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The incredible immune booster many have never heard of
June 24, 2018 05:54 PM
Astragalus, also known as Huangqi or Milkvetch, is a relative of the pea plant with remarkable adaptogenic qualities that can help boost your resilience against various types of physical and mental stress. Astragalus delivers a potent mix of anti inflammatory, antibacterial and immune system-boosting compounds that can help bolster your natural defense system and stimulate production of antibodies. Astragalus is easily grown in the garden in most U.S. regions, and can be prepared for consumption as an oil, tea, tincture, etc.
"For medical use, the root is made into powder, herbal decoctions, tea, capsules and ointments."
Read more: https://www.healthnutnews.com/the-incredible-immune-booster-many-have-never-heard-of/
Development of castor oil.
There are about hundreds of castor oil factories in China, of which only about 10% castor oil manufacturers start working; large processing plants have around 20; only nine plants have tens of thousands processing capacity. About 70% of Chinese castor oil processing factories in stop production or semi-shutdown state, because there are no adequate, high-quality raw material castor sources. At the end of the 1980s, China extends and built several large scale castor oil factories, each factory's total amount of annual output of castor oil are in 10 -15 thousand tons, total production capacity is about 55,000 tons per year.
The world's major markets of castor oil were concentrated in North America and Europe, of which the France, Britain, Netherlands, United States, Germany, five countries accounted for 61% of annual fuel consumption.
India castor oil used in making soap has about 1.6-1.8 million tons, the textile industry uses 2-3 thousand tons, chemical industries use 2-3 thousand tons, lubricating oil use 5-6 thousand tons, the rest for exporting. In Japan's castor oil use amount, paints accounted for 28.6%, the surfactant is 12.3%, cosmetic raw material is 8.2%, resin is 5.7%, hardened oil is 17.8%, sebum oil is 12.9%, others is 14.5%. Japan needs to import large quantities of castor beans every year; they are mostly imported from China, Pakistan, Indonesia, Sri Lanka, Philippines, Vietnam, Ethiopia, Brazil and other countries. Castor oil in the United States for the production of plastics and resins was accounted for 25.9%, fatty acids accounted for 12.7%, lubricating oil accounted for 6.3%, paint accounted for 23.7%, cosmetics (mainly synthetic waxes) accounted for 2.1%, others such as inks, surfactants accounted for 29.1%, these castor oils are imported from foreign countries.
Every year, the world needs 700 thousand tons of castor oil, convert into 1.6 million tons castor beans. Nowadays, gasoline resource was gradually reduced, transportation, live used gasoline was rapidly increasing, use gasoline as a raw material for synthetic material will be increasingly constrained in cost. And the United States study found that long-term exposure to polymers which synthesized by gasoline was harmful to human health. California and some other states have enacted laws and regulations for this, to restrict and gradually prohibit using synthetic resin in city buildings, interior facilities and human health-related sites and articles, which is polymerized from petroleum, natural gas cleaved into monomers raw materials, it makes castor oil's demand was rising sharply.
Castor cultivation in China is very commonly; there is no open planted REGIONAL division. South from Hainan Island, north to Heilongjiang is cultivated. Because castor hybrids with drought resistance, thin ridge resistant, saline-alkaline tolerance, well-adapted, simple to manage, less invest, high efficiency and other salient features, no matter grain field or hills, rocky land, saline-alkali soil and even around the house can be grown it. So anywhere in China can be planted castor.
Curcumin and Pain
December 02, 2010 12:33 PM
Make no mistake about it: curcumin has long been identified as the compound responsible for the anti-inflammatory benefits of the ginger plant turmeric. The herb turmeric has been around for ages, cultivated for its wide array of culinary and medicinal uses that transcend REGIONAL and cultural boundaries. Apart from the popular use of its powdery form in bread, cakes, ale, and beer as a flavoring, the plant contains up to 5 per cent curcumin, which is one type of polyphenols now being looked into for its antioxidant properties.
Prostaglandin and Inflammation Pain
Autocrines and paracrines are contained in almost all tissues and organs to effectively participate in bodily defenses every time the systems call for them, for example in treating wounds. Prostaglandins are either autrocrines or paracrines that take on the job of signaling the tissues and systems implicated in defensive reactions when the body detects unwanted and harmful stimuli. Cells release autocrines to have an effect on the same cells and paracrines to aid nearby cells, making these compounds function as effective chemical messengers in immediate vicinities anywhere in the body as they are short-lived.
Prostaglandin is known as the chemical messenger causing pain and igniting fever among others. Defensive mechanisms start when cells release mediators, including prostaglandin, which brings about the known signs of inflammation. Prostaglandins relax smooth muscle cells within the walls of blood vessels in the area of inflammation and promote the flow of needed fluids like blood and plasma proteins into the spot, leading to the subsequent redness and swelling. They continue to mediate the healing process by permitting the entrance of neutrophil granulocytes, the front-line soldiers against harmful stimuli, and consequently put an end to invading pathogens. The same group of chemicals also increases pain at the same time, for example the joint pains associated with inflammation called arthritis.
Curcumin and Anti-inflammation
Painkillers, classified as analgesic drugs, work in a number of ways that in the end relieve the continual sensitization of certain body parts to pain. One group called non-steroidal anti-inflammatory drugs such as aspirin and ibuprofen targets the enzyme that catalyzes the synthesis of prostaglandins aim to reduce levels of prostaglandins.
Curcumin works on the same principle. Take for example, joint pains caused by arthritis. Be reminded that individuals who complain about joint pains are suffering from varied forms of medical conditions, which one way or another contribute to the pain in addition to having excessive levels of prostaglandins in the joints involved. Damage to the joint brought about by wear and tear or forced movement involving joints spurs the body to take defensive measures that include inflammatory effects, thus the pain. The intake of curcumin and its derivatives act on the cells in its production of prostaglandins, resulting in both the easing of pain and the lessening of inflammation.
Lactase Enzymes and Acidophilus
February 10, 2010 11:16 AM
Lactose intolerance is what is known as the inability to digest lactose. It is cause by a lack or deficiency of lactase. Lactase is an enzyme that is manufactured in the small intestine. It is responsible for splitting lactose into glucose and galactose. When a person who has lactose intolerance consumes milk or other dairy products, some or all of the lactose they contain remains undigested, retains fluid, and ferments in the colon. This results in abdominal cramps, bloating, diarrhea, and gas. Symptoms of lactose intolerance usually result between thirty minutes and two hours after consumption of dairy foods.
The degree of lactose intolerance varies from person to person. For most adults, lactose intolerance is actually a normal condition. Only Caucasians of northern European origin generally retain the ability to digest lactose after childhood. In the United States, somewhere between 30 and 50 million people are lactose intolerance. Lactase deficiency can also occur due to gastrointestinal disorders, which damage the digestive tract like celiac disease, irritable bowel syndrome, REGIONAL enteritis, or ulcerative colitis. Lactase deficiency can even develop on its own, with no known way to prevent it.
Lactose intolerance can occur in children as well as adults, even though it is far less common. In infants, lactose intolerance can occur after a severe case of gastroenteritis, which damages the intestinal lining. Symptoms of lactose intolerance in an infant can include foamy diarrhea with diaper rash, slow weight gain and development, and vomiting. Lactose intolerance can cause discomfort and digestive disruption, although it is not a serious threat to health and it can be easily managed through dietary adjustments. The following nutrients are recommended for dealing with lactose intolerance. The dosages specified are for adults unless otherwise specified. For a child between the ages of twelve and seventeen, the dose should be reduced to three-quarters of the recommended amount. A child between the ages of six and twelve should use half the recommended dosage.
One teaspoon of acidophilus in distilled water, taken twice daily on an empty stomach, can help to replace lost friendly bacteria and promote healthy digestion. It is recommended that a nondairy formula is used. Charcoal tablets are helpful in absorbing toxins and relieving diarrhea. Four tablets taken every hour with water until symptoms subside can help combat an acute attack. 1,000 mg of magnesium should be taken daily, as it is need for calcium uptake and promotes pH balance.
A multivitamin and mineral complex should be taken as directed on the label because all nutrients are needed for optimal health. 400 IU of vitamin D3 is also needed for calcium uptake, while 200 IU of vitamin E daily protects the cell membranes that line the colon wall. It should be noted that the d-alpha-tocopherol form of vitamin E should be taken. 30 mg of zinc should be taken three times daily. A total of 100 mg daily from all supplements should not be exceeded. This nutrient is needed to maintain immune system and proper mineral balance. For best absorption, zinc gluconate lozenges should be used. Additionally, 3 mg of copper is needed to balance with zinc.
Most of all, a good lactase enzyme supplement can help ease painful gas and bloating when taken before dairy products are consumed.
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.
June 25, 2005 08:13 PM
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Your Healthy Harvest
June 14, 2005 11:05 AM
Your Healthy Harvest by Marjorie Flakowitz Energy Times, August 15, 2004
Once frowned on by conventional farmers, organic food has won respect from everyone concerned about the health of both the earth and the people who inhabit it.
Today, organic farming is considered one of the most rapidly growing areas of American agriculture. Organic foods sales topped $9 billion in 2002 and grew about 20%, up to almost $11 billion in 2003 (Organic Trade Association).
So when you buy organic, you join an expanding market that takes advantage of great-tasting, good-for-you food. Long ago, when the practice of farming was first devised, all farming was organic farming. So today's organic movement is bringing farming back to its roots.
But, safe to say, that is not what's motivating most consumers. A main reason for the popularity of organic food derives from the reassurance that organic foods, raised without artificial chemicals and pesticides, cut your exposure to toxic residues. A growing body of research shows organic food is richer in beneficial natural substances, too.
" Organic food and organic farming represent a philosophy that goes beyond just the quality of the food," says Steve Meyerowitz in The Organic Food Guide (Globe Pequot). "It strives to maintain the integrity of the entire food chain-plants, soil, air, water, animals and people. We are all part of the same ecosystem."
By eating organic, you eliminate pollution both from your body and the earth. Because our bodies are made of the animal and plant products we consume, our internal, physiological ecosystem and the earth's environment are inexorably entwined.
Chilling Arctic Evidence
As evidence of this connection, consider what's happened in the Arctic. Researchers who have analyzed Arctic water, ice, snow, soil and plants have found that chemicals used in farming and industry in other parts of the world have traveled north and accumulated in alarming quantity. How and if these chemicals break down depends on sunlight and the amount of organic matter contained in Arctic waters (American Chemical Society, 9/11/03).
" Once pollutants enter the water column, their behavior is poorly understood-particularly the processes that govern their lifetime and concentrations," says Amanda Grannas, PhD, a researcher at Ohio State University. "Such pollutants are now being found in wildlife, from fish to seals to whales, and even in people living in the Arctic."
Dr. Grannas and others looked at the pesticides lindane and hexachlorobenzene (HCB), two chemicals that have migrated to Arctic waters. Lindane is used by American farmers to treat seeds before they are planted. HCB, banned in the US in 1984, is still used in other countries to protect wheat from fungus.
The scientists found that sunlight at the top of Arctic waterways can help break down some pesticides. At lower depths, however, cut off from the sun's rays, pesticides can remain largely intact. In this research, lindane proved to persist much more readily than HCB.
" Lindane is one of the most persistent of pollutants," warns Dr. Grannas. "This could be because it's photochemically inert, whereas pollutants like HCB degrade relatively quickly. The main message is that pollutants can behave quite differently. These pollutants already affect local ecosystems, and could have repercussions for human health."
Organics Means More Benefits
Researchers are also finding that organic produce contains larger quantities of beneficial natural chemicals. For instance, one study (Journal of Agriculture and Food Chemistry 2/26/03) showed that berries and corn grown organically can have almost 60% more polyphenolics. Polyphenolics are antioxidants plants use for protection against disease and which are good for humans. Researchers believe that when crops are grown conventionally, protected by pesticides and herbicides, they produce fewer of these substances. " This really opens the door to more research in this area," says Alyson Mitchell, PhD, assistant professor of food science at University of California at Davis, who led the research.
These scientists compared levels of total polyphenolics and vitamin C content in marionberries (a type of blackberry) and corn grown organically, sustainably or conventionally, and also looked at chemicals in strawberries grown either sustainably or conventionally. (Sustainable farming falls between the organic and conventional methods, and concentrates on farming that's self-sufficient-for example, feeding cows hay you've grown yourself, and then using the cows' manure to fertilize another crop.) They found that organic marionberries and corn had 50% to 58% more polyphenolics. The sustainably grown strawberries had 19% more polyphenolics. And all the organic produce contained more vitamin C.
Self-Defense for Plants
According to Dr. Mitchell, the organic crops contained the high levels of polyphenolics you'd expect to find in wild plants, suggesting that, on conventional farms, pesticides reduce the necessity for plants to make these protective, natural chemicals. " If an aphid is nibbling on a leaf, the plant produces phenolics to defend itself," she says. "[P]henolics guard the plant against these pests."
Pesticides kill insects like aphids and thereby reduce the antioxidants produced by the plant. " This helps explain why the level of antioxidants is so much higher in organically grown food," Mitchell says. "By synthetically protecting the produce from these pests, we decrease their need to produce antioxidants. It suggests that maybe we are doing something to our food inadvertently.
" We know [polyphenolics] are beneficial [to human health], but we don't know what types of polyphenolics are beneficial, or in what quantities," Dr. Mitchell notes. " Originally, the question was just really intriguing to me. I found that the higher level of antioxidants is enough to have a significant impact on health and nutrition, and it's definitely changed the way I think about my food."
Vitamin C in Oranges
Meanwhile, nutritional research on the vitamin C in oranges turns up similar results: organic oranges are richer in this antioxidant nutrient than conventionally grown oranges (Great Lakes REGIONAL Meeting, American Chemical Society, 6/2/02).
The more common supermarket oranges are significantly larger than organically grown oranges, and they have a deeper orange color. Because of their larger size, "we were expecting twice as much vitamin C in the conventional oranges," says Theo Clark, PhD, chemistry professor at Truman State University in Kirksville, Missouri.
But when he isolated the chemicals in the oranges and further refined his search with nuclear magnetic resonance (NMR), spectroscopy demonstrated that organically grown oranges possess 30% more vitamin C than the conventionally grown fruits-even though they are only about half as large.
Dr. Clark isn't sure why organic oranges are richer in vitamin C, but he says, "...[W]e speculate that with conventional oranges, [farmers] use nitrogen fertilizers that cause an uptake of more water, so it sort of dilutes the orange. You get a great big orange but it is full of water and does not have as much nutritional value.
" However, we can only speculate. Other factors such as maturity, climate, processing factors, packaging and storage conditions require consideration." Along with analyzing oranges, Dr. Clark and his research team questioned about 70 people to measure their concept of the nutritional value of organic oranges. In this survey, 85% of the respondents thought that organic oranges have a higher nutritional content than conventionally grown fruit.
Dr. Clark's laboratory work shows that "they were right on." In Dr. Clark's view, these issues are important because consumers have a right to know the real nutritional content of organic produce, and the fact that analyses show that organic fruit has much more vitamin C validates the benefits of eating organic.
Both plants and animals protect themselves from disease with many of the same chemicals. The natural substances that, in a farmer's field, defend vegetables from insects and microbes before they are harvested for your dinner go to work defending your body after you eat and digest them.
When you eat organic you bolster your health with more of these natural wonders. No wonder organic is becoming so popular!
June 12, 2005 01:59 PM
Certified Foods by Glenda Olsen Energy Times, July 13, 2003
What's in your food, and where does it come from? To most American consumers, that question may seem unimportant. But the answers might surprise you. Your food's origin and processing can make a big difference in its nutritional value, for better and for worse. Increasingly, concern over the quality of food and its influence on health are persuading shoppers to take a greater interest in their food. The result: More visits to natural food stores and more sales of organic food.
Once upon a time, food used to be just food. Crops were grown on family farms, and animals were raised in barnyards. But today, corporations have conquered food production in a big way. Agribusiness is just that-a big business in which animals and plants are treated like assembly-line items and raised on factory farms.
While the term "organic" gets tossed around endlessly in the media, the term is often misconstrued. According to the United States Department of Agriculture (USDA), "Organic food is produced by farmers who emphasize the use of renewable resources and the conservation of soil and water to enhance environmental quality for future generations. Organic meat, poultry, eggs and dairy products come from animals that are given no antibiotics or growth hormones."
In addition, organic farmers generally do not use pesticides, sewage sludge or synthetic fertilizers. This type of food is also produced without genetically modified organisms and is not subject to radiation used to zap the bugs on food. Today, USDA-approved certifying agents inspect the farms where organic food is raised to ensure organic standards are followed. In addition, the companies that process food and handle organic food have to be USDA-certified. Meeting these standards allows companies to use the USDA's organic label on foods that are at least 95% organic in origin. Labels for foods that contain between 70% and 95% organic content can use the words "Made With Organic Ingredients," but cannot use the seal.
While the debate over the nutritional benefits of organic food has raged for decades, recent research is beginning to turn up evidence that organically grown fruits and vegetables may contain extra helpings of vitamins and other nutrients. A study at Truman State University in Kirksville, Missouri, found that organically grown oranges contain more vitamin C than conventional supermarket oranges (Great Lakes REGIONAL Meeting, Amer Chem Soc, 6/02).
Theo Clark, PhD, the Truman State professor who investigated the organic oranges, says that when he and his students began their research, "We were expecting twice as much vitamin C in the conventional oranges" because they are larger than organic oranges. To his surprise, chemical isolation combined with nuclear magnetic resonance (NMR) spectroscopy revealed that the organically grown oranges contained up to 30% more vitamin C than the conventionally grown fruits-even though they were only about half the size. "We speculate that with conventional oranges, (farmers) use nitrogen fertilizers that cause an uptake of more water, so it sort of dilutes the orange. You get a great big orange but it is full of water and doesn't have as much nutritional value," Dr. Clark says. "However, we can only speculate. Other factors such as maturity, climate, processing factors, packaging and storage conditions require consideration."
If you want to avoid pesticide residues in your food, research shows that going organic can make it much less likely that you or your family consumes these unwanted chemicals. Research, for instance, into the diets of children (Enviro Hlth Persp 3/03) shows that dining on organic fruits and vegetables, and organic juice, can lower kids' intake of pesticides.
These scientists took a look at the organophosphorus (OP) pesticide breakdown products in the blood of kids ages two to five who ate conventional supermarket produce and compared it with the OP found in organic kids.
The children on the organic diet had less OP in their blood than the other kids. As a matter of fact, the children on the conventional diet had six times the dimethyl metabolites, dimethyl being a pesticide suspected of affecting nerve function and growth. "Consumption of organic produce appears to provide a relatively simple way for parents to reduce their children's exposure to OP pesticides," note the researchers. "Organic foods have been growing in popularity over the last several years," says Jim Burkhart, PhD, science editor for the journal that published the study. "These scientists studied one potential area of difference from the use of organic foods, and the findings are compelling."
On the way to tonight's dinner, researchers have created genetically modified organisms (GMO), plants and animals that have been transgenically engineered. In the food world, that means organisms containing genes inserted from another species. Chances are if you eat food purchased at the typical supermarket, those comestibles contain GMO ingredients. In the United States, food companies are not required to label for GMO content.
A growing number of American consumers are upset about not being told about the GMO products in their food. But industry scientists, worried that informed consumers may someday turn their back on GMO foods, consider consumer ignorance to be an acceptable state of affairs.
For instance, the American Society of Plant Biologists (ASPB) is fighting regulations that would require GMO labeling. According to ASPB President Daniel Bush, PhD, of the University of Illinois at Urbana, "The language...(in these types of regulations) is based on a system of beliefs of what is 'natural,' rather than a scientifically defined set of criteria focused on content and nutritional value. This is a radical departure from food labeling up to now, which is designed to maximize useful information for consumers concerning what is in the food they are buying."
Dr. Bush continues, "There are, of course, examples of voluntary labeling standards in the food industry that reflect how foods are processed, such as organic foods. The voluntary organic labeling standards were sought by the organic food industry. Kosher foods are also labeled as having been produced in accordance with specific beliefs. However, mandatory labeling of targeted production methods has never before been required and we believe would obscure rather than clarify important issues of food safety."
In other words, Dr. Bush opposes GMO labeling because he feels it would unnecessarily stigmatize GMO food items. Others are not so sanguine about the safety of GMO foods.
The arguments against GMO foods include:
These types of risks have motivated industry groups to urge more regulation of GMO crops. The Food Marketing Institute, the Grocery Manufacturers of America (GMA) and the National Restaurant Association, plus seven other food groups, are worried that GMO plants grown to produce pharmaceutical drugs could contaminate the food supply and destroy consumer trust in food.
Mary Sophos, a vice president of GMA, warns, "To minimize the possible risks, a clear system of regulatory enforcement and liability needs to be in place. Until then, no permits for new field trials or for commercialization should be issued because there is no room for trial and error."
These food industry groups have voiced their concerns to the Food and Drug Administration (FDA) and the USDA. Last year, the USDA forced ProdiGene Inc., a biotech firm, to dispose of 500,000 bushels of soybeans contaminated with a drug meant to treat diabetes. What are the chances of more GMO accidents? No one knows. But if you buy and eat organic, you minimize your risk and maximize your chances of dining on safer food.
the effect of vinpocetine on cerebral blood flow (CBF) ...
May 26, 2005 10:37 AM
Abstract Objectie :To investigate the effect of vinpocetine on cerebral blood flow (CBF) in the compromised circulation of a stroke affected hemisphere using transcranial Doppler (TCD) and near infrared spectroscopy (NIRS) methods. Methods : 43 patients with ischemic stroke were randomized into vinpocetine (VP) and placebo group in a double blind, placebo-controlled study of the effect of a single-dose i.v. infusion of vinpocetine on cerebral blood perfusion and oxygenation. In the VP group 20 mg VP in 500 ml saline, in the placebo group 500 ml saline alone were administered. The concentrations of oxy-, reduced- and total hemoglobin were measured by NIRS frontolaterally on the side of lesion while the mean cerebral blood flow velocity (CBFV), the pulsatility index (PI) and Doppler spectral intensity (DSI) were monitored by TCD in the middle cerebral artery on the same side. Values were averaged for the first 5 min prior to the infusion and for the last 5 min of infusion and they were compared between groups. Results : The concentration of all three chromophores increased during infusion in the VP group (mean dHbT=1.03, CI95=0.84, P=0.058; mean dHbO=0.92, CI95=0.91, P=0.071; mean dHb=0.10, CI95=0.21, P=0.297). The HbT and HbO showed a substantially smaller increase in the placebo group (mean dHbT=0.31, CI95=0.74, P=0.22; mean dHbO=0.57, CI95=0.80, P=0.094) while the Hb decreased (mean dHb=-0.26, CI95=0.29, P=0.05). Comparing to the placebo group Hb increased significantly in the VP group (P=0.027) while the increase of HbO and HbT did not reach the level of significance (P=0.29 and 0.11). DSI showed a significantly larger increase in the VP than in placebo group (dDSI=25.8 CI95=8.8 [VP]; dDSI=3.3, CI95=3.7 [Placebo], P0.005). The CBFV and PI did not differ significantly between groups. (dVm=5.02.98 cm/s [VP], dVm=4.12.57 cm/s [Placebo], P=0.28; dPI=0.08 [VP], dPI=0.09 [Placebo]; P=0.47). Conclusion :VP increases cerebral perfusion and parenchymal oxygen extraction as well. The increased perfusion was indicated by NIRS and by TCD measurement of DSI while conventional velocity and pulsatility measurements failed to detect theses effects. NIRS is a sensitive, www.elsevier.com/locate/ejultrasou Abbreiations :BP, blood pressure; CI, confidence interval; CBFV, cerebral blood flow velocity; CT, computer tomography; CytO, cytochrome-oxydase; DSI, Doppler spectral intensity; Hb, deoxyhaemoglobin; HbO, oxyhaemoglobin; HbT, total haemoglobin; HR, heart rate; MAP, mean arterial pressure; MCA, middle cerebral artery; MRI, magnetic resonance imaging; NIRS, near infrared spectroscopy; PET, positron emission tomography; PI, pulsatility index; TCD, transcranial Doppler; US, ultrasonography; VP, vinpocetine.