|
AIMCellSparc 360TMcombines CoQ10 with
tocotrienols and fish oil
| |||||||||||||||||||||||
| #CS1 - $29.00 30 softgel capsules |
History of coenzyme Q10 Coenzyme Q10 is a relatively new substance in the eyes of the American research community. It was first discovered in the United States in 1957 by professor F. L. Crane and his colleagues at the University of Wisconsin Enzyme Institute. In 1958, the chemical structure of coenzyme Q10 was reported by Dr. D.E. Wolf and a research group at Merck Laboratories led by medical researcher Dr. Karl Folkers. Folkers would become a leading research scientist and authority on coenzyme Q10 in the United States. In 1963, the Japanese began testing the compound. Overwhelmed by the positive results of these tests, Japanese scientists aggressively pursued further studies of coenzyme Q10. The Japanese took the lead in research and use of coenzyme Q10. Taking coenzyme Q10 daily soon gained wide acceptance in Japan. Although many research scientists throughout the world were interested in studying coenzyme Q10, research was hampered due to the cost of producing it. Extracting it from beef heart, the source that Dr. Crane first used, made coenzyme Q10s cost prohibitive. In the 1970s, the Japanese began to find alternative ways to produce coenzyme Q10. They were successful in finding a more cost-effective process, and the price began to come down from the exorbitant US $1,000.00 a gram. As it became more available, research picked up. In 1978, British scientist Peter Mitchell received a Nobel Prize for his hypothesis of the role of coenzyme Q10 and the transfer of energy in the mitochondria, which are the fuel sub-cells found within each cell. In 1986, Dr. Folkers was awarded the prestigious Priestly Medal of the American Chemical Society for his research into coenzyme Q10. From 1957 through 1988, there were some 2,300 medical studies on coenzyme Q10. Since then, there have been countless others. Coenzyme Q10 and human nutrition Coenzyme Q10 is found in the foods we eat, but not often in large amounts. The best sources of coenzyme Q10 are animal organs, some types of fish, and vegetable oils such as soybean, rapeseed, and sesame. It is found in lesser quantities in rice bran and wheat germ and in soy and other beans. It is also found in vegetables, in particular spinach and broccoli. Coenzyme Q10 is easily destroyed in the cooking process, and in refined grains much of the coenzyme Q10 is removed. However, the body does not necessarily need a direct source of coenzyme Q10 to maintain adequate levels. The body can also manufacture coenzyme Q10 from other members of the coenzyme Q family. Coenzyme Q10 is but one of ten, and possibly more, members of the coenzyme Q family. Coenzyme Q is a circle of chemical elements that form a single coenzyme Q molecule. This is the most basic form. This coenzyme Q molecule can have side chains that contain five carbon atoms. It is the number of side chains that is the basis for the number assigned to each member of the coenzyme Q family. For example, coenzyme Q1 has one side chain of five carbon atoms. Coenzyme Q2 has two side chains of five carbon atoms each, for a total of 10 carbon atoms. In coenzyme Q10, there are 10 side chains and a total of fifty carbon atoms. Human tissue contains only coenzyme Q10. To change other coenzyme Qs into coenzyme Q10, the liver breaks down the side chains from the basic coenzyme Q molecule. It then reassembles them to form coenzyme Q10. For example, a meal consisting of shellfish, vegetables, and mushrooms provides coenzyme Q9 and coenzyme Q7. The liver tears these coenzymes down and manufactures coenzyme Q10 out of their components. The creation of coenzyme Q10 by the body is a complex process. To make this change, at least three different classes of starting molecules are