Addiction Commonality

Alcohol, Opiates, Fat and Sugar are all Addictive Substances: this blog is about that "addiction sameness".

Butter Pig Family

* A butter sculpture of a sow and her piglets

Monday, December 24, 2012

Truth About Salt


Salt, We Misjudged You

        Joon Mo Kang and Susie Choi

    Oakland, Calif.


    THE first time I questioned the conventional wisdom on the nature of a healthy diet, I was in my salad days, almost 40 years ago, and the subject was salt. Researchers were claiming that salt supplementation was unnecessary after strenuous exercise, and this advice was being passed on by health reporters. All I knew was that I had played high school football in suburban Maryland, sweating profusely through double sessions in the swamplike 90-degree days of August. Without salt pills, I couldn’t make it through a two-hour practice; I couldn’t walk across the parking lot afterward without cramping.


    While sports nutritionists have since come around to recommend that we should indeed replenish salt when we sweat it out in physical activity, the message that we should avoid salt at all other times remains strong. Salt consumption is said to raise blood pressure, cause hypertension and increase the risk of premature death. This is why the Department of Agriculture’s dietary guidelines still consider salt Public Enemy No. 1, coming before fats, sugars and alcohol. It’s why the director of the Centers for Disease Control and Prevention has suggested that reducing salt consumption is as critical to long-term health as quitting cigarettes.


    And yet, this eat-less-salt argument has been surprisingly controversial — and difficult to defend. Not because the food industry opposes it, but because the actual evidence to support it has always been so weak.


    When I spent the better part of a year researching the state of the salt science back in 1998 — already a quarter century into the eat-less-salt recommendations — journal editors and public health administrators were still remarkably candid in their assessment of how flimsy the evidence was implicating salt as the cause of hypertension.


    “You can say without any shadow of a doubt,” as I was told then by Drummond Rennie, an editor for The Journal of the American Medical Association, that the authorities pushing the eat-less-salt message had “made a commitment to salt education that goes way beyond the scientific facts.”


    While, back then, the evidence merely failed to demonstrate that salt was harmful, the evidence from studies published over the past two years actually suggests that restricting how much salt we eat can increase our likelihood of dying prematurely. Put simply, the possibility has been raised that if we were to eat as little salt as the U.S.D.A. and the C.D.C. recommend, we’d be harming rather than helping ourselves.


    WHY have we been told that salt is so deadly? Well, the advice has always sounded reasonable. It has what nutritionists like to call “biological plausibility.” Eat more salt and your body retains water to maintain a stable concentration of sodium in your blood. This is why eating salty food tends to make us thirsty: we drink more; we retain water. The result can be a temporary increase in blood pressure, which will persist until our kidneys eliminate both salt and water.


    The scientific question is whether this temporary phenomenon translates to chronic problems: if we eat too much salt for years, does it raise our blood pressure, cause hypertension, then strokes, and then kill us prematurely? It makes sense, but it’s only a hypothesis. The reason scientists do experiments is to find out if hypotheses are true.


    In 1972, when the National Institutes of Health introduced the National High Blood Pressure Education Program to help prevent hypertension, no meaningful experiments had yet been done. The best evidence on the connection between salt and hypertension came from two pieces of research. One was the observation that populations that ate little salt had virtually no hypertension. But those populations didn’t eat a lot of things — sugar, for instance — and any one of those could have been the causal factor. The second was a strain of “salt-sensitive” rats that reliably developed hypertension on a high-salt diet. The catch was that “high salt” to these rats was 60 times more than what the average American consumes.


    Still, the program was founded to help prevent hypertension, and prevention programs require preventive measures to recommend. Eating less salt seemed to be the only available option at the time, short of losing weight. Although researchers quietly acknowledged that the data were “inconclusive and contradictory” or “inconsistent and contradictory” — two quotes from the cardiologist Jeremiah Stamler, a leading proponent of the eat-less-salt campaign, in 1967 and 1981 — publicly, the link between salt and blood pressure was upgraded from hypothesis to fact.


    In the years since, the N.I.H. has spent enormous sums of money on studies to test the hypothesis, and those studies have singularly failed to make the evidence any more conclusive. Instead, the organizations advocating salt restriction today — the U.S.D.A., the Institute of Medicine, the C.D.C. and the N.I.H. — all essentially rely on the results from a 30-day trial of salt, the 2001 DASH-Sodium study. It suggested that eating significantly less salt would modestly lower blood pressure; it said nothing about whether this would reduce hypertension, prevent heart disease or lengthen life.


    While influential, that trial was just one of many. When researchers have looked at all the relevant trials and tried to make sense of them, they’ve continued to support Dr. Stamler’s “inconsistent and contradictory” assessment. Last year, two such “meta-analyses” were published by the Cochrane Collaboration, an international nonprofit organization founded to conduct unbiased reviews of medical evidence. The first of the two reviews concluded that cutting back “the amount of salt eaten reduces blood pressure, but there is insufficient evidence to confirm the predicted reductions in people dying prematurely or suffering cardiovascular disease.” The second concluded that “we do not know if low salt diets improve or worsen health outcomes.”


    The idea that eating less salt can worsen health outcomes may sound bizarre, but it also has biological plausibility and is celebrating its 40th anniversary this year, too. A 1972 paper in The New England Journal of Medicine reported that the less salt people ate, the higher their levels of a substance secreted by the

    kidneys, called renin, which set off a physiological cascade of events that seemed to end with an increased risk of heart disease. In this scenario: eat less salt, secrete more renin, get heart disease, die prematurely.


    With nearly everyone focused on the supposed benefits of salt restriction, little research was done to look at the potential dangers. But four years ago, Italian researchers began publishing the results from a series of clinical trials, all of which reported that, among patients with heart failure, reducing salt consumption increased the risk of death.


    Those trials have been followed by a slew of studies suggesting that reducing sodium to anything like what government policy refers to as a “safe upper limit” is likely to do more harm than good. These covered some 100,000 people in more than 30 countries and showed that salt consumption is remarkably stable among populations over time. In the United States, for instance, it has remained constant for the last 50 years, despite 40 years of the eat-less-salt message. The average salt intake in these populations — what could be called the normal salt intake — was one and a half teaspoons a day, almost 50 percent above what federal agencies consider a safe upper limit for healthy Americans under 50, and more than double what the policy advises for those who aren’t so young or healthy. This consistency, between populations and over time, suggests that how much salt we eat is determined by physiological demands, not diet choices.


    One could still argue that all these people should reduce their salt intake to prevent hypertension, except for the fact that four of these studies — involving Type 1 diabetics, Type 2 diabetics, healthy Europeans and patients with chronic heart failure — reported that the people eating salt at the lower limit of normal were more likely to have heart disease than those eating smack in the middle of the normal range. Effectively what the 1972 paper would have predicted.


    Proponents of the eat-less-salt campaign tend to deal with this contradictory evidence by implying that anyone raising it is a shill for the food industry and doesn’t care about saving lives. An N.I.H. administrator told me back in 1998 that to publicly question the science on salt was to play into the hands of the industry. “As long as there are things in the media that say the salt controversy continues,” he said, “they win.”


    When several agencies, including the Department of Agriculture and the Food and Drug Administration, held a hearing last November to discuss how to go about getting Americans to eat less salt (as opposed to whether or not we should eat less salt), these proponents argued that the latest reports suggesting damage from lower-salt diets should simply be ignored. Lawrence Appel, an epidemiologist and a co-author of the DASH-Sodium trial, said “there is nothing really new.” According to the cardiologist Graham MacGregor, who has been promoting low-salt diets since the 1980s, the studies were no more than “a minor irritation that causes us a bit of aggravation.”


