Search Term: " Fern "
August 31, 2009 01:36 PM
Horsetail has been used for healing in both Chinese and Asian cultures. During times of famine, the Romans ate horsetail shoots, while Native Americans used horsetail as a diuretic for kidney problems, cancer, and dropsy to increase blood circulation. The Hopi tribe in New Mexico mixed horsetail and cornmeal as a mush and in their bread. One of the oldest plants on the earth, horsetail is approximately two hundred million years old. It used to be a giant Fernlike plant. However, there are now around twenty species of the original plant living today. These species are small in comparison to the original plant and are usually considered to be a nuisance. The species Equisetum arvense is a small perennial Fern plant that is most common in North America.
The horsetail plant is a descendent of huge tree-like plants that thrived 400 million years ago during the Paleozoic era. The plant is a non-flowering weed that can be found throughout parts of Europe, Asia, the Middle East, and North America. This plant returns each year with hollow stems and shoots that resemble asparagus. As the plant dries, silica crystals, which form in the stems and branches, give the plant the scratching effect that made it historically useful for polishing metal.
Horsetail is believed to aid the immune system and the nervous system because of its silica content. The nerves contain almost the same amount of silica as does the albumin in the blood. The pancreas is especially rich in silica. Silica is found combined with fluorine in the enamel of the teeth. Additionally, hair needs silica to grow, and it is needed as a protection for the skin and cell walls. This herb helps in treating urinary tract problems. It contains silicic acid, which is responsible for helping with circulation of the blood. This herb is also credited with helping coagulate the blood and decreasing blood flow. An externally-applied decoction has the ability to stop bleeding of wounds and help with healing. Horsetail can also be used as a mouthwash for mouth infections. Often found in calcium combinations, horsetail is helpful in building the skeletal system and improving bone structure. The silica that is found in horsetail also helps in healing bones, keeping the arteries clean, and facilitating the absorption of calcium in the body.
This herb is known for its antibiotic properties and its contribution to the overall healing process. Horsetail is also thought to help with bleeding, urinary and prostate disorders, bed-wetting, skin problems, and lung disease. Horsetail also possesses a weak diuretic effect, which is most notably due to the equisetonin and the flavone glycosides.
In short, the entire horsetail herb is used to provide alterative, antilithic, antineoplastic, astringent, diuretic, emmenagogue, galactogogue, lithotriptic, nephritic, nutritive, and vulnerary properties. The primary nutrients found in this herb are flavonoids, iodine, iron, manganese, PABA, pantothenic acid, silicon, sodium, and vitamin E. Primarily, this herb is extremely beneficial in treating arthritis, poor circulation, diabetes, glandular problems, weak hair, kidney stones, weak nails, nervousness, osteoporosis, parasites, rheumatism, and urinary problems.
Additionally, this herb is very helpful in dealing with edema, eyestrain, gas, gout, heart problems, hemorrhage, incontinence, liver disorders, membrane irritations, neuralgia, palsy, skin disorders, tumors, and water retention. For more information on the many beneficial effects provided by horsetail, please feel free to contact a representative from your local health food store.
August 20, 2009 05:32 PM
Anise is a flowering plant that is part of the Apiaxeae family. It is native to the eastern Mediteranean region and southwest Asia. It is known for its flavor, which resembles licorice, fennel, and tarragon. The anise plant is an herbaceous annual plant that grows to three feet tall. The leaves are at the base of the plant and are very simple. They are about two to five centimeters long and shallowly lobed. The leave higher on the stems are feathery pinnate and divided into numerous leaves. The flowers of the anise plant are white and about three millimeters in diameter. They are produced in dense umbels. The anise fruit is an oblong dry schizocarp that is about three to five millimeters in length. The seedpods are referred to as aniseed. Anise is usually used as food by the larvae of some Lepidoptera species, such as butterflies and moths. Among these are the lime-speck pug and the wormwood pug.
The best growth for the anise plant can be found in light, fertile, well drained soil. The plants should be started from seeds as soon as the ground warms up in the spring. Because the anise plants have a taproot, they do not transplant well after they are established. For this reason, the plants should be started where they are to grow, or transplanted while the seedlings are still small.
Anise is sweet and very aromatic. It can be distinguished by its licorice-like flavor. It is widely used in a variety of regional and ethnic confectioneries, including British Aniseed balls, Austrailain Humbugs, New Zealand Aniseed wheels, Italian pizzelle, German pfefFernusse and springerle, Netherland Muisjes, Norwegian knots, and Peruvian Picarones. Anise is a key ingredient in Mexican “atole de anis” which is similar to hot chocolate. It is taken as a digestive after meals in India.
Anise was used in ancient Rome as flavoring. However, it contains nutrients like calcium and iron. This herb was added to foods to prevent indigestion when eating large quantities of food. Additionally, it was used to help with bad breath. Hippocrates recommended this herb to relieve both coughs and congestion.
Anise is used to help remove excess mucus from the alimentary canal and the mucus that is associated with coughs. It is used to stimulate the appetite, relieve digestive problems, and treat colic pain. Some herbalists recommend that anise be used for stimulating the glands and vital organs. Among these organs are the heart, liver, lungs, and brain. Additionally, it helps to normalize estrogen levels.
The oil and seeds of the anise plant are used to provide anodyne, anti-inflammatory, antiseptic, antispasmodic, aromatic, carminative, diaphoretic, digestive, diuretic, expectorant, galactagogue, stimulant, and stomachic properties. The primary nutrients found in this herb are B vitamins, calcium, choline, iron, magnesium, and potassium. Primarily, anise provides extraordinary benefits in treating colds, colic, coughs, gas, indigestion, absent lactation, excessive mucus, and pneumonia.
Additionally, this herb is very helpful in dealing with loss of appetite, breath odor, emphysema, epilepsy, nausea, and nervous disorders. It is important to speak with a health care professional before considering supplementing with any nutrient in order to obtain the best results while on medications. For more information on the many beneficial effects provided by anise, please feel free to contact a representative from your local health food store.
