Archive for February, 2011

Food Intolerances – Real or Not

Milk in context: allergies, ecology, and some myths

Food allergies are becoming much more common in recent decades, especially in

industrialized countries. Most attention has been given to theories about changes in

people, such as the reduction in infectious diseases and parasites, or vitamin D

deficiency, or harmful effects from vaccinations, and little attention has been given to

degradation of the food supply.

To read more of this article, click on the link below

http://raypeat.com/articles/articles/milk.shtml

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Salt – The Other White Powder by Josh Rubin

Click on Link to Listen:

http://www.eastwesthealing.com/nutrition/saltthe-other-white-powder.aspx

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Doing the Devil’s Bidding; One of Monsanto’s Little Helpers

By Tim Koegel www.organicpasturedpoultry.com

Long before now, everyone in the organic community as well as most of the conventional community, has

become thoroughly familiar with RoundUp Ready Alfalfa (RRA). Of course there have been countless outcries

against Monsanto, and it has been Monsantoís name in virtually every print and web article as well as radio and

TV show. But if Monsanto is the devil as many would say, then there has been little if any mention of those

doing the devilís bidding here, in this case that disciple being Forage Genetics International (FGI). FGI is a

wholly (or rather ìunholyî) owned subsidiary of Land Oí Lakes. While Monsanto owns the patented RoundUp

Ready (RR) gene, FGI is the developer of RR Alfalfa and licenses the patents to do so from Monsanto.

Click on the link below to read the rest of this artice

http://www.windyridgepoultry.com/gmo_alflafa1.pdf

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Ancient Wisdom for Today’s Children


Weston A. PriceMore than sixty years ago, a Cleveland dentist named Weston A. Price decided to embark on a series of unique investigations that would engage his attention and energies for the next ten years. Possessed of an inquiring mind and a spiritual nature, Price was disturbed by what he found when he looked into the mouths of his patients. Rarely did an examination of an adult client reveal anything but rampant decay, often accompanied by serious problems elsewhere in the body such as arthritis, osteoporosis, diabetes, intestinal complaints and chronic fatigue. (They called it neurasthenia in Price’s day.) But it was the dentition of younger patients that gave him most cause for concern. He observed that crowded, crooked teeth were becoming more and more common, along with what Price called “facial deformities”–overbites, narrowed faces, underdevelopment of the nose, lack of well-defined cheekbones and pinched nostrils. Such children invariably suffered from one or more complaints that sound all too familiar to mothers of the 1990s: frequent infections, allergies, anemia, asthma, poor vision, lack of coordination, fatigue and behavioral problems. Price did not believe that such “physical degeneration” was God’s plan for mankind. He was rather inclined to believe that the creator intended physical perfection for all human beings, and that children should grow up free of ailments.

To read this article, click on the link below:

http://www.westonaprice.org/traditional-diets/622-ancient-dietary-wisdom.html

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Iron Dangers

from:        http://www.eastwesthealing.com
Iron’s Dangers
    •    Q: You believe iron is a deadly substance. Why? ?
    •    Iron is a potentially toxic heavy metal. In excess, it can cause cancer, heart disease, and other illnesses. ?