    This attitude that studies that go against prevailing beliefs should be ignored on the basis that, well, they go against prevailing beliefs, has been the norm for the anti-salt campaign for decades. Maybe now the prevailing beliefs should be changed. The British scientist and educator Thomas Huxley, known as Darwin’s bulldog for his advocacy of evolution, may have put it best back in 1860. “My business,” he wrote, “is to teach my aspirations to conform themselves to fact, not to try and make facts harmonize with my aspirations.”







    A Robert Wood Johnson Foundation Independent Investigator in Health Policy Research and the author of “Why We Get Fat.”

    A version of this op-ed appeared in print on June 3, 2012, on page SR8 of the New York edition with the headline: Salt, We Misjudged You.









     

    David Katz, M.D.: Soda, Supply, and Demand: Can We Share a Taste for Change?


     

    There are good reasons -- both upstream and down -- why Mayor Bloomberg should want to ban the sale of enormous sodas in New York City.
    The distal, downstream reasons are dire health outcomes aided and abetted by soda consumption: obesity, diabetes, and even heart disease, cancer, and stroke in children as well as adults. This toxic tide is well documented, as is the important contribution the empty calories and copious sugar of soft drinks (and related sugar-sweetened beverages that often do a better job of hiding their nature under an evocative name like "sports" drink) make to it.
    The proximal, upstream reasons are that people buy enormous sodas in enormous quantities because one, they tend to think more for less is a bargain; and two, they like it!
    Mayor Bloomberg presumably has concluded that these are not likely to change, and the only way to get past them and deal with those downstream consequences and their costs is to take the decision out of your hands and into his own, at least partially.
    Perhaps he's right, and that's why debate is spirited on both sides of the "Should we ban big sodas?" divide. (My closest colleagues are divided on the issue.)
    But I am more sanguine on removing these upstream impediments to healthful change. I think a prod to common sense, and a well-tended meme could do the job. The first of these upstream barriers is obsolete nonsense that doesn't withstand the meanest application of common sense; and the second can be fixed by nurturing our nature.

    1) The notion that more -- measured in calories -- is better used to make sense. It made sense throughout the long sweep of human history during which calories were a rate-limiting commodity in the struggle to survive. It made sense even more recently when calories were still relatively scarce and hard to get, and physical activity unavoidable. It made so much sense, in fact, that we equated food/calories with security and success, and spoke of bringing home the bacon, being the breadwinner, and making dough.

    It made sense THEN. But now, it makes as much sense as bringing coals to Newcastle!

    Getting more of what you don't have enough of is a good thing. Getting more of what you already have too much of is anything but!

    More calories and more sugar at no or little extra charge means getting fat and probably sick for free -- and winning the opportunity to spend a fortune trying to fix that! Come on folks, wake up and smell the SlimFast -- this is NOT a bargain anymore! In the modern era, nutrients per dollar -- vitality per dollar -- are far better measures of food value than volume or calories. More nutritious foods do not need to cost more, particularly when the right metrics are used -- but they are certainly WORTH more. It's past time for our culture to start acting accordingly.


    2) Regarding the second, the fact that people like soda -- I'll start with the personal. I used to drink soda as a kid, being raised on a typical American diet until I was old enough to see the light and take matters into my own hands.

    Since I first gave up soda (I have not had one in literally decades at this point), I have had several occasions to taste it -- whether on purpose or accidentally -- and had this basic reaction: yuck. When one doesn't drink soft drinks for some time and then goes back, they taste far more like what they are -- extremely sweet, highly processed and rather dubious concoctions -- than the treat we pretend them to be.

    I don't dislike soda because soda isn't good for me. I dislike soda because I dislike soda! Once I gave my taste buds a soda-free holiday, they did the rest. They went through rehab, rediscovered their native predilection for native foods, and made it easy for me to avoid soda for the rest of my life. I don't like it. It's too sweet, too overtly "factory food."

    But getting taste buds not to like something isn't enough. The rest of the job is getting them to like foods -- love foods -- that love you back. This, too, is within reach.
    A large volume of research I have reviewed for several of the books I've written, 20 years of clinical practice, and personal experience convince me that taste buds are malleable little fellas: When they can't be with a food they love, they pretty readily learn to love the food they're with. And once they do, familiarity becomes a powerful reinforcing agent. We like what we know.

    This can work for good, or ill. Bathe your taste buds all day long -- knowingly, or unknowingly -- in copious additions of sugar and salt, and you will come to prefer more and more of these. Dial down your exposures, and you can reverse-engineer this process, rehabilitate your taste buds, and come to love food far more likely to love you back.

    Most of the evidence I've encountered -- both published and personal -- suggests that habituation to new and improved versions of foods and recipes happens in as little as two weeks, or even less. A good example is a transition from whole milk to skim milk.

    If you like whole milk and try skim, it tastes a bit like dishwater at first. If you stick with skim milk for a few days, it becomes hard to remember what the problem was. Hang in there for a week or two, and you will register the taste and texture of skim milk as just... milk. Retry whole milk at this point, and it will make you think of wallpaper paste.

    The same basic principle applies to all foods. And there is enormous opportunity to trade up choices within food categories, and derive stunning health benefits -- acclimation, but no real heavy lifting, required.

    So here's the thing: If it takes only about two weeks to adjust to new and better foods, then what stands between us and the dietary promised land where we can all as a matter of routine love foods that love us back, is a hill only two weeks high. For far too long, we have been making a mountain out of this molehill!

    But to climb it requires the coordinated efforts of the supply side, and the demand side.

    For their part, food suppliers like to contend they are only feeding us what we want, just trying to keep the customer satisfied. But the reality is that they helped create the prevailing palate, and are now profiting mightily from feeding it. They share in the responsibility of rehabilitating it by providing reformulated products that are genuinely better for our health -- not products that merely pretend to be.

    But the industry is right to note they can't sell what we won't buy! And the precautionary tales they cite -- the fate of McLean Deluxe or Alphabits cereal (nutritionally improved, only to fail commercially) -- are valid. If we want truly better food choices, we have to choose them when they become available!

    So to change demand, we have to change supply; and to change supply, we have to change demand. This has "impasse" written all over it, and it's why we have been stuck on this side of the molehill for so long.

    But I believe we can get over it. Imagine a program in which the "taste for change" is shared by both demand and supply. We might, for instance, develop a public service campaign to raise awareness in the population about the adaptability of taste buds, about that two-week-high hill of taste habituation, and about the need to give new and better-for-you products a trial period of a couple of weeks before reaching a verdict.

    This campaign could, in theory, be timed to anticipate a whole new crop of better-for-you products released by major food companies -- just like movie trailers are released to build the buzz for a new movie. If you've seen a trailer and think you are going to love a movie, you don't walk out if the first few minutes happen to be slow going. You have expectations, and you give them a chance. By the end, you may well wind up loving the film. Could we perhaps cultivate the same "give it a reasonable chance" attitude about new and better-for-us foods?

    Ideally, these products would be subjected to an objective measure of nutritional quality in the R&D phase so we could all be confident they are TRULY better for us, and not merely depend on the company saying so.

    If we prime the public reception for such products, perhaps we would see robust sales when they are introduced. If people know to hang in there for a couple of weeks, they could adjust to the new formulations and actually learn to prefer them.

    And if better-for-you products come to be preferred, it would encourage food companies to produce more of them -- and less of the alternative. Of course we are naturally, genetically adapted to like sweet -- along with salt, fat, calories, and variety. Predilections for all of these favored survival during the long sweep of human history before the advent of agriculture, and for some time afterward.

    Human babies are born with a preference for sweet, and it's a good thing. They might otherwise turn up their tiny noses at the first, critical, life-sustaining substance: mother's milk, sweetened with lactose.

    And that preference for sweet is preserved into adulthood -- because it leads away from poisons, which tend to be bitter, and toward the quickly available energy in honey and wild fruits. Our Stone Age ancestors who didn't like sweet might forego such sustenance, making them less likely to survive and reproduce. And let's face it: People who don't survive to reproduce make very poor ancestors!

