel for hearts and most other cells in the body. L-Carnitine facilitates the beta oxidation of fatty acids as energy fuel. And since fatty acids are the preferred fuel for energy recycling in cells, this action is critical to cell and tissue function. Unfortunately, L-carnitine is deficient in people with heart disease, peripheral vascular disease, lipid metabolic disorders, mitochondrial disorders, and many other disease syndromes we reviewed earlier. This L-carnitine deficiency disrupts the normal metabolism of fatty acids, reducing available energy supplies and leading to the accumulation of toxic by-products of fatty acid metabolism. L-carnitine supplementation revives fatty acid metabolism and restore normal mitochondrial function. But even this powerful improvement in cellular energy metabolism cannot up for the energy drain that comes from the loss of energy substrates caused by low oxygen delivery to the tissue. Only D-Ribose can do that.

 

D-Ribose:

Rebuilding the Cellular Energy Pool

As long as cells and tissues have plenty of oxygen, the pool of energy substrates in the cell remains high. And as long as there is enough L-carnitine and Coenzyme Q10 available, the process of energy utilization and supply can proceed unimpeded. However, the cellular supply of oxygen can be restricted by acute or chronic heart disease, peripheral vascular disease, any number of skeletal – or neuromuscular diseases, or even high-intensity exercise.

When cells are deprived of oxygen the mitochondrial energy turnover becomes inefficient. Remember, oxygen is required to let the oxidative pathway of energy recycling work properly. If the mitochondria are not able to recycle energy efficiently, cellular energy supply cannot keep pace with demand. But the cell has a continuing need for energy so it will use all its ATP stores and then break down the by-product, adenosine diphosphate (ADP), to pull the remaining energy out of this compound as well. What’s left is adenosine menophosphate (AMP). Since a growing concentration of AMP is incompatible with sustained cellular function it’s quickly broken apart and the by-products are washed out of the cell. The net result of this process is a depletion of the cellular pool of energy substrates. When the by-products of AMP catabolism are washed out of the cell, they are lost forever. It takes a long time to replace these lost energy substrates even if the cell is fully perfused with oxygen again.

Ribose is the only compound used by the body to refill this energy pool.  Every cell in the body has the capacity to make ribose, but hearts, muscles, and most other tissues lack the metabolic machinery to make ribose quickly when the cells are stressed by oxygen depletion or metabolic insufficiency.  Ribose is made naturally in the cells from glucose.  In stressed cells, however, glucose is preferentially metabolized for the energy turnover and is not available for ribose synthesis.  So when energy pools are drained from stressed cells, the cells must first wait for the slow process of ribose synthesis before they can begin to replace their lost energy stores.

    Acute ischemia, like that which takes place during a heart attack, heart surgery, or angioplasty, drains the cell of energy.  Even when oxygenated blood flow returns, refilling the energy pool may take ten or more days.  But when oxygen deprivation is chronic, or when energy metabolism is disrupted by disease, there may be so much continual strain on the energy supply that the pool can ever refill without the assistance of supplemental ribose.  Conditions like ischemic heart disease or congestive heart failure fall into this category.  In these situations, supplementing the tissue with exogenous ribose is the only way the cell can keep up with the energy drain.

 

Magnesium:

Switching on the Energy Enzymes

Magnesium is an essential mineral that's critical for energy requiring processes, in protein synthesis, membrane integrity, nervous tissue conduction, neuromuscular excitation, muscle contraction, hormone secretion, maintenance of vascular tone, and in intermediary metabolism.  Deficiency may lead to changes in neuromuscular, cardiovascular, immune, and hormonal function; Impaired energy metabolism; and reduced capacity for physical work.  Magnesium deficiency is now considered to contribute to many diseases, and the role for magnesium as a therapeutic agent is expanding.

    Magnesium deficiency reduces the activity of important enzymes used in energy metabolism.  Unless we have adequate levels of magnesium in our cells, the cellular processes of energy metabolism cannot function.  Small changes in magnesium levels can have a substantial effect on heart and blood vessel function.  While magnesium is found in most foods - particularly vegetables - deficiencies are increasing.  Softened water and a trend toward lower vegetable consumption are the culprits contributing to these rising deficiencies.

 

Supporting the Links in The Energy Cycle Chain – the Synergy

Clearly, each membrane of the “Awesome Foursome” is fundamental to cellular energy metabolism in its own right. Each plays a unique and vital role in supplying the heart with the energy it needs to preserve its contractile force. Each is independently effective in helping hearts work through the stress of disease. And while each contributes immeasurable to the energy health of the cell, in combination they are unbeatable. Allow me to reiterate the step-by-step, complicated cellular processes involved to be sure that you really understand the rationale for using these nutrients.

The cell needs a large, sustained, and healthy pool of energy to fuel all its metabolic functions. Contraction, relaxation, maintenance of cellular ion balance, and synthesis of macromolecules, like proteins, all require a high energy charge to carry their reactions to completion. The energy pool must be preserved, or these fundamental cellular functions will become inefficient or will cease to operate altogether. To keep the pool vibrant and healthy, the cell needs ribose. But even with supplemental ribose, the cell needs the efficient turnover of its energy stores to balance ongoing energy utilization with supply. That’s where CoQ10 and L-carnitine come into play.

The converse is also true. Even if the cell is fully charged with energy, cellular energy supply will not keep pace with demand if the mitochondria are not functioning properly. CoQ10 and L-carnitine work to keep mitochondrial operations running at peak efficiency, and one side cannot work effectively without the other. Even though CoQ10 and L-carnitine can make the energy turnover mechanisms work more efficiently, they cannot increase the cell’s chemical driving force, and their action will be only partially effective. Ribose on the other hand, can keep the energy pool supplied with substrate, but the value of energy pool repletion cannot be fully realized if the substrate cannot be maximally utilized and recycled. Ribose fills the tank; CoQ10 an L-carnitine help the engine run properly.

Magnesium is the glue that holds energy metabolism together. By turning on the enzymes that drive the metabolic reactions, magnesium allows it all to happen.

These four nutrients must be utilized by cardiologists and other physicians as they treat patients day-to-day. On my own journey, using Coenzymes Q10 for two decades, L-carnitine for more than ten years, D-Ribose for two years, and magnesium equally as long, I’ve seen this “Awesome Foursome” reduce suffering and improve the quality of life for thousands of patients.

The future of nutrition in conventional medicine is very bright, although the integration of nutritional supplements has been a slow and, at times, lonely process.

L-carnitine and Coenzyme Q10 are finally gaining the recognition they deserve. D-Ribose is emerging as a new player in the complex understanding of metabolic cardiology, and doctors are beginning to discuss the important role of magnesium deficiency in heart patients. As a practicing cardiologist for over thirty years, I see metabolic cardiology as the future for the treatment of heart disease and other complex disease conditions, as well.

Benefits

Supports normal heart function*

A significant amount of in vitro, animal and human research suggests benefits of ribose on heart function.* Studies have shown that ribose supplementation can enhance cardiac energy levels and support cardiovascular metabolism.* Ribose has been shown in clinical trials to enhance the recovery of heart muscle ATP levels and improve myocardial function following exercise.

Studies suggest that ribose supplementation can increase the tolerability of the cardiovascular system to exercise-induced fatigue.¹ In one study, twenty men underwent treadmill exercise tests on two consecutive days to confirm the onset of fatigue secondary to exercise. The participants were then randomized to the treatment group or a placebo group. The groups received either four doses of 15 grams of D-ribose (60 grams/day total) or the same amount of placebo each day. After three days of treatment, another treadmill test was performed. The time it took to reach the specified level of fatigue was significantly greater in the ribose group than in the placebo group.

Another study investigated the ability of ribose to support healthy heart function and quality of life.² In a randomized, crossover design study, fifteen individuals were given 5 grams three times a day of either D-ribose or placebo. Each treatment period lasted three weeks. In patients receiving ribose, echocardiography demonstrated enhancement of heart function, reflecting a “more efficient relaxation phase of the heart”. Participants also had a significant improvement in their subjective quality of life scores compared to placebo.  

Scientists suggest that suboptimal heart function is a result of the heart requiring more energy to function properly. Ribose supports the heart’s enhanced energy requirements, promoting optimal heart function. It does so by enhancing the stores of high-energy phosphates in heart tissue. These intermediates are necessary for the production and resynthesis of ATP. A double-blind crossover study in which 12 individuals were randomized to receive either ribose or dextrose (both administered as 5 grams three times daily for three weeks, followed by a 1-week washout period and crossover of treatments for three additional weeks) suggested significant enhancements in normal cardiac function during the period of ribose supplementation.³

Perhaps one of the more useful illustrations of the potential for ribose to support heart function comes from a study in which 20 rats received a continuous infusion of ribose for 24 hours (control rats received an infusion of saline). The hearts were then explanted (as they would be for heart transplants) and placed in preservation solution that was enriched with ribose for 4 hours. ATP levels were measured from tissue biopsies and revealed that 10 of the ribose-treated hearts had ATP levels higher than 12.3 micromoles per gram whereas saline-treated hearts (controls) had lower ATP levels, with 20% showing levels below 10 micromoles per gram of tissue. This provides support for the hypothesis that ribose may enhance the preservation of ATP levels in cardiac tissue, promoting normal heart function.⁴

Further animal studies have shown that ribose significantly enhances heart function after experimentally induced cardiac depression. Rats were injected with isoproterenol (a drug that stimulates sympathetic nervous system function) and had their abdominal aorta constricted to induce depression of heart function and reduce cardiac ATP levels. The decrease in ATP was primarily responsible for the depression of heart function. Continuous infusion of ribose for 24 hours replenished ATP concentrations to normal levels and normalized heart function in these animals.⁵

Ribose may strengthen and support the body’s crucial antioxidant defenses*

Ribose may support the body’s innate antioxidant mechanisms while promoting an antioxidant effect of its own. Intense exercise and other strenuous activity can induce the production of free radicals. Preliminary studies suggest that ribose can attenuate some of the effects of oxidation seen after performance of intensive exercise.