    •    Q: Could you tell us about some of these studies? ?
    •    In the 1960s the World Health Organization found that when iron supplements were given to anemic people in Africa, there was a great increase in the death rate from infectious diseases, especially malaria. Around the same time, research began to show that the regulation of iron is a central function of the immune system, and that this seems to have evolved because iron is a basic requirement for the survival and growth of cells of all types, including bacteria, parasites, and cancer. The pioneer researcher in the role of iron in immunity believed that an excess of dietary iron contributed to the development of leukemia and lymphatic cancers. Just like lead, mercury, cadmium, nickel and other heavy metals, stored iron produces destructive free radicals. The harmful effects of iron-produced free radicals are practically indistinguishable from those caused by exposure to X-rays and gamma rays; both accelerate the accumulation of age-pigment and other signs of aging. Excess iron is a crucial element in the transformation of stress into tissue damage by free radicals.
    •    For about 50 years, it has been known that blood transfusions damage immunity, and excess iron has been suspected to be one of the causes for this. People who regularly donate blood, on the other hand, have often been found to be healthier than non-donors, and healthier than they were before they began donating.
    •    In one of Hans Selye’s pioneering studies, he found that he could experimentally produce a form of scleroderma (hardening of the skin) in animals by administering large doses of iron, followed by a minor stress. He could prevent the development of the condition by giving the animals large doses of vitamin E, suggesting that the condition was produced by iron’s oxidative actions.
    •    Excess iron’s role in infectious diseases is now well established, and many recent studies show that it is involved in degenerative brain diseases, such as Parkinson’s, ALS (Lou Gehrig’s disease), Huntington’s chorea, and Alzheimer’s disease. Iron is now believed to have a role in skin aging, atherosclerosis, and cataracts of the lenses of the eyes, largely through its formation of the “age pigment.” ?
    •    Q: How does excess iron accelerate our aging process? ?
    •    During aging, our tissues tend to store an excess of iron. There is a remarkably close association between the amount of iron stored in our tissues and the risk of death from cancer, heart disease, or from all causes. This relationship between iron and death rate exists even during childhood, but the curve is downward until the age of 12, and then it rises steadily until death. The shape of this curve, representing the iron burden, is amazingly similar to the curves representing the rate of death in general, and the rate of death from cancer. There is no other relationship in biology that I know of that has this peculiar shape, with its minimum at the age of 12, and its maximum in old age at the time of death.
    •    One of the major lines of aging research, going back to the early part of this century, was based on the accumulation of a brown material in the tissues known as “age-pigment.” The technical name for this material, “lipofuscin,” means “fatty brown stuff.” In the 1960s, the “free radical theory” of aging was introduced by Denham Harman, and this theory has converged with the age-pigment theory, since we now know that the age-pigment is an oxidized mass of unsaturated fat and iron, formed by uncontrolled free radicals. Until a few years ago, these ideas were accepted by only a few researchers, but now practically every doctor in the country accepts that free radicals are important in the aging process. A nutrition researcher in San Diego suspected that the life-extending effects of calorie restriction might be the result of a decreased intake of toxins. He removed the toxic heavy metals from foods, and found that the animals which ate a normal amount of food lived as long as the semi-starved animals. Recently, the iron content of food has been identified as the major life-shortening factor, rather than the calories. [Choi and Yu, Age vol. 17, page 93, 1994.] ?
    •    Q: Exactly how much iron do we need to eat? ?
    •    Children’s nutritional requirements are high, because they are growing, but there are indications that in the U.S. even children eat too much iron.
    •    Some researchers are concerned that the iron added to cereals is contributing to the incidence of leukemia and cancers of the lymphatic tissues in children. [Goodfield, 1984.] During the time of rapid growth, children are less likely than adults to store too much iron. At birth, they have a large amount of stored iron, and this decreases as they “grow into it.” It is after puberty, when growth slows and the sex hormones are high, that the storage of iron increases. [Blood, Sept., 1976.] In a study of the “malnourished” children of migrant fruit pickers in California, these children who were “seriously anemic” were actually more resistant to infectious diseases than were the “well nourished” middle class children in the same region.
    •    If the normal amount of dietary iron causes an increased susceptibility to infections even in children, and if a subnormal amount of iron slows the aging process, I think we are going to have to reconsider our ideas of nutritional adequacy, to look at the long range effects of diet, as well as the immediate effects. My current studies have to do with analyzing our ability to handle stress safely, in relation to our diet. I believe our nutritional recommendations for iron have to be revised sharply downward.
    •    Q. Don’t women need extra iron? ?
    •    That’s a misunderstanding.
    •    Doctors generally don’t realize that only a few milligrams of iron are lost each day in menstruation. The real issue is that you can hardly avoid getting iron, even when you try.
    •    Women absorb iron much more efficiently than men do. From a similar meal, women will normally absorb three times as much iron as men do. When pregnant, their higher estrogen levels cause them to absorb about nine times as much as men. Every time a woman menstruates, she loses a little iron, so that by the age of 50 she is likely to have less iron stored in her tissues than a man does at the same age, but by the age of 65 women generally have as much excess iron in their tissues as men do. (During those 15 years, women seem to store iron at a faster rate than men do, probably because they have more estrogen.) At this age their risk of dying from a heart attack is the same as that of men. Some women who menstruate can donate blood regularly without showing any tendency to become anemic.
    •    Since the custom of giving large iron supplements to pregnant women has been established, there has been an increase in jaundice of the newborn. It has been observed that women who didn’t take iron supplements during pregnancy have healthy babies that don’t develop jaundice. I have suggested that this could be because they haven’t been poisoned by iron. Those supplements could also be a factor in the increased incidence of childhood cancer. ?
    •    Q: Don’t you need iron supplements if you are anemic?
    •    In general, no.