Balestra and Mech La Decottopia
May 06, 2006 01:19 PM
A century of herbal excellence
An innovative herbal extraction and preservation process developed and modified over a century of careful product formulation. Originating in Italy’s Piedmont region, the history of the Decottopia liquid herbal tonic formulations can be traced back to the 18th century. Over the years, the Decottopia tradition eventually became the trusted legacy of the Balestra & Mech brand. Their flagship product was a natural digestive aid launched in 1911 named “Fernet Balestra.”
Decottopia highlights an old, proprietary process, used to extract active components from a minimum of ten herbs and maintain them in a balanced liquid solution without the use of alcohol, sugar or preservatives!
The herbs used are carefully selected and combined for maximum synergistic effects. The actives are extracted using water and gentle procedures such as infusion, maceration and decoction and then concentrated in liquid suspension allowing its conservation.
Today, the descendents of the formulation founders have turned an ancient herbal craft into a thriving and fully modern enterprise. Balestra & Mech is poised to bring a century of herbal excellence to the American consumer.
Dr. Verghese, M.D. Liver Detoxifier & Regenerator Fact Sheet
December 07, 2005 12:16 PM
Dr. Verghese, M.D. Liver Detoxifier & Regenerator Fact Sheet Neil E. Levin, CCN, DANLA 02/10/05
LIKELY USERS: People with exposure to toxins that stimulate liver activity; People with exposure to infections that may have damaged liver tissue
KEY INGREDIENT (S): Milk Thistle extract (Silymarin), Glutathione, NAC, Bupleurum extract, Grape Seed Extract, Dandelion Root extract, Artichoke Leaf, Schisandra and about a dozen additional herbs, along with synergistic ingredients
MAIN PRODUCT FEATURES: This formula was developed by a physician based on his clinical experience.
Artichoke leaf has antioxidant properties and restores healthy growth to liver cells.
Bupleurum may promote normal cell growth, immune function and is a staple of Chinese liver formulas. Dandelion Root may serve as a natural down-regulator of inflammatory chemicals in the body. NAC supports liver Glutathionestores (antioxidant, detoxifier, heavy metal chelator). Schisandra protects liver cells from toxins and may help to regenerate damaged cells. Milk thistle’s antioxidant Silymarin improves liver function tests and protects liver cells against oxidative damage. It also protects liver cells by blocking and removing toxins from the liver. Silymarin aids in regenerating injured liver cells and blocks fibrosis.
OTHER IMPORTANT ISSUES: Samuel Verghese, M.D. (AM), Ph.D., BCIA-EEG, DAAPM, holds a degree in Alternative Medicine and specializes in Nutritional, Ayurvedic and other Alternative Health Solutions. He is certified as a BCIA-EEG Associate Fellow.
AMOUNT TO USE: Three or more capsules a day, preferably with meals.
COMPLEMENTARY PRODUCTS: Antioxidants (supports liver detoxification), Alpha Lipoic Acid, EGCg Green Tea Extract, Astragalus, medicinal mushrooms (shiitake, reishi), SAM-e (may improve bile flow and promotes methylation to detoxify chemicals), TMG, lecithin, thymus glandular extract, Cordyceps.
AVOID: acetaminophen, alcohol, iron supplements (also red meat, fortified flour)
CAUTIONS: This formula should not be used by pregnant women, nursing mothers children or those with liver problems unless recommended under the supervision of a healthcare professional. Please notify your physician about your supplement use if you are using any drugs! Disclaimer: These statements have not been evaluated by the FDA. This product is not intended to diagnose, treat, cure or prevent any disease.
1. Salmi HA, Sarna S. Effect of silymarin on chemical, functional and morphological alterations of the liver. A double-blind controlled study. Scand J Gastroenterol 1982;17:517–21.
Promilin Fenugreek Extract - Supports Healthy Blood Sugar Levels
June 28, 2005 10:44 AM
.. Your body’s ability to manage blood sugar may well be the single most crucial factor affecting your health and longevity, and the one most affected by diet and lifestyle. But today’s high-glycemic carbs and sugar-laden foods — combined with lack of exercise — are creating a serious challenge to your body’s intricate glucose/insulin regulatory system. The resulting cellular stress and deterioration have serious repercussions for both your mind and body. To promote optimal wellness through healthy sugar metabolism, Source Naturals formulated PROMILIN™ FENUGREEK EXTRACT, a potent extract from the highly valued herb fenugreek, into an advanced nutritional supplement designed to assist insulin production and support healthy glucose levels. As a complement to your diet, Source Naturals PROMILIN™ FENUGREEK EXTRACT is an excellent strategy to improve blood sugar levels, and consequently, quality of life.
The basis of Source Naturals PROMILIN™ FENUGREEK EXTRACT is fenugreek (Trigonella foenum-graecum), a respected culinary and medicinal herb used throughout history. One of the formula’s fenugreek extracts is rich in galactomannan, a mucilaginous fiber that may benefit the bowel. The other extract is Promilin, a patent-pending complex of bioactive amino acids standardized to contain 20% 4-hydroxyisoleucine. This extraordinary amino acid derivative assists the pancreas in production of insulin. Several studies with animals and with human cell cultures demonstrate this extract’s positive effect on reducing post-meal glucose levels — with little or no increase in blood insulin concentrations — a clear indicator of improved insulin sensitivity.
Athletic energy and endurance depend on the ability of muscles to recover from exercise. Because PROMILIN promotes utilization of glucose and insulin by the the body’s muscle cells, “weekend warriors” will feel less fatigue on Monday morning. In a clinical study, PROMILIN increased glycogen re-synthesis by 63% over carbohydrate alone. This is the rate at which post-exercise muscle glycogen (energy) is restored. PROMILIN may also play a role in weight management because it helps your body metabolize carbohydrates more efficiently. And the less time glucose spends in your bloodstream, the less chance it will be converted into fat. By supporting glucose metabolism, Source Naturals PROMILIN™ FENUGREEK EXTRACT may help protect against a harmful process called glycation, where excess glucose reacts with amino acids to form crosslinked sugardamaged proteins that damage the linings of blood vessels, the lens of the eye, and the myelin sheath that insulates brain cells.