One small human study indicated that ribose administered at a dose of seven grams before and after a bout of cycling exercise may reduce free radical production.⁶ Seven volunteers ingested either ribose or placebo both before and after intense exercise. Markers of lipid peroxidation, including malondialdehyde, significantly decreased in the ribose-supplemented group, while increasing in the control group. The results of this study indicate a possible effect of ribose in supporting antioxidant activity.

Supports healthy energy levels in heart and muscle tissue*

After bouts of intense exercise, ATP levels have been shown to decrease by an average of 15 to 20%.⁷ The amount of ATP stored in the muscle is limited and so the body must have the potential to rebuild ATP stores. ATP is the fuel necessary for the integrity and function of a cell. In addition, several studies have found correlations between ATP content and heart function.¹ Research that was also alluded to above suggests that ribose stimulates ATP synthesis and supports heart and muscle function by enhancing ATP levels in cardiac and muscle tissue. D-ribose is an essential building block for the synthesis of ATP through the pentose phosphate pathway. 

The results of ribose supplementation enhancing ATP levels in muscle are evidenced by studies suggesting beneficial effects on anaerobic performance. In a randomized, placebo-controlled crossover study assessing the effects of acute ribose supplementation, participants receiving the ribose supplement had increases in mean power (a measure of average overall muscular strength output during the sprint) and peak power (a measure of the highest muscular strength output during the sprint) when undergoing a series of cycle sprints.⁸ While this effect was not noted in all of the six short cycling sprints that the participants underwent, the study does illustrate the potential benefits of ribose on ATP production and, secondarily, on enhancing exercise performance.

A second placebo-controlled trial investigated the effects of four weeks of ribose-supplementation (10 grams /day) on male bodybuilders. Of the 20 participants who were recruited, twelve completed the study. Each subject participated in a heavy-resistance training program designed to increase skeletal muscle mass. The effects of ribose on body composition (body weight, body fat, lean body mass, fat mass, and bone mineral content) were also assessed. The results suggested that ribose increased total work capacity and bench press strength compared to placebo, without altering body composition.⁹

Supports energy recovery after exercise*

Animal studies have suggested that the administration of ribose after exercise increases the rate of adenine salvage by five to seven-fold in muscle tissue⁷, supporting energy recovery after exercise. When ATP is utilized by muscle tissue, the degradation products include adenine nucleotides (Adenine is one of two purine bases that is a component of DNA). Adenine is recycled to synthesize DNA, and the salvage of adenine within the muscle tissue is crucial to energy recovery. Studies have shown that the presence of adequate ribose concentrations is the rate-limiting step in the purine salvage pathway. Therefore, increased adenine salvage could potentially help in the recovery and regeneration of ATP after intense bouts of activity.

A study investigated the effect of oral intake of ribose on the synthesis of AMP, a precursor to ATP.¹⁰ Participants performed intense cycle training for seven days. They then received either ribose (at a concentration of 200 mg/kg body weight, which is equivalent to 14 grams per day for an average 70 kilogram male) or placebo three times a day for the following three days. Exercise tests were performed again on day 4. Muscle biopsy samples were taken before the first training session, immediately after, and again five hours, 24 hours, and 72 hours after the last training session. No differences were seen in exercise performance between the groups. The intense exercise caused the ATP levels in muscle to decrease in both groups. However, at 72 hours post-exercise, the ribose group exhibited a much higher ATP level than the placebo group. The muscle levels of critical building blocks for ATP, including total adenine nucleotides (TAN) and inosine 5’-monophosphate (IMP), were also significantly higher in the ribose group compared to the placebo group at 24 hours after exercise. Ribose-supplementation was shown to enhance the resynthesis of ATP after intense exercise.

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

Safety

Caution: Insulin-dependent diabetics and pregnant women should consult their physician before use.

Suggested Adult Use: Take 1 or 2 scoops mixed in water, juice or other beverage two times per day. May be taken with or without food.

Scientific References

1) Pliml, W., von Arnim, T., Stablein, A., Hofmann, H., Zimmer, H., Erdmann, E. Effects of ribose on exercise-induced ischaemia in stable coronary artery disease. The Lancet. 1992;340:507-510.

2) Omran, H., Illien, S., MacCarter, D., St. Cyr, J.A., Luderitz, B. D-Ribose improves diastolic function and quality of life in congestive heart failure patients: a prospective feasibility study. The European Journal of Heart Failure. 2003;5:615-619.

3) Illien, S., Omran, H., MacCarter, D., St. Cyr, J.A. Ribose improves myocardial function in congestive heart failure. FASEB Journal 2001;15(5): A1142

 

4) Muller C., Zimmer H., Gross M., Gresser U., Brotsack I., Wehling M., Pliml W. Effect of ribose on cardiac adenine nucleotides in a donor model for heart transplantation. Eur J Med Res. 1998 Dec 16;3(12):554-8.

5) Zimmer H.G. Normalization of depressed heart function in rats by ribose. Science. 1983 Apr 1;220(4592):81-2.

6) Seifert, J.G., Subudhi, A., Fu, M., Riska, J.J. The effects of ribose ingestion on indices of free radical production during hypoxic exercise. Free Rad Biol Med 2002; 33(Suppl 1) S269.

7) Zarzeczny, R., Brault, J.J., Abraham, K.A., Hancock, C.R., Terjung, R. Influence of ribose on adenine salvage after intense muscle contractions. J Applied Physiology. 2001;91:1775-1781. 

8) Berardi J.M., Ziegenfuss T.N. Effects of ribose supplementation on repeated sprint performance in men. J Strength Cond Res. 2003 Feb;17(1):47-52.

9) Van Gammeren, D.V., Falk, D., Antonio, J. The effects of four weeks of ribose supplementation on body composition and exercise performance in healthy, young, male recreational bodybuilders: a double-blind, placebo-controlled trial. Current Ther Research. 2002;63(8):486-495.

10) Hellsten, Y., Skadhauge, L., Bangsbo, J. Effect of ribose supplementation on resynthesis of adenine nucleotides after intense intermittent training in humans. American Journal of Physiology – Regulatory, Integrative and Comparative Physiology. 2004;286:R182-R188.

CoQ10 for Heart Health

 

More than 40% of all deaths in the U.S. are from cardiovascular disease (CVD). You have a greater chance of dying from heart disease than from cancer, AIDS, diabetes, and accidents combined. More than 2,600 Americans die each day of CVD – an average of 1 death every 33 seconds. One in 5 men and women have some form of CVD. If all forms of major CVD were eliminated, life expectancy would rise by almost 7 years.

One of the most – if not the most – important things people can do to improve their overall health and life expectancy is to improve their heart health. Diet, exercise, and the wise use of dietary supplements can improve heart health dramatically. One dietary supplement that’s extremely beneficial to heart health is coenzyme Q10 (CoQ10).

 

Q. What is CoQ10?

A. CoQ10 is a natural, fat-soluble nutrient present in virtually all cells. CoQ10 also is known as ubiquinone. That’s because CoQ10 is ubiquitous and exists everywhere there is life. CoQ10 is vital to adenosine triphosphate (ATP) production. ATP is the energy-rich compound used for all energy-requiring processes in the body. Although COQ10 is produced by the body and exists in some dietary sources, these levels may be insufficient to meet the body’s requirements. CoQ10 levels diminish with age and as a result of dietary inadequacies and various disease states. Also, some drugs, especially a group of cholesterol-lowering prescription drugs known as “statin,” (Pravachol, Zocor, Lipitor, etc.) significantly reduce CoQ10 levels in the body.

 

Q. For what health conditions is CoQ10 used?

A. CoQ10 is beneficial in treating and preventing CVD and conditions such as high blood pressure, atherosclerosis (hardening of the arteries), angina, and congestive heart failure (CHF). It’s been shown that heart attacks tend to occur when CoQ10 levels are low in the body. In addition, CoQ10 is beneficial for diabetes, immune dysfunction, cancer, periodontal disease, prostate cancer, and neurological disease.

 

Q. Why is CoQ10 especially important to heart health?

A. The heart is one of the most metabolically active tissues in the body. In the average person, the heart propels 2,000 gallons of blood through 65,000 miles of blood vessls by beating 100,000 times each day. Thus, it requires large amounts of uninterrupted energy. Heart cells have a greater number of mitochondria, and subsequently, more CoQ10 than any other type of cell. Each heart cell can have thousands of mitochondria to meet these energy demands.

 

Mitochondria are highly specialized structures within each cell and are often referred to as cell powerhouses. These tiny energy-produces produce 95% of the energy the body requires. The number of mitochondria in a cell depends on its function and energy needs. A cell’s ATP production is dependent on adequate amounts of CoQ10.

 

Heart disease patients are commonly CoQ10 deficient. Correcting such deficiencies often can produce amazing results. The presence of supplemental CoQ10 is a key to the heart’s optimum performance.

In people who have had a heart attack (myocardial infarction), CoQ10 assists in repairing the heart muscle and restoring heart function. This is due to increased ATP production.

 

Q. What studies support this fact?

A. A 1998 study found CoQ10 can provide rapid protective effects in patients with a heart attack if administered within three days of the onset of symptoms. The study focused on patients admitted to the hospital with an acute myocardial infarction (AMI) diagnosis. Seventy-three patients received CoQ10 (120 mg/d). The study’s control group consisted of 71 similarly matched patients with acute AMI. After treatment, angina pectoris (severe chest pain signifying interrupted blood flow to the heart), total arrhythmias (dangerously irregular heartbeats), and poor function in the left ventricle (the essential chamber of the heart) were significantly reduced in the CoQ10 group compared to the placebo group. Total deaths due to sudden cardiac failure and nonfatal heart attacks also were significantly reduced in the CoQ10 group compared with the placebo group.