    But this is just our nature -- it ignores the power of nurture! Richard Dawkins, arguably the most influential evolutionary biologist since Darwin, argues brilliantly at the close of his seminal book The Selfish Gene that unthinking genes got us here -- but they do not control our destiny! Units of cultural transmission -- units of choice -- called memes can carry the day.

    We can make health a prevailing cultural meme by replacing our unconscious adaptations with conscious choices. It's true, we are adapted to like sweet. But we are also adapted to be terrestrial -- yet can learn to swim, and to hold our breath under water. We are adapted to ambulate -- but can learn to ride a bike. Both require skills we can, by choice, obtain.

    We can choose what we chew -- and swallow -- as well! We can replace the thoughtlessness of genes with the thoughtfulness of memes. We can make health a meme. But only by choice!

    The current impasse -- junky foods feeding junk-loving palates -- was engineered, and can be reverse-engineered. The hill is not all that high, and the prize on the other side is truly great.

    We can get there from here, but only if we acknowledge the interdependence of supply and demand, and share a taste for change.



    -fin




    Dr. David L. Katz; www.davidkatzmd.com
    www.turnthetidefoundation.org


    Find Dr. David Katz on Facebook.
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    For more on David Katz, M.D., click here.
    For more on diet and nutrition, click here.
     


     Source:
    David Katz, M.D.: Soda, Supply, and Demand: Can We Share a Taste for Change?




    Mark Hyman, MD: The Last Diet You Will Ever Need




    Why is it that we believe we can feed our bodies industrial, nutrient-depleted food-like substances empty of life and be healthy? How did we come to believe that food industry chemicals and processing could replace nature-made foods?

    A hundred years ago all food was organic, local, seasonal, fresh or naturally-preserved by ancient methods. All food was food. Now less than 3 percent of our agricultural land is used to grow fruits and vegetables, which should make up 80 percent of our diet. Today there are not even enough fruits and vegetables in this country to allow all Americans to follow the government guidelines to eat five to nine servings a day.

    What most of us are left with is industrial food. And who knows what lurks in the average boxed, packaged, or canned factory-made science project.

    When a French fry has more than 20 ingredients and almost all of them are not potato, or when a fast food hamburger contains very little meat, or when the average teenager consumes 34 teaspoons of sugar a day, we are living in a food nightmare, a sci-fi horror show.

    The very fact that we are having a national conversation about what we should eat, that we are struggling with the question about what the best diet is, is symptomatic of how far we have strayed from the natural conditions that gave rise to our species, from the simple act of eating real, whole, fresh food. When it becomes a revolutionary act to eat real food, we are in trouble.

    The food industry, which is the second biggest employer in America after the federal government, heavily influences the media and government agencies that regulate it (U.S. Department of Agriculture, Food and Drug Administration and Congress) and intentionally confuses and confounds us.

    Low-fat is good -- so anything with a "low-fat" on the label must be healthy. But Coke is 100 percent fat-free and that doesn't make it a health food. Now we are told to eat more whole grains, so a few flecks of whole grains are sprinkled on sugary cereals. That doesn't make them a health food either.

    The best advice is to avoid foods with health claims on the label, or better yet avoid foods with labels in the first place.

    In the 21st century our tastes buds, our brain chemistry, our biochemistry, our hormones and our kitchens have been hijacked by the food industry. The food-like substances proffered by the industrial food system food trick our taste buds into momentary pleasure, but not our biology, which reacts, rejects and reviles the junk plied on our genes and our hormonal and biochemical pathways. We need to unjunk our biology.

    Industrial processing has given rise to an array of addictive, fattening, metabolism-jamming chemicals and compounds including aspartame, MSG (monosodium glutamate), high-fructose corn syrup and trans fats, to name the biggest offenders.

    MSG is used to create fat mice so researchers can study obesity. MSG is an excito-toxin that stimulates your brain to eat uncontrollably. When fed to mice, they pig out and get fat. It is in 80 percent of processed foods and mostly disguised as "natural flavorings."

    And trans fat, for example, is derived from a real food -- vegetable oil -- chemically altered to resist degradation by bacteria, which is why modern cookies last on the shelf for years.

    But the ancient energy system of your cells is descended from bacteria and those energy factories, or mitochondria, cannot process these trans fats either. Your metabolism is blocked and weight gain and Type 2 diabetes ensue.

    Your tongue can be fooled and your brain can become addicted to the slick combinations of fat, sugar, and salt pumped into factory-made foods, but your biochemistry cannot, and the result is the disaster of obesity and chronic disease we have in America today.

    No wonder 68 percent of Americans are overweight. No wonder that from 1960 to today obesity rates have risen from 13 percent to 36 percent and soon will reach 42 percent. Over the last decade the rate of pre-diabetes or diabetes in teenagers has risen from 9 percent to 23 percent.

    Really? Almost one in four of our kids now has pre-diabetes or Type 2 diabetes? And 37 percent of normal weight kids have one or more cardiovascular risk factors, such as high blood pressure, high cholesterol or high blood sugar, because even though factory food doesn't make them fat, it makes them sick!

    It is time to take our kitchens and our homes back. Transforming the food industry seems monumental, a gigantic undertaking. But it is not. It is a small problem. In the small places in our lives, our shopping carts, the fridge, the cupboard, the kitchen and on our dining room table is where all the power is.

    It is the hundreds of little choices, the small actions you make every day, that will topple the monolithic food industry. This century is littered with the bodies and institutions of fallen despots and despotic regimes -- from the fall of the Berlin wall to the Arab spring. There is no force more powerful than a small group of individuals with a desire to end injustice and abuse.

    A very simple idea can break through the confusion and plant the seeds of a revolution. Our bodies were designed to run on real food. Our natural default state is health. We need to simplify our way of eating.

    Unjunk our diet, detoxify our bodies and our minds and we heal. Simply choose foods such as vegetables, fruits, nuts, seeds, healthy oils (olive oil, fish oil, avocado and coconut oil), small amounts of whole grains and beans and lean animal protein including small wild fish, grass fed meat, and farm eggs.

    There are no diets, no calorie counting, and no measuring fats, carbs or protein grams. None of that matters if you choose real, whole, fresh, live foods. If you choose quality, the rest takes care of itself.

    When you eat empty industrial food with addictive chemicals and sugar, your body craves more, looking for nutrients in a dead food where none are to be found. Yet after eating nutrient dense fresh food for a few days the biological addiction to industrial food is broken, and in a few more days your cells begin to rejuvenate and you heal from the inside out.

    And the side effects are all good ones: effortless weight loss, reversal of high blood pressure, diabetes, high cholesterol, clearing of brain fog, lifting of depression and fatigue and even better skin, hair and nails.

    What is more important than what you take out of your diet is what you put in. Add in the good stuff and there won't be room for the bad. Mother Nature is the best pharmacist and food is the most powerful drug on the planet. It works faster, better and cheaper than any other pharmaceutical.

    Whole, real food spiced up with a few super foods such as chia, hemp, parsley, cilantro, coconut and green juicing can beneficially affect thousands of genes, regulate dozens of hormones, and enhance the function of tens of thousands of protein networks.

    Dinner is a date with the doctor. What you put at the end of your fork is more powerful than anything you will ever find at the bottom of a prescription bottle. The roadmap to health is simple: eat real food, practice self-love rather than self-loathing, imagine yourself well, get sufficient sleep, and incorporate movement into your life. The solution to our health crisis and obesity epidemic is not complicated.

    Health and happiness are often just a few days away. Each of us has the capacity to make the small changes in our lives that will create big changes in our food landscape, our agriculture and even our government policies.

    I hope you will use the power of your fork to be part of the start of a true food revolution.

    Now I'd like to hear from you...

    Have you changed your eating habits to include more real food?