June 25, 2005 08:13 PM
1 a. The Surgeon General’s “Nutrition and Health Report.” b. The Centers for Disease Control and Prevention’s “National Health and Examination Survey (NHANES III)” c. The National Academy of Science’s. Diet and Health Report: Health Promotion and Disease Objectives (DHHS Publication No. (PHS) 91-50213, Washington, DC: US Government Printing Office, 1990). e. Dietary Guidelines for Americans. 2 Rolls BJ. Carbohydrates, fats, and satiety. Am J Clin Nutr 1995; 61(4 Suppl):960S-967S. 3 McDowell MA, Briefel RR, Alaimo K, et al. Energy and macronutrient intakes of persons ages 2 months and over in the United States: Third National Health and Nutrition Examination Survey, Phase 1:1988-91. Advance data from vital and health statistics of the Centers for Disease Control and Prevention; No. 255. Hyattsville, Maryland: National Center for Health Statistics; 1994. 4 Center for Science in the Public Interest and McDonald’s Nutrition and You—A guide to Healthy Eating at McDonald’s: McDonald’s Corp,1991. 5 Bray GA. Appetite Control in Adults. In: Fernstrom JD, Miller GD eds. Appetite and Body Weight Regulation. Boca Raton: CRC Press, 1994:1-92. 6 Michnovicz JJ. How to Reduce Your Risk of Breast Cancer. New York: Warner Book Inc. 1994:54. 7 Carcinogens and Anticarcinogens in the Human Diet. National Research Council Report, National Academy of Sciences, 15 Feb. 1996. 8 Van Tallie TB. Obesity: adverse effects on health and longevity. Am J Clin Nutr 1979:32: 2723-33. 9 Somer E, M.A. R.D. Nutrition for Women. New York: Henry Hold and Company, 1993:273. 10 Swaneck GE, Fishman J. Covalent binding of the endogenous estrogen 16A-hydroxyestrone to estradiol in human breast concer cells: characterization and intranuclear localization. Proc Natl Acad Sci USA 1988:85;7831-5. 11 Colditz GA. Epidemiology of breast cancer. Findings from the nurses’ health study. Cancer1993;714:1480-9. 12 Hennen WJ. Breast Cancer Risk Reduction. The effects of supplementation with dietary indoles. Unpublished report 1992. 13 Deslypere BJ. Obesity and cancer. Metabolism 1995;44(93):24-7. 14 Somer E, M.A. R.D. Nutrition for Women. New York: Henry Hold and Company, 1993:281. 15 Whittemore AS, Kolonel LN, John M. Prostate cancer in relation to diet, physical activity, and body size in blacks, whites, and Asians in the United States and Canada. J Natl Cancer Inst 1995;87(9):629-31. 16 Key T. Risk factors for prostate cancer. Cancer Survivor 1995;23:63- 77. 17 Kondo Y, Homma Y, Aso Y, Kakizoe T. Promotional effects of twogeneration exposure to a high-fat diet on prostate carcinogenisis in ACI/Seg mice. Cancer Res 1994;54(23):6129-32. 18 Wang Y, Corr JG, Taler HT, Tao Y, Fair WR, Heston WD. Decreased growth of established human prostate LNCaP tumors in nude mice fed a low-fat diet. J Natl Cancer Inst. 1995;87(19):1456-62. 19 Nixon DW. Cancer prevention clinical trials. In-Vivo 1994;8(5):713-6. 20 Key T. Micronutrients and cancer aetiology: the epidmiological evidence. Proceed Nutr Soc 1994;53(3):605-14. 21 Gorbach SL, Goldin BR. The intestinal microflora and the colon cancer connection. Reviews of Infectious Diseases 1990;12(Suppl 2):S252-61. 22 Shrapnel WS, Calvert GD, Nestel PJ, Truswell AS. Diet and coronary heart disease. The National Heart Foundation of Australia. Med J Australia. 1995;156(Suppl):S9-S16. 23 Ellis JL, Campos-Outcalt D. Cardiovascular disease risk factors in native Americans: a literature review. Am. J. Preventive Med 1994;10(5):295-307. 24 DiBianco R. The changing syndrome of heart failure: an annotated review as we approach the 21st century. J. Hypertension 1994; 12(4 Suppl):S73- S87. 25 Van Itallie TB. Obesity: adverse effects on health and longevity. Am J Clin Nutr 1979;32(suppl):2723-33. 26 Kestin M, Moss R, Clifton PM, Nestel PJ. Comparative effects of three cereal brans on plasma lipids, blood pressure and glucose metabolism in mildly hyper-cholesterolemic men. Am J Clin Nutr 1990;52(4):661-6. 27 Story JA. Dietary fiber and lipid metabolism. In: Spiller GA, Kay RM. eds. Medical Aspects of Dietary Fiber. Penun Medical; New York, 1980, p.138. 28 Stein PP, Black HR. The role of diet in the genesis and treatment of hypertension. Med. Clin. North America. 1993;77(4):831-47. 29 Olin JW. Antihypertensive treatment in patients with peripheral vascular disease. Cleve. Clin. J. Medicine. 1994;61(5):337-44. 30 Tinker LF. Diabetes Mellitus—a priority health care issue for women. J. Am. Dietetic Association. 1994;94(9):976-85. 31 Gaspard UJ, Gottal JM, van den Brule FA. Postmenopausal changes of lipid and glucose metabolism: a review of their main aspects. Maturitas. 1995;21(3):71-8. 32 Coordt MC, Ruhe RC, McDonald RB. Aging and insulin secretion. Proc. Soc. Exp. Biology and Medicine. 1995;209(3):213-22. 