 

In another study, CoQ10 was studied in 109 patients with high blood pressure (hypertension). The patients were given varying doses of supplemental CoQ10 with the goal of attaining a certain blood level (greater than 2.0 mcg/l). Most patients were on medications to treat hypertension. Half the patients were able to stop taking one to three antihypertensive drugs at an average of 4.4 months after starting CoQ10. Only 3% of patients required the addition of one antihypertensive drug. The 9.4% of patients who have echo cardiograms, performed both before and during treatment, experienced a highly significant improvement in heart wall thickness and function. This improvement was directly attributed to CoQ10 supplementation.

 

Congestive heart failure (CHF) is a debilitating disease that affects 5 million people in the U.s. It causes edema, difficult breathing, and impaired circulation. In another study, CoQ10 restored healthy heart function in CHF patients. Patients received 100 mg of CoQ10 or a placebo twice daily for 12 weeks. Before and after the treatment period, the investigators introduced a catheter into the right ventricle of patients’ hearts to determine the degree of CHF damage to the heart muscle. The patients’ heart muscles at rest and work improved significantly. The researchers concluded CHF patients would greatly benefit from adjunctive CoQ10 treatment.

 

Q. I’ve heard that CoQ10 can also help people who have neurological diseases. Is this true?

A. Yes, it is. CoQ10 has been studied for its ability to improve the health of individuals with amotrophic lateral sclerosis (ALS), Parkinson’s disease, and Huntington’s disease. A recently completed study sponsored by the National Institutes of Health showed that CoQ10 caused a slowing of the progression of Huntington’s disease, a devastating and degenerative disease that is always fatal. In fact, no other medication, drug, or nutritional supplemental has ever been shown to cause a decline in the progression of this terrible disease.

 

The study compared CoQ10 against remacemide (an investigational HD drug made by AstraZeneca Pharmaceuticals), in 347 HD patients who were in the early stages of the disease. Remacemide blocks glutamate, the neurotransmitter scientists think may cause the death of brain cells that occurs in Huntington’s disease. While remacemide had no effect on the progression of HD, CoQ10 showed a trend toward slowing the disease by an average of 15%. This meant the HD group taking CoQ10 was able to handle every day activities of life a little longer than the patients taking remacemide or a placebo. They also were able to focus their attention better, were less depressed, and less irritable. The 15% slowing of decline means that CoQ10 can result in about one more year of independence for HD patients. Needless to say, the gift of an additional year of health in the lives of HD patients is incredibly significant.

 

Because of these impressive results with HD, researchers are hopeful that the studies of CoQ10 in those with ALS and Parkinson’s disease will similarly have a positive effect on the symptoms and/or progression of these neurological disorders, too.

 

Q. Why is it crucial for a CoQ10 supplement to cross the blood-brain barrier?

A. The brains’ blood vessels are composed of cells with extremely tight junctions. These junctions form the blood-brain barrier, which restricts what can pass from the bloodstream into the brain. While this barrier protects the brain, it can be a significant obstacle to central nervous system therapy. To leave the bloodstream and reach the brain cells, a substance must pass through the tightly connected cells of the capillary walls. Only substances with unique solubilities or those with a transport system can cross the blood-brain barrier to a significant degree. As a result, crossing the blood-brain barrier presents a significant challenge to supporting neurological health.

 

While most CoQ10 supplements enter the bloodstream and increase blood serum levels, only special forms of CoQ10 have been shown to cross the blood-brain barrier. For CoQ10 to enter the mitochondria within the brain, CoQ10 must first cross the blood-brain barrier to produce significant neurosupportive clinical results.

 

Q. How can one supplement have applications for neurological diseases, heart health, and even the immune system?

A. Supplements often have more than one function, especially when it’s a substance like CoQ10, which is present in all parts of the body. All nucleated cells (most cells other than red blood cells) have mitochondria and all cells require energy to function. CoQ10 is vital to ATP production. Thus, CoQ10 has applications not only in neurological (neurons or nervous system cells) and cardiac health (myocardium or heart tissue), but also for the immune system.

 

Q. Are all CoQ10 supplements created equal? Doesn’t CoQ10 just have to get into the bloodstream to be effective?

A. There are some important distinctions among CoQ10 products, as they vary greatly in quality and absorbability. It’s crucial to find a CoQ10 product that’s:

 

1. Scientifically shown to absorb through the digestive tract, cross cellular membranes, and increase mitochondrial levels of CoQ10. Chewable forms of CoQ10 provide rapid bioavailability and absorption. Serum level determination of CoQ10 in the bloodstream is not necessarily the most important measure of efficacy. For a CoQ10 supplement to be fully effective, it must cross the cellular barrier and raise intracellular CoQ10 levels. A key indicator of effective CoQ10 supplementation is its presence in cell mitochondria.

 

2. The natural form of CoQ10. The natural process uses living organisms. CoQ10 also can be synthesized by a chemical process, which produces a distinctly different product that contains chemical compounds not found in the natural form.

 

3. Formulated with ingredients that provide the transport system CoQ10 needs to cross cellular membranes and the blood-brain barrier. Not all forms of CoQ10 have been scientifically proven to cross cell membranes and the blood-brain barrier. Some prestigious groups that have investigated this issue include researchers at Massachusetts General Hospital and Harvard Medical School.

 

4. Studied by respected organizations, with research published in peer-reviewed journals by reputable scientists.

 

Q. How much CoQ10 should I take?

A. Take 100 to 200 mg of CoQ10 daily, depending on your family history of heart disease and personal heart disease experience.

 

CoQ10’s safety has been evaluated. Dosages in studies have ranged from 100 mg to 1,200 mg per day. To date, no toxicities have been reported. Occasional mild stomach upset may occur. Taking CoQ10 with meals usually alleviates this rare effect.

 

Q. What are some other heart-friendly supplements?

A. CoQ10 is an excellent supplement for overall cardiovascular health, as in L-carnitine. L-carnitine is the naturally occurring form of carnitine that’s found in food and synthesized in the body. Much of the body’s L-carnitine is found in the heart and skeletal muscle, tissues that rely on fatty acid oxidation for most of their energy. Nearly 70% of the energy needed for heart function is derived from fatty acid breakdown. Proper L-carnitine supplementation transports fatty acids into cell mitochondria, where it’s burned for energy. L-carnitine is an excellent addition to CoQ10, especially for people with heart disease, and has been shown to improve many symptoms associated with CVD. In one study, people who had experienced one heart attack received either L-carnitine or placebo. The L-carnitine group had a statistically significant reduction in second heart attacks, and improved overall survival.

 

Q. What supplements support healthy blood pressure and cholesterol?

A. In addition to maintaining overall cardiovascular health, it’s also important to address your essential fats/lipids levels and healthy circulation/blood pressure. Fish oil supplements can significantly reduce blood pressure, cholesterol, and homocysteine levels. Choose a supplement that’s a rich source of EPA and DHA, omega-3 fatty acids naturally obtainable in fish oil. Find a product that’s been clinically studied and purified to ensure it contains the beneficial active constituents of the whole oil, while removing any dioxins, DDT, PCBs, or heavy metals, toxins present in some commercial fish oil preparations. An enteric-coated garlic product that provides a minimum of 5,000 mcg of beneficial allicin supports healthy blood pressure and circulation. And magnesium, niacin, vitamin E, folic acid, hawthorn extract, and L-cysteine provide overall nutritional support to the heart and vascular system.

 

Conclusion

CoQ10 is not the only answer to the complex issues of heart disease, neurological disease, or immune dysfunction; however, research indicates that it’s a bigger piece of the puzzle than physicians and scientists ever imagined. The more we study this naturally occurring compound, the more benefits we find.

The key to this supplement is the manufacturing quality. For safety and overall effectiveness, use a CoQ10 product that’s supported by product-specific research from reputable institutions. Choose tested products from a well-respected company to increase your potential to achieve and maintain heart and blood vessel health.

Supplementation with clinically studied products can have a major impact on your heart’s health and strength. However, no supplement replaces the need to eat a healthful diet low in refined foods (especially sugar), and saturated fats, and to exercise your most important muscle – your heart – on a regular basis.

 

 

Enjoy the Rainbow – the Color Wheel of Fruits and Vegetables

 

We’ve all heard the statistics, and have probably seen the signs in the produce section of our favorite grocery store: eating 5 servings of fruits and veggies a day is important,

 

Chances are also pretty good that we’ve also seen the newest food pyramid, encouraging Americans to “eat a rainbow of frits and vegetables.” That is, choose from the rich variety of colors for the best all-around health benefits.

 

In this Ask the Doctor, we’re going to look at the unique health components of different colored fruits and vegetables, and why they’re so important. Plus, we’ll learn about supplemental options, like fruit and vegetable drink mixes, for those days when our diets just aren’t that great.

 

Q. What’s the big deal about fruits and vegetables?

A. Well, for the main reason that they are whole foods – created by nature (or at least generations of farming) and are rich in a variety of nutrients. Processed foods can’t match the health benefits of strawberries or broccoli – items that have fiber, vitamins, and enzymes built right in.

 

Q. What does “eating a rainbow” of fruits and vegetables really mean?

A. This is simply an easy way of remembering to get as much color variety in your diet as possible to maximize your intake of a broad range of nutrients. The colors of fruits and vegetables are often a tangible clue to the unique vitamins and other healthy substances they contain. Getting a variety of colors, therefore, means getting a variety of the essential nutrients your body needs to stay healthy and strong.

