Calling all super-duper weight losers!






Have you lost at least 1/2 your weight, e.g., 300 lbs down to 150 lbs? If you have, I have a major national magazine editor looking to talk to you.

If you have gone wheat-free and/or followed the dietary advice offered here in The Heart Scan Blog or through the Track Your Plaque program and would be willing to share your story, please let me know by commenting below. While losing half your body weight is not necessarily a requirement for health, it makes an incredibly inspiring story for others.

If we use your story, I will set aside a copy of my soon-to-be-released book, Wheat Belly.

Lp(a): Be patient with fish oil

High-dose omega-3 fatty acids from fish oil has become the number one strategy for reduction of lipoprotein(a), Lp(a), in the Track Your Plaque program for gaining control over coronary plaque and heart disease risk.

The original observations made in Tanzanian Bantus in the Lugalawa Study by Marcovina et al first suggested that higher dietary exposure to fish and perhaps omega-3 fatty acids from fish were associated with 40% lower levels of Lp(a). Interestingly, higher omega-3 exposure was also associated with having the longer apo(a) "tails" on Lp(a) molecules, a characteristic associated with more benign, less aggressive plaque-causing behavior.

Of course, the 600+ fish- consuming Bantus in the study consumed fish over a lifetime, from infancy on up through adulthood. So what is the time course of response if us non-Bantus take higher doses of fish oil to reduce Lp(a)?

We have been applying this approach in the Track Your Plaque program and in my office practice for the past few years. To my surprise, the majority of people taking 6000 mg per day of omega-3 fatty acids, EPA and DHA, will drop Lp(a) after one year.  Some have required two years.  Therefore checking Lp(a) after, say, 3 or 6 months, is nearly useless. (An early response does, however, appear to predict a very vigorous 1-2 year response.)

I'm sure that there is an insightful lesson to be learned from the incredibly slow response, but I don't currently know what it is.  But this strategy has become so powerful, despite its slow nature, that it has allowed many people to back down on niacin.

Baby your pancreas

There it is, sitting quietly tucked under your diaphragm, nestled beneath layers of stomach and intestines, doing its job of monitoring blood sugar, producing insulin, and secreting the digestive enzymes that allow you to convert a fried egg, tomato, or dill pickle into the components that compose you.

But, if you've lived the life of most Americans, your pancreas has had a hard life. Starting as a child, it was forced into the equivalent of hard labor by your eating carbohydrate-rich foods like Lucky Charms, Cocoa Puffs, Hoho's, Ding Dongs, Scooter Pies, and macaroni and cheese. Into adolescent years and college, it was whipped into subservient labor with pizza, beer, pretzels, and ramen noodles. As an adult, the USDA, Surgeon General's office and other assorted purveyors of nutritional advice urged us to cut our fat, cholesterol, and eat more "healthy whole grains"; you complied, exposing your overworked pancreas to keep up its relentless work pace, spewing out insulin to accommodate the endless flow of carbohydrate-rich foods.

So here we are, middle aged or so, with pancreases that are beaten, worn, hobbling around with a walker, heaving and gasping due to having lost 50% or more of its insulin-producing beta cells. If continued to be forced to work overtime, it will fail, breathing its last breath as you and your doctor come to its rescue with metformin, Actos, Januvia, shots of Byetta, and eventually insulin, all aimed at corralling the blood sugar that your failed pancreas was meant to contain.

What if you don't want to rescue your flagging pancreas with drugs? What if you want to salvage your poor, wrinkled, exhausted pancreas, eaking out whatever is left out of the few beta cells you have left?

Well, then, baby your pancreas. If this were a car with 90,000 miles on it, but you want it to last 100,000, then change the oil frequently, keep it tuned, and otherwise baby your car, not subjecting it to extremes and neglect to accelerate its demise. Same with your pancreas: Allow it to rest, not subjecting it to the extremes of insulin production required by carbohydrate consumption. Don't expose it to foods like wheat flour, cornstarch, oats, rice starch, potatoes, and sucrose that demand overtime and hard labor out of your poor pancreas. Go after the foods that allow your pancreas to sleep through a meal like eggs, spinach, cucumbers, olive oil, and walnuts. Give your pancreas a nice back massage and steer clear of "healthy whole grains," the nutritional equivalent of a 26-mile marathon. Pay your pancreas a compliment or two and allow it to have occasional vacations with a brief fast.