33 Felber JP. From Obesity to Diabetes. Pathophysiological Considerations. Int. Journal of Obesity 1992;16:937-952. 34 Gillum RF. The association of body fat distribution with hypertension, hypertensive heart disease, coronary heart disease, diabetes, and cardiovascular risk factors in men and women age 18-79. J Chronic Diseases 1987;40:421-8. 35 Haffner SM, Stern MP, Hazuda HP, et al. Role of obesity and fat distribution in non-insulin-dependent diabetes mellits in Mexican Americans and non- Hispanic whites. Diabetes Care 1986;9:153-61. 36 Bonadonna RC, deFronzo RA. Glucose metabolism in obesity and type 2 diabetes. Diabetes and Metabolism. 1991;17(1 Pt. 2):12-35. 37 Shoemaker JK, Bonen A. Vascular actions of insulin in health and disease. Canadian J. of Applied Physiology. 1995;20(2):127-54. 38 Resnick LM. Ionic Basis of Hypertension, Insulin Resistaince, Vascular Disease, and Related Disorders. The Mechanism of ‘Syndrome X’. Am. J. Hypertension. 1993;6(suppl):123S-134S. 39 Trautwein EA. Dietetic influences on the formation and prevention of cholesterol gallstones. Z. Ernahrugswiss. 1994;33(1):2-15. 40 Cicuttini FM, Spector TD. Osteoarthritis in the aged. Epidemiological issues and optimal management. Drugs and Aging. 1995;6(5):409-20. 41 Melnyk MG, Wienstein E. Preventing obesity in black women by targeting adolescents: a literature review. J Am. Diet. Association. 1994;94(4):536-40. 42 Robinson BE, Gjerdingen Dk, Houge DR. Obesity: a move from traditional to more patient-oriented management. J. Am. Board of Family Practice. 1995;8(2):99-108. 43 Dulloo AG, Miller DS. Reversal of Obesity in the Genetically Obese fa/fa Zucker Rat with an Ehpedrine/Methylxanthines Thermogenic Mixture. J. Nutrition. 1987;117:383-9. 44 Dulloo AG, Miller DS. The thermogenic properties of ephedrin/methylxanthine mixtures: animal studies. Am J Clinical Nutr. 1986;43:388-394. 45 Richelsen B. Health risks of obesity. Significance of the regional distri-bution of adipose tissue. Ugeskr. Laeger. 1991;153(13):908-13. 46 Lissner L, Heitmann BL. Dietary fat and obesity: Evidence from epidemiology. European J. Clinical Nutrition. 1995;49(2):79-90. 47 Lissner L, Heitmann BL. The dietary fat: Carbohydrate ratio in relation to body weight, Current Opinion in Lipidology. 1995;6(1):8-13. 48 Ravussin E. Energy metabolism in obesity. Studies in the Pima Indians. Diabetes Care. 1993;16(1):232-8. 49 O’Dea K. Westernisation, insulin resistance and diabetes in Australian aborigines. Med J. Australia. 1991;155(4):258-64. 50 Bailey C. Fit or Fat . Houghton Mifflen, Boston, 1991. 51 McCarty MF. Optimizing Exercise for Fat Loss. Unpublished report. 52 Weinsier RL, Schutz Y, Bracco D. Reexamination of the relationship of resting metabolic rate and fat-free mass and the the metabolically active components of fat-free mass in humans. Am. J. Clinical Nutrition. 1992;55(4):790-4. 53 Evans WJ. Exercise, nutrition and aging. J. Nutrition. 1992;122(3 suppl):796-801. 54 Schlicker SA, Borra ST, Regan C. The weight and fitness status of United States children. Nutrition Reviews. 1994;52(1):11-7. 55 Raben A, Jensen ND, Marckmann P, Sandstrom B and Astrup A. Spontaeous weight loss during 11 weeks’ ad libitum intake of a low fat/high fiber diet in young, normal weight subjects. Stockholm Press. 1995;916-23. 56 Blundell JE, Cotton JR, Delargy H, Green S, Greenough A, King NA, Lawton, CL. The fat paradox: fat-induced satiety signals versus high fat overconsumption. Short Communication 1995:832-835. 57 Reinhold RB. Late results of gastric bypass surgery for morbid obesity. J Am Coll Nutr 1994;13(4):307-8. 58 McCredie M, Coates M Grulich A. Cancer incidence in migrants to New South Wales (Australia) from the Middle East, 1972-1991. Cancer Causes Control 1994:5(5):414-21. 59 Schiff ER, Dietschy JM. Steatorrhea Associated with Disordered Bile Acid Metabolism. Am. J. Digestive Diseases. 1969;14(6) 60 Nauss JL , Thompson JL and Nagyvary J. The binding of micellar lipids to Chitosan. Lipids. 1983;18(10):714-19. 61 Braconnot H, Sue la natrue ces champignons. Ann Chim Phys 1811;79:265. 62 Odier A. Memoire sur la composition chemique des parties cornees des insectes. Mem Soc Hist Nat Paris 1823;1:29. 63 Johnson EL, Peniston QP. Utilization of shellfish waste for chitin and Chitosan production. Chp 19 In: Chemistry and Biochemistry of Marine Food Products. Martin RE, Flick GJ, Hebard CE and Ward DR (eds.) 1982. p.415-. AVI Publishing Co., Westport, CT. 64 Shahram H. Seafood waste: the potential for industrial use. Kem Kemi 1992;19(3),256-8. 65 Rouget C. Des substances amylacees dans le tissue des animux, specialement les Articules (Chitine). Compt Rend 1859;48:792. Commission on Natural Health Products. 1995 67 Peniston QP and Johnson EL. Method for Treating an Aqueous Medium with Chitosan and Derivatives of Chitin to Remove an Impurity. US Patent 3,533,940. Oct. 30:1970. 