 

Enjoying the Rainbow: Fruit and Vegetable Benefits:

Color	Source	Nutrients	Benefits
Red	Tomatoes, Berries, Peppers, Radishes	Lycopene, Anthocyanins, Ellagic Acid, Bioflavonoids including Quercetin, and Hesperidin	Reduces risk of prostate cancer; lowers blood pressure; scavenges harmful free-radicals; reduces tumor growth; reduces LDL cholesterol levels and supports joint tissue in cases of rheumatoid arthritis
Orange/ Yellow	Carrots, Yams, Squash, Papaya	Beta-carotene, Zeaxanthin, Flavonoids, Lycopene, Vitamin C, Potassium	Reduces age-related macular degeneration; lowers LDL (bad) cholesterol; fights harmful free radicals; reduces risk of prostate cancer, lowers blood pressure; promotes collagen formation and healthy joints; encourages alkaline balance and works with magnesium and calcium to build healthy bones
White	Mushrooms, White Tea, Flaxseed/ Pumpkin	Beta-glucan, EGCG (epigallocatechin gallate), SDG (secoisolariciresinol digulcoside), lignans	Provides powerful immune boosting activity; activates natural-killer cells, B-cells and T-cells; may reduce risk of colon, breast and prostate cancers; boosts immune-supporting T-cell activity; balances hormone levels and may reduce risk of hormone-related cancers
Green	Wheat Grass, Barley Grass, Oat Grass, Kale, Spinach, Cabbage, Alfalfa Sprouts, Mustard Greens, Collard Greens	Chlorophyll, Fiber, Lutein, Zeaxanthin, Calcium, Folate, Glucoraphanin, Vitamin C, Calcium, Beta-Carotene	Reduces cancer risks; lowers blood pressure; normalizes digestion time; supports retinal health and reduces risk of cataracts; builds and maintains bone matrix; fights harmful free-radicals; boosts immune system activity; supports vision and lowers LDL cholesterol levels
Purple/ Blue	Blueberries, Pomegranates, Grapes, Elderberries, Eggplant, Prunes	Anthocyanins, Lutein, Zeaxanthin, Resveratrol, Vitamin C, Fiber, Flavonoids, ellagic acid, quercetin	May protect brain cells against Alzheimer’s and other oxidative-related diseases; supports retinal health; lowers LDL cholesterol and prevents LDL oxidation; boosts immune system activity and supports healthy collagen and joint tissue; supports healthy digestion; improves calcium and other mineral absorption; fights inflammation; reduces tumor growth; acts as an anticarcinogen in the digestive tract, limits the activity of cancer cells –depriving them of fuel; helps the body fight allergens

 

Q. Can you tell me a little more about the healthy components of fruits and vegetables?

Let’s take a look at some of the most well-studied and important nutrients:

 

Quercetin is found in apples, onions and citrus fruits (also is hawthorn and other berries and apple-related fruits usually used in traditional herbal remedies and modern supplements). It prevents LSL cholesterol oxidation and helps the body cope with allergens and other lung and breathing problems.

 

Clinical studies show that quercetin’s main points of absorption in the body appear to be in the small intestine – about 50%. The rest – at least 47% is metabolized by the colonic micro flora – the beneficial bacteria such as Lactobacillus acidophilus and Bifidobacterium longum. You may consider adding these beneficial bacteria (found in yogurt) either through the diet or a supplemental form.

 

Ellagic Acid is a component of ellagitannins – dietary polyphenols with antioxidant (and possibly anticancer) properties. Polyphenols are the basic building blocks of many plant-based antioxidants. More complex phenolic compounds, such as flavonoids are created from these molecules.

 

Ellagic acid is found in many fruits and foods, namely raspberries, strawberries, pomegranates, and walnuts. Clinical studies suggest that ellagitannins and ellagic acid act as antioxidants and anticarcinogens in the gastrointestinal tract.

 

Ellagitannins are durable antioxidants, and happily, they do not appear to be diminished by processing, like freezing. This means the benefits are still strong, even in frozen packs of raspberries or strawberries, or some of the better multi-ingredient supplement drink mixes.

 

In scientific studies, ellagic acid also showed an anti-proliferative effect on cancer cells, decreasing their ATP (adenosine triphosphate) production. ATP is the molecule that provides the primary energy source for the cells in our bodies. In a sense, ellagic acid seems to deprive cancer cells of their fuel.

 

Beta-Carotene: Probably the best-known of the carotenoids, beta-carotene is converted by the body into vitamin A. Many vegetables, especially orange and yellow varieties, are rich in this nutrient. Think summer squash, yams and of course, carrots.

 

Beta-carotene has long been associated with better eyesight, but it has other benefits, too. In a scientific study, beta-carotene decreased cholesterol levels in the liver by 44% and reduces liver triglycerides by 40%.

 

Lycopene is a carotenoid mostly found in tomatoes, but also in smaller amounts in watermelon and other fruits. Clinical studies have shown that lycopene consumption may decrease the risk of prostate cancer. In fact, high intakes of lycopene are associated with a 30% to 40% reduced risk. And, as good as beta-carotene is, its cousin, lycopene, seems to be an even stronger nutrient, protecting not just against prostate cancer, but heart disease as well.

 

Lutein is found in many fruits and vegetables, including blueberries and members of the squash family. Lutein is important for healthy eyes, and in fact it is found in high concentrations naturally in the macular region of the retina – where we see fine detail. It is one of the only carotenoids, along with its close sibling zeaxanthin, that is found in the macula and lens of the eye.

 

Lutein also supports your heart, too. In a scientific study, lutein reduced atherosclerotic lesion size by 43%. In other words, high intakes of lutein may actually help prevent coronary artery disease!

 

Interestingly, as is the case with lycopene, cooking or processing foods with lutein may actually make it more easily absorbed.

 

In clinical studies, men with high intakes of lutein (and its close cousin, zeaxanthin, found in broccoli and spinach) had a 19% lower risk of cataract, and women had a 22% decreased risk, compared to those whose lutein intakes were much lower.

 

Vitamin C: One of the best-known nutrients out there, vitamin C keeps our immune system strong; speeds wound healing, and promote strong muscles and joints. A free-radical fighter, vitamin C prevents oxidative damage to tissues, builds strength in collagen and connective tissue, and even reduces joint pain.

 

Sources of vitamin C are scattered throughout the spectrum of fruits and vegetables. Oranges and other citrus are the most commonly associated with vitamin C, but it also is present in tomatoes, and to a lesser extent in berries and cherries.

 

Potassium: Most Americans are deficient in potassium. For the most part, it’s hard to get too much of this valuable mineral. Potassium does great things for our hearts. Higher intakes of dietary potassium from fruits and vegetables have been found in clinical research to lower blood pressure in only 4 weeks.

 

Many researchers believe that the typical American diet has led to a state of chronic, low-grade acidosis – too much acid in the body. Potassium helps change pH balance to a more alkaline environment in the body and increases bone density.

 

This was proven in the long-running Framingham Heart Study which showed that dietary potassium, (along with magnesium and fruit and vegetable intake) provided greater bone density in older individuals.

 

Fiber is another food component many just don’t get enough of – especially if they’re eating a “typical American diet.” Fruits, vegetables and whole grains are excellent sources of fiber. However, fiber from a good fruits and vegetable drink mix should be derived from inulin and chicory root. This soluble fiber source not only adds to the overall amount of fiber you need (25 to 38 grams a day), but also provides a nice “nesting ground” for the beneficial bacteria that populate the intestines. And, even though some fiber has a bad rap for inhibiting mineral absorption, inulin and chicory root are “bone building” fibers – they actually help the body absorb calcium.

 

Flavonoids are an overarching term that encompasses flavonols, anthocyanidins, and flavones, isoflavones, proanthocyanidins, Quercetin and more. They are almost everywhere: in fruits, vegetables, grains, herbs, nuts and seeds – even in the coffee, wine and tea we drink. Flavonoids are responsible for the colors in the skins of fruits and the leaves of trees and other plants.

 

Flavonoids have many health benefits. They can help stop the growth of tumor cells and are potent antioxidants. Additionally, flavonoids have also been studied for their ability to reduce inflammation.

 

Anthocyanins: High on the list of important “visible” nutrients are anthocyanins. They color fruits and vegetables blue and red.

 

Anthocyanins are members of this extended family of nutmeats, the flavonoids. Typically found in high amounts in berries, anthocyanins are readily absorbed in the stomach and small intestine.

 

As antioxidants, anthocyanins dive deep into cell membranes, protecting them from damage. IT may be one reason why the anthocyanins from blueberries are considered such an important component in battling neuronal decline, like Alzheimer’s. Blackberries, raspberries, and strawberries are also excellent sources of this flavonoids group.

 

SDG lignans, (short for secoisolariciresinol diglucoside) are polyphenolic components of flaxseed, pumpkin and other herbal sources. Much of the recent research surrounding lignans has focused on flaxseed. In scientific and clinical studies, lignans from flaxseed support hormonal balance and may have cancer-preventing abilities. In fact, in one study, flaxseed lignans reduced metastatic lung tumor by 82% compared to controls.

 

The lignans in pumpkin seed, also considered a major source, target 5-alpha reductase activity.

 

This enzyme catalyzes the conversion of testosterone into the more potent dihydrotestosterone (DHT). DHT, like testosterone, is a steroid hormone or androgen. Androgens are responsible for the development and maintenance of masculine sex characteristics in both men and women. Excess levels of DHT can cause serious problems with prostate or bladder health. That’s why modulation of the 5-alpha reductase enzyme is so important – it helps maintain healthy testosterone and DHT levels. By balancing the levels of these key hormones, pumpkin seed lignans provide protection for prostate and bladder cells.

 

In addition, pumpkin seed has been shown to modulate the enzyme aromatase. Aromatase is present in the estrogen-producing cells of the adrenal glands, ovaries, testicles, adipose tissue, and brain. Aromatase converts testosterone, an androgen, into estradiol, and estrogen.

 

Inhibition of the aromatase conversion can help maintain a balance of healthy testosterone levels in women, which has been shown to strengthen pelvic muscles and reduce incidence of incontinence.

 

In fact, a clinical study, involving a pumpkin extract in conjunction with soy, resulted in significant support for bladder health. After two weeks of supplementation, 23 of the 39 postmenopausal women enrolled in the study showed great improvement in urinary frequency and sleep. By the end of the six week study, 74.4 percent of participants found pumpkin extract safely and significantly improved “nocturnia,” that is, the need to urinate frequently at night. For individuals with 2 to 4 episodes of nocturnia prior to the stud, and 81.8% improvement was seen – also showing great improvement in sleep quality. After all, if you don’t have to wake up every couple of hours to go to the bathroom you’re bound to get better sleep.