Bread equals sugar

Bread, gluten-free or gluten-containing, in terms of carbohydrate content, is equivalent to sugar.

Two slices of store-bought whole grain bread, such as the gluten-free bread I discussed in my last post, equals 5- 6 teaspoons of table sugar:








 

 

 

 

 

 

 

 

Some breads can contain up to twice this quantity, i.e., 10-12 teaspoons equivalent readily-digestible carbohydrate.

Gluten-free carbohydrate mania

Here's a typical gluten-free product, a whole grain bread mix. "Whole grain," of course, suggests high-fiber, high nutrient composition, and health.



 

 

 

 

 

 

 

 

What's it made of? Here's the ingredient list:
Cornstarch, Tapioca Starch, Whole Grain Sorghum Flour, Whole Grain Teff Flour, Whole Grain Amaranth Flour, Soy Fiber, Xanthan Gum, Soy Protein, Natural Cocoa and Ascorbic Acid

In other words, carbohydrate, carbohydrate, carbohydrate, carbohydrate and some other stuff. It means that a sandwich with two slices of bread provides around 42 grams net carbohydrates, enough to send your blood sugar skyward, not to mention trigger visceral fat formation, glycation, small LDL particles and triglycerides.

Take a look at the ingredients and nutrition facts on the label of any number of gluten-free products and you will see the same thing. Many also have proud low-fat claims.

This is how far wrong the gluten-free world has drifted: Trade the lack of gluten for a host of unhealthy effects.

Gluten-free is going DOWN

The majority of gluten-free foods are junk foods.

People with celiac disease experience intestinal destruction and a multitude of other inflammatory conditions due to an immune response gone haywire. The disease  is debilitating and can be fatal unless all gliadin/gluten sources are eliminated, such as wheat, barley, and rye.

A gluten-free food industry to provide foods minus gliadin/gluten has emerged, now large enough to become an important economic force. Even some Big Food companies are getting into the act, like Kraft, that now lists foods they consider gluten-free.

So we have gluten-free breads, cupcakes, scones, pretzels, breakfast cereals, crackers, bagels, muffins, pancake mixes and on and on. All are made with ingredients like brown rice flour, cornstarch, tapioca starch, and potato starch. Occasionally, they are made with amaranth, teff, or quinoa, other less popular, but gluten-free, grains.

Problem: These gluten-free ingredients, while lacking gliadin and gluten, make you fat and diabetic. They increase visceral fat, cause blood sugar to skyrocket higher than nearly all other foods (even higher than wheat, which is already pretty bad), trigger formation of small LDL and triglycerides, and are responsible for exaggerated postprandial (after-eating) lipoprotein distortions. They cause heart disease, cataracts, arthritis, and a wide range of other conditions, all driven by the extreme levels of glycation they generate.

Eliminating all things wheat from the diet is one of the most powerful health strategies I have ever witnessed. But replacing lost wheat with manufactured gluten-free foods is little better than replacing your poppyseed muffin with a bowl of jelly beans.

Whenever we've relied on the food industry to supply a solution, they've managed to bungle it. Saturated fat was replaced with hydrogenated fat and polyunsaturates; sucrose replaced with high-fructose corn syrup. Now, they are replacing wheat gluten-containing foods with junk carbohydrates.

For this reason, I am bringing out a line of recipes and foods that will be wheat gliadin/gluten-free, do NOT contain the junk carbohydrates that gluten-free foods are made of, and are genuinely healthy. They are tasty, to boot.

The gluten-free industry needs to smarten up. Having a following that is free of cramps and diarrhea but are obese, diabetic, and hobbling on arthritic knees and hips is good for nobody.

Medicine ain't what it used to be

The practice of medicine ain't what it used to be.