68 Poly-D-Glucosamine (Chitosan); Exemption from the Requirement of a Tolerance. Federal Register. 1995;60(75):19523-4. Rules and Regulations. Environmental Protection Agency 40 CFR Part 180. April, 19, 1995. 69 Arul J. “Use of Chitosan films to retard post-harvest spoilage of fruits and vegetables,” Chitin Workshop. ICNHP, North Carolina State University, Raleigh, NC. 70 Karlsen J, Skaugrud O. “Excipient properties of Chitosan,” Manufacturing Chemist. 1991;62:18-9. 71 Winterowd JG, Sandford PA. Chitin and Chitosan. In: Food Polysaccharides and their Applications. Ed: Stephen AM. Marcel Dekker 1995. 72 Chitin Workshop. ICNHP, North Carolina State University, Raleigh, NC. 73 Advances in Chitin and Chitosan. Eds: CJ Brine, PA Sandford, JP Zikakis. Elsevier Applied Science. London. 1992. 74 Chitin in Nature and Technology. Eds: R Muzzarelli, C Jeuniaux, GW Gooday. Plenum Press, New York. 1986. 75 Zikakis, JP. Chitin, Chitosan and Related Enzymes. Academic Press, Inc. 1984. 76 Abelin J and Lassus A. Fat binder as a weight reducer in patients with moderate obesity. ARS Medicina, Helsinki, Aug- October, 1994. 77 Kanauchi O, Deuchi K, Imasato Y, Shizukuishi M, Kobayashi E. Increasing effect of a Chitosan and ascorbic acid mixture on fecal dietary fat excretion. Biosci Biotech Biochem 1994;58(9):1617-20. 78 Maezaki Y, Tsuji K, Nakagawa Y, et al. Hypocholesterolemic effect of Chitosan in adult males. Biosci Biotchnol Biochem1993;57(9):1439-44. 79 Kobayashi T, Otsuka S, Yugari Y. Effect of Chitosan on serum and liver cholesterol levels in cholesterol-fed rats. Nutritional Rep. Int., 1979;19(3):327-34. 80 Sugano M, Fujikawa T, Hiratsuji Y, Hasegawa Y. Hypocholesterolemic effects of Chitosan in cholesterol-fed rats. Nutr Rep. Int. 1978;18(5):531-7. 81 Vahouny G, Satchanandam S, Cassidy M, Lightfoot F, Furda I. Comparative effects of Chitosan and cholestryramine on lymphatic absorption of lipids in the rat. Am J Clin Nutr, 1983;38(2):278-84 82 Suzuki S, Suzuki M, Katayama H. Chitin and Chitosan oligomers as hypolipemics and formulations containing them. Jpn. Kokai Tokkyo Koho JP 63 41,422 [88,422] 22 Feb1988. 83 Ikeda I, Tomari Y, Sugano M. Interrelated effects of dietary fiber on lymphatic cholesterol and triglyceride absorption in rats. J Nutr 1989;119(10):1383- 7. 84 LeHoux JG and Grondin F. Some effects of Chitosan on liver function in the rat. Endocrinology. 1993;132(3):1078-84. 85 Fradet G, Brister S, Mulder D, Lough J, Averbach BL. “Evaluation of Chitosan as a New Hemostatic Agent: In Vitro and In Vivo Experiments In Chitin in Nature and Technology. Eds: R Muzzarelli, C Jeuniaux, GW Gooday. Plenum Press, New York. 1986. 86 Malette W, Quigley H, Gaines R, Johnson N, Rainer WG. Chitosan A New Hemostatic. Annals of Thorasic Surgery. 1983;36:55. 87 Malette W, Quigley H, Adickes ED. Chitosan effect in Vascular Surgery, Tissue Culture and Tissue Regeneration. In R Muzzarelli, C Jeuniaux, GW Gooday, Eds: Chitin in Nature and Technology. Plenum Press, New York. 1986. 88 Okamoto Y, Tomita T, Minami S, et al. Effects of Chitosan on experimental abscess with Staphylococcus aureus in dogs. J. Vet. Med., 1995;57(4):765-7. 89 Klokkevold PR, Lew DS, Ellis DG, Bertolami CN. Effect of Chitosan on lingual hemostasis in rabbits. Journal of Oral-Maxillofac-Surg, 1991;Aug. 49(8):858-63. 89 Surgery, Tissue Culture and Tissue Regeneration. In Chitin in Nature and Technology. Eds: R Muzzarelli, C Jeuniaux, GW Gooday. Plenum Press, New York. 1986. 90 Hiroshi S, Makoto K, Shoji A, Yoshikazu S. Antibacterial fiber blended with Chitosan. Sixth International Conference on Chitin and Chitosan. Sea Fisheries Institute, Gdynia, Poland. August 1994;16-19. 91 Shimai Y, Tsukuda K, Seino H. Antiacne preparations containing chitin, Chitosan or their partial degradation products. Jpn. Kikai Tokkyo Koho JP 04,288,017 [92,288,017] 13 Oct 1992. 92 Suzuki K, Okawa Y, Suzuki S, Suzuki M. Candidacidal effect of peritoneal exudate cells in mice administered with chitin or Chitosan: the role of serine protease in the mechanism of oxygen-independent candidacidal effect. Microbiol Immunol. 1987;31(4):375-9. 93 Sawada G, Akaha Y, Naito H, Fujita M. Synergistic food preservatives containing organic acids, Chitosan and citrus seed extracts. Jpn, Kokai Kokkyo Koho JP 04 27,373 [92 27,373] 30 Jan 1992. 94 Min H-K, Hatai K, Bai S. Some inhibitory effects of Chitosan on fishpathogenic oomycete, Saprolegnia parasitic. Gyobyo Kenkyu, 1994;29(2):73-4. 95 Nelson JL, Alexander JW, Gianotti L, Chalk CL, Pyles T. The influence of dietary fiber on microbial growth in vitro and bacterial translocation after burn injury in mice. Nutr 1994;10(1):32-6. 96 Ochiai Y, Kanazawa Y. Chitosan as virucide. Jpn Kokai Tokkyo Koho 79 41,326. 