 

Beta glucan: Mushrooms are intense immune-boosting powerhouses due to their beta-glucan content. Three well-studied power-house mushrooms that contribute beta glucan to the diet include maitake, reishi and shiitake.

 

The most significant constituents of mushrooms are long chain polysaccharides (molecules formed from many sugar units) known as beta-glucan. These huge molecules act as immunoregualtors in the human body, helping to stabilize and balance the immune system.

 

This includes specific support of white blood cells, or lymphocytes, the primary cells of the immune system. Lymphocytes fall broadly into three categories: T cells, B cells, and natural killer (NK) cells.

 

In one clinical study, 165 patients with various types of advanced cancer were given maitake mushroom compounds alone or with chemotherapy. Cancer regression or significant symptom improvement was observed in 58% of liver cancer patients, and 62% of lung cancer patients. Plus, when maitake was taken in addition to chemotherapy, the immune cell activities were enhanced 1.2 to 1.4 times, compared with chemotherapy alone.

 

In another clinical study, researchers determined that Reishi increased the number of cancer killing white blood cells and made them more deadly to cancer cells.

 

And, in a scientific study of human breast cancer and myeloma cancer and myeloma cancer cell lines, shiitake compounds provided a 51% antiproliferative effect on the cells – inducing “apoptosis’ – the programmed cell death that should occur naturally.

 

While beta-glucan are distributed throughout the mushroom body, the beta-glucan concentrations are significantly higher in the mycelium – the interwoven fibers or filaments that make up the “feeding structure” of the mushroom.

 

Bioflavonoids are commonly found in bright yellow citrus fruits, including lemons, limes and oranges. They are responsible for the bright pigment found in the skin of the fruit, and are considered a “companion” to vitamin C, seeming to extend the value of the nutrient within the body.

 

Hesperidin is just one of the valuable bioflavonoids found in citrus. Hesperidin appears to lower cholesterol levels, as well as support joint collagen in examples of rheumatoid arthritis.

 

Epigallocatechin gallate (EGCG):

Polyphenols, most notably EGCG, or epigallocatechin gallate, are well-studied and powerful components of tea. EGCG has been shown to reduce colon and breast cancer risk. Green tea also boosts the immune system and encourages T-cell formation – part of the front-line defense of our bodies against sickness and disease.

 

Q. I’ve been seeing articles about fruits, vegetables and supplements touting “high ORAC value.” What does this mean?

ORAC is an acronym for Oxygen Radical Absorption Capacity, and is simply a measurement of antioxidant activity of nutrients. Oxygen radicals, or free radicals, are unstable molecules. They grab electrons from other cells to use for themselves, and in the process can damage them. It is believed that free radical activity plays a role in the development of many diseases such as heart disease and cancer, and also plays a role in aging.

 

Antioxidants help prevent this damage by “loaning out” extra electrons to stabilize free radicals/ Consider any fruit or vegetable with a high ORAC rating as having a lot of “antioxidant power.”

 

I know I should eat more fruits and vegetables, but it just seems so hard to get five servings a day.

The number one excuse I hear for not buying frits and veggies is that “fruits and vegetables are too expensive.” But are they really? Certainly, fresh foods that aren’t in season and have to be shipped a distance can be a bit pricey. If anyone added up how much spend on fast food, or prepackaged or processed snacks, it would probably be shocking.

 

Luckily, there are many ways to get your “Daily 5”. For instance, frozen fruits and veggies retain much of their nutrient profile. They can be an excellent alternative when certain foods are out of season. So too, are fruit and vegetable drink mixes – excellent supplemental sources of some of the nutrients our bodies need most.

 

More recently, the American Institute of Cancer Research discovered a reason many adults don’t eat their vegetables is – I’m not making this up – “a fear of flatulence.”

 

Of course, for people not accustomed to the fiber in fruits and veggies, there is some reason to think it’ll increase gas. When cell walls break down, and fiber passes through the system, it can create flatulence. Folks who eat fruits and vegetables every day generally don’t have this problem. Their systems are already accustomed to it.

 

For those just starting out on a better diet, however, start slowly – it helps your body adapt. Cooking vegetables can help, too, because it begins breaking down the cell walls early on.

 

One thing is certain, however. The “Typical American Diet” and good health are mutually exclusive. The increase in type 2 diabetes, heart disease, high cholesterol, and hypertension all point to the abuse our bodies suffer by eating diets high in fatty meats, processed sugars, and refined grains.

 

Q. Can I just drink fruit and vegetables drinks in place of 5 servings of fruits and vegetables?

Green drinks and fruit and vegetable drink mixes aren’t meant to replace whole foods, but they can be an excellent substitute when you’re rushed or traveling or just trying to fill everyday nutritional gaps. Their whole food ingredients absorb very easily and gently in the gut, and many of these drink mixes contain healthy doses of fiber, too.

 

Green drink mixes and food-based drink mixes combine many colorful fruits and vegetables and sometimes grasses in a healthy, mixable supplement assortment. While there have been many advancements in the field of green drinks, there are only a few that take the primary reason we eat into consideration: taste!

 

Happily, there are some companies out there with great-tasting drink mixes that also formulate based on the color concept, ensuring you get the broadest assortment of nutrients from a full range of fruit and vegetable colors to promote optimal health.

 

High-quality fruit and vegetable drink mixes offer the best from nature’s color wheel in a convenient and great-tasting supplement. So, the next tie you feel like taking a coffee break – try a fruit and veggie break instead. Your body and spirit will thank you.

 

 

Nutrients Every Heart Needs

 

High blood pressure. High cholesterol levels. Ever increasing stress. All are factors related to the development of heart disease – the leading cause of death for both men and women. In fact, 1 in 2 women in the United States die of heart disease or stroke, while 1 in 30 dies of breast cancer. If current trends remain unchanged, not only will heart disease remain the primary killer in our country, the number of people it claims will steadily and dramatically increase in the next 20 years.

 

Fortunately, heart disease is a problem you can do something about. Proven ways to prevent or mitigate the effects of heart disease include taking targeted nutritional supplements, making changes in the foods we eat, exercising most days of the week, drinking in moderation, eliminating tobacco use and adapting a positive attitude. Research shows that those of us who are often angry and depressed have more heart disease than people that live their lives with a more positive outlook.

 

In this Ask the Doctor, we’ll talk about specific nutritional supplements that are heart healthy, whether your goal is to prevent heart disease or reduce the effects of heart disease if you currently have it.

 

Q. I am trying hard to live a healthier life. But it all seems so overwhelming. How do I start?

A. It may help to know that you’re not alone in feeling overwhelmed. Lots of people feel this way. This is why the Centers for Disease Control and the American Heart Association are both urging people to prevent heart disease by identifying their individual health risk factors.

 

A risk factor is an indicator of whether or not you may develop a certain health condition. In heart disease prevention, there are two kinds of risk factors. There are risk factor you can control – such as diet, exercise, and the supplements you take. There are also risk factors you can’t change or control –your age, race, and gender, as well as your family’s history of heart disease.

 

Examples can be really helpful. Let’s follow three adults – Fred, Jane, and Earl – and determine their risk factors.

 

Low Risk

Fred is 32, single, has a job he loves, has an optimistic attitude about his life, and works out 5 days a week. Most days Fred’s diet is fruits, vegetables, whole grains and low fat. Occasionally Fred will eat a cheeseburger and fries when he watches the game with his buddies. Fred’s risk factors are his male gender and the occasional high fat content in his diet.

 

Moderate Risk

Jane is 55, a lawyer, married, and has a very stressful job. Jane eats lots of salads, fruits, and whole grains. However, her job requires her to work long hours which leaves little time to exercise. Jane is for the most part happy with her life, but her work stress had led to times of negativity. Her father had a heart attack when he was 56. Jane’s risk factors include her age (greater than 50), negativity from job stress, lack of regular exercise, and a family history of heart disease.

 

High Risk

Earl is 65, married, and has just retired from a job he hated. He spends most of his day watching TV and eating potato chips and other high fat, salty snacks. Earl has told his friends and family since he worked so hard for so long, he is sure to drop dead soon after retiring. He has high cholesterol and high blood pressure. Earl’s father had a heart attack and died when he was 73. Earl’s risk is his male gender, age (greater than 50), sedentary lifestyle, poor diet, negative outlook on life, high cholesterol and high blood pressure, and a family history of heart disease.

 

Q. OK, it’s pretty easy to see that Fred needs to watch his diet, Jane needs to exercise more, and Earl needs lots of help. But, which supplements should they take?

A. The Whole Heart Nutrition chart is an easy way to determine the supplements each risk level needs. As you can see, everyone wanting to prevent heart disease – Fred, Jane, Earl, you, and I – need to take quality heart formula multivitamin, garlic, and a fish oil supplement providing Omega-3 fatty acids. CoQ10 is also a smart choice for complete heart heath support.

 

Q. Why do we all need to take a “heart multivitamin”? Why can’t we take a regular multivitamin to prevent heart disease?

A. Since the human heart simply cannot function without adequate amounts of certain vitamins and minerals, it seems logical that a multivitamin would be the foundation of good nutrition for your heart. Heart-health formulated multivitamins provide the exact nutrients needed to prevent heart disease.

 

That’s why we need to take a specially formulated heart-focused multi-vitamin. The cells and the tissues that make up the heart must have vitamins C, A, and E, as well as B1, B6, and B12 to function. Folic acid, the little B vitamin that is so crucial in preventing spina bifida (a birth defect), breast cancer, and Alzheimer’s disease is also needed to keep heart muscles strong. The B vitamins and folic acid are very important to heart health because they help lower homocysteine levels. Homocysteine is a potential and emerging cardiac risk factor,

 

Magnesium is a mighty mineral and healthy hearts need it every day. Aloha lipoic acid, a fatty acid, provides protection against heart cholesterol and high blood pressure. Lutein and lycopene are all-natural nutrients and keep our arteries free from the buildup of plaque, a condition linked to heart attacks and strokes.