For instance:

White coats are out-of-date--Not only do they serve as filthy reservoirs of microorganisms (since they hang unwashed after repeated use week after week), they only serve to distance the practitioner from the patient, an outdated notion that should join electroshock therapy to treat homosexuality and other "disorders" in the museum of outdated medical practices.

Normal cholesterol panel . . . no heart disease?

I often hear this comment: "I have a normal cholesterol panel. So I have low risk for heart disease, right?"

While there's a germ of truth in the statement, there are many exceptions. Having "normal" cholesterol values is far from a guarantee that you won't drop over at your daughter's wedding or find yourself lying on a gurney at your nearest profit-center-for-health, aka hospital, heading for the cath lab.

Statistically, large populations do indeed show fewer heart attacks at the lower end of the curve for low total and  LDL cholesterol and the higher end of HDL. But that's on a population basis. When applied to a specific individual, population observations can fall apart. Heart attack can occur at the low risk end of the curve; no heart attack can occur at the high risk end of the curve.

First of all, to me a "normal" lipid panel is not adhering to the lax notion of "normal" specified in the lab's "reference range" drawn from population observations. Most labs, for instance, specify that an HDL cholesterol of 40 mg/dl or more and triglycerides of 150 mg/dl or less are in the normal ranges. However, heart disease can readily occur with normal values of, say, an HDL of 48 mg/dl and triglycerides of 125 mg/dl, both of which allow substantial small oxidation-prone LDL particles to develop. So "normal" may not be ideal or desirable. Look at any study comparing people with heart disease vs. those without, for instance: Typical HDLs in people with heart attacks are around 46 mg/dl, while HDLs in people without heart attacks typically average 48 mg/dl--there is nearly perfect overlap in the distribution curves.

There are also causes for heart disease that are not revealed by the lipid values. Lipoprotein(a), or Lp(a), is among the most important exceptions: You can have a heart attack, stroke, three stents or bypass surgery at age 40 even with spectacular lipid values if you have this genetically-determined condition. And it's not rare, since 11% of the population express it. How about people with the apo E2 genetic variation? These people tend to have normal fasting cholesterol values (if they have only one copy of E2, not two) but have extravagant abnormalities after they eat that contribute to risk. You won't know this from a standard cholesterol panel.

Vitamin D deficiency can be suggested by low HDL and omega-3 fatty acid deficiency suggested by higher triglycerides, but deficiencies of both can exist in severe degrees even with reasonably favorable ranges for both lipid values. Despite the recent inane comments by the Institute of Medicine committee, from what I've witnessed from replacing vitamin D to achieve serum 25-hydroxy vitamin D levels of 60-70 ng/ml, vitamin D deficiency is among the most powerful and correctable causes of heart disease I've ever seen. And, while greater quantities of omega-3 fatty acids from fish oil are associated with lower triglycerides, they are even better at reducing postprandial phenomena, i.e., the after-eating flood of lipoproteins like VLDL and chylomicron remnants, that underlie formation of much atherosclerotic plaque--but not revealed by fasting lipids.

I view standard cholesterol panels as the 1963 version of heart disease prediction. We've come a long way since then and we now have far better tools for prediction of heart attack. Yet the majority of physicians and the public still follow the outdated notion that a cholesterol panel is sufficient to predict your heart's future. Nostalgic, quaint perhaps, but as outdated as transistor radios and prime time acts on the Ed Sullivan show.

 

Idiot farm

The notion of genetic modification of foods and livestock is a contentious issue. The purposeful insertion or deletion of a gene into a plant or animal's genome to yield specific traits, such as herbicide resistance, nutritional composition, or size, prompted the Codex Alimentarius Commission, an international effort to regulate the safety of foods, to issue guidelines concerning genetically-modified foods.

The committee is aware of the concept of unintended effects, i.e., effects that were not part of the original gene insertion or deletion design. In their report, last updated in 2009, they state that:

Unintended effects can result from the random insertion of DNA sequences into the plant genome, which may cause disruption or silencing of existing genes, activation of silent genes, or modifications in the expression of existing genes. Unintended effects may also result in the formation of new or changed patterns of metabolites. For example, the expression of enzymes at high levels may give rise to secondary biochemical effects or changes in the regulation of metabolic pathways and/or altered levels of metabolites.