97 Hillyard IW, Doczi J, Kiernan. Antacid and antiulcer properties of the polysaccharide Chitosan in the rat. Proc Soc Expl Biol Med 1964; 115:1108-1112. 98 Shibasaki K, Sano H, MatsukuboT, Takaesu Y. pH response of human dental plaque to chewing gum supplemented with low molecular Chitosan. Bull- Tokyo-Dent-Coll, 1994:35(2): 61-6. 99 Kato H, Okuda H. Chitosan as antihypertensive. Jpn. Kikoi Tokyo Koho JP 06 56,674 [94 56,674] 100 Kato H, Taguchi T. Mechanism of the rise in blood pressure by sodium chloride and decrease effect of Chitosan on blood pressure. Baiosaiensu to Indasutori 1993;51(12):987-8. 101 Muzzarelli R, Biagini G, Pugnaoni A, Filippini O, Baldassarre V, Castaldini C, and Rizzoli C. Reconstruction of Periodontal Tissue with Chitosan. Biomaterials. 1989;10:598-603. 102 Sapelli P, Baldassarre V, Muzzarelli R, Emanuelli M. Chitosan in Dentistry. In Chitin in Nature and Technology. Eds: R Muzzarelli, C Jeuniaux, GW Gooday. Plenum Press, New York. 1986. 103 Borah G, Scott G, Wortham K. Bone induction by Chitosan in endochrondral bones of the extremities. In Advances in Chitin and Chitosan. Eds: CJ Brine, PA Sandford, JP Zikakis. Elsevier Applied Science. London. 1992. 104 Ito F. Role of Chitosan as a supplementary food for osteoporosis. Gekkan Fudo Kemikaru, 1995;11(2):39-44. 105 Nakamura S, Yoshioka T, hamada S, Kimura I. Chitosan for enhancement of bioavailability of calcium. Jpn. Kokai Tokkyo Koho JP 07 194,316 [95 194,316] 01 Aug 1995. 106 Maekawa A, Wada M. Food Containing chitin or its derivatives for reduction of blood and urine uric acid. Jpn. Kokai Tokkyo Koho JP 03 280,852 [91 280,852], 11 Dec 1991. 107 Weisberg M, Gubner R. Compositions for oral administration comprising Chitosan and a pharmaceutically acceptable carrier. Antacid preparations for alleviating gastric hyperacidity. U.S. patent 3257275 108 Kanauchi O, Deuchi K, Imasato Y, Shizukuishi M, Kobayashi E. Mechanism for the inhibition of fat digestion by Chitosan and for the synergistic effect of ascorbate. Biosci Biotech Biochem1995;59(5):786-90. 109 McCausland CW. Fat Binding Properties of Chitosan as Compared to Other Dietary Fibers. Private communication. 24 Jan1995. 110 Deuchi K, Kanauchi O, Imasato Y, Kobayashi E. Biosci Biotech Biochem. 1994:58,1613-6. 111 Ebihara K, Schneeman BO. Interaction of bile acids, phospholipids, cholesterol and triglyceride with dietary fibers in the small intestine of rats. J Nutr 1989;119(8):1100-6. 112 Weil A, M.D. Natural Health Natural Medicine: Boston: Houghton Mifflin, 1990:182. 113 Chen Y-H, Riby Y, Srivastava P, Bartholomew J, Denison M, Bjeldanes L. Regualtion of CYP1A1 by indolo[3,2-b]carbazole in murine hepatoma cells. J Biol Chem 1995;270(38):22548-55. 114 Intestinal Absorption of metal ions and chelates. Ashmead HD, Graff DJ, Ashmead HH. Charles C Thomas, Springfield, IL 1985. 115 Nutrient Interactions. Bodwell CE, Erdman JW Jr. Marcel Dekker New York 1988. 116 Heleniak EP, Aston B. Prostaglandins, Brown Fat and Weight Loss. Medical Hypotheses 1989;28:13-33. 117 Connor WE, DeFrancesco CA, Connor SL. N-3 fatty acids from fish oil. Effects on plasma lipoproteins and hypertriglyceridemic patients. Ann NY Acad Sci 1993;683:16-34. 118 Conte AA. A non-prescription alternative in weight reduction therapy. The Bariatrician Summer 1993:17-19. 119 McCarty MF. Inhibition of citrate lyase may aid aerobic endurance. Unpublished manuscript. 120 Bray GA. Weight homeostasis. Annual Rev Med 1991;42:205-216. 121 Dulloo AG, Miller DS. The thermogenic properties of Ephedrin/Methylxanthine mixtures: Human studies. Intl J Obesity 986;10:467-481. 122 Arai K, Kinumaki T, Fujita, T. Bulletin Tokai Regional Fisheries Res Lab. 1968;No. 56. 123 Bough WA. Private communication. 124 Freidrich EJ, Gehan, EA, Rall DP, Schmidt LH, Skipper HE. Cancer Chemotherapy Reports 1966;50(4):219-244. 125 A Drovanti, AA Bignamini, AL Rovati. Therapeutic activity of oral glucosamine sulfate in osteoarthritis: A placebo-controlled double-blind investigation. Clinical Therapeutics 1980;3(4):260-272. 126 K Deuchi, O Kanauchi, M Shizukuishi, E Kobayashi. Continuous and massive intake of Chitosan affects mineral and fat-soluble vitamin status in rats fed on a high-fat diet. Biosci. Biotech. Biochemistry. 1995;59(7):1211-6. 127 . BesChitin W in Chitin Wound Healing (video), Unitika Corporation, April 1992.
June 25, 2005 10:57 AM
Ginkgo has achieved unprecedented popularity within the last decade and has become a familiar household term. Because interest in treating diseases like Alzheimer’s has escalated over the last decade, the biochemical capabilities of ginkgo in regard to brain function have been investigated and are still being researched. Ginkgo is one of those herbs that has become intrinsically connected with notions of herbal elixirs capable of pre s e rving youth and promoting longevity.