    What have you done to create a healthier diet for your family?

    Have you eliminated MSG from your diet?





    Mark Hyman, M.D.



    Mark Hyman, M.D. is a practicing physician, founder of The UltraWellness Center, a four-time New York Times bestselling author, and an international leader in the field of Functional Medicine. You can follow him on Twitter, connect with him on LinkedIn, watch his videos on YouTube, become a fan on Facebook, and subscribe to his newsletter.
    For more by Mark Hyman, M.D., click here.


     Source:
     Mark Hyman, MD: The Last Diet You Will Ever Need



    China researchers link obesity to bacteria

     
    December 19th, 2012 in Overweight and Obesity



    Chinese researchers have identified a bacteria which may cause obesity, according to a new paper suggesting diets that alter the presence of microbes in humans could combat the condition.

    Researchers in Shanghai found that mice bred to be resistant to obesity even when fed high-fat foods became excessively overweight when injected with a kind of human bacteria and subjected to a rich diet.

    The bacterium—known as enterobacter—had been linked with obesity after being found in high quantities in the gut of a human volunteer, said the report, written by researchers at Shanghai's Jiaotong University.

    The mice were injected with the bacterium for up to 10 weeks as part of the experiment.

    The experiments show that the bacterium "may causatively contribute to the development of obesity" in humans, according to the paper published in the peer-reviewed journal of the International Society for (ISMEJ).

    A human patient lost over 30 kilograms in nine weeks after being placed on a diet of ", traditional Chinese and prebiotics", which reduced the bacterium's presence in the patient's gut to "undetectable" levels, the paper said.


    One of the report's authors, Zhao Liping, lost 20 kilograms in two years after adopting a diet of fermented probiotic foods such as bitter melon to adjust the balance of bacteria in his gut, the American magazine Science said in an article this year on his previous research.

    Zhao's work on the role of bacteria in obesity is inspired by traditional Chinese beliefs that the gut is the "foundation for human health", Science reported.

    The scientists wrote in their latest paper that they "hope to identify more such obesity-inducing bacteria from various " in future research.

    Obesity worldwide has more than doubled since 1980,
     according to the , with 
    more than 500 million adults worldwide suffering from the condition according to 2008 statistics.



    (c) 2012 AFP
    "China researchers link obesity to bacteria." December 19th, 2012.


    Source:
    http://medicalxpress.com/news/2012-12-china-link-obesity-bacteria.html

    China researchers link obesity to bacteria

    ....................................................................

    *Remember ulcers were discovered to be caused by bacteria after years of other things, like stress, were blamed for causing the condition.



    Friday, December 21, 2012

    Grapefruit and Drugs Often Don't Mix - NYTimes.com

    This is somewhat shocking information but you may see one of your medications on the list.  It is very informative to go to the list and compare the drugs you take currently with the list to protect yourself from harm.

    List:  http://www.cmaj.ca/content/suppl/2012/11/26/cmaj.120951.DC1/grape-bailey-1-at.pdf

     
    John Cohoe
    The Consumer
    Advice on money and health.


    The patient didn’t overdose on medication.  She overdosed on grapefruit juice.

    The 42-year-old was barely responding when her husband brought her to the emergency room. Her heart rate was slowing, and her blood pressure was falling.

    Doctors had to insert a breathing tube, and then a pacemaker, to revive her.

    They were mystified: The patient’s husband said she suffered from migraines and was taking a blood pressure drug called verapamil to help prevent the headaches. But blood tests showed she had an alarming amount of the drug in her system, five times the safe level.

    Did she overdose? Was she trying to commit suicide? It was only after she recovered that doctors were able to piece the story together.

    “The culprit was grapefruit juice,” said Dr. Unni Pillai, a nephrologist in St. Louis, Mo., who treated the woman several years ago and later published a case report.

    “She loved grapefruit juice, and she had such a bad migraine, with nausea and vomiting, that she could not tolerate anything else.”

    The previous week, she had been subsisting mainly on grapefruit juice. Then she took verapamil, one of dozens of drugs whose potency is dramatically increased if taken with grapefruit. In her case, the interaction was life-threatening.

    Last month, Dr. David Bailey, a Canadian researcher who first described this interaction more than two decades ago, released an updated list of medications affected by grapefruit. There are now 85 such drugs on the market, he noted, including common cholesterol-lowering drugs, new anticancer agents, and some synthetic opiates and psychiatric drugs, as well as certain immunosuppressant medications taken by organ transplant patients, some AIDS medications, and some birth control pills and estrogen treatments. (The full list is online; your browser must be configured to handle PDF files.)

    “What drove us to write this paper was the number of new drugs that have come out in the last four years,” said Dr. Bailey, a clinical pharmacologist at the Lawson Health Research Institute, who first discovered the interaction by accident in the 1990s.

    How often such reactions occur, however, and how often they are triggered in people consuming regular amounts of juice is debated by scientists. Dr. Bailey believes many cases are missed because doctors don’t think to ask if patients are consuming grapefruit or grapefruit juice.

    Even if such incidents are rare, Dr. Bailey argued, they are predictable and entirely avoidable. Many hospitals no longer serve juice, and some prescriptions carry stickers warning patients to avoid grapefruit.

    “The bottom line is that even if the frequency is low, the consequences can be dire,” he said. “Why do we have to have a body count before we make changes?”

    For 43 of the 85 drugs now on the list, consumption with grapefruit can be life-threatening, Dr. Bailey said. Many are linked to an increase in heart rhythm, known as torsade de pointes, that can lead to death. It can occur even without underlying heart disease and has been seen in patients taking certain anticancer agents, erythromycin and other anti-infective drugs, some cardiovascular drugs like quinidine, the antipsychotics lurasidone and ziprasidone, gastrointestinal agents cisapride and domperidone, and solifenacin, used to treat overactive bladders.

    Taken with grapefruit, other drugs like fentanyl, oxycodone and methadone can cause fatal respiratory depression. The interaction also can be caused by other citrus fruits, including Seville oranges, limes and pomelos; one published case report has suggested that pomegranate may increase the potency of certain drugs.

    Older people may be more vulnerable, because they are more likely to be both taking medications and drinking more grapefruit juice. The body’s ability to cope with drugs also weakens with age, experts say.

    Under normal circumstances, the drugs are metabolized in the gastrointestinal tract, and relatively little is absorbed, because an enzyme in the gut called CYP3A4 deactivates them. But grapefruit contains natural chemicals called furanocoumarins, that inhibit the enzyme, and without it the gut absorbs much more of a drug and blood levels rise dramatically.

    For example, someone taking simvastatin (brand name Zocor) who also drinks a small 200-milliliter, or 6.7 ounces, glass of grapefruit juice once a day for three days could see blood levels of the drug triple, increasing the risk for rhabdomyolysis, a breakdown of muscle that can cause kidney damage.

    Estradiol and ethinyl estradiol, forms of estrogen used in oral contraceptives and hormone replacement, also interact with grapefruit juice. In one case in the journal Lancet, a 42-year-old woman taking the birth control pill Yaz developed a very serious clot that threatened her leg several days after she started eating just one grapefruit a day, said Dr. Lucinda Grande, a physician in Lacey, Wash., and an author of the case report.

    But Dr. Grande also noted that the patient had other risk factors and the circumstances were unusual. “The reason we published it as a case report was because it was so uncommon,” she said. “We need to be careful not to exaggerate this.”

    Some drugs that have a narrow “therapeutic range” — where having a bit too much or too little can have serious consequences — require vigilance with regard to grapefruit, said Patrick McDonnell, clinical professor of pharmacy practice at Temple University. These include immunosuppressant agents like cyclosporine that are taken by transplant patients to prevent rejection of a donor organ, he said.