 

Multivitamins formulated with these exact vitamins, minerals, and nutrients will work with medications often prescribed to treat heart disease and provide the nutrition our hearts need.

 

Q. Don’t all multivitamins work with medications prescribed to treat heart disease?

A. Many multivitamin formulas contain herbs and other nutrients that can interfere with prescription medications, especially mediations prescribed to treat heart disease. One multivitamin does not fit all.

The more risk factors you have, the greater your chance of developing heart disease.

Factors you CAN’T change
Increasing age	About four out of five people who die of coronary heart disease are 65 or older.
Male gender	Men have more heart attacks than women. Even after menopause, when women’s death rate from heart disease increases, men continue to have more heart attacks until both groups reach their 80s.
Heredity (including Race)	While heart disease has often been noted to occur in families, recent research has shown this link may be the result of environment more than heredity. In other words, your dad’s high blood pressure and your high blood pressure may be related more to your mutual love of salty foods than your genetics. African Americans tend to have very high blood pressure and a higher risk of heart attacks than other races.
Factors you CAN change
Tobacco smoke	Smokers have twice the risk of heart attack than nonsmokers.
High blood cholesterol	As blood cholesterol rises, so does the risk of heart disease.
High blood pressure	High blood pressure increases the heart’s workload, causing the heart to thicken and become stiffer.
Physical inactivity	Exercise most days of the week helps prevent heart disease. The more vigorous the activity, the greater your benefits.
Obesity and overweight	People who have excess body fat are more likely to develop heart disease and stroke even if they have no other risk factors.
Individual coping styles	Research has shown there is al ink between heart disease risk and stress, happiness, negativity, and socioeconomic status.
Alcohol consumption	Drinking too much alcohol can raise blood pressure. However, the risk of heart disease in people who drink moderate amounts of alcohol (an average of one drink for women or two drinks for men per day) is lower than in nondrinkers.

 

Q. What can garlic supplements do for Fred, Jane and Earl or other people with low to high risk factors?

A. Garlic supplements have a very long and very successful history of preventing premature death from heart attacks. Lately, however, there have been some conflicting news stories about supplemental garlic’s ability to lower high cholesterol and high blood pressure – the causes of heart disease and death. That’s because many different garlic supplements have been used in these studies – garlic oil, garlic powder, aged garlic extract, and supplements made from fresh garlic. They have all been studied clinically for their effects in heart disease.

 

The best garlic supplements (and the ones that showed the best effects in garlic studies) contain alliin, which is then converted to allicin. Allicin is the compound that lowers harmfully high cholesterol levels and dangerous blood pressure readings. Allicin is also responsible for garlic’s characteristic odor. Because alliin is very stable when dry, properly prepared and enteric coated fresh garlic preparations preserve the allicin-producing action until the garlic mixes with the fluids of the intestinal tract. Fresh garlic extract’s enteric coating also prevents garlic breath. In contrast, aged garlic contains absolutely no allicin or allicin potential. This fact is probably responsible for the poor results noted in lowering cholesterol and blood pressure from aged garlic preparations.

 

The most effective garlic supplements are made from fresh garlic, enteric coated, and provide a daily dose of at least 10 milligrams (mg) alliin or a total allicin potential of 4,000 micrograms (mcg). Taking a once-daily garlic supplement that delivers 4,000 mcg of allicin will lower Jane’s and Earl’s high blood pressure and Earl’s high cholesterol, naturally and effectively.

 

Whole Heart Nutrition

Supplement	Low Risk	Moderate Risk	High Risk
Heart multivitamin	Every day	Every day	Every day
Garlic supplement 4,000 mcg allicin	1 tablet each day	1 tablet each day	1 tablet each day
Fish oil supplement with omega-3 fatty acids	600 mg each day	1200 mg each day	1800 mg each day
CoQ10	60 mg	100-200 mg each day	200-400 mg each day

Each additional risk factor requires additional supplements or increased doses for protection from heart disease.

 

Q. What about fish oil supplements? I know they can prevent heart disease but I’ve also heard they contain harmful substances, too.

A. You’re right on both counts. But, there are excellent fish oil supplements naturally loaded with Omega-3 fatty acids, powerful nutrients that prevent heart disease, that are also certified free of harmful contaminants.

 

In the 1980s, researchers first began noticing the native Inuit (Eskimo) populations of Greenland and Alaska had hardly and heart disease despite a very high-fat diet. The deep-water fish that these peoples eat (and continue to eat to this day) are indeed quite fatty. But, this kind of fat, rich in Omega-3 fatty acids actually protects the heart instead of harming it.

 

Research has shown that the Omega-3 fatty acids in fish oil supplements can:

-Reduce the risk of arrhythmias, lethal heartbeat rhythms that cause sudden death.

-Lower the levels of triglycerides, fats in the blood that can increase a person’s

risk of dying from a heart attack, even if a person’s cholesterol levels are normal.

-Slow atherosclerosis – the growth of harmful plaque on artery walls.

Atherosclerosis develops over many years. If the plaque growth is slow and

stable, chances are low that a heart attack will result. However, rapidly growing

or unstable plaques can rupture. The body responds with inflammation, which

causes blood clots to form. These blood clots block the artery and cause a heart

attack.

-Keep blood pressure levels low. Many people have high blood pressure for years

without knowing it. That’s because it has no symptoms. Uncontrolled high

blood pressure can lead to stroke, heart attack, heart failure, and kidney failure.

While 25% of Americans have high blood pressure, nearly one-third of these

people don’t know they have it. This is why high blood pressure is often called

the “silent killer.”

 

You can get all of this heart disease preventive protection from just 600-1800 mg of fish oil. It’s pretty simple to see why Fred, Jane, Earl, and you and I need to take fish oil supplements every day.

 

However, it is absolutely critical that the fish oil supplement you take is free of contaminants and guaranteed fresh! Make sure that the manufacturer of the fish oil supplement you buy is able to provide documentation of purity in their product. Supplements should contain no detectable dioxin (a widely used toxic preservative), DDT (a toxic insecticide), PCBs (polychlorinated biphenyls) or heavy metals such as mercury and lead.

 

Before you buy any fish oil supplement, ask the clerk if you can open the bottle or jar and smell the contents. A fishy smelling fish oil supplementation means it is rancid. Rancid fish oil is not going to help your heart at all and may actually hurt it.

 

Q. That leaves CoQ10. Why is it important for Jane and Earl?

A. CoQ10, also known as ubiquinone, is the premier heart supplement! CoQ10 is part of our energy producing system. It works directly in the mitochondria of each cell. Mitochondria are highly specialized structures within each cell and are often referred to as powerhouses. These tiny energy producers generate 95% of the energy the body requires. The number of mitochondria in a cell depends on its function and energy needs. The heart has very important functions and requires a vast amount of energy. Thus, the heart has a lot of mitochondria or little powerhouses.

 

CoQ10 is incredibly crucial to the health of our hearts. Especially to hearts that are pumping blood with too much cholesterol. But, in a dangerous paradox, CoQ10 levels can become dangerously depleted when physicians treat high cholesterol in their patients with certain medications. The so-called “statin” drugs (Mevacor/lovastatin and Crestor/rosubastatin are two examples) are powerful and medications prescribed to lower harmful cholesterol levels. However, one very harmful side effect they share is that they deprive cells of CoQ10. While some physicians are aware of this serious side effect and tell their patients to take at least 400 mg of CoQ10 each day, most are not. The result? Any good the statin drugs may be doing is actually negated by their depletion of CoQ10.

 

Q. How does CoQ10 actually work? Has it been studied in heart disease?

A. Yes, it has! CoQ10 has been extensively studied in heart disease. This natural nutrient is present in every nucleated cell in our body (the only cells that don’t contain CoQ10 are red blood cells). Heart cells, however, are absolutely loaded with CoQ10. Its job is fairly simply – CoQ10 is vital to the production of adenosine triphosphate (ATP), the compound our body uses for 95% of its energy needs.

 

In 1998, 144 patients who had been admitted to the hospital after a heart attack, participated in a CoQ10 study. Half of the patients received 120 mg of CoQ10 a day in addition to the usual treatments given to heart attack patients. The other half, the control group, received the usual treatments and a placebo, but no CoQ10.

 

The results showed that the group taking CoQ10 had less irregular heartbeat, experienced less angina (a type of heart pain), and had much better function in the left ventricle (the most essential chamber of the heart), compared to the placebo group. Total deaths due to sudden heart failure or another heart attack were also reduced in the CoQ10 group.

 

Q. What if I have already been diagnosed with Congestive Heart Failure? Will CoQ10 still help me?

A. CoQ10 has been proven in study after study to help slow down the destruction that occurs in congestive heart failure (CHF), a serious heart disease, and heal the heart muscles damaged by heart attacks. In fact, heart attacks often occur when the body’s CoQ10 levels are low.

 

In a CHF study, patients received 100 mg of CoQ10 or a placebo twice daily for 12 weeks. Before and after the treatment period, the researchers introduced a catheter into the right ventricle of the patients’ hearts to determine the degree of muscle damage CHF had caused. In the group who took CoQ10, the pumping ability of the heart improved significantly. The placebo group’s hearts did not. The researchers conducting the study recommended that people with CHF add CoQ10 to the other medications they need to take to stay alive and well.

 

Q. Are some types of CoQ10 better than others?

A. Indeed they are. CoQ10 products are not created equally. The key to this natural medicine is the quality of the manufacturing. Take a CoQ10 supplement that’s been used in research conducted by prestigious universities (it will tell you this right on the label). Researchers want the best CoQ10 for their studies. You want the best CoQ10 for yourself and your loved ones.

 

The best CoQ10 has to meet the following criteria:

1. Must be easily absorbed during the digestion process so that it can get into the

bloodstream.