    •    Many doctors think of anemia as necessarily indicating an iron deficiency, but that isn’t correct. 100 years ago, it was customary to prescribe arsenic for anemia, and it worked to stimulate the formation of more red blood cells. The fact that arsenic, or iron, or other toxic material stimulates the formation of red blood cells doesn’t indicate a “deficiency” of the toxin, but simply indicates that the body responds to a variety of harmful factors by speeding its production of blood cells. Even radiation can have this kind of stimulating effect, because growth is a natural reaction to injury. Between 1920 and 1950, it was common to think of “nutritional growth factors” as being the same as vitamins, but since then it has become common to use known toxins to stimulate the growth of farm animals, and as a result, it has been more difficult to define the essential nutrients. The optimal nutritional intake is now more often considered in terms of resistance to disease, longevity or rate of aging, and even mental ability.
    •    An excess of iron, by destroying vitamin E and oxidizing the unsaturated fats in red blood cells, can contribute to hemolytic anemia, in which red cells are so fragile that they break down too fast. In aging, red cells break down faster, and are usually produced more slowly, increasing the tendency to become anemic, but additional iron tends to be more dangerous for older people.
    •    Anemia in women is caused most often by a thyroid deficiency (as discussed in the chapter on thyroid), or by various nutritional deficiencies. Estrogen (even in animals that don’t menstruate) causes dilution of the blood, so that it is normal for females to have lower hemoglobin than males. Q. What should I do if my doctor tells me I’m anemic? Is there any situation in which a person needs to take iron supplements?
    •    Iron deficiency anemia does exist, in laboratory situations and in some cases of chronic bleeding, but I believe it should be the last-suspected cause of anemia, instead of the first. It should be considered as a possible cause of anemia only when very specific blood tests show an abnormally low degree of iron saturation of certain proteins. Usually, physicians consider the amount of hemoglobin or of red cells in the blood as the primary indicator of a need for iron, but that just isn’t biologically reasonable.
    •    If a large amount of blood is lost in surgery, a temporary anemia might be produced, but even then it would be best to know whether the iron stores are really depleted before deciding whether an iron supplement would be reasonable. Liver (or even a water extract of wheat germ) can supply as much iron as would be given as a pill, and is safer. ?
    •    Q. What foods contain iron? ?
    •    Flour, pasta, etc., almost always contain iron which has been artificially added as ferrous sulfate, because of a federal law. Meats, grains, eggs, and vegetables naturally contain large amounts of iron. A few years ago, someone demonstrated that they could pick up a certain breakfast cereal with a magnet, because of the added iron. Black olives contain iron, which is used as a coloring material. You should look for “ferrous” or “ferric” or “iron” on the label, and avoid foods with any added iron. Many labels list “reduced iron,” meaning that iron is added in the ferrous form, which is very reactive and easily absorbed. ?
    •    Q.: Why does federal law require the addition of iron to those foods? ?
    •    Industrially processed grains have most of the nutrients, such as vitamin E, the B vitamins, manganese, magnesium, etc., removed to improve the products’ shelf life and efficiency of processing, and the government required that certain nutrients be added to them as a measure to protect the public’s health, but the supplementation did not reflect the best science even when it was first made law, since food industry lobbyists managed to impose compromises that led to the use of the cheapest chemicals, rather than those that offered the greatest health benefits. For example, studies of processed animal food had demonstrated that the addition of iron (as the highly reactive form, ferrous sulfate, which happens to be cheap and easy to handle) created disease in animals, by destroying vitamins in the food. You should read the label of ingredients and avoid products that contain added iron, when possible. ?
    •    Q: Can cooking in an iron frying pan put iron into food? ?
    •    Yes, especially if the food is acidic, as many sauces are. The added iron will destroy vitamins in the food, besides being potentially toxic in itself. ?
    •    Q: What about aluminum? ?
    •    Aluminum and iron react similarly in cells and are suspected causes of Alzheimer’s disease.
    •    The aluminum industry started propagandizing more than 50 years ago about the “safety” of aluminum utensils, claiming that practically none of the toxic metal gets into the food. Recent research showed that coffee percolated in an aluminum pot contained a large amount of dissolved aluminum, because of coffee’s acidity. ?
    •    Q: What kind of cooking pots or utensils are safe? ?
    •    Glass utensils are safe, and certain kinds of stainless steel are safe, because their iron is relatively insoluble. Teflon-coated pans are safe unless they are chipped. ?
    •    Q: How do I know which stainless steels are safe? ?
    •    There are two main types of stainless steel, magnetic and nonmagnetic. The nonmagnetic form has a very high nickel content, and nickel is allergenic and carcinogenic. It is much more toxic than iron or aluminum. You can use a little “refrigerator magnet” to test your pans. The magnet will stick firmly to the safer type of pan. ?
    •    Q: Why is there iron in most multi-vitamin and mineral products? ?
    •    Although several researchers have demonstrated that iron destroys vitamins, there is enough wishful thinking in industry, government, and the consuming public, that such mistakes can go on for generations before anyone can mobilize the resources to bring the truth to the public. 10 years ago, I thought it was a hopeful sign of increased awareness of iron’s danger when the manufacturer of a new iron product mentioned in the Physician’s Desk Reference that it hadn’t yet been reported to cause cancer. ?
    •    Q. I can’t avoid all those foods, especially the bread and grains. What can I do to keep the iron I ingest from harming me? ?
    •    Iron destroys vitamin E, so vitamin E should be taken as a supplement. It shouldn’t be taken at the same time as the iron-contaminated food, because iron reacts with it in the stomach. About 100 mg. per day is adequate, though our requirement increases with age, as our tissue iron stores increase. Coffee, when taken with food, strongly inhibits the absorption of iron, so I always try to drink coffee with meat. Decreasing your consumption of unsaturated fats makes the iron less harmful. Vitamin C stimulates the absorption of iron, so it might be a good idea to avoid drinking orange juice at the same meal with iron-rich foods. A deficiency of copper causes our tissues to retain an excess of iron, so foods such as shrimp and oysters which contain abundant copper should be used regularly. ?
    •    Q: How does copper help us? ?
    •    Copper is the crucial element for producing the color in hair and skin, for maintaining the elasticity of skin and blood vessels, for protecting against certain types of free radical, and especially for allowing us to use oxygen properly for the production of biological energy. It is also necessary for the normal functioning of certain nerve cells (substantia nigra) whose degeneration is involved in Parkinson’s disease. The shape and texture of hair, as well as its color, can change in a copper deficiency. Too much iron can block our absorption of copper, and too little copper makes us store too much iron. With aging, our tissues lose copper as they store excess iron. Because of those changes, we need more vitamin E as we age. ?
    •    SUMMARY: ?
    •    Iron is a potentially toxic heavy metal; an excess can cause cancer, heart disease, and other illnesses. ?
    •    Other heavy metals, including lead and aluminum, are toxic; pans and dishes should be chosen carefully. ?
    •    Iron causes cell aging. ?
    •    Drinking coffee with iron rich foods can reduce iron’s toxic effects. ?
    •    Use shrimp and oysters, etc., to prevent the copper deficiency which leads to excess storage of iron. ?
    •    Avoid food supplements which contain iron.
    •    Take about 100 units of vitamin E daily; your vitamin E requirement increases with your iron consumption. ??
    •    GLOSSARY:
    •    Free radicals are fragments of molecules that are very destructive to all cells and system of the body.
    •    Respiration refers to the absorption of oxygen by cells, which releases energy. The structure inside the cell in which energy is produced by respiration is called the mitochondrion. Oxidation refers to the combination of a substance with oxygen. This can be beneficial, as in normal respiration that produces energy, or harmful, as in rancidity, irradiation, or stress reactions. Antioxidants: Vitamin E and vitamin C are known as antioxidants, because they stop the harmful free-radical chain reactions which often involve oxygen, but they do not inhibit normal oxidation processes in cells. “Chain breaker” would be a more suitable term. It is often the deficiency of oxygen which unleashes the dangerous free-radical processes. Many substances can function as antioxidants/chain breakers: thyroxine, uric acid, biliverdin, selenium, iodine, vitamin A, sodium, magnesium, and lithium, and a variety of enzymes. Saturated fats work with antioxidants to block the spread of free-radical chain reactions. Age pigment is the brown material that forms spots on aging skin, and that accumulates in the lens of the eye forming cataracts, and in blood vessels causing hardening of the arteries, and in the heart and brain and other organs, causing their functions to deteriorate with age. It is made up of oxidized unsaturated oils with iron.
    •    Anemic means lacking blood, in the sense of not having enough red blood cells or hemoglobin. It is possible to have too much iron in the blood while being anemic. Anemia in itself doesn’t imply that there is nutritional need for iron. ?
    •    REFERENCES ?
    •    Allen, D. R., et al., “Catechol adrenergic agents enhance hydroxyl radical generation in xanthine oxidase systems containing ferritin: Implications for ischemia reperfusion,” Arch. Biochem. Biophys. 315(2), 235-243, 1994. ?
    •    M. Bartal, et al., “Lipid peroxidation in iron deficiency anemia–Reply,” Acta Haematol. 91(3), 170, 1994. ?
    •    R. J. Bergeron, et al., “Influence of iron on in vivo proliferation and lethality of L1210 cells,” J. Nutrition 115(3), 369-374, 1985. ?
    •    P. Carthew and A. G. Smith, “Pathological mechanisms of hepatic tumor formation in rats exposed chronically to dietary hexachlorobenzene,” J. Applied Toxicology 14(6), 447-52, 1994. ?
    •    Chen, Y., et al., “Weak antioxidant defenses make the heart a target for damage in copper-deficient rats,” Free Radical Biol. Med. 17(6), 529-536, 1994. ?
    •    J. J. C. Chiao, et al., “Iron delocalization occurs during ischemia and persists on reoxygenation of skeletal muscle,” J. Lab. Clin. Med. 124(3), 432-438, 1994. ?
    •    Choi, J. H. and B. P. Yu, “Modulation of age-related alterations of iron, ferritin, and lipid peroxidation in rat serum,” Age 17(3), 93-97, 1994. ?
    •    P. C. Elwood, “Iron, magnesium, and ischemic heart disease,” Proc. of Nutrition Society 53(3), 599-603, 1994. ?
    •    J. Goodfield, An Imagined World, Penguin Books, N.Y., 1984. ?
    •    M. Galleano and S. Puntarulo, “Mild iron overload effect on rat liver nuclei,” Toxicol. 93(2-3), 125-34, 1994. ?
    •    E. C. Hirsch, “Biochemistry of Parkinson’s disease with special reference to the dopaminergic systems,” Mol. Neurobiol. 9(1-3), 135-142, 1994. ?
    •    G. M. Kainova, et al., “Activation of endogenous lipid peroxidation in the brain during oxidation stress induced by iron and its prevention by vitamin E,” Bull. Exp. Biol. & Med. 109(1), 43-45, 1989. ?
    •    S. Kiechl, et al., “Body iron stores and presence of carotid atherosclerosis–results from the Bruneck study,” Arterioscler. Thromb. 14(10), 1625-1630, 1994. ?
    •    A. V. Kozlov, et al., “Role of endogenous free iron in activation of lipid peroxidation during ischemia,” Bull. Exp. Biol. Med. 99(1), 1984. ?
    •    D. J. Lamb and D. S. Leake, “Iron released from transferrin at acidic pH can catalyse the oxidation of low density lipoprotein,” FEBS Lett 352(1), 15-18, 1994. ?
    •    E. E. Letendre, “Importance of iron in the pathogenesis of infection and neoplasm,” Trends in Biochemical Sci., April, 1985, 166-168. ?
    •    V. M. Mann, et al., “Complex 1, iron and ferritin in Parkinson’s disease substantia nigra,” Ann. of Neurology 36(6), 876-81, 1994. ?
    •    Z. Maskos and W. H. Koppenol, “Oxyradicals and multivitamin tablets,” Free Radical Biol. & Med. 11, 669-670, 1991. ?
    •    S. Ozsoylu, “Lipid peroxidation in iron deficiency anemia,” Acta Haematol. 91(3), 170, 1994. ?
    •    Pecci, L., et al., “Aminoethylcystein ketimine decarboxylated dimer protects submitochondrial particles from lipid peroxidation at a concentration not inhibitory of electron transport,” Biochem. Biophys. Res. Commun. 205(1), 264-268, 1994. ?
    •    M. Savoiardo, et al., “Magnetic resonance imaging in progressive supranuclear palsy and other parkinsonian disorders,” J. Neural Trans. (suppl. 42), 93-110, 1994. ?
    •    J. J. Strain, “Putative role of dietary trace elements in coronary heart disease and cancer,” Brit. J. Biomed. Sci. 51(3), 241-251, 1994. ?
    •    Vanrensburg, S. J., et al., “Lipid peroxidation and platelet membrane fluidity–implications for Alzheimer’s disease?”, Neuroreport 5(17), 2221-2224, 1994. ?
    •    L. J. Wesselius, et al., “Increased release of ferritin and iron by iron-loaded alveolar macrophages in cigarette smokers,” Amer. J. Respir. Crit. Care Med. 150(3), 690-695, 1994. ?
    •    Transfusions: Amer. J. of Surgery 155, p. 43, 1988. *A Finnish study, two years ago, indicated that high iron stores may increase heart attack risk: In People magazine, 1994: “Is iron a killer?” Dr. Jerome L. Sullivan, director of clinical labs of Veterans Affairs Medical Center at Charleston, S.C., in 1983 proposed that excess iron contributes to heart attacks. University of Kuopio in Finland: Large-scale study (nearly 2,000 men, for up to five years; next to smoking, excess stored iron is the most significant identifiable risk factor for heart attacks. It is a stronger risk factor for heart attack than high blood pressure and cholesterol.
    •    *Dec. 7, page 6E, Register Guard (Eugene, OR): US studies showed a weak connection between iron and heart disease, and a weak connection with the iron in red meat. Epidemiologists at the Pacific Northwest Laboratory in Washington have reported that the greater the concentration of iron in a person’s blood, the greater his or her risk of cancer. Richard Stevens and his co-workers found the connection from examining cancer rates in more than 8,000 people who participated in the l971 National Health and Nutrition Examination survey. A second Finnish study with similar findings accompanied Stevens’s report in the International Journal of Cancer, and suggets that there may be cause for concern. Register Guard (Eugene, OR), Jan. 16, 95; p 7A: Number of heart failures doubles, AP: 1982-92, heart disease death rate dropped 24.5%; number of cases of congestive heart failure doubled during roughly the same period. It killed 39,000 Americans in 1991, costs system $40 billion per year. Cancer is the biggest killer of women under 64, heart disease far surpasses cancer in women of ages 65-84.