    Still, Dr. McDonnell added, most patients suffering adverse reactions are consuming large amounts of grapefruit. “There’s a difference between an occasional section of grapefruit and someone drinking 16 ounces of grapefruit juice a day,” he said.

    And, he cautioned, “Not all drugs in the same class respond the same way.” While some statins are affected by grapefruit, for instance, others are not.

    Here is some advice from experts for grapefruit lovers:

    ¶ If you take oral medication of any kind, check the list to see if it interacts with grapefruit. Make sure you understand the potential side effects of an interaction; if they are life-threatening or could cause permanent injury, avoid grapefruit altogether. Some drugs, such as clopidogrel, may be less effective when taken with grapefruit.

    ¶ If you take one of the listed drugs a regular basis, keep in mind that you may want to avoid grapefruit, as well as pomelo, lime and marmalade. Be on the lookout for symptoms that could be side effects of the drug. If you are on statins, this could be unusual muscle soreness.

    ¶It is not enough to avoid taking your medicine at the same time as grapefruit. You must avoid consuming grapefruit the whole period that you are on the medication.

    ¶In general, it is a good idea to avoid sudden dramatic changes in diet and extreme diets that rely on a narrow group of foods. If you can’t live without grapefruit, ask your doctor if there’s an alternative drug for you.


     
    Readers may submit comments or questions for The Consumer by e-mail to consumer@nytimes.com.
    A version of this article appeared in print on 12/18/2012, on page D6 of the NewYork edition with the headline: Grapefruit Is a Culprit In More Drug Reactions.



    Grapefruit and Drugs Often Don't Mix - NYTimes.com

    http://well.blogs.nytimes.com/2012/12/17/grapefruit-is-a-culprit-in-more-drug-reactions/




    Tuesday, December 11, 2012

    Synthetic Pot Sends Thousands to Hospital | Sci-Tech Today

    Not only is getting sick from the stuff a problem...


    Synthetic Pot Sends Thousands to Hospital
    By Donna Leinwand Leger

    December 8, 2012 8:52AM





    The Drug Abuse Warning Network says drugs like Spice and K2, marketed as legal, fake pot and labeled as herbal incense, are sending teenagers and young adults to emergency rooms around the country. In 59% of the cases, doctors found no other substance, differing from most emergency department visits involving illicit drugs.



    K2, Spice and other synthetic drugs that mimic a marijuana high sent 11,406 people -- mostly teenagers and young adults -- to the emergency room in 2010, according to the first report on the substances from the federal government's Drug Abuse Warning Network.

    The report, the first to analyze the impact of the popular herbal incense, found that children ages 12 to 17 accounted for a third of the emergency room visits. Young adults ages 18 to 24 accounted for an additional 35%.

    In 59% of the cases involving patients ages 12 to 29, doctors found no other substance, differing from most emergency department visits involving illicit drugs and painkiller abuse.

    Marijuana, the most popular illicit drug with 18 million regular users, sent 461,028 people to the emergency room in 2010.

    "This report confirms that synthetic drugs cause substantial damage to public health and safety," Office of National Drug Control Policy Director Gil Kerlikowske said.

    Spice and K2, marketed as legal, fake pot and labeled as herbal incense, emerged in 2009 as popular drugs among teens and college students, who could buy the substances online and in convenience stores.

    Problems quickly emerged. Doctors reported teenagers arriving in the emergency room with high fevers and strange behavior.

    Police in Nebraska in 2010 arrested a teenage boy who had smoked Wicked X, herbal incense coated with synthetic cannabinoids. The teen careened his truck into the side of a house and then continued driving.

    At least 18 states outlawed the substances and the Drug Enforcement Administration instituted an emergency ban. In July, Congress banned sales of K2, Spice and other synthetic drugs under the Food and Drug Administration Safety and Innovation Act.





    © 2012 USA TODAY under contract with YellowBrix. All rights reserved.














    Synthetic Pot Sends Thousands to Hospital | Sci-Tech Today

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    Wednesday, December 5, 2012

    ALCOHOL'S DAMAGING EFFECTS ON THE BRAIN


     

    Number 63                          October 2004
    MRI brain scan

    ALCOHOL’S DAMAGING EFFECTS ON THE BRAIN

    Difficulty walking, blurred vision, slurred speech, slowed reaction times, impaired memory: Clearly, alcohol affects the brain. Some of these impairments are detectable after only one or two drinks and quickly resolve when drinking stops. On the other hand, a person who drinks heavily over a long period of time may have brain deficits that persist well after he or she achieves sobriety. Exactly how alcohol affects the brain and the likelihood of reversing the impact of heavy drinking on the brain remain hot topics in alcohol research today.
    We do know that heavy drinking may have extensive and far–reaching effects on the brain, ranging from simple “slips” in memory to permanent and debilitating conditions that require lifetime custodial care. And even moderate drinking leads to short–term impairment, as shown by extensive research on the impact of drinking on driving.
    A number of factors influence how and to what extent alcohol affects the brain (1), including
    • how much and how often a person drinks;
    • the age at which he or she first began drinking, and how long he or she has been drinking;
    • the person’s age, level of education, gender, genetic background, and family history
    • of alcoholism;
    • whether he or she is at risk as a result of prenatal alcohol exposure; and
    • his or her general health status.
    This Alcohol Alert reviews some common disorders associated with alcohol–related brain damage and the people at greatest risk for impairment. It looks at traditional as well as emerging therapies for the treatment and prevention of alcohol–related disorders and includes a brief look at the high–tech tools that are helping scientists to better understand the effects of alcohol on the brain.

    BLACKOUTS AND MEMORY LAPSES

    Alcohol can produce detectable impairments in memory after only a few drinks and, as the amount of alcohol increases, so does the degree of impairment. Large quantities of alcohol, especially when consumed quickly and on an empty stomach, can produce a blackout, or an interval of time for which the intoxicated person cannot recall key details of events, or even entire events.
    Blackouts are much more common among social drinkers than previously assumed and should be viewed as a potential consequence of acute intoxication regardless of age or whether the drinker is clinically dependent on alcohol (2). White and colleagues (3) surveyed 772 college undergraduates about their experiences with blackouts and asked, “Have you ever awoken after a night of drinking not able to remember things that you did or places that you went?” Of the students who had ever consumed alcohol, 51 percent reported blacking out at some point in their lives, and 40 percent reported experiencing a blackout in the year before the survey. Of those who reported drinking in the 2 weeks before the survey, 9.4 percent said they blacked out during that time. The students reported learning later that they had participated in a wide range of potentially dangerous events they could not remember, including vandalism, unprotected sex, and driving.
    Binge Drinking and Blackouts
    • Drinkers who experience blackouts typically drink too much and too quickly, which causes their blood alcohol levels to rise very rapidly. College students may be at particular risk for experiencing a blackout, as an alarming number of college students engage in binge drinking. Binge drinking, for a typical adult, is defined as consuming five or more drinks in about 2 hours for men, or four or more drinks for women.
    Equal numbers of men and women reported experiencing blackouts, despite the fact that the men drank significantly more often and more heavily than the women. This outcome suggests that regardless of the amount of alcohol consumption, females—a group infrequently studied in the literature on blackouts—are at greater risk than males for experiencing blackouts. A woman’s tendency to black out more easily probably results from differences in how men and women metabolize alcohol. Females also may be more susceptible than males to milder forms of alcohol–induced memory impairments, even when men and women consume comparable amounts of alcohol (4).

    ARE WOMEN MORE VULNERABLE

    TO ALCOHOL’S EFFECTS ON THE BRAIN?

    Women are more vulnerable than men to many of the medical consequences of alcohol use. For example, alcoholic women develop cirrhosis (5), alcohol–induced damage of the heart muscle (i.e., cardiomyopathy) (6), and nerve damage (i.e., peripheral neuropathy) (7) after fewer years of heavy drinking than do alcoholic men. Studies comparing men and women’s sensitivity to alcohol–induced brain damage, however, have not been as conclusive.
    Using imaging with computerized tomography, two studies (8,9) compared brain shrinkage, a common indicator of brain damage, in alcoholic men and women and reported that male and female alcoholics both showed significantly greater brain shrinkage than control subjects. Studies also showed that both men and women have similar learning and memory problems as a result of heavy drinking (10). The difference is that alcoholic women reported that they had been drinking excessively for only about half as long as the alcoholic men in these studies. This indicates that women’s brains, like their other organs, are more vulnerable to alcohol–induced damage than men’s (11).
    Yet other studies have not shown such definitive findings. In fact, two reports appearing side by side in the American Journal of Psychiatry contradicted each other on the question of gender–related vulnerability to brain shrinkage in alcoholism (12,13). Clearly, more research is needed on this topic, especially because alcoholic women have received less research attention than alcoholic men despite good evidence that women may be particularly vulnerable to alcohol’s effects on many key organ systems.

    BRAIN DAMAGE FROM OTHER CAUSES

    People who have been drinking large amounts of alcohol for long periods of time run the risk of developing serious and persistent changes in the brain. Damage may be a result of the direct effects of alcohol on the brain or may result indirectly, from a poor general health status or from severe liver disease.
    For example, thiamine deficiency is a common occurrence in people with alcoholism and results from poor overall nutrition. Thiamine, also known as vitamin B1, is an essential nutrient required by all tissues, including the brain. Thiamine is found in foods such as meat and poultry; whole grain cereals; nuts; and dried beans, peas, and soybeans. Many foods in the United States commonly are fortified with thiamine, including breads and cereals. As a result, most people consume sufficient amounts of thiamine in their diets. The typical intake for most Americans is 2 mg/day; the Recommended Daily Allowance is 1.2 mg/day for men and 1.1 mg/day for women (14).

    Wernicke–Korsakoff Syndrome

    Up to 80 percent of alcoholics, however, have a deficiency in thiamine (15), and some of these people will go on to develop serious brain disorders such as Wernicke–Korsakoff syndrome (WKS) (16). WKS is a disease that consists of two separate syndromes, a short–lived and severe condition called Wernicke’s encephalopathy and a long–lasting and debilitating condition known as Korsakoff’s psychosis.
    The symptoms of Wernicke’s encephalopathy include mental confusion, paralysis of the nerves that move the eyes (i.e., oculomotor disturbances), and difficulty with muscle coordination. For example, patients with Wernicke’s encephalopathy may be too confused to find their way out of a room or may not even be able to walk. Many Wernicke’s encephalopathy patients, however, do not exhibit all three of these signs and symptoms, and clinicians working with alcoholics must be aware that this disorder may be present even if the patient shows only one or two of them. In fact, studies performed after death indicate that many cases of thiamine deficiency–related encephalopathy may not be diagnosed in life because not all the “classic” signs and symptoms were present or recognized.
    Human Brain
    Regions vulnerable to alcohol
    Schematic drawing of the human brain, showing regions vulnerable to alcoholism-related abnormalities.
    Approximately 80 to 90 percent of alcoholics with Wernicke’s encephalopathy also develop Korsakoff’s psychosis, a chronic and debilitating syndrome characterized by persistent learning and memory problems. Patients with Korsakoff’s psychosis are forgetful and quickly frustrated and have difficulty with walking and coordination (17). Although these patients have problems remembering old information (i.e., retrograde amnesia), it is their difficulty in “laying down” new information (i.e., anterograde amnesia) that is the most striking. For example, these patients can discuss in detail an event in their lives, but an hour later might not remember ever having the conversation.
    Treatment

    The cerebellum, an area of the brain responsible for coordinating movement and perhaps even some forms of learning, appears to be particularly sensitive to the effects of thiamine deficiency and is the region most frequently damaged in association with chronic alcohol consumption. Administering thiamine helps to improve brain function, especially in patients in the early stages of WKS. When damage to the brain is more severe, the course of care shifts from treatment to providing support to the patient and his or her family (18). Custodial care may be necessary for the 25 percent of patients who have permanent brain damage and significant loss of cognitive skills (19).

    Scientists believe that a genetic variation could be one explanation for why only some alcoholics with thiamine deficiency go on to develop severe conditions such as WKS, but additional studies are necessary to clarify how genetic variants might cause some people to be more vulnerable to WKS than others.

    LIVER DISEASE

    Most people realize that heavy, long–term drinking can damage the liver, the organ chiefly responsible for breaking down alcohol into harmless byproducts and clearing it from the body. But people may not be aware that prolonged liver dysfunction, such as liver cirrhosis resulting from excessive alcohol consumption, can harm the brain, leading to a serious and potentially fatal brain disorder known as hepatic encephalopathy (20).
    Hepatic encephalopathy can cause changes in sleep patterns, mood, and personality; psychiatric conditions such as anxiety and depression; severe cognitive effects such as shortened attention span; and problems with coordination such as a flapping or shaking of the hands (called asterixis). In the most serious cases, patients may slip into a coma (i.e., hepatic coma), which can be fatal.
    New imaging techniques have enabled researchers to study specific brain regions in patients with alcoholic liver disease, giving them a better understanding of how hepatic encephalopathy develops. These studies have confirmed that at least two toxic substances, ammonia and manganese, have a role in the development of hepatic encephalopathy. Alcohol–damaged liver cells allow excess amounts of these harmful byproducts to enter the brain, thus harming brain cells.
    Treatment

    Physicians typically use the following strategies to prevent or treat the development of hepatic encephalopathy.

    • Treatment that lowers blood ammonia concentrations, such as administering L–ornithine L–aspartate.
    • Techniques such as liver–assist devices, or “artificial livers,” that clear the patients’ blood of harmful toxins. In initial studies, patients using these devices showed lower amounts of ammonia circulating in their blood, and their encephalopathy became less severe (21).
    • Liver transplantation, an approach that is widely used in alcoholic cirrhotic patients with severe (i.e., end–stage) chronic liver failure. In general, implantation of a new liver results in significant improvements in cognitive function in these patients (22) and lowers their levels of ammonia and manganese (23).

    ALCOHOL AND THE DEVELOPING BRAIN

    Drinking during pregnancy can lead to a range of physical, learning, and behavioral effects in the developing brain, the most serious of which is a collection of symptoms known as fetal alcohol syndrome (FAS). Children with FAS may have distinct facial features (see illustration). FAS infants also are markedly smaller than average. Their brains may have less volume (i.e., microencephaly). And they may have fewer numbers of brain cells (i.e., neurons) or fewer neurons that are able to function correctly, leading to long–term problems in learning and behavior.
    Fetal Alcohol Syndrome
    FAS facial features
    Children with fetal alcohol syndrome (FAS) may have distinct facial features.
    Treatment

    Scientists are investigating the use of complex motor training and medications to prevent or reverse the alcohol–related brain damage found in people prenatally exposed to alcohol (24). In a study using rats, Klintsova and colleagues (25) used an obstacle course to teach complex motor skills, and this skills training led to a re–organization in the adult rats’ brains (i.e., cerebellum), enabling them to overcome the effects of the prenatal alcohol exposure. These findings have important therapeutic implications, suggesting that complex rehabilitative motor training can improve motor performance of children, or even adults, with FAS.

    Scientists also are looking at the possibility of developing medications that can help alleviate or prevent brain damage, such as that associated with FAS. Studies using animals have yielded encouraging results for treatments using antioxidant therapy and vitamin E. Other preventive therapies showing promise in animal studies include 1–octanol, which ironically is an alcohol itself. Treatment with l–octanol significantly reduced the severity of alcohol’s effects on developing mouse embryos (26). Two molecules associated with normal development (i.e., NAP and SAL) have been found to protect nerve cells against a variety of toxins in much the same way that octanol does (27). And a compound (MK–801) that blocks a key brain chemical associated with alcohol withdrawal (i.e., glutamate) also is being studied. MK–801 reversed a specific learning impairment that resulted from early postnatal alcohol exposure (28).
    Though these compounds were effective in animals, the positive results cited here may or may not translate to humans. Not drinking during pregnancy is the best form of prevention; FAS remains the leading preventable birth defect in the United States today.