required, at least 15 different reactions are necessary (each begun by an enzyme), and there are many cofactor substances. This means that coenzyme Q10 is difficult for the body to produce because all the component parts must be available in sufficient quantities at the same time. Some of the essential cofactors are not created by the body. A deficiency in any of thesevitamins B3, B5, B6, B12, C, and folatewould make it difficult for the liver to produce enough coenzyme Q10. Unfortunately, the older you get, the less ability you have to produce coenzyme Q10 from other members of the coenzyme Q family. Our lives and environment also affect coenzyme Q10 levels, in that stressful lives and polluted environments can deplete coenzyme Q10 from body tissue. According to Dr. Folkers, these factorsnutrient deficiencies, age, stress, and pollutioncould lead to a deficiency of coenzyme Q10. By some estimates, as many as 75 percent of people over age 50 in the United States could be deficient in coenzyme Q10. Suggested Reading Coenzyme Q10 There have been thousands of medical studies and at least eight international medical symposia on coenzyme Q10. The studies have been published in such mainstream journals as the American Journal of Cardiology, Clinical Investigator, Biochemical and Biophysical Research Communications, and the Japanese Heart Journal. Here are a few places to get started: Beyer, R.E. An analysis of the role of coenzyme Q in free radical generation and as an antioxidant. Biochemistry and Cell Biology. June 1992. 70(6). Bliznakov, Emile G., M.D., and Gerald L. Hunt. The Miracle Nutrient Coenzyme Q10. New York: Bantam Books. 1987. Greenberg, S. and W.H. Frishman. Co-enzyme Q10: a new drug for cardiovascular disease. Journal of Clinical Pharmacology. 30(7). July 1990. Langsjoen, Peter, Per Langsjoen, and Karl Folkers. Long-term efficacy and safety of coenzyme Q10 therapy for idopathic dilated cardiomyopathy. American Journal of Cardiology. February 15, 1990. Vol. 65, No. 7. Lee, William H. Coenzyme Q10. Is It Our Fountain of Youth? New Canaan, CT: Keats Publishing, Inc. 1987. Mortensen, S.A. Perspectives on therapy of cardiovascular diseases with coenzyme Q10 (ubiquinone). Clinical Investigator. 1993; 71(8 Suppl):S116-23. Wagner, Eugene S. Coenzyme Q10, The Vital Spark of Life. American Institute of Health and Nutrition. 1992. Fish oil McCarthy, G.M., and D. Kenny. Dietary fish oil and rheumatic diseases. Seminars in Arthritis and Rheumatism. 21:6. June 1992. Passwater, Richard, Ph.D. Fish Oil Updates. New Canaan, CT: Keats Publishing, Inc. 1987. Tocotrienols Germano, Carl, M.A., R.D., CNS. A novel antioxidant in the treatment of hypercholesterolemia & cancer. Solgar Nutrition Center. http://www.solgar.com/nutrition_library/articles/tocotrienols.html Serbinova, E.A., and L. Packer. Antioxidant properties of alpha-tocopherol and alpha-tocotrienol. Methods Enzymol. 1994; 234:354-66. Suzuki Y. J., et al. Structural and dynamic membrane properties of alpha-tocopherol and alpha-tocotrienol: implication to the molecular mechanism of their antioxidant potency. Biochemistry. October 12, 1993. 32(40):10692-9. Watkins, et al. g-tocotrienols as a hypocholesterolemic and antioxidant agent in rats fed atherogenic diets. Lipids. Vol. 28, No. 12. 1993.
Site Map
Herbals & Juice Powders
Juicers & Blenders
Dehydrators
Bread Machines & Mixers
Grain & Flour Mills
Blenders
Baking & Specialty
Water Filters & Bottles
Air Filters & Humidifiers
Non Chemical Cleaning
Exercise Equipment
Stainless Cookware
Recipes & Cookbooks
Misc Appliances
Spiritual Links
email: info@nutritionlifestyles.com
Home Page http://www.nutritionlifestyles.com Privacy Policy Return Policy Who we are All contents copyright (C) 1998-2008, Eddie Shaw. All rights reserved. ~ PRICES SUBJECT TO CHANGE WITHOUT NOTICE ~
|
||||||||||||||