© Ray Peat 2006. All Rights Reserved. www.RayPeat.com

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Fish Oil – You Decide!

The Great Fish Oil Experiment

Reading medical journals and following the mass media, it’s easy to get the idea that fish oil is something any sensible person should use. It’s rare to see anything suggesting that it could be dangerous.

During the recent years in which the U.S. government has gone from warning against the consumption of too much of these omega-3 oils (“to assure that the combined daily intake of two fatty acids that are components” “(i.e., eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA)) would not exceed 3 grams per person per day (g/p/d)”) to sponsoring biased industry claims, there has been considerable accumulation of information about the dangers of fish oils and omega-3 fatty acids. But there has been an even greater increase in the industry’s promotional activities.

The US government and the mass media selectively promote research that is favorable to the fish oil industry. The editorial boards of oil research journals often include industry representatives, and their editorial decisions favor research conclusions that promote the industry, in the way that editorial decisions in previous decades favored articles that denied the dangers of radiation and reported that estrogen cures almost everything. Marcia Angell, former editor of the NEJM, has observed that the “significant results” reported in published studies can be properly interpreted only by knowing how many studies reporting opposite results were rejected by the editors.

One way to evaluate published studies is to see whether they tell you everything you would need to know to replicate the experiment, and whether the information they provide is adequate for drawing the conclusions they draw, for example whether they compared the experimental subjects to proper control subjects. With just a few minimal critical principles of this sort, most “scientific” publications on nutrition, endocrinology, cancer and other degenerative diseases are seen to be unscientific. In nutritional experiments with fish oil, controls must receive similar amounts of vitamins A, D, E, and K, and should include fat free or “EFA” deficient diets for comparison.

In declaring EPA and DHA to be safe, the FDA neglected to evaluate their antithyroid, immunosuppressive, lipid peroxidative (Song et al., 2000), light sensitizing, and antimitochondrial effects, their depression of glucose oxidation (Delarue et al., 2003), and their contribution to metastatic cancer (Klieveri, et al., 2000), lipofuscinosis and liver damage, among other problems.

Click on the link to read the rest of this article

http://raypeat.com/articles/articles/fishoil.shtml

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

An Interview with Ray Peat!

 
An Interview With Dr. Raymond Peat
A Renowned Nutritional Counselor Offers His Thoughts About Thyroid Disease  
by Mary Shomon

Raymond Peat, Ph.D. is editor and researcher of a popular and well-known monthly newsletter on nutritiona and health, as well as author of a number of cutting-edge publications that look at aging, nutrition, and hormones from a biochemical perspective. Dr. Peat has a Ph.D. in Biology from the University of Oregon, with specialization in physiology. He has taught at the University of Oregon, Urbana College, Montana State University, National College of Naturopathic Medicine, Universidad Veracruzana, the Universidad Autonoma del Estado de Mexico, and Blake College. He also conducts private nutritional counseling.

I had the privilege to conduct an interview with Ray Peat in November of 2000, touching upon a few of the many interesting points he raises in his various publications.



Mary Shomon: Why do women with treated hypothyroidism frequently still have inappropriately high levels of cholesterol and high triglycerides, and what can they do to help lower these levels?Dr. Ray Peat: Often it’s because they were given thyroxine, instead of the active thyroid hormone, but hypertriglyceridemia can be caused by a variety of things that interact with hypothyroidism. Estrogen treatment is a common cause of high triglycerides, and deficiencies of magnesium, copper, and protein can contribute to that abnormality. Toxins, including some drugs and herbs, can irritate or stimulate the liver to produce too much triglyceride. T3, triiodothyronine, is the active thyroid hormone, and it is produced (mainly in the liver) from thyroxine, and the female liver is less efficient than the male liver in producing it, as is the female thyroid gland. The thyroid gland, which normally produces some T3, will decrease its production in the presence of increased thyroxine. Therefore, thyroxine often acts as a “thyroid anti-hormone,” especially in women. When thyroxine was tested in healthy young male medical students, it seemed to function “just like the thyroid hormone,” but in people who are seriously hypothyroid, it can suppress their oxidative metabolism even more. It’s a very common, but very serious, mistake to call thyroxine “the thyroid hormone.”

High cholesterol is more closely connected to hypothyroidism than hypertriglyceridemia is. Increased T3 will immediately increase the conversion of cholesterol to progesterone and bile acids. When people have abnormally low cholesterol, I think it’s important to increase their cholesterol before taking thyroid, since their steroid-forming tissues won’t be able to respond properly to thyroid without adequate cholesterol.

Mary Shomon: You feel that progesterone can have anti-stress effects, without harming the adrenal glands. Is progesterone therapy something you feel is useful to many or most hypothyroid patients? How can a patient know if she needs progesterone? Do you recommend blood tests? And if so, at what point in a woman’s cycle?

Dr. Ray Peat: Estrogen blocks the release of hormone from the thyroid gland, and progesterone facilitates the release. Estrogen excess or progesterone deficiency tends to cause enlargement of the thyroid gland, in association with a hypothyroid state. Estrogen can activate the adrenals to produce cortisol, leading to various harmful effects, including brain aging and bone loss. Progesterone stimulates the adrenals and the ovaries to produce more progesterone, but since progesterone protects against the catabolic effects of cortisol, its effects are the opposite of estrogen’s. Progesterone has antiinflammatory and protective effects, similar to cortisol, but it doesn’t have the harmful effects. In hypothyroidism, there is a tendency to have too much estrogen and cortisol, and too little progesterone.

The blood tests can be useful to demonstrate to physicians what the problem is, but I don’t think they are necessary. There is evidence that having 50 or 100 times as much progesterone as estrogen is desirable, but I don’t advocate “progesterone replacement therapy” in the way it’s often understood. Progesterone can instantly activate the thyroid and the ovaries, so it shouldn’t be necessary to keep using it month after month. If progesterone is used consistently, it can postpone menopause for many years.

Cholesterol is converted to pregnenolone and progesterone by the ovaries, the adrenals, and the brain, if there is enough thyroid hormone and vitamin A, and if there are no interfering factors, such as too much carotene or unsaturated fatty acids. Progesterone deficiency is an indicator that something is wrong, and using a supplement of progesterone without investigating the nature of the problem isn’t a good approach. The normal time to use a progesterone supplement is during the “latter half” of the cycle, the two weeks from ovulation until menstruation. If it is being used to treat epilepsy, cancer, emphysema, migraine or arthritis, or something else so serious that menstrual regularity isn’t a concern, then it can be used at any time. If progesterone is used consistently, it can postpone menopause for many years.

Mary Shomon: What supplements do you feel are essential for most people with hypothyroidism?

Dr. Ray Peat: Because the quality of commercial nutritional supplements is dangerously low, the only supplement I generally advocate is vitamin E, and that should be used sparingly. Occasionally, I will suggest limited use of other supplements, but it is far safer in general to use real foods, and to exclude foods which are poor in nutrients. Magnesium is typically deficient in hypothyroidism, and the safest way to get it is by using orange juice and meats, and by using epsom salts baths; magnesium carbonate can be helpful, if the person doesn’t experience side effects such as headaches or hemorrhoids.

Mary Shomon: Do you feel that there are any special considerations, issues, or treatments for men with hypothyroidism?

Dr. Ray Peat: Thyroid supplements can be useful for prostate hypertrophy and some cases of impotence and infertility. Occasionally, a man who can’t put on a normal amount of weight finds that a thyroid supplement allows normal weight gain. Leg cramps, insomnia and depression are often the result of hypothyroidism. Heart failure, gynecomastia, liver disease, baldness and dozens of other problems can result from hypothyroidism.

Mary Shomon: Many people describe how they are clinically hypothyroid, with elevated TSH levels, but have extremely high pulse rates. Do you have any thoughts as to what might be going on in that situation?

Dr. Ray Peat: In hypothyroidism, thyrotropin-release hormone (TRH) is usually increased, increasing release of TSH. TRH itself can cause tachycardia, “palpitations,” high blood pressure, stasis of the intestine, increase of pressure in the eye, and hyperventilation with alkalosis. It can increase the release of norepinephrine, but in itself it acts very much like adrenalin. TRH stimulates prolactin release, and this can interfere with progesterone synthesis, which in itself affects heart function.

I consider even the lowest TSH within the “normal range” to be consistent with hypothyroidism; in good health, very little TSH is needed. When the thyroid function is low, the body often compensates by over-producing adrenalin. The daily production of adrenalin is sometimes 30 or 40 times higher than normal in hypothyroidism. The adrenalin tends to sustain blood sugar in spite of the metabolic inefficiency of hypothyroidism, and it can help to maintain core body temperature by causing vasoconstriction in the skin, but it also disturbs the sleep and accelerates the heart. During the night, cycles of rising adrenalin can cause nightmares, wakefulness, worry, and a pounding heart. Occasionally, a person who has chronically had a heart rate of 150 beats per minute or higher, will have a much lower heart rate after using a thyroid supplement for a few days. If your temperature or heart rate is lower after breakfast than before, it’s likely that they were raised as a result of the nocturnal increase of adrenalin and cortisol caused by hypothyroidism.

Mary Shomon: You have written that for some people, there is a problem converting T4 to T3, but that diet can help. You recommend a piece of fruit or juice or milk between meals, plus adequate protein, can help the liver produce the hormone. Can you explain a bit more about this idea and how it works?

Dr. Ray Peat: The amount of glucose in liver cells regulates the enzyme that converts T4 to T3. This means that hypoglycemia or diabetes (in which glucose doesn’t enter cells efficiently) will cause hypothyroidism, when T4 can’t be converted into T3. When a person is fasting, at first the liver’s glycogen stores will provide glucose to maintain T3 production. When the glycogen is depleted, the body resorts to the dissolution of tissue to provide energy. The mobilized fatty acids interfere with the use of glucose, and certain amino acids suppress the thyroid gland. Eating carbohydrate (especially fruits) can allow the liver to resume its production of T3.

Mary Shomon: You have recommended if supplemental T3 is used, a thyroid patients “nibble on a 10-15 mg Cytomel tablet throughout the day.” Can you explain why? Would compounded time-released T3 as available in some compounding pharmacies do the same?

Dr. Ray Peat: Most hypothyroid people can successfully use a supplement that contains four parts of thyroxine for each part of T3, but some people need a larger proportion of T3 for best functioning. The body normally produces several micrograms of T3 every hour, but if a large amount of supplementary thyroid is taken in a short time, the liver quickly inactivates some of the excess T3. Taking a few micrograms per hour provides what the body can use, and doesn’t suppress either the liver’s or the thyroid’s production of the hormone.

I have only rarely talked to anyone who had good results with the so-called time-release T3, and I have seen analyses of some samples in which there was little or no T3 present. It is hard to compound T3 properly, and the conditions of each person’s digestive system can determine whether the T3 is released all at once, or not at all. I don’t think there is a valid scientific basis for calling anything “time-release T3.”

I have been told that the company which now owns the Armour name and manufactures “Armour thyroid USP” has added a polymer to the formula, and I think this would account for the stories I have heard about its apparent inactivity. Some people have found that the tablets passed through their intestine undigested, so I think it’s advisable to crush or powder the tablets.

Mary Shomon: You feel that excessive aerobic exercise can be a cause of hypothyroidism. Can you explain this further? How much is too much?

Dr. Ray Peat: I’m not sure who introduced the term “aerobic” to describe the state of anaerobic metabolism that develops during stressful exercise, but it has had many harmful repercussions. In experiments, T3 production is stopped very quickly by even “sub-aerobic” exercise, probably becaue of the combination of a decrease of blood glucose and an increase in free fatty acids. In a healthy person, rest will tend to restore the normal level of T3, but there is evidence that even very good athletes remain in a hypothyroid state even at rest. A chronic increase of lactic acid and cortisol indicates that something is wrong. The “slender muscles” of endurance runners are signs of a catabolic state, that has been demonstrated even in the heart muscle. A slow heart beat very strongly suggests hypothyroidism. Hypothyroid people, who are likely to produce lactic acid even at rest, are especially susceptible to the harmful effects of “aerobic” exercise. The good effect some people feel from exercise is probably the result of raising the body temperature; a warm bath will do the same for people with low body temperature.

Mary Shomon: You feel that chronic protein deficiency is a common cause of hypothyroidism. How much protein should people get (as much as 70-100 grams a day?) and what types of protein, in order to prevent hypothyroidism?

Dr. Ray Peat: The World Health Organization standard was revised upward by researchers at MIT, and recently the MIT standard has been revised upward again by military researchers; this is described in a publication of the National Academy of Sciences (National Academy Press, The Role of Protein and Amino Acids in Sustaining and Enhancing Performance, 1999). When too little protein, or the wrong kind of protein, is eaten, there is a stress reaction, with thyroid suppression. Many of the people who don’t respond to a thyroid supplement are simply not eating enough good protein. I have talked to many supposedly well educated people who are getting only 15 or 20 grams of protein per day. To survive on that amount, their metabolic rate becomes extremely low. The quality of most vegetable protein (especially beans and nuts) is so low that it hardly functions as protein. Muscle meats (including the muscles of poultry and fish) contain large amounts of the amino acids that suppress the thyroid, and shouldn’t be the only source of protein. It’s a good idea to have a quart of milk (about 32 grams of protein) every day, besides a variety of other high quality proteins, including cheeses, eggs, shellfish, and potatoes. The protein of potatoes is extremely high quality, and the quantity, in terms of a percentage, is similar to that of milk.

Mary Shomon: You talk about darkness and shorter days of winter as a stress. It’s known that more thyroid hormone is needed by some patients during colder weather. Are there other things you recommend patients do to “winterproof” their metabolism?

Dr. Ray Peat: Very bright incandescent lights are helpful, because light acts on, and restores, the same mitochondrial enzymes that are governed by the thyroid hormone. In squirrels, hibernation is brought on by the accumulation of unsaturated fats in the tissues, suppressing respiration and stimulating increased serotonin production. In humans, winter sickness is intensified by those same antithyroid substances, so it’s important to limit consumption of unsaturated fats and tryptophan (which is the source of serotonin). When a person is using a thyroid supplement, it’s common to need four times as much in December as in July.

Mary Shomon: You have reported that pregnenolone can be helpful for Graves’ patients with exophthalmus. Can you explain further?

Dr. Ray Peat: Graves’ disease and exophthalmos can occur with hypothyroidism or euthyroidism, as well as with hyperthyroidism. Pregnenolone regulates brain chemistry in a way that prevents excessive production of ACTH and cortisol, and it helps to stabilize mitochondrial metabolism. It apparently acts directly on a variety of tissues to reduce their retention of water. In the last several years, all of the people I have seen who had been diagnosed as “hyperthyroid” have actually been hypothyroid, and benefitted from increasing their thyroid function; some of these people had also been told that they had Graves’ disease.

Mary Shomon: You are a proponent of coconut oil for thyroid patients. Can you explain why?

Dr. Ray Peat: An important function of coconut oil is that it supports mitochondrial respiration, increasing energy production that has been blocked by the unsaturated fatty acids. Since the polyunsaturated fatty acids inhibit thyroid function at many levels, coconut oil can promote thyroid function simply by reducing those toxic effects. It allows normal mitochondrial oxidative metabolism, without producing the toxic lipid peroxidation that is promoted by unsaturated fats.

Mary Shomon: Do you have any thoughts for thyroid patients who are trying to do everything right, and yet still can’t lose any weight?

Dr. Ray Peat: Coconut oil added to the diet can increase the metabolic rate. Small frequent feedings, each combining some carbohydrate and some protein, such as fruit and cheese, often help to keep the metabolic rate higher. Eating raw carrots can prevent the absorption of estrogen from the intestine, allowing the liver to more effectively regulate metabolism. If a person doesn’t lose excess weight on a moderately low calorie diet with adequate protein, it’s clear that the metabolic rate is low. The number of calories burned is a good indicator of the metabolic rate. The amount of water lost by evaporation is another rough indicator: For each liter of water evaporated, about 1000 calories are burned.

Mary Shomon:You have talked about internal malnutrition as a problem for many thyroid patients, due to insufficient digestive juices and poor intestinal movements. Are there ways patients who are treated for hypothyroidism can help alleviate this problem.

Dr. Ray Peat: The absorption and retention of magnesium, sodium, and copper, and the synthesis of proteins, are usually poor in hypothyroidism. Salt craving is common in hypothyroidism, and eating additional sodium tends to raise the body temperature, and by decreasing the production of aldosterone, it helps to minimize the loss of magnesium, which in turn allows cells to respond better to the thyroid hormone. This is probably why a low sodium diet increases adrenalin production, and why eating enough sodium lowers adrenalin and improves sleep. The lowered adrenalin is also likely to improve intestinal motility.

Mary Shomon: You’ve mentioned eggs, milk and gelatin as good for the thyroid. Can you explain a bit more about this?

Dr. Ray Peat: Milk contains a small amount of thyroid and progesterone, but it also contains a good balance of amino acids. For adults, the amino acid balance of cheese might be even better, since the whey portion of milk contains more tryptophan than the curd, and tryptophan excess is significantly antagonistic to thyroid function. The muscle meats contain so much tryptophan and cysteine (which is both antithyroid and potentially excitotoxic) that a pure meat diet can cause hypothyroidism. In poor countries, people have generally eaten all parts of the animal, rather than just the muscles–feet, heads, skin, etc. About half of the protein in an animal is collagen (gelatin), and collagen is deficient in tryptophan and cysteine. This means that, in the whole animal, the amino acid balance is similar to the adult’s requirements. Research in the amino acid requirements of adults has been very inadequate, since it has been largely directed toward finding methods to produce farm animals with a minimum of expense for feed. The meat industry isn’t interested in finding a diet for keeping chickens, pigs, and cattle healthy into old age. As a result, adult rats have provided most of our direct information about the protein requirements of adults, and since rats keep growing for most of their life, their amino acid requirements are unlikely to be the same as ours.

Mary Shomon: Do you think the majority of people with hypothyroidism get too much or too little iodine? Should people with hypothyroidism add more iodine, like kelp, seaweeds, etc.?

Dr. Ray Peat: 30 years ago, it was found that people in the US were getting about ten times more iodine than they needed. In the mountains of Mexico and in the Andes, and in a few other remote places, iodine deficiency still exists. Kelp and other sources of excess iodine can suppress the thyroid, so they definitely shouldn’t be used to treat hypothyroidism.