2. Must reach the mitochondria in the cell.

3. Must be proven effective in studies.

4. Must be safe and free of impurities.

 

Q. It sounds as if CoQ10 is only for people with moderate or high risk factors. Can others benefit from this supplement?

A. Many people, including those like Fred with low risk factors or no risk of heart disease take CoQ10 every day. CoQ10 supplements may reduce your risk of cancer, prevent gum disease, and help certain nerve cells work more effectively.

 

Conclusion

Understanding your personal risk factors, making it better lifestyle choices, taking a multivitamin formulated for your heart, an enteric-coated fresh garlic supplement, fish oil supplement with Omega-3 fatty acids, and CoQ10 – the heart’s super-nutrient – can help keep your heart healthy and strong.

 

Helen Keller, the famous lecturer and author, who was both blind and deaf wrote, “The best and most beautiful things in the world cannot e seen or even touched. They must be felt with the human heart.”

 

Healthy hearts have the most opportunities to “feel” the best and are the most beautiful thing our world has to offer.

 

Controlling Diabetes with Nutritional Supplements

 

Perhaps no other disease is as closely linked to nutrition as diabetes. Not only doe nutrition play a role in its development, nutrition is also one of the disease’s most powerful treatments.

 

Because of this strong and critical connection to nutrition, researchers have carefully studied the use of nutritional supplements in the treatment of the disease. They found that many vitamins, such as vitamin C and the B vitamins, minerals such as chromium, as well as herbs like Gymnema sylvestre, can safely, effectively, and naturally lower blood sugars and help prevent diabetic complications.

 

What is even more important, however, is that these vitamins, minerals, and herbs can be combined together in a scientifically validated diabetic formula to work synergistically. That means their combined effectiveness is even more powerful. Like a group of good friends, these vitamins, minerals, and herbs do their best work when they are all together.

In this issue of Ask the Doctor, we will talk about powerful vitamins, minerals, and herbs combined in a scientifically validated formula that people with diabetes can use every day.

 

But before we get into the specific formula, we need to first talk about diabetes.

 

Q. What exactly is diabetes?

 

A. When we eat, the process of digestion breaks down our food into nutrients. Most of the food we eat is broken down into sugar (also called glucose). The sugar enters the bloodstream for delivery throughout the body and is then called blood sugar.

 

Insulin, a hormone that helps metabolize blood sugar, is made in the pancreas-a long, skinny gland located behind the stomach. Insulin takes blood sugar from the bloodstream and delivers it into the cells that make up the various organs in our body, such as our heart, lungs, and kidneys. The sugar provides energy to the cells to keep our hearts beating, our lungs breathing, and our kidneys excreting.

 

Type 1 diabetes, sometimes called insulin-dependent or juvenile diabetes, most often starts in childhood. In this type of diabetes, the pancreas no longer makes insulin. The sugar stays in the blood instead of going into the cells where it is needed. Because of this, all people with Type 1 diabetes have to take at least one shot of insulin every day just to stay alive.

 

Type 2 diabetes most often starts in adults and is also the most common kind. About 90 to 95 percent of all people with diabetes have Type 2. In Type 2 diabetes, the pancreas is usually producing enough insulin. However, the body does not use it effectively. The condition known as “insulin resistance” occurs when the cells do not respond to (resist) insulin’s attempt to enter with glucose. The pancreas responds by producing more and more insulin. When the cells do not respond, high levels of glucose build up in the blood, leading to Type 2 diabetes. Almost everyone with Type 2 diabetes also is insulin resistant. Because the insulin is left unused, the pancreas thinks it isn’t needed and may eventually stop making it. People with Type 2 diabetes often need to take prescription drugs to lower blood sugar levels if dietary and lifestyle changes are not enough to control the problem.

 

In both types of diabetes, the sugar stays in the bloodstream instead of going into the cells where it is needed and belongs. When blood sugar builds up in the blood, it causes two problems. First, the cells become starved for energy. And, over a period of time, high blood sugar levels can damage the blood vessels, nerves, eyes, and kidneys.

 

Q. What causes diabetes?

 

A. While scientists aren’t exactly sure why Type 1 diabetes happens, they do know the immune system is involved. A healthy immune system protects us from diseases caused by infections, such as colds or the flu, as well as diseases that start in our own cells, such as cancer. For some reasons, in certain people, the immune system becomes confused and begins attacking and destroying the cells in the pancreas that makes insulin.

 

Scientists aren’t exactly sure why Type 2 diabetes happens either; however, they have identified that it occurs most often in certain individuals. About 80 percent of people with type 2 diabetes are overweight, have high blood pressure, and have high cholesterol levels in their blood.

 

Q. What are the symptoms of diabetes?

 

A. Type 1 diabetes develops very quickly. The classic signs of diabetes include:

 

-Frequent urination, because the body is trying to get rid of the excess sugar in the blood

-Intense thirst, because the body needs to replace the fluid lost through the urine

-Increased hunger, because the cells need nutrients

-Weight loss, because without insulin, the body begins to starve

 

The onset of Type 2 diabetes is often very gradual and may develop without any symptoms at all. Sadly, the diagnosis most often is made only after a complication of the disease happens.

 

Q. What are the complications of diabetes?

 

A. The complications of diabetes happen in both types of the disease. All diabetic complications are caused by chronically high blood sugars. The longer your blood sugar levels are elevated, the greater your chances are of having complications.

 

Circulation problems

 

High blood sugar damages blood vessels. When high levels of sugar are continuously in the blood, the blood vessels become thicker and less flexible, causing poor circulation. Poor circulation can impair healing, especially on the feet and lower legs. High blood sugar also causes higher levels of fat in the bloodstream. The fat clogs and narrows the blood vessels. Partial blockages deprive the heart of some necessary nutrients. A complete blockage can result in a heart attack, heart pain (called angina), or stroke.

 

Nerve damage

 

Nerve damage makes it hard for your nerves to send messages to the brain and other parts of the body. It may cause you to lose feeling in parts of your body or have a painful pins-and-needles-like feeling. While nerve damage most often affects the feet and legs, it can also affect other parts of the body.

 

Eye problems

 

Diabetes can damage and weaken the small blood vessels in the retina, the part of the eye that is sensitive to light and helps you see. When the blood vessels are weak, they can leak fluid, which causes swelling in the eye. The swelling blurs your vision. If the eye damage gets worse, your eye attempts to fix this damage by making new blood vessels over the retina. But because these blood vessels are fragile, they can break open easily and bleed into the eye. Scar tissue can then form. This may cause the retina to break away from the back of the eye, which can lead to visual impairment-even blindness.

 

Kidney damage

 

Diabetes can also damage the blood vessels in the kidney so it can’t filter out the body’s waste. High blood pressure is also associated with kidney damage. If you have diabetes and high blood pressure, it is important to keep them both under control as much as possible. The longer blood sugar levels are left uncontrolled, the greater the amount of kidney damage that can occur. If the kidney damage isn’t stopped, some individuals may progress to needing kidney transplants or dialysis machines.

 

All of these complications, however, can almost always be prevented.

 

Q. How can the complications of diabetes be prevented?

 

A. Vitamins, minerals, and herbal supplements can provide powerful tools for preventing serious complications and keeping people with diabetes healthy. The best nutritional supplement contains powerful vitamins, minerals, and herbs in a synergistic formula that can effectively lower blood sugars and provide the specialized nutrients people with diabetes need.

 

Q. Which vitamins, minerals, and herbs should be included in a nutritional supplement for people with diabetes?

 

A. The vitamins, minerals, and herbs in a diabetic formula should work synergistically and be clinically demonstrated to help prevent the known complications of diabetes. To get the best results, it is very important that the right ingredients are in the diabetic formula you buy.

 

Q. How often should I take a diabetic formula supplement?

 

A. Read the label of the diabetic formula you are considering buying. Most quality products need to be taken twice a day. Keep in mind that you will still need to take a high quality multivitamin in addition to the diabetic formula supplement. A diabetic formula is complementary. That means that it is designed to be and addition to your multivitamin routine, not a replacement.

 

Q. Could the diabetic formula lower my blood sugar level too much?

 

A. In general, too low blood sugar levels should not be a problem. A high quality diabetic formula containing synergistic vitamins, minerals and herbs, most often lowers blood sugars to normal levels. However, these vitamins, minerals, and herbs will not excessively lower blood sugar levels that are already normal.

 

Q. Do I need to continue monitoring my blood sugar when taking a diabetic formula supplement?

 

A. Diabetes is a disease that requires active participation from you. You need to be aware of your problem and be in control of it as much as possible. If you use a home glucose monitor to check your blood sugars, you may feel more comfortable by checking your levels more frequently when you first take a diabetic formula supplement. You should always follow the recommendation of your doctor or a licensed health care practitioner regarding how often you should check your blood sugar levels.

 

According to the American Diabetes Association (ADA) and the National Institute of Diabetes and Digestive and Kidney Diseases (NIDDK) (as well as most licensed health care practitioners), a good blood sugar range for most people with diabetes (before a meal) is from about 70 to 150. An ideal range is 70-120.

 

Taking a nutritional supplement formulated especially for diabetics that contain vitamins, minerals, and herbs that work synergistically in a scientifically valid formula will help you keep your blood sugars right where the ADA and NIDDK recommend.

 

Q. Can’t I just take the diabetic formula supplement and not worry about my diet?

 

A. Unfortunately, you cannot. Successful diabetes management means doing lost of positive things. First, you need to see your licensed health care practitioner often. You need to choose foods wisely and stay active to have a positive influence on your blood sugar levels and your health. And, taking a diabetic formula supplement every day can really help. However, the diabetic formula supplement is meant to be an addition to your healthy diet, not a substitute.