    GROWING NEW BRAIN CELLS

    For decades scientists believed that the number of nerve cells in the adult brain was fixed early in life. If brain damage occurred, then, the best way to treat it was by strengthening the existing neurons, as new ones could not be added. In the 1960s, however, researchers found that new neurons are indeed generated in adulthood—a process called neurogenesis (29). These new cells originate from stem cells, which are cells that can divide indefinitely, renew themselves, and give rise to a variety of cell types. The discovery of brain stem cells and adult neurogenesis provides a new way of approaching the problem of alcohol–related changes in the brain and may lead to a clearer understanding of how best to treat and cure alcoholism (30).
    For example, studies with animals show that high doses of alcohol lead to a disruption in the growth of new brain cells; scientists believe it may be this lack of new growth that results in the long–term deficits found in key areas of the brain (such as hippocampal structure and function) (31,32). Understanding how alcohol interacts with brain stem cells and what happens to these cells in alcoholics is the first step in establishing whether the use of stem cell therapies is an option for treatment (33).

    SUMMARY

    Alcoholics are not all alike. They experience different degrees of impairment, and the disease has different origins for different people. Consequently, researchers have not found conclusive evidence that any one variable is solely responsible for the brain deficits found in alcoholics. Characterizing what makes some alcoholics vulnerable to brain damage whereas others are not remains the subject of active research (34).
    The good news is that most alcoholics with cognitive impairment show at least some improvement in brain structure and functioning within a year of abstinence, though some people take much longer (35–37). Clinicians must consider a variety of treatment methods to help people stop drinking and to recover from alcohol–related brain impairments, and tailor these treatments to the individual patient.
    Advanced technology will have an important role in developing these therapies. Clinicians can use brain–imaging techniques to monitor the course and success of treatment, because imaging can reveal structural, functional, and biochemical changes in living patients over time. Promising new medications also are in the early stages of development, as researchers strive to design therapies that can help prevent alcohol’s harmful effects and promote the growth of new brain cells to take the place of those that have been damaged by alcohol.

    References

    (1) Parsons, O.A. Alcohol abuse and alcoholism. In: Nixon, S.J., ed. Neuropsychology for Clinical Practice. Washington, DC: American Psychological Press, 1996. pp. 175–201. (2) White, A.M. What happened? Alcohol, memory blackouts, and the brain. Alcohol Research & Health 27(2):186–196, 2003. (3) White, A.M.; Jamieson–Drake, D.W.; and Swartzwelder, H.S. Prevalence and correlates of alcohol–induced blackouts among college students: Results of an e–mail survey. Journal of American College Health 51:117–131, 2002. (4) Mumenthaler, M.S.; Taylor, J.L.; O’Hara, R.; et al. Gender differences in moderate drinking effects. Alcohol Research & Health 23:55–64, 1999. (5) Loft, S.; Olesen, K.L.; and Dossing, M. Increased susceptibility to liver disease in relation to alcohol consumption in women. Scandinavian Journal of Gastroenterology 22: 1251–1256, 1987. (6) Fernandez– Sola, J.; Estruch, R.; Nicolas, J.M.; et al. Comparison of alcoholic cardiomyopathy in women versus men. American Journal of Cardiology 80:481–485, 1997. (7) Ammendola, A.; Gemini, D.; Iannacone, S.; et al. Gender and peripheral neuropathy in chronic alcoholism: A clinical–electroneurographic study. Alcohol and Alcoholism 35:368–371, 2000. (8) Jacobson, R. The contributions of sex and drinking history to the CT brain scan changes in alcoholics. Psychological Medicine 16:547–559, 1986. (9) Mann, K.; Batra, A.; Gunther, A.; and Schroth, G. Do women develop alcoholic brain damage more readily than men? Alcoholism: Clinical and Experimental Research 16(6):1052–1056, 1992. (10) Nixon, S.; Tivis, R.; and Parsons, O. Behavioral dysfunction and cognitive efficiency in male and female alcoholics. Alcoholism: Clinical and Experimental Research 19(3):577–581, 1995. (11) Hommer, D.W. Male and female sensitivity to alcohol–induced brain damage. Alcohol Research & Health 27(2):181–185, 2003. (12) Hommer, D.W.; Momenan, R.; Kaiser, E.; and Rawlings, R.R. Evidence for a gender–related effect of alcoholism on brain volumes. American Journal of Psychiatry 158:198–204, 2001. (13) Pfefferbaum, A.; Rosenbloom, M.; Deshmukh, A.; and Sullivan, E. Sex differences in the effects of alcohol on brain structure. American Journal of Psychiatry 158:188–197, 2001. (14) National Academy of Sciences. Dietary reference intakes for thiamin, riboflavin, niacin, vitamin B6, folate, vitamin B12, pantothenic acid, biotin, and choline. 1999. (15) Morgan, M.Y. Alcohol and nutrition. British Medical Bulletins 38:21–29, 1982. (16) Martin, P.R.; Singleton, C.K.; and Hiller–Sturmhöfel, S.H. The role of thiamine in alcoholic brain disease. Alcohol Research & Health 27(2):134–142, 2003. (17) Victor, M.; Davis, R.D.; and Collins, G.H. The Wernicke–Korsakoff Syndrome and Related Neurologic Disorders Due to Alcoholism and Malnutrition. Philadelphia: F.A. Davis, 1989. (18) Martin, P. “Wernicke–Korsakoff syndrome: Alcohol–related dementia.” Family Caregiver Alliance Fact Sheet, 1998. (19) Cook, C. “The Wernicke–Korsakoff syndrome can be treated.” The Medical Council on Alcohol, vol. 19, 2000. (20) Butterworth, R.F. Hepatic encephalopathy—A serious complication of alcoholic liver disease. Alcohol Research & Health 27(2):143–145, 2003. (21) Mitzner, S.R., and Williams, R. Albumin dialysis MARS 2003. Liver International 23(Suppl. 3):1–72, 2003. (22) Arria, A.M.; Tarter, R.E.; Starzl, T.E.; and Van Thiel, D.H. Improvement in cognitive functioning of alcoholics following orthotopic liver transplantation. Alcoholism: Clinical and Experimental Research 15(6):956–962, 1991. (23) Pujol, A.; Pujol, J.; Graus, F.; et al. Hyperintense globus pallidus on T1–weighted MRI in cirrhotic patients is associated with severity of liver failure. Neurology 43:65–69, 1993. (24) Chen, W–J.A.; Maier, S.E.; Parnell, S.E.; and West, J.E. Alcohol and the developing brain: Neuroanatomical studies. Alcohol Research & Health 27(2):174–180, 2003. (25) Klintsova, A.Y.; Scamra, C.; Hoffman, M.; et al. Therapeutic effects of complex motor training on motor performance deficits induced by neonatal binge–like alcohol exposure in rats: II. A quantitative stereological study of synaptic plasticity in female rat cerebellum. Brain Research 937:83–93, 2002. (26) Chen, S.Y.; Wilkemeyer, M.F.; Sulik, K.K.; and Charness, M.E. Octanol antagonism of ethanol teratogenesis. FASEB Journal 15:1649–1651, 2001. (27) Spong, C.Y.; Abebe, D.T.; Gozes, I.; et al. Prevention of fetal demise and growth restriction in a mouse model of fetal alcohol syndrome. Journal of Pharmacology and Experimental Therapeutics 297:774–779, 2001. (28) Thomas, J.D.; Fleming, S.L.; and Riley, E.P. Administration of low doses of MK–801 during ethanol withdrawal in the developing rat pup attenuates alcohol’s teratogenic effects. Alcoholism: Clinical and Experimental Research 26(8):1307–1313, 2002. (29) Altman, J., and Das, G.D. Autoradiographic and histological evidence of postnatal hippocampal neurogenesis in rats. Journal of Comparative Neurology 124(3):319–335, 1965. (30) Crews, F.T., and Nixon, K. Alcohol, neural stem cells, and adult neurogenesis. Alcohol Research & Health 27(2): 197–204, 2003. (31) Nixon, K., and Crews, F.T. Binge ethanol exposure decreases neurogenesis in adult rat hippocampus. Journal of Neurochemistry 83(5):1087–1093, 2002. (32) Herrera, D.G.; Yague, A.G.; Johnsen–Soriano, S.; et al. Selective impairment of hippocampal neurogenesis by chronic alcoholism: Protective effects of an antioxidant. Proceedings of the National Academy of Science of the U.S.A. 100(13):7919–7924, 2003. (33) Crews, F.T.; Miller, M.W.; Ma, W.; et al. Neural stem cells and alcohol. Alcoholism: Clinical and Experimental Research 27(2):324–335, 2003. (34) Oscar–Berman, M., and Marinkovic, K. Alcoholism and the brain: An overview. Alcohol Research & Health 27(2):125–133, 2003. (35) Bates, M.E.; Bowden, S.C.; and Barry, D. Neurocognitive impairment associated with alcohol use disorders: Implications for treatment. Experimental and Clinical Psychopharmacology 10(3):193–212, 2002. (36) Gansler, D.A.; Harris, G.J.; Oscar–Berman, M.; et al. Hypoperfusion of inferior frontal brain regions in abstinent alcoholics: A pilot SPECT study. Journal of Studies on Alcohol 61:32–37, 2000. (37) Sullivan, E.V.; Rosenbloom, M.J.; Lim, K.O.; and Pfefferbaum, A. Longitudinal changes in cognition, gait, and balance in abstinent and relapsed alcoholic men: Relationships to changes in brain structure. Neuropsychology 14:178–188, 2000. (38) Rosenbloom, M.; Sullivan, E.V.; and Pfefferbaum, A. Using magnetic resonance imaging and diffusion tensor imaging to assess brain damage in alcoholics. Alcohol Research & Health 27(2):146–152, 2003. (39) Kensinger, E.A.; Clarke, R.J.; and Corkin, S. What neural correlates underlie successful encoding and retrieval? A functional magnetic resonance imaging study using a divided attention paradigm. Journal of Neuroscience 23(6):2407–2415, 2003. (40) Wong, D.F.; Maini, A.; Rousset, O.G.; and Brasíc , J.R. Positron emission tomography—A tool for identifying the effects of alcohol dependence on the brain. Alcohol Research & Health 27(2):161–173, 2003. (41) Porjesz, B., and Begleiter, H. Alcoholism and human electrophysiology. Alcohol Research & Health 27(2):153–160, 2003. (42) Porjesz, B., and Begleiter, H. Human brain electrophysiology and alcoholism. In: Tarter, R., and Van Thiel, D., eds. Alcohol and the Brain. New York: Plenum, 1985. pp. 139–182. (43) Begleiter, H.; Porjesz, B.; Bihari, B.; and Kissin, B. Event–related potentials in boys at risk for alcoholism. Science 225:1493–1496, 1984. (44) Polich, J.; Pollock, V.E.; and Bloom, F.E. Meta–analysis of P300 amplitude from males at risk for alcoholism. Psychological Bulletin 115:55–73, 1994.
    Resources
    Volume 27 Number 2 Journal cover  


    Source material for this Alcohol Alert originally appeared in the journal Alcohol Research & Health, “Alcoholic Brain Damage” (Vol. 27, No. 2, 2003).
    Alcohol Research and Health is the quarterly, peer–reviewed journal published by the National Institute on Alcohol Abuse and Alcoholism. Each issue of AR&H provides in–depth focus on a single topic in the field of alcohol research.
    Back issues of Alcohol Research & Health and additional resources can be downloaded from NIAAA’s Web site, www.niaaa.nih.gov. Subscriptions are available from the Superintendent of Documents for $25. Write to New Orders, Superintendent of Documents, P.O. Box 371954, Pittsburgh, PA 15250–7954; or fax 202/512–2250.

    All material contained in the Alcohol Alert is in the public domain and may be used or reproduced without permission from NIAAA. Citation of the source is appreciated.
    Copies of the Alcohol Alert are available free of charge from the
    National Institute on Alcohol Abuse and Alcoholism Publications Distribution Center
    P.O. Box 10686, Rockville, MD 20849–0686.

    Prepared: October 2004












    Source:
    ALCOHOL'S DAMAGING EFFECTS ON THE BRAIN

     http://pubs.niaaa.nih.gov/publications/aa63/aa63.htmhttp://pubs.niaaa.nih.gov/publications/aa63/aa63.htm




    WHAT'S IN A CHICKEN DOG?



    Chicken Hot Dog
calumet412:

Poster for the Chicken Redhot Company, 1928, Chicago.
    Chicken Hot Dog
    Poster for the Chicken Redhot Company, 1928, Chicago.


    Source:  
    Mostly Forbidden Zone

     http://zoomar.tumblr.com/



    Monday, November 26, 2012

    Modern wheat a "perfect, chronic poison," Wheat Belly doctor says - CBS News





















    (CBS News) Modern wheat is a "perfect, chronic poison," according to Dr. William Davis, a cardiologist who has published a book all about the world's most popular grain.

    Davis said that the wheat we eat these days isn't the wheat your grandma had: "It's an 18-inch tall plant created by genetic research in the '60s and '70s," he said on "CBS This Morning." "This thing has many new features nobody told you about, such as there's a new protein in this thing called gliadin. It's not gluten. I'm not addressing people with gluten sensitivities and celiac disease. I'm talking about everybody else because everybody else is susceptible to the gliadin protein that is an opiate. This thing binds into the opiate receptors in your brain and in most people stimulates appetite, such that we consume 440 more calories per day, 365 days per year."

    Asked if the farming industry could change back to the grain it formerly produced, Davis said it could, but it would not be economically feasible because it yields less per acre. However, Davis said a movement has begun with people turning away from wheat - and dropping substantial weight.

    "If three people lost eight pounds, big deal," he said. "But we're seeing hundreds of thousands of people losing 30, 80, 150 pounds. Diabetics become no longer diabetic; people with arthritis having dramatic relief. People losing leg swelling, acid reflux, irritable bowel syndrome, depression, and on and on every day."

    To avoid these wheat-oriented products, Davis suggests eating "real food," such as avocados, olives, olive oil, meats, and vegetables. "(It's) the stuff that is least likely to have been changed by agribusiness," he said. "Certainly not grains. When I say grains, of course, over 90 percent of all grains we eat will be wheat, it's not barley... or flax. It's going to be wheat.

    "It's really a wheat issue."

    Some health resources, such as the Mayo Clinic, advocate a more balanced diet that does include wheat. But Davis said on "CTM" they're just offering a poor alternative.

    "All that literature says is to replace something bad, white enriched products with something less bad, whole grains, and there's an apparent health benefit - 'Let's eat a whole bunch of less bad things.' So I take...unfiltered cigarettes and replace with Salem filtered cigarettes, you should smoke the Salems. That's the logic of nutrition, it's a deeply flawed logic. What if I take it to the next level, and we say, 'Let's eliminate all grains,' what happens then?

    "That's when you see, not improvements in health, that's when you see transformations in health."







    Watch Davis' full interview in the video above.






    Source:


    Modern wheat a "perfect, chronic poison," doctor says - CBS News