They make the point that food crops generated using techniques without genetic modification are released into the food supply without safety testing:

New varieties of corn, soybean, potatoes and other common food plants are evaluated by breeders for agronomic and phenotypic characteristics, but generally, foods derived from such new plant varieties are not subjected to the rigorous and extensive food safety testing procedures, including studies in animals, that are typical of chemicals, such as food additives or pesticide residues, that may be present in food.

In other words, conventional plant breeding techniques, such as hybridization, backcrossing, and introgression, practices that include crossing parental plants with their progeny over and over again or crossing a plant with an unrelated plant, yield unique plants that are not subject to any regulation. This means that unintended effects that arise are often not identified or tested. Plant geneticists know that, when one plant is crossed with another, approximately 5% of the genes in the offspring are unique to that plant and not present in either parent. It means that offspring may express new characteristics, such as unique gliadin or gluten proteins in wheat, not expressed in either parent and with new immunological potential in consuming humans.

Dr. James Maryanski, the FDA's Biotechnology Coordinator, stated during Congressional testimony in 1999 that:

The new gene splicing techniques are being used to achieve many of the same goals and improvements that plant breeders have sought through conventional methods. Today's techniques are different from their predecessors in two significant ways. First, they can be used with greater precision and allow for more complete characterization and, therefore, greater predictability about the qualities of the new variety. These techniques give scientists the ability to isolate genes and to introduce new traits into foods without simultaneously introducing many other undesirable traits, as may occur with traditional breeding. [Emphasis mine.]

Efforts by the Codex Alimentarius and FDA are meant to control the introduction and specify safety testing procedures for genetically modified foods. But both organizations have publicly stated that there is another larger problem that has not been addressed that predates genetic modification. In other words, conventional methods like hybridization techniques, the crossing of different strains of a crop or crossing two dissimilar plants (e.g., wheat with a wild grass) have been practiced for decades before genetic modification became possible. And it is still going on.

In other words, the potential hazards of hybridization, often taken to extremes, have essentially been ignored. Hybridized plants are introduced into the food supply with no question of human safety. While hybridization can yield what appear to be benign foods, such as the tangelo, a hybrid of tangerines and grapefruit, it can also yield plants containing extensive unintended effects. It means that unique immunological sequences can be generated. It might be a unique gliadin sequence in wheat or a unique lectin sequence in beans. None are tested prior to selling to humans. So the world frets over the potential dangers of genetic modification while, all along, the much larger hazard of hybridization techniques have been--and still are--going on.

Imagine we applied the hybridization techniques applied by plant geneticists to humans, mating an uncle with his niece, then having the uncle mate again with the offspring, repeating it over and over until some trait was fully expressed. Such extensive inbreeding was practiced in the 19th century German village of Dilsberg, what Mark Twain described as "a thriving and diligent idiot factory."

Eat triglycerides

Dietary fats, from olive oil to cocoa butter to beef tallow, are made of triglycerides.

Triglycerides are simply three ("tri-") fatty acids attached to a glycerol backbone. Glycerol is a simple 3-carbon molecule that readily binds fatty acids. Fatty acids, of course, can be saturated, polyunsaturated, and monounsaturated.

Once ingested, the action of the pancreatic enzyme, pancreatic lipase, along with bile acids secreted by the gallbladder, remove triglycerides from glycerol. Triglycerides pass through the intestinal wall and are "repackaged" into large complex triglyceride-rich (about 90% triglycerides) molecules called chylomicrons, which then pass into the lymphatic system, then to the bloodstream. The liver takes up chylomicrons, removes triglycerides which are then repackaged into triglyceride-rich very low-density lipoproteins (VLDL).

So eating triglycerides increases blood levels of triglycerides, repackaged as chylomicrons and VLDL.