 

Conclusion

 

Having diabetes might make you feel overwhelmed. Restrictions on what you may and may not eat might make you feel deprived and unfairly burdened. The possibility of disease complications may make you feel anxious and scared-even angry. It is only natural to ask “Why me?” Taking control of your diabetes, instead of letting it control you, can help with these feelings. Eating wisely and exercising every day are two important ways to improve your health. And, taking a nutritional supplement formulated specifically for people with diabetes every day can give you the critical control you need to direct your health for years to come. Many healthy years to come.

 

 

 

Part I. The Stress Response

The stress reaction is a host of responses necessary for any animal to live in the world.  Commonly called the fight-or-flight reation,  we as humans often experience it in rapid heartbeat and increased breathing rate.  It comes when we exercise more vigorously than usual, or when we are suddenly and unexpectedly frightened.

We are all different.  We show a range in how strongly we experience the stress response.  Most of us are usually calm and experience the stress response when an unexpected noise frightens us to alertness, or we run to first base as fast as we can in a benefit baseball game that is not on our usual playtime schedule.  We breathe harder for a while and notice our hearts beating faster and harder then usual, but after a while these responses all calm down, and we are again in our usual state—out or the stress response.  Others of us are very low key, and it takes a lot to disturb our physiological calm.  Still others of us are very sensitive to triggers of the stress response and go into it “at the drop of a hat” and to a greater degree than do calmer people.  For some, parts of the stress response are almost always engaged—never really calming down all the way—giving one a hyper-vigilant or anxious demeanor.

When a stress trigger occurs, the body puts out stress hormones, magnesium and calcium, among other things, into the bloodstream.  At the same time, nerve cells begin to “fire,” telling heart and muscles to “speed up. NOW!!!”  These blood, nerve and organ changes make possible the instantaneous and collective rise in the body’s heart rate, blood pressure, and other necessities for the fight-or-flight reaction.

Much research has been done on the stress response, especially on the effects of stress hormones, such as adrenaline (also called epinephrine) on body, organ and cell.  You can get an idea of how widespread the stress response is-affecting every aspect of physiology—by noting some of the reactions to adrenaline, one of the major stress hormones.  See Table 1.

Table 1 The effects of Adrenaline: Adrenaline (also called epinephrine) is one of the body’s major stress hormones.  When adrenaline is released into the bloodstream, it has simultaneous, rapid, and widespread effects on the body. These include: Widespread effects on circulation, muscles and sugar metabolism Raised heart rate Increased heart output Increased rate and depth of breathing Increased metabolic rate Increased force of muscular contraction Delayed muscular fatigue Reduced blood flow to bladder (muscular walls relax and sphincters contract) Reduced blood flow to intestines Increased blood pressure Increased sugar (glucose) in the blood Increased breakdown of glucose for energy*, especially in muscle cells Increased free fatty acids in the blood* More oxidation of fatty acids to produce energy* More ATP (the cells’ primary energy compound) produced* Blood vessels constrict   *needs magnesium

 

Much study as the cellular, biochemical and physiological levels has shown that the stress response vitally involves the influx of calcium into cells,  resulting in a drastic change in the cells’ internal magnesium-to-calcium ratio (Mg:Ca).

In simple solutions, such as salt water, all ions are evenly dispersed.  Not so in living cells.  Ions are carefully and meticulously separated in living cells, and this ion “packaging” is vital to life processes and health.  Calcium ions, for the most part, are kept outside cells while magnesium ions are kept mainly inside cells.  The stress response changes this.  During stress response, calcium ions rush inside the cell, and this alters the internal Mg:Ca ratio.  This change in ratio exhibits wide effects because, while magnesium and calcium are very similar in their chemistry, biologically these two elements function and react very differently.  Magnesium and calcium are two sides of a physiological coin: they are antagonistic to one another yet comes as a team. For example:

• Calcium excites nerves; magnesium calms them down. 
• Calcium makes muscles contract, but magnesium is necessary for muscles to relax.
• Calcium is necessary to the clotting reaction—so necessary for wound healing—but magnesium keeps the blood flowing freely and prevents abnormal thickening when clotting reactions would be dangerous.

Scientific study shows more and more that the underlying cellular change enabling the stress response is a low Mg:Ca ratio caused by a large and sudden influx of calcium into cells.  This stress response subsides when the cell’s magnesium returns to its dominant presence inside cells, moving extra calcium back outside cells to its “normal” Mg:Ca ratio.  This underlying principle is present in studies of nerve cell-stress hormone response, organs such as hearts, the high blood pressure response to stress, and the blood-clotting reaction during stress, among many others.  See Table 2.

 

Table 2 Magnesium and calcium are an “antagonistic” team in the fight-or-flight reaction.
Function	Calcium’s influence	Magnesium’s influence
Blood cell clumping (platelet aggregation)	Activates	Inhibits
Other blood-clotting reactions	Encourages	Discourages
Nerve excitation	Enhances	Discourages
Adrenaline secretion	Enhances	Decreases
Adrenaline response	Enhances	Decreases
Blood vessel contraction	Increases	Decreases

 

“During stress response, calcium ions rush inside the cell, and this alters the internal Mg:Ca ratio.  This change in ratio exhibits wide effects because, while magnesium and calcium are very similar in their chemistry, biologically these two elements function and react very differently.  Magnesium and calcium are two sides of a physiological coin: they are antagonistic to one another yet come as a team.”

 

In the normal healthy state, the stress response occurs when necessary, and subsides when the crisis or trigger is over.  Since magnesium and calcium—two essential nutrients that must be obtained by the body from its dietary environment—are so essential to this important response, it is not surprising that nutritional magnesium and calcium status can affect the response. 

 

Let’s see how.

In the normal unstressed state, cellular Mg:Ca ratio is high.  If this cannot be maintained due to lack of adequate body magnesium or an overwhelming amount of body calcium, the ratio may not be able to maintain or return itself to its healthy nonstressed ratio.  In such a case, the stress response, in the absence of an appropriate trigger, can occur.  This can be seen when nutritional magnesium deficits cause high blood pressure or increase blood stickiness (platelet aggregation). Additionally, since a low Mg:Ca ratio can increase adrenaline secretion as well as cells’ response to adrenaline, a too low magnesium state can keep the stress response from subsiding in a timely way.  Even worse, when body magnesium becomes drastically low, this becomes a stress trigger in itself, alarming the body into further stress response with out enough magnesium to back it up, resulting in a low magnesium-high stress crisis that can end in sudden death.

In the industrialized world, we live in a state of chronic, on-going stress.  This environmental reality increases our daily need for magnesium in order to maintain a healthy stress response that can calm when not necessary.

 

Part II. Heart Disease Is Often a Magnesium Deficiency

Clearly, an adequate amount of nutritional magnesium—in proper balance with adequate nutritional calcium—is key to a healthy stress response.  And yet today we have diets dangerously low in magnesium.  Add the recent additions of nutritional calcium via supplements and food fortifications meant to stave off osteoporosis, and many of us are getting inadequate magnesium plus too much calcium.  This results in a large occurrence of heart disease.

Not all, but much of the heart disease in the industrialized world can be explained by the low magnesium state of these societies.  People with heart disease—for the most part—are people who are in a state of magnesium that is borderline or deficient.  Many studies on heart disease patients exist due to medicine’s effort to understand and treat this widespread malady.  Although not intended as such, this body of research shows us what stress can do to a person in a magnesium deficient state.

 

Part III. Mental and Emotional Stress Deplete Magnesium

It is commonly accepted that certain traditional risk factors for heart disease exist.  This include high cholesterol, high blood pressure, family history of heart disease, and other factors, all of which can be linked to a shortage of nutritional magnesium.  Recent studies tell us that stresses—both sudden and chronic—with their high magnesium requirements, are also strong risk factors for heart disease.

The sudden stress of the L.A. earthquake and the 9/11 World Trade Center attack showed an upsurge of adverse heart events in people with heart disease.  Even heart patients living in Florida, hundres of miles away from the WTC attack, showed more adverse heart events in response to 9/11 than in usual times.  Again, adverse heart events in this largely magnesium deficient population show that the triggered stress response tested their magnesium status and found it wanting.

Emotional stress and phobic anxiety cause heart problems in patients with heart disease—a population we know to be mostly low in their nutritional magnesium status.  Chronic states of emotional stress, including a history of childhood abuse, neglect or family dysfunction, depression, and panic disorder, must now be added to the list of traditional risk factors for heart disease such as high blood pressure and high cholesterol.  Depression can be a symptom of low magnesium status.  So can anxiety, panic attacks, irritability, hyperactivity, and over-sensitivity to loud noises.  Do these newly found risk factors cause heart disease, or are they risk factors because the, as well as heart disease, can all be aspects of low magnesium status?  These chronic sources of stress can increase the human need for magnesium as well as be caused by its deficit.

Emotional stress triggers in susceptible people can even bring a sudden death due to heart attack, presumably by initiating a stress/low-magnesium crisis.  Such emotional “triggers” include work stress, high-pressure deadlines, social isolation and loneliness, low socioeconomic status, anxiety, war, fear of war, anger and rage.  Identical stress triggers cause more human heart attacks regardless of age, race, gender, or geographic location, including continent.

Mental stress, such as working out a math problem, can be shown to have impact upon the magnesium-stress response connection, since it can bring on heart attacks in people with heart disease.

“Recent studies tell us that stresses-both sudden and chronic—with their high magnesium requirements, are also strong risk factors for heart disease.”

 

Part IV. Stress, Magnesium and Aging

We are hearing a lot about stress in the health media, and rightly so as this constant companion to our lives brings on the fight-or-flight syndrome, a stress response that, when activated, has been shown to shorten lifespan.  When we realize that the stress response is exacerbated when we are low in magnesium, that we are living on low-magnesium foods for the most part, and that our lifestyles are more and more filled with chronic stresses and stressful events, we are not surprised to see that several aspects of magnesium deficiency are remarkably like aspects of the aging process.

When faced with out stressful lifestyles, coupled with a society presenting a chronically low-magnesium/high-calcium diet, what is our best defense? For many of us, magnesium supplements can help to preserve or restore a healthy Mg:Ca balance, so important to our health in these stressful times.