Genus Rubiaceae

Common Names

Indian Mulberry (India), Noni (Hawaii), Nono (Tahiti and Raratonga), Polynesian Bush Fruit, Painkiller Tree (Caribbean islands), Lada (Guam), Mengkudo (Malaysia), Nhau (Southeast Asia), Grand Morinda (Vietnam), Cheesefruit (Australia), Kura (Fiji), Bumbo (Africa) Note: This is only a small sampling of vernacular names for Morinda citrifolia. Almost every island nation of the South Pacific and Caribbean has a term for this particular plant . This booklet will refer to the herb mainly as “ noni” or M. citrifolia, and is referring primarily to Hawaiin noni.

Parts Used

The parts of the noni plant most used for their medicinal and nutritional purposes are the fruit, seeds, bark, leaves, and flowers. Virtually every part of the noni plant is utilized for its individual medicinal properties; however, it is the fruit portion that is regarded as its most valuable. The seeds have a purgative action, the leaves are used to treat external inflammations and relieve pain, the bark has strong astringent properties and can treat malaria, the root extracts lower blood pressure, the flower essences relieve eye inflammations and the f ruit has a number of medicinal actions.

Physical Description

Morinda citrifolia is technically an evergreen shrub or bush, which can grow to heights of fifteen to twenty feet . It has rigid, coarse branches which bear dark, oval, glossy leaves. Small white fragrant flowers bloom out of cluster-like pods which bear creamy-white colored fruit. The fruit is fleshy and gel-like when ripened, resembling a small breadf ruit . The flesh of the fruit is characterist ically bitter, and when completely ripe produces a rancid and very dist inctive odor. Noni has buoyant seeds that can float formont hs in ocean bodies. The wood of the inflammatory, astringent, emollient, emmenagogue, laxative, sedative, hypotensive (lowers blood pressure) , blood purif ier, and tonic.

Chemical Constituents

Noni has various chemical constituents. First, it has an impressive array of terpene compounds, three of which—L. Asperuloside, aucubin, and glucose— have been identified by their actyl derivatives. Both caproic and caprylic acids have been isolated.1 Second, bushfruits, a category of which noni fruit is a member, are also considered a good source of vit - amin C.2 Third, Hawaiin noni has been linked to the synthesis of xeronine in the body which has significant and widespread health implications. Last , the alkaloid cont ent of the noni fruit is thought to be responsible for its therapeutic actions. Alkaloids exhibit a wide range of pharmacological and biological act ivitiesin the human body. They are nitrogencontaining organic compounds which can react with acids to form salts and which are the basis of many medicines. The following is an in-depth chemical analysis of each plant part and it s chemical constituents.

FLOWER

FRUIT

discovered an alkaloid in the Hawaiin noni fruit which he calls proxeronine and which he believes has appreciable physiological actions by acting as a precursor to xeronine, a very crucial compound (see later sections) . In addition, a compound found in the fruit called damnacanthol is believed to help inhibit cert ain viruses and cellular mutations involved in cancer.

ROOT AND ROOT BARK

Pharmacology

Recent surveys have suggested that noni fruit exerts antibiotic action. In fact, a variety of compounds which have antibacterial properties (such as aucubin) have been identified in the fruit.5 The 6-Dglucopyranose pentaacet ate of the fruit extract is not considered bacteriostatic.6 Constituents found in the fruit portion have exhibited ant imicrobial action against Escherichia coli, Salmonella typhi (and other types) , Shigella paradysenteriae, and Staphylococcus aureaus. Compounds found in the root have the ability to reduce swollen mucous membrane and lower blood pressure in animal studies. Proxeronine is an alkaloid constituent found in Hawaiin noni fruit which may prompt the production of xeronine in the body. It is considered a xeronine precursor and was discovered in noni fruit by Dr. Ralph M. Heinicke. He has theorized that this proenzyme can be effective in initiating a series of beneficial cellular reactions through its involvement with the integrity of specific proteins. He points out that tissues contain cells which possess certain recept or sites for xeronine. Because the reactions that can occur are so varied, many different therapeutic actions can result when xeronine production escalates, explaining why Hawaiin noni is good for so many seemingly unrelated disorders. Damnacanthol is another compound contained in the fruit of the Hawaiin noni plant which has shown the ability to block or inhibit the cellular function of RAS cells, considered pre-cancerous cells.

Body Systems Targeted

The following body systems have all been effec-freeze-dried capsules, dehydrated powder or fruit, and oil. Noni plant constituents are sometimes offered in combination with other herbs. Some products contain a percent age of the fruit, bark, root and seeds for their individual therapeutic properties.

Satety

Extracts of M. citrifolia are considered safe if used as directed; however, pregnant or nursing mothers should consult their physicians before taking any supplement . High doses of root extracts may cause constipation. Taking noni supplements with coffee, alcohol or nicotine is not recommended.

Suggested Uses

Ideally, noni extracts should be taken on an empty stomach prior to meals. The process of digesting food can interfere with the medicinal value of the alkaloid compounds found in Hawaiin noni, especially in its fruit . Apparently, stomach acids and enzymes destroy the specific enzyme which frees up the xeronine compound. Take noni supplements without food, coffee, nicotine or alcohol. Using supplements that have been made from the semi-ripe or light - green fruit is also considered preferable to the ripe, whit ish fruit .

NONI: ITS USE AND HISTORY

Noni is a tropical wandering plant indigenous to areas of Australia, Malaysia and Polynesia. It is considered native to Southeast Asia although it grows from India to the eastern region of Polynesia. Morinda citrifolia has a long history of medicinal use throughout these areas. It is thought to be the “most widely and commonly used medicinal plant prior to the European era.” 7 Centuries ago, the bushfruit was introduced to native Hawaiians, who subsequently called it “noni” and considered its fruit and root as prized medicinal agents. Among all Polynesian botanical agents of the 19th and 20th centuries, Hawaiin noni has the widest array of medical applications. Samoan and Hawaiian medical practitioners used noni for bowel disorders (especially infant diarrhea, constipation, or intestinal parasites) , indigestion, skin inflammation, infection, mouth sores, fever, contusions and sprains. Hawaiians commonly prepared noni tonics designed to treat diabetes, stings, burns and fish poisoning.8 The herb’s remarkable ability to purge the intestinal tract and promote colon health was well known among older Hawaiian and Tahitian natives and folk healers. Interestingly, field observations regarding its repu-remarkable healing agent .

Wonder Herb of Island Folk Healers

Common to t he thickets and forests of Malaysia and Polynesia, and the low hilly regions of the Philippine islands, noni has been cultivated throughout communities in the South Pacific for hundreds of years. Its Hawaiian use is thought to originate from inter-island canoe travel and settlement dating to before Christ . Its hardy seeds have the ability to float which has also contributed to its distribution among various seacoasts in the South Pacific region. Historical investigation has established the fact that some of Hawaii’s earliest settlers probably came viaTahiti. For this reason, Tahitian herbal practices have specific bearing on the herbal therapeutics of islands to the nort h. The very obvious similarities between the Hawaiian vernacular for herbal plants like noni and Tahitian names strongly suggests the theory of Polynesian migrations to Hawaii. Cultures native to these regions favored using Morinda citrifolia for treating major diseases and ut ilized it as a source of nourishment in times of famine.9 Noni fruit has been recognized for centuries as an excellent source of nutrition. The peoples of Fiji, Samoa and Rarat onga use the fruit in both its raw and cooked forms.10 Traditionally, the fruit was propicked before it was fully ripe and placed in the sunlight . After being allowed to ripen, it was typically mashed and its juice extracted through a cloth. Noni leaves provided a veget able dish and their resiliency made them desirable as a fish wrap for cooking.

Noni’s Medical Reputation

Elaborate traditionalrituals and praying rites usually accompanied the administration of noni. Int erestingly, cultures indigenous to the Polynesian islands had a significant understanding of their flora. For example, native Hawaiians maint ained a folkmedicine taxonomy t hat was considered second to none.11 Noni was not only used for medicinal purposes but for its food value, for clot hing and for cloth dyes as well. Research indicates that noni was among the few herbal remedies that islanders considered “ tried and true.” In Hawaii, trained herbal practitioners reserved the right to prescribe plant therapies.12 Records indicate that Hawaiian medical practices were based on extensive and very meticulous descriptions of symptoms and their prescribed herbal treatments. Dosages were controlled and the collection and administration of plant extracts was carefully monitored.13 In addition to Morinda, it was not uncommon for these herbal doctors to also recommend using In regard to its application for common ailments, Hawaiians and other island communities traditionally prescribed noni to purge the bowel, reduce fever, cure respiratory infections such as asthma, ease skin inflammations, and heal bruises and sprains. In other words, noni was widely used and highly regarded as a botanical medicine.

A Timely Reemer gence

Today, the natural pharmaceutical actions of the chemical constituents contained in noni are scientif-ically emerging as valuable bot anical medicines. Tahitian “nono” intrigued medical practitioners decades ago; however, due to the eventual emergence of synthetic drugs, interest in this island botanical diminished until recent years. Ethnobot anists are once again rediscovering why Hawaiian people havet reasured and cultivat ed Morinda citrifolia for generations. Noni is now finding its way into western therapeutics and is referred to as “ the queen” of the genus Rubiaceae. Its ability to reduce joint inflammation and target the immune system have made it the focus of the modern scientific inquiry. Dr. Ralph Heinicke has conducted some fascinating studies on the chemical constituents of the Hawaiin noni fruit. His research centers on the proxeronine content of the fruit juice and how it profoundly influences human physiology. In addition, scientific studies investigating noni as an anti-cancer agent have been encouraging. It s conspicuous attributes and varied uses have elevat edits status to one of the best of the healing herbs. Today Morinda citrifolia is available in liquid, juice, freezedried capsules, or oil forms, and is considered one of nature’s most precious botanicals.

TRADITIONAL USES OF NONI

Throughout tropical regions, virtually every part of Morinda citrifolia was used to treat disease or injury. Its curative properties were well known and commonly employed. PatoaTama Benioni, a member of the Maoritribe from the Cook Islands and a lecturer on island plants explains: Traditionally Polynesians use noni for basically everything in the treatment of illness. Noni is a part of our lives. Any Polynesian boy will tell you he’s had exper ience with it . We use juice from its roots, its flowers, and its fruit... my grandmother taught me to use noni from the roots and the leaves to make medicine for external as well as internal use, and for all kinds of ailments, such as coughs, boils, diseases of the skin, and cuts.15

decoctions to stimulate delayed menst ruation.

XERONINE: THE SECRET OF NONI?

One informed professional on the subject of noni is Dr. Ralph Heinicke, a biochemist who has researched the active compounds of noni fruit for a number of years. He discovered that the Hawaiin noni fruit contains an alkaloid precursor to a very vital compound called xeronine. Wit hout xeronine, life would cease. In Dr. Heinicke’s view, noni fruit provides a safe and effective way to increase xeronine levels, which exert a crucial influence on cell health and protction. His research suggests that the juice from the M. citrifolia fruit contains what could technically be considered a precursor of xeronine—proxeronine. This compound initiates the release of xeronine in the intestinal tract after it comes in contact with a specific enzyme which is also contained in the fruit .

Because proteins and enzymes have so many varied roles within cell processes, the normalization of these proteins with noni supplemenation could initiate avery wide variety of body responses and treat many disease condit ions. Proteins are the most important catalysts found in the body. The beauty of obtaining a precursor to xeronine from the noni fruit is that the body naturally decides how much of this precursor to convert to xeronine. Disease, stress, anger, trauma and injury can lower xeronine levels in the body, thus creat ing a xeronine deficit . Supplementing the body with noni fruit is considered an excellent way to safely and naturally raise xeronine levels. It is the research and theories of Dr. Heinicke which have made the juice of the Hawaiin noni fruit a viable medicinal substance. He writes: Xeronine is analkaloid, a substance the body produces in order to activate enzymes so they can function properly. It also energizes and regulates the body. This par-ticular alkaloid has never been found because the body makes it, immediately uses it, and then breaks it down. At no time is there an appreciable, isolable amount in the blood. But xeronine is so basic to the functioning of proteins, we would die without it . Its absence can cause many kinds of illness.17 Because so many diseases result from an enzyme malfunction, Dr. Heinicke believes that using the noni fruit can result in an impressive array of curative applications. Interestingly, he believes that we manufacture proxeronine while we are sleeping. He proposes t hat if we could constantly supply our bodies wit h proxeronine from other sources, our need to sleep would diminish.18

NONI PROCESSING

How an herb is processed is crucial to how beneficial it is: this is especially true of noni, with its unique enzymes and alkaloids. Morinda citrifolia should be picked when the fruit is turning from its dark green immature color to its lighter green color, and certainly before it ripens to its white, almost translucent color. Once picked, noni, like aloe, will denature extremely quickly due to its very active enzymes. After harvesting, it should swiftly be flash frozen. This is similar to what is done to fish caught at sea to keep them f esh. This stops it from losing its potency while not damaging any of its constituents. To process noni, freeze-drying is recommended. This removes only the water without damaging any of this miracle plant’s vital enzymes and other phytonutrients like xeronine and proxeronine. This pure high-quality noni fruit juice powder is then encapsu-has a very harsh taste and an extremely foul smell, similar to the fruit it self . Other methods of processing include thermal processing, dehydrat ion and air drying. Thermal processing is generally found in liquids, while the dehydrat ed noni is then milled and encapsulated. Unfortunately both methods utilize high heat (110+°F) , which can deactivate many of the vital compounds that make noni so import ant . Air-drying is effect ive without using damaging heat but has serious quality control problems for commercial production.

MODERN APPLICATIONS OF NONI

Overview

Noni possesses a wide variety of medicinal properties which originat e from its differing plant component s. The fruit and leaves of the shrub exert antibacterial activities. Its roots promote the expulsion of mucus and the shrinkage of swollen membranes making it an ideal therapeutic for nasal congest ion, lung infect ions, and hemorrhoids. Noni root compounds have also shown natural sedative properties as well as the ability to lower blood pressure.

Leaf extracts are able to inhibit excessive blood flow or to inhibit the formation of blood clots. Noni is particularly useful for its ability to treat painful joint conditions and to resolve skin inflammations. Many people drink noni fruit extracts in juice form for hypert ension, painful menstruation, arthritis, gastric ulcers, diabetes, and depression. Recent studies suggest that its anticancer activit y should also be considered. Concerning the therapeutic potential of the Hawaiin noni fruit, Dr. Heinicke writes: I have seen the compound found in noni work wonders. When I was still investigating its possibilities, I had a friend who was a medical research scientist administer the proxeronine to a woman who had been comatose for three months. Two hour safter receiving the compound, she sat up in bed and asked where she was. . . . Noni is probably the best source of proxeronine that we have today.19 Studies and surveys combined support the ability of noni to act as an immunost imulant, inhibit the growth of certain tumors, enhance and normalize cellular function and boost tissue regeneration. It is considered a powerful blood purifier and contributor to overall homeostasis.

xeronine, which appears to be able to regulate the shape and integrity of cert in proteins that individually contribute to specific cellular activities. Interestingly, this effect seems to occur after ingestion, inferring that the most active compound of noni may not be present in uneaten forms of the fruit or other plant parts. Some practitioners believe that xeronine is best obtained from a noni fruit juice precursor compound. The enzymatic reactions that occur with taking the juice on an empty stomach are what Dr. Heinicke believes set cellular repair intomotion.

Cancer

A study conducted in 1994 cited the anticancer activity of Morinda citrifolia against lung cancer. A team of scientists from the University of Hawaii used live laboratory mice to test the medicinal properties of the fruit against Lewis lung carcinomas which were artificially transferred to lung tissue. The mice that were left untreated died in nine to twelve days. However, giving noni juice in consistent daily doses significantly prolonged their life span. Almost half of these mice lived for more than fifty days.20 Research conclusions state that the chemical constituents of the juice acted indirectly by enhancing the ability of the immune system to deal with the invading malig-nancy by boosting macrophage or lymphocyte activit y. Furt her evaluation theorizes that the unique chemical constituents of Morinda citrifolia initiate enhanced T-cell activity, a reaction that may explain noni’s ability to treat a variety of infectious diseases. 21

In Japan, similar studies on tropical plant extracts found that damnacanthol, a compound found in Morinda citrifolia, is able to inhibit the function of KRAS- NRK cells, which are considered precursors to certain types of malignancies.22 The experiment involved adding noni plant extract to RAS cells and incubating them for a number of days. Observation disclosed that noni was able to significantly inhibit RAS cellular function. Among 500 plant extracts, Morinda citrifolia was determined to contain the most effective compounds against RAS cells. Its damnacanthol content was clinically described in 1993 as “a new inhibit or of RAS function.” 2 3 The xeronine fact or is also involved in that xeronine helps to normalize the way malignant cells behave. While they are still technically cancer cells, they no longer function as cells with unchecked growth. In time, the body’s immune system may be able to eradicate these cells.

Arthritis

with arthritic disease. One link to arthritic pain may be the inability to properly or completely digest proteins which can then form crystal-like deposits in the joints. The ability of noni fruit to enhance protein digestion through enhanced enzymatic function may help to eliminate this particular phenomenon. In addition, the alkaloid compounds and plant met abolites of noni may be linked to its apparent anti-inflammatory action. Plant sterols can assist in inhibiting the inflammatory response which causes swelling and pain. In addition, the antioxidant effect of noni may help to decrease free radical damage in joint cells, which can exacerbate discomfort and degeneration.

Immune System

The alkaloid and other chemical compounds found in noni have proven themselves to effectively control or kill over six types of infectious bacterial strains including: Escherichia coli, salmonellatyphi (and other types) , shigella paradysenteriae, and staphylo - coccus aureaus.25 In addition, damnacanthol, was able to inhibitt he early antigen stage of the Epstein- Barr virus.

The bioactive components of the whole plant, combined or in separate portions, have demonst rat - ed the ability to inhibit several different strains of bacteria. Anecdotal reports support this action in that noni seems particularly effective in shortening the duration of certain types of infection. This may explain why noni is commonly used to treat colds and flu. The chemical constituents found in noni and the possibility that they stimulate xeronine production— as well as initiate alkaloid therapy—may explain noni’s reputation for having immuno-stimulatory properties. Alkaloids have been able to boost phagocytosis which is the process in which certain white blood cells called macrophages attack and literally digest infectious organisms. Interestingly, the ant it umoraction of noni has been ascribed to an immune system response which involves stimulating T-cells. tropical regions during World War II learned of the fruit’s ability to boost endurance and stamina. Native cultures in Samoa, Tahiti, Raratonga and Australia used the fruit in cooked and raw forms. M. citrifolia is considered a tonic and is especially recommended for debilitated conditions.

Antioxidant

The process of aging bombards the body with free radicals which can cause all kinds of degenerative diseases. The xeronine theory promoted by Dr. Heinicke submit s t hat as our bodies age, we lose our ability to synthesize xeronine. To make matters worse, the presence of many environment altoxins actually blocks the production of xeronine as well. He believes that the proxeronine content of Hawaiin noni fruit juice can help to block these actions, thereby working as an antiaging compound.26 The phytonutrients found in noni assist in promot - ing cell nourishment and prot ect ion from free radicals created by exposure to pollution and other potentially damaging agents. In addition, Morinda citrifolia contains selenium, which is considered one of the best antioxidant compounds available.

Diabetes

While scientific studies are lacking in this particular application of noni, Hawaiians used various parts of the plant and its fruit to treat blood sugar disorders. Anecdotal surveys have found t hat noni is current ly recommended for anyone with diabetes.

Pain Killer

A 1990 study found that extracts derived from the Morinda citrifolia root have the ability to kill pain in animal experiments.27 Interest ingly, it was during this study that the natural sedative action of the root was also noted. This study involved a French team of scientists who noted a significant central analgesic activity in laboratory mice.28 Dr. Heinicke has stated, “Xeronine also acts as a pain reliever. A man wit h very advanced int est inal cancer was given three months to live. He began taking the proxeronine and lived for a whole year, pain-free.” 29

Skin Healing Agent

One of the most prevalent hist rical uses of noni was in poultice form for cuts, wounds, abrasions, burns and bruises. Using its fruit extract for very serious burns has resulted in some extraordinary healing. Because skin is comprised of protein, it immediately responds to the presence of xeronine.

burn site throught he direct application of a noni poultice is considered quite effective by Dr. Heinicke and his colleagues, who have studied enzymatic therapy. Concerning burns, he has written: I believe that each tissue has cells which contain proteins which have receptor sites for the absorption of xeronine. Certain of these proteins are the inert for ms of enzymes which require absorbed xeronine to become active. This xeronine, by converting the body’s procol- langenase system into a specific protease, quickly and safely removes the dead tissue from burns.30

Drug Addiction

The xeronine link to treat ing drug addiction is based on the notion that flooding t he brain with extra xeronine can reverse the neurochemical basis for addiction. This natural alkaloid is thought to normalize brain receptors which subsequent ly results in the cessation of physiological dependence on a certain chemical like nicotine.3 1 The potential of Hawaiin noni as a natural stimulat or for t he production of xeronine may have profound implications in treating various types of addictions.

Complementary Agents of Noni

PrimaryApplications of Noni

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Vitanet ®

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Date: June 29, 2005 02:13 PM
Author: Darrell Miller (dm@vitanetonline.com)
Subject: UROVEX: BUTTERBUR EXTRACT Supports healthy urinary urge and frequency Promotes healthy ...

UROVEX: BUTTERBUR EXTRACT Supports healthy urinary urge and frequency Promotes healthy bladder control

Fear—the fear of job loss, embarrassment in social settings, sexual frustrations and psychological stress. That’s what life is like for the nearly 30 million people in the United States who have concerns with bladder control. A burden at any age, bladder issues are highly prevalent in both genders but more common in women. Urinary urge and frequency occurs when the smooth muscle of the bladder contracts without warning. SOURCE NATURALS UROVEX BUTTERBUR is a patented standardized extract that supports healthy urinary urge and frequency. Further, it has been shown to help minimize the sudden urge to urinate, according to a human clinical trial. It has also been shown to support smooth muscle relaxation in animal studies. In vitro studies show that UROVEX BUTTERBUR may reduce bladder cell irritation by inhibiting leukotriene synthesis.

What Goes On

If you experience this circumstance, you probably have two of the following indicators: frequency of urination (usually more than 8 times in 24 hours), urgency (an immediate and strong urge to urinate) and leaking or involuntary loss of urine. Although the changes in urinary anatomy—the result of normal aging—do not cause urinary trouble, they do create a situation that allows this to occur more easily. Aging results in a reduced size of the bladder, producing a decreased bladder volume and a need for more frequent bladder emptying.

Urination involves physiological processes within the urinary tract and the brain. Our brain normally suppresses the urge to urinate until we initiate urination. Neurons in the brain and in smooth muscle of the bladder involuntarily govern the detrusor (layered, smooth muscle that surrounds the bladder) muscle. This muscle contracts and relaxes based on the volume of urine in the bladder and the initiation of urination. The desire to urinate usually starts when the bladder has reached about half its physiologic capacity. This desire is suppressed by the cerebral cortex until a suitable time and place has been chosen. Butterbur relaxes the detrusor muscle, which reduces pressure on the bladder and thus relieves the urge to urinate. Each capsule contains 50 mg of standardized butterbur, yielding 7.5 mg of the active ingredients petasin and isopetasin. Our extract has been specially processed to remove undesirable pyrrolizidine alkaloids found in some brands.

Newest Research

UROVEX BUTTERBUR EXTRACT has been shown in research to improve the sudden urge to urinate. In one study, 24 women were given butterbur for 8 weeks. After three weeks, 17 women reported a significant reduction of the frequency of urination. Before they began taking butterbur, urination intervals were 30 to 90 minutes, while three weeks later the intervals of 17 of the women were between 90 and 150 minutes. Butterbur is a perennial shrub native to Europe, northern Africa and southwestern Asia that has been used medicinally for centuries to maintain a healthful, active lifestyle. The use of preparations from butterbur has included promoting proper smooth muscle tone, including relief for painful menstrual cramps and other traditional uses.

An All-Natural Solution

Source Naturals is pleased to partner with your natural food product retailer to deliver this botanical treasure that is so effective in solving this often untreated problem. Look for Source Naturals UROVEX BUTTERBUR. It is the only patented butterbur product for bladder control and other traditional uses and is available in 12, 30 and 60 capsule bottles.

References
Wang, Guei-Jane et al. 2002. Ca2+ channel blocking effect of iso-S-petasin in rat aortic smooth muscle cells. European Journal of Pharmacology. 445(3) : 239-245. Brune, Kay et al. 1993. Gastro-protective effects by extracts of Petasites hybridus: the role of inhibition of peptido-leukotriene synthesis. Planta Medica 59 : 494-496. Bickel, Daniela et al. 1994. Identification and characterization of inhibitors of peptIdoleukotriene- synthesis from Petasites hybridus. Planta medica 60 : 318-322. Thomet, OA et al. 2001. Role of petasin in the potential anti-inflammatory activity of a plant extract of petasites hybridus. Biochemical Pharmacology 61 : 1041-1047. Bauer, H.W. and U. Danesch. 1995. Therapeutische Aspekte in der Urologie mit Petadolex (Therapeutic aspects in the urology with Petadolex) Presse Symposium München 10/18/95.

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Vitanet ®

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Date: June 25, 2005 08:13 PM
Author: Darrell Miller (dm@vitanetonline.com)
Subject: REFERENCES

REFERENCES

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.

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Date: June 25, 2005 07:49 PM
Author: Darrell Miller (dm@vitanetonline.com)
Subject: All Calories Are Not Created Equal

All Calories Are Not Created Equal

When we eat more than our daily energy requirements (and most of us do), the extra energy is stored as fat. The human body is designed to stockpile fat very easily. This tendency is related to innate mechanisms intended to protect us against starvation or the threat of a diminished food supply. Fat cells provide extra fuel which can be utilized if necessary to sustain life. Those survival fat pounds settle on the hips, waist, thighs, upper arms and back, not to mention around organs, like the heart and kidney. Some ethnic groups, whose ancestors repeatedly suffered from famines, are especially efficient in energy storage. These include the Pima tribe48 in the United States, the Aborigines of Australia,49 and many of those of African descent.41

Fats are very readily converted to pounds. Carbohydrates and proteins require more complicated digestive processes to convert and store their energy than fat does. Calories from carbohydrates and proteins are usually burned and thrown off as heat (thermogenesis). Naturally, overeating proteins and carbohydrates can result in weight gain, however the body has to work harder to convert these nutrients to fat stores. It takes 20 to 25 percent of the energy in carbohydrate and protein to convert them into body fat. It only takes about 5 percent of the energy content of dietary fat to store it as body fat. Fat is also twice as energy dense (9 calories per gram) as carbohydrates or proteins (4 calories per gram) making fat at least twice as dangerous from a weight gain standpoint.50 Blood taken from an individual soon after they have eaten a double cheeseburger, french fries and a thick milk shake will often be a milky pink color due to the infusion of fat from the digestive system. This fat circulates throughout the system until it is either burned or stored.

A Winning Combination

Most people would agree that exercise combined with a low-fat, high-fiber diet would be a winning combination for maintaining and improving health. Exercise is important in any health maintenance program. It is especially important in weight control since the amount of energy we expend in the resting state, our Resting Metabolic Rate (RMR), is a function of our muscle mass and tone.51,52 There is a tendency for us to lose muscle mass and gain fat pounds as we age. In part, this is due to life style changes. Instead of flying kites we fly desks! Nevertheless, our capacity to increase our muscle mass is undiminished with age.53 The lack of exercise rather than the abundance of candy is thought to be the primary cause of childhood obesity.54

Eating a low-fat, high-fiber diet will produce some weight loss even in nor-mal weight subjects.55 The reason for this may well be the balance between fullness and satiety.56 It is a proven fact that we can easily eat an excess of fat before we feel full or satisfied. This is because fats are twice as energy dense (9 calories/ gram) as carbohydrates or proteins (4 calories/gram). By the time we are full, we have over eaten. Increasing our fiber intake helps us feel full. (Of course expensive gastric bypass surgery is another alternative.57) Eating a highfiber diet helps us to feel more than just full. Low-fat, high-fiber diets are found to lead to a general lowering of cancer rates.58 Though the above combination of exercise, low-fat, and high-fiber may work in theory; making the theory work in practice is quite another story.

Technology works against us in some ways as evidenced by this comment a woman made about her husband’s physique: “He has added 20 pounds of lap since he got his lap-top [computer].” And just try to get a low calorie meal over your lunch hour. In Feburary 1996 McDonald’s, an international fast food franchise, announced that it would be dropping its five-year experiment with the low-fat McLean burger (12 grams of fat). Also gone from the menu will be the Chef’s salad and the side salad. The taste of the Big Mac (35 grams of fat) has apparently won out over its McLean competition. The salads seem to be a casualty of convenience. Eating a salad in the car after a quick pickup at the drivethrough can be a bit challenging.

Fortunately, state-of-the-art research in the area of weight loss has discovered that through the addition of certain supplements and nutrients, the process of decreasing the amount of fat we process in the stomach and boosting the amount of fat we burn can be expedited. For those of us who suffer from a “fat imbalance” or a condition where we store more fat than we burn, it is often a matter of life or death to lose fat in order to protect our arteries and heart.

The Secret t o Weight Loss . . . An Ounce of Prevent ion Most weight-reducing strategies have to confront the “after the fact” problem of burning already stored fat. Like most of our medical practices, we routinely become sick or fat and then go about the business of trying to remedy our ills. Despite Poor Richard’s advice that “an ounce of prevention is worth a pound of cure,” we continually eat high-fat diets, and wait until we have to pay the piper before most of us take serious action. It’s much easier to prevent a fat build-up than to reverse the damage that carrying extra fat stores can cause. Going on a diet is nothing less than torture and usually means giving up all the foods we like to eat. Yet dieting seldom gets to the root cause of our excess weight which most often is that we eat too much fat, when not dieting. The body begins to digest lipids in the stomach and intestines.

The diagram in Figure 1 illustrates the steps involved in getting fat into our bloodstream.59 There are four steps in fat digestion: 1) acIdolytic breakdown of food in the stomach; 2) enzymatic breakdown (lipolysis) of the fats (triglycerides, TGs) into fatty acids (FAs) and beta-monoglycerides (b-MGs); 3) formation of soluble mixed micelles with bile acids; and 4) absorption through the intestines. If we could tie up excess fat before it was absorbed, we could spare our physiological systems the stress of having to deal with that fat. Ideally then, what we need is a substance that prevents fat absorption.

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Date: June 04, 2005 02:04 PM
Author: Darrell Miller (dm@vitanetonline.com)
Subject: PYCNOGENOL ® - The Ultimate Antioxidant

Pycnogenol

Pycnogenol® is a breakthrough in antioxidant protection that demonstrates how important natural nutrition can be for your health. Antioxidants are a class of biological molecules that function to scavenge and neutralize free radicals. Free radicals are molecules with unpaired electrons that cause damage at the cellular level, and which unfortunately are unavoidable. Antioxidants – the most famous of which thus far have been Vitamin C and Vitamin E – work to protect living tissue by neutralizing free radicals, thereby interrupting many of their harmful activities. Pycnogenol®, one of the most powerful antioxidants yet discovered, is the proprietary name of a natural plant product made from the bark of the European coastal pine, Pinus maritima. It is 20 times more potent an antioxidant than Vitamin C, and 50 times more so than Vitamin E.

Free radicals are a real threat

Uniquely vulnerable targets of free radical attack that require a regular supply of antioxidants just to maintain a basic level of function include fatty acids – especially those in cell membranes – and sulfhydral proteins, which form one of the most common types of chemical bonds found in biological organisms. The importance of these substances for overall health cannot be overstated, as they are critical components not only of tissues throughout the body, but most importantly, of the principal regulatory organs – the brain and liver – and every blood vessel. Free radical attack on fatty acids – known as lipid peroxidation – and related destruction of sulfhydral proteins can lead to diminished function of cell membranes and whole organs. This, in turn, can contribute significantly to decreases in quality of life.

Free radicals are believed to be active in the development of cumulative damage to the system, as well as in many of the undesirable effects of aging. Free radicals are constantly being produced due to the natural intake of oxygen and generation of energy by the body’s cells. However, their production is heightened by pollutants such as tobacco smoke, alcohol, solvents, and oxidized cholesterol from foods. Therefore, health scientists suggest we may need to increase our intake of antioxidants either from foods or from supplements – such as Vitamin A and Beta Carotene, Vitamins C and E, Selenium, Cysteine, and now, Pycnogenol®.

Potent antioxidant protection from nature - Pycnogenol®

Originally discovered by renowned scientist Jacques Masquelier, Pycnogenol® is a natural 85% to 95% concentrate of proanthocyanidins extracted from the bark of the Maritime Pine. Proanthocyanidins are a special class of highly bioavailable, water-soluble bioflavonoids with unparalleled free radical scavenging activity. They readily cross the Blood-Brain Barrier to provide antioxidant protection to the central nervous system, and stay in the bloodstream for approximately 72 hours. Thirty years of sound European research shows that proanthocyanidins from Pycnogenol® are highly beneficial with no evidence of adverse effects, even after more than ten years of use. They also show no loss in potency after 12 years of storage.

Better health for an active life

As a potent antioxidant, Pycnogenol® is valuable for protecting the liver from free radical attack. Since the liver is the main detoxifying, nutrient-assimilating, and energy-generating organ of the body, this may mean more potential for activity in your life. Pycnogenol® may also aid recovery for athletes on strenuous workout regimes and in competition.

Healthy capillaries through healthy collagen

A major beneficiary of the protective actions of Pycnogenol® is collagen, the most abundant protein in the body. Collagen is responsible for maintaining the integrity of “ground substance,” the basic material in functional fluids, mucus linings, and connective tissue such as tendons, ligaments, cartilage, and most importantly, blood vessels linings. It is highly vulnerable to free radical attack, and a number of discomforting and depreciating processes are associated with its destruction. There is evidence showing that Pycnogenol® can provide remarkable support for the prevention of collagen destruction, and it has received much attention for its special affinity for capillaries, the smallest blood vessels. Pycnogenol® helps strengthen capillary linings in three key ways. First, Pycnogenol® functions to scavenge the free radicals that may compromise the integrity of collagen. Second, Pycnogenol® contains catechin, which is thought to stabilize collagen by forming hydrogen bonds and cross-linking collagen. Third, Pycnogenol® is Vitamin C-sparing, meaning it can fill in for C in a number of functions; this frees some Vitamin C – required for the synthesis of hydroxproline, a major structural amino acid of collagen – for use in building collagen. People who smoke and women who take oral contraceptives can reduce their heightened risk of Vitamin C depletion by taking advantage of Pycnogenol®’s Vitamin C-sparing activity.

Look to Source Naturals® for 25 mg, 50 mg, 75 mg, & 100 mg tablets of this natural wonder!

References

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