Mary Shomon: What are your thoughts for Graves’ disease/hyperthyroidism patients? Should they move ahead quickly to get radioactive iodine treatment, or are there natural things they might be able to try to temporarily – or even permanently – get a remission?

Dr. Ray Peat: Occasionally, a person with a goiter will temporarily become hyperthyroid as the gland releases its colloid stores in a corrective process. Some people enjoy the period of moderate hyperthyroidism, but if they find it uncomfortable or inconvenient, they can usually control it just by eating plenty of liver, and maybe some cole slaw or raw cabbage juice. Propranolol will slow a rapid heart. The effects of a thyroid inhibitor, PTU, propylthiouracil, have been compared to those of thyroidectomy and radioactive iodine. The results of the chemical treatment are better for the patient, but not nearly so profitable for the physician.

Besides a few people who were experiencing the unloading of a goiter, and one man from the mountains of Mexico who became hypermetabolic when he moved to Japan (probably from the sudden increase of iodine in his diet, and maybe from a smaller amount of meat in his diet), all of the people I have seen in recent decades who were called “hyperthyroid” were not. None of the people I have talked to after they had radioiodine treatment were properly studied to determine the nature of their condition. Radioiodine is a foolish medical toy, as far as I can see, and is never a proper treatment.

FOR MORE INFORMATION ABOUT RAY PEAT AND HIS PUBLICATIONS

For more information about Dr. Ray Peat, see the Publications Order Page to order Ray Peat’s monthly newsletter, or his books, which include Progesterone in Orthomolecular Medicine, Generative Energy: Protecting and Restoring the Wholeness of Life, Mind and Tissue: Russian Research Perspectives on the Human Brain, Nutrition for Women,and From PMS to Menopause: Female Hormones in Context.

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Homemade Custard

2 Cups Organic Pasteurized Milk (Why Waste Raw!)

1/4 Cup White Sugar

4 TBSP Hydrolyzed Gelatin

1/8 tsp salt

3 Medium or Large Eggs

1/2 – 1 TBSP Vanilla (or any other extract like almond or hazlenut)

Preheat oven to 325. Blend milk, sugar, salt and gelatin.

In separate bowl beat eggs and add to milk mixture and mix. You may top with cinnamon. Pour mixture into and 8 x 8 glass dish. Place 8 x 8 in another pan that contains water. Cook for 60 minutes or until golden brown on top. Insert knife to test – knife must come out clean. Eat alone or whipped cream or fruit or homemade jam.

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Thyroid: Therapies, Confusion, and Fraud

Comments Off Written on February 12th, 2011 by Linda DeFever
Categories: Alternative Health, Alternative Weight Loss, General health, Nutrition, Your Health

I. Respiratory-metabolic defect

II. 50 years of commercially motivated fraud

III. Tests and the “free hormone hypothesis”

IV. Events in the tissues

V. Therapies

VI. Diagnosis

I. Respiratory defect

Broda Barnes, more than 60 years ago, summed up the major effects of hypothyroidism on health very neatly when he pointed out that if hypothyroid people don’t die young from infectious diseases, such as tuberculosis, they die a little later from cancer or heart disease. He did his PhD research at the University of Chicago, just a few years after Otto Warburg, in Germany, had demonstrated the role of a “respiratory defect” in cancer. At the time Barnes was doing his research, hypothyroidism was diagnosed on the basis of a low basal metabolic rate, meaning that only a small amount of oxygen was needed to sustain life. This deficiency of oxygen consumption involved the same enzyme system that Warburg was studying in cancer cells.

Barnes experimented on rabbits, and found that when their thyroid glands were removed, they developed atherosclerosis, just as hypothyroid people did. By the mid-1930s, it was generally known that hypothyroidism causes the cholesterol level in the blood to increase; hypercholesterolemia was a diagnostic sign of hypothyroidism. Administering a thyroid supplement, blood cholesterol came down to normal exactly as the basal metabolic rate came up to the normal rate. The biology of atherosclerotic heart disease was basically solved before the second world war.

Many other diseases are now known to be caused by respiratory defects. Inflammation, stress, immunodeficiency, autoimmunity, developmental and degenerative diseases, and aging, all involve significantly abnormal oxidative processes. Just brief oxygen deprivation triggers processes that lead to lipid peroxidation, producing a chain of other oxidative reactions when oxygen is restored. The only effective way to stop lipid peroxidation is to restore normal respiration.


Now that dozens of diseases are known to involve defective respiration, the idea of thyroid’s extremely broad range of actions is becoming easier to accept.

To read more of this article by Ray Peat, click on the link below

http://raypeat.com/articles/articles/thyroid.shtml

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate

Unsaturated fatty acids: Nutritionally essential, or toxic?

Comments Off Written on February 12th, 2011 by Linda DeFever
Categories: Uncategorized

In 1929 George and Mildred Burr published a paper claiming that unsaturated fats, and specifically linoleic acid, were essential to prevent a particular disease involving dandruff, dermatitis, slowed growth, sterility, and fatal kidney degeneration.

In 1929, most of the B vitamins and essential trace minerals were unknown to nutritionists. The symptoms the Burrs saw are easily produced by deficiencies of the vitamins and minerals that they didn’t know about.

What really happens to animals when the “essential fatty acids” are lacking, in an otherwise adequate diet?

Their metabolic rate is very high.

Their nutritional needs are increased.

They are very resistant to many of the common causes of sickness and death.

They are resistant to the biochemical and cellular changes seen in aging, dementia, autoimmunity, and the main types of inflammation.

The amount of polyunsaturated fatty acids often said to be essential (Holman, 1981) is approximately the amount required to significantly increase the incidence of cancer, and very careful food selection is needed for a diet that provides a lower amount.

To read more of this article by Ray Peat click on the link below

http://raypeat.com/articles/articles/unsaturatedfats.shtml

Contact Linda

Call: 847-722-4376 for your free consultation

vitalityincorporate