Ginkgo comes from the oldest species of tree in the world dating back some 200 million years. Some ginkgo trees have been known to live well over an average of 1000 or more years. The ginkgo tree is also known as the “maidenhair tree” and would have probably become extinct if the trees had not been cultivated in Far Eastern temple gardens and nurtured by Oriental monks.
Ginkgo is a deciduous conifer with separate male and female types. It resembles the pau d’arco tree and like pau d’arco, possesses an unusual immunity to insects and diseases. Ginkgo’s remarkable hardiness enabled it to survive the atomic blast at Hiroshima. Because of its unprecedented longevity, ginkgo biloba has sometimes been referred to as a living fossil.
Ginkgo has been used in China for over 5000 years. The Chinese refer to the fruit of the ginkgo tree as pa-kwo. This fruit is sold in markets throughout China and resembles dried almonds. Ginkgo fruit is pleasant tasting when fresh, but can become quite disagreeable if allowed to get overly ripe. Asians have relied on extracts of the fan-shaped ginkgo leaf since 3,000 B.C. to heal a wide variety of ailments.
The Chinese have been acquainted with the curative powers of ginkgo for centuries and have typically used the herb for ailments related to aging, such as circulatory disorders, mental confusion and memory loss. In China, ginkgo seeds, called baigou, are considered lung and kidney tonics and are used in conjunction with acupuncture. Ginkgo seeds also help to tonify the urinary system, so they are used in cases of incontinence and excessive urination.1
Practitioners of Chinese medicine routinely use ginkgo leaves. Ginkgo was introduced into Eu rope in 1730 and was we l l received, not for its medicinal value, but for its ornamental appeal. It is used extensively in landscaping because of its lovely Fern-like leaf. It was brought to America in 1784 to the garden of William Hamilton who lived in Pennsylvania.
Decades passed before the healing properties of ginkgo we re investigated. Consequently, it has been part of the herbal repertoire only since the 1980s. During this time, it became technically feasible to isolate the essential components of ginkgo. Pharmacologically, there are two groups of substances which are significant compounds found in ginkgo: the flavonoids, which give ginkgo its antioxidant action, and the terpenes, which help to inhibit the formation of blood clots. The majority of scientific interest has focused on Ginkgo’s ability to improve the circulation of blood. O ver the past twenty years, scientific testing on the plant has dramatically escalated. Ha rva rd professor Elias J. Core y, Ph . D , synthesized ginkgo’s active ingredient, ginkgolide B, for the first time in the laboratory. Consequently, stepped-up research in this country and in Eu rope resulted. Ginkgo has been the subject of over 300 scientific studies and continues to intrigue scientists. Much modern research has confirmed ancient applications of ginkgo as well as discovered new ones.
Ginkgolide, the active component of the herb, is what creates most of ginkgo’s biochemical attributes. Exactly how ginkgolide B functions is not yet known. One theory is that the compound somehow interferes with a chemical found in the body called PAF (platelet activating factor). PAF has been implicated in cases of graft rejection, asthma and other immune disorders. PAF antagonists have been identified from a variety of medicinal plants. These compounds help to explain the pharmacological basis of several traditional medicines and provide a valuable new class of therapeutic agents.
Particular attention has been paid to ginkgo’s powerful actions on the cardiovascular system. Thousands of Europeans use this herb for peripheral circulatory disorders. As a circulation booster, ginkgo has accumulated some impressive credentials. Because proper circulation is vital to each and every body function, virtually all body systems can benefit from ginkgo therapy.
Ginkgo’s relationship to brain function has also spawned considerable interest. In 1985, Rudolf Weiss said of ginkgo,
“ Significant improvement in mental states, emotional lability, memory, and the tendency to tire easily, have been reported.”
Ginkgo is currently planted in groves and used for a number of medicinal purposes. It is harvested in the summer and can be used in extract, tincture or infusion forms. The therapeutic properties of ginkgo seem endless. Continuing re s e a rch promises to further uncover additional health benefits of this remarkable botanical. Ginkgo extracts are among the leading prescription medications in France and Germany. Currently, millions of prescriptions for ginkgo are written by physicians worldwide.
Probiotics - Our Friendly Bacteria
June 16, 2005 10:51 AM
An estimated 10 quadrillion bacteria make their home in the average digestive system. Fortunately, less than one percent of the 400 different species found in the intestine are potentially harmful. The majority of intestinal flora are friendly bacteria, otherwise known as probiotics. These probiotic bacteria support good health by limiting the growth of harmful bacteria, promoting good digestion and increasing resistance to infection.*1
Probiotic bacteria are completely non-toxic. In fact, friendly bacteria have been used safely and effectively for more than 8,000 years, proving their value to human health.*2 Most often, probiotics have been consumed as part of cultured foods, such as acidophilus milk, yogurt, soy tempeh, and idli (cultured wheat). The friendly bacteria in these foods, specifically Lactobacillus acidophilus, L. bulgaricus, and Bifidobacterium bifidum, multiply in the warm, moist environment of the human body by feeding on the carbohydrates and protein in the digestive tract, then establish colonies along the intestinal wall.
Beneficial Roles of Probiotics
Lactobacillus acidophilus and other friendly bacteria play many important roles in maintaining good health.* According to experts, regular consumption of probiotics is the best way to maintain healthy intestinal flora.*3, 4 Lactobacilli species do not survive very long in the colon, so bacteria colonies need to be routinely replenished.*
In addition to producing numerous vitamins, probiotics support healthy digestion.* Part of the reason fermented foods are healthful is that some of the proteins, fats and carbohydrates are partially digested by the bacteria, which increases overall digestibility and nutritional value of the food.*5, 6
Lactose intolerant individuals may gain even more benefits from probiotics. Lactobacilli bacteria ferment as much as half of the lactose in milk—the part of milk that results in the symptoms of bloating, cramps and gas in lactose intolerant individuals—by converting it to lactic acid. Consequently, people with lactose intolerance report fewer digestive problems with cultured dairy foods compared to fresh milk.*5, 7
The nutritional profile of foods is improved after being cultured with probiotics. Levels of several B vitamins, including vitamins B1, B2, B6 and B12, niacin, folic acid and pantothenic acid are higher in fermented foods, such as yogurt, cheese, kefir and buttermilk.*5 Fermentation also boosts the digestibility of soy foods.*8
Inhibiting bacterial growth:
Probiotics act as natural antibiotics, slowing the growth of harmful bacteria.*5, 6 These friendly bacteria produce substances, including lactic acid, acetic acid, benzoic acid, hydrogen peroxide and natural antibiotics, which limit the reproduction of certain disease-causing bacteria.*9
Another way that probiotic bacteria maintain a healthy digestive tract is by competing with harmful bacteria in the intestine. When the intestine is full of large colonies of beneficial bacteria, disease-causing bacteria are simply not able to multiply into harmful numbers because there are no available attachment sites on the intestinal wall.* This is one of the ways L. acidophilus inhibits the growth of Candida albicans, coliform (e. coli) bacteria and salmonella.*3, 4, 10, 11
Diarrhea can have many causes, but it always has the same result for the bacteria living in the intestine—it flushes them out, leaving the body vulnerable to the growth of opportunistic bacteria. It is important to replenish the body with probiotics during and after a bout of diarrhea.* Probiotic bacteria can also help keep the colon healthy when traveling.*4
Lactobacilli are one of the primary bacteria found in normal vaginal flora, and their presence is believed to inhibit the overgrowth of harmful bacteria, such as Candida. Lactobacillus acidophilus cultures are a popular folk remedy for vaginal health.*4, 10
Recolonization After Antibiotic Use:
Antibiotics, given to treat bacterial infections, ironically can contribute to unhealthy bacteria growth. Antibiotics destroy bacteria, the good along with the bad, leaving the intestine without its normal, healthful flora. In this compromised state, disease-causing bacteria can multiply unchecked by friendly bacteria.*12 When ingested during and following antibiotic usage, L. acidophilus rapidly restores normal flora, shortening the time that undesirable organisms remain in the gut.*3, 12 Bifidobacterium bifidum can also help normalize the intestinal flora after using antibiotics.*10
Producing the Best Probiotics
Fermenting foods with lactobacilli has been a time-honored method for both preserving and enhancing foods. Before refrigeration, fermentation was a valuable way to preserve food safety, and it remains in common usage today.
Nature’s Life uses the same basic principles developed and perfected by prehistoric nomadic peoples to produce Lactobacillus acidophilus products; with the exception that we use modern, high-volume equipment. These improvements, along with trained personnel, scientific methods and quality assurance practices, ensures that every batch meets our high standards of quality.
Our lactobacilli are cultured on nutrient-dense food concentrates, such as soy protein, green peas or non-fat milk. We add natural apple juice, pasteurized clover honey, strawberries, carrot juice or maltodextrin for flavor and to provide carbohydrates for the micro-organisms, plus we use only pasteurized water.
Our growth medium has a broad range of vitamins, minerals, enzymes, amino acids, essential fatty acids, organic acids and naturally occurring plant phytonutrients such as flavonoids and carotenoids with beneficial antioxidant properties. The temperature and moisture are carefully controlled during the several days needed for the bacteria to multiply to peak potency.
At the peak of potency, Nature’s Life Liquid Acidophilus culture is poured directly into sanitized 16 oz. glass bottles and immediately refrigerated at 36°F to maintain peak potency. These liquid products are the most bioactive of all forms of acidophilus because they are dormant, rather than frozen.
For our freeze-dried powders and capsules, the warm liquid culture is immediately poured into containers, sealed and refrigerated. After cooling, the liquid is poured into trays and instantly freeze-dried. The frozen lactobacillus is then processed through a vacuum freezer to lower the moisture level to an absolute minimum. This freeze-dried product is packaged as either powder or capsules. When swallowed, the microorganisms will rehydrate and begin colonizing the gastrointestinal tract with friendly bacteria.
Nature’s Life acidophilus is not filtered, centrifuged or otherwise concentrated or separated from its growth medium to artificially obtain higher concentrations of bacteria per gram or capsule. Centrifuging may damage the lactobacillus by altering the natural clumping, chaining and branching of bacteria cells.*
Nature’s Life probiotic products retain all the benefits of the nutrient-rich growth medium. All the valuable by-products of the bacteria’s metabolism remain in the final product, including B-vitamins, enzymes, organic acids, antibodies and even naturally occurring antibiotics. The conclusion of experts is that products which are centrifuged or filtered are incomplete.13 14
Quality You Can Trust
Nature’s Life invests significant resources in perfecting the production of high quality Lactobacillus acidophilus cultures. You benefit from our knowledge and experience every time you choose our supplements.
Nature’s Life lactobacillus cultures are manufactured with rigorous specifications using state-of-the-art equipment. All equipment and containers are sanitized to ensure that no contaminants or unfriendly pathogenic bacteria corrupt the quality of the L. acidophilus. The large capacity fermentation tanks and freeze dryers maintain consistency in each batch.
Nature’s Life Lactobacillus acidophilus meets or exceeds all standards developed by industry associations and government regulations. These standards, established to determine the quality of the finished product, are:
All of Nature’s Life Lactobacillus acidophilus products meet the acid test for effectiveness:
Using Nature’s Life Probiotics
Nature’s Life probiotics, such as Lactobacillus acidophilus, L. bulgaricus and Bifidobacterium bifidum, can survive in the stomach for at least an hour.*15 Nature’s Life recommends taking probiotics either on an empty stomach or with food, however the presence of food can help the organisms stay alive longer.16
Liquid acidophilus should be treated as a perishable product, since it contains live, active organisms. Like yogurt or milk, acidophilus should be refrigerated and used within a short period of time. Contact Nature’s Life for a recipe on how to make your own soy-based, milk-free yogurt.