Many physicians are frightened of dietary triglycerides, i.e, fats, for fear it will increase blood levels of triglycerides. It's true: Consuming triglycerides does indeed increase blood levels of triglycerides--but only a little bit. Following a fat-rich meal of, say, a 3-egg omelet with 2 tablespoons of olive oil and 2 oz whole milk mozzarella cheese (total 55 grams triglycerides), blood triglycerides will increase modestly. A typical response would be an increase from 60 mg/dl to 80 mg/dl--an increase, but quite small.

Counterintuitively, it's the foods that convert to triglycerides in the liver that send triglycerides up, not 20 mg/dl, but 200, 400, or 1000 mg/dl or more. What foods convert to triglycerides in the liver? Carbohydrates.

After swallowing a piece of multigrain bread, for instance, carbohydrates are released by salivary and gastric amylase, yielding glucose molecules. Glucose is rapidly absorbed through the intestinal tract and into the liver. The liver is magnificently efficient at storing carbohydrate calories by converting them to the body's principal currency of energy, triglycerides, via the process of de novo lipogenesis, the alchemy of converting glucose into triglycerides for storage. The effect is not immediate; it may require many hours for the liver to do its thing, increasing blood triglycerides many hours after the carbohydrate meal.

This explains why people who follow low-fat diets typically have high triglyceride levels--despite limited ingestion of triglycerides. When I cut my calories from fat to 10% or less--a very strict low-fat diet--my triglycerides are 350 mg/dl. When I slash my carbohydrates to 40-50 grams per day but ingest unlimited triglycerides like olive oil, raw nuts, whole milk cheese, fish oil and fish, etc., my triglycerides are 50 mg/dl.

Don't be afraid of triglycerides. But be very careful with the foods that convert to triglycerides: carbohydrates.

 

 

 

 

 

 

 
Emmer, einkorn, and agribusiness

Emmer, einkorn, and agribusiness

10,000 years ago, Neolithic humans did not obtain wheat products from the bagel shop, grocery store, or Krispy Kreme. They obtained wheat by locating a nearby wild-growing field of wild emmer or einkorn wheat grass, then harvesting it with their stone sickles.

Neolithic humans, such as the Natufians of the Fertile Crescent, carried their freshly-cut wheat home, then ground it by hand using homemade mortar and pestle. As yeast-raised bread was still some 5000 years in the future, emmer and einkorn wheat was not used to bake bread, but was consumed as a porridge in bowls. Einkorn has the simplest genetic code of 14 chromosomes, while emmer has 28 chromosomes.

A third variety of wheat appeared on the scene around 9000 years ago, a natural hybridization between emmer and goat grass, yielding the 42-chromosome Triticum aestivum species. Egyptians learned how to cause wheat to rise around 3000 BC, yielding bread, rather than the unleavened flatbreads of their predecessors.

From the original three basic varieties of wheat available to Neolithic man, over the past 30 years wheat has exploded to over 25,000 varieties. Where did the other 24,997+ strains come from?

In the 1980s, thousands of new wheat strains arose from hybridization experiments, many of them conducted in Mexico. Then, in the late 1980s, genetic engineering quietly got underway in which geneticists inserted or deleted single genes, mostly designed to generate specific characteristics, such as height, yield per acre, drought resistance, but especially resistance to various pesticides and weed killers. The fruits of these efforts were introduced into the market in 1994. Most of the genetically modified foods were thought to be only minor modifications of the unmodified original and thus no safety testing in animals or humans was conducted.

We now have many thousands of wheat strains that are different in important ways from original emmer, einkorn, and Triticum aestivum wheat. Interestingly, it has been suggested that einkorn wheat fails to provoke the same immune response characteristic of celiac disease provoked by modern wheat gluten, suggesting a different amino acid structure in gluten proteins. Another difference: Emmer wheat is up to 40% protein, compared to around 12% protein for modern wheat.

In other words, the wheat of earlier agricultural humans, including the wheat of Biblical times, is NOT the wheat of 2010. Modern wheat is quite a different thing with differing numbers of chromosomes, different genes due to human manipulation, varying gluten protein composition, perhaps other differences.

Somewhere in the shuffle and genetic sleight-of-hand that has occurred over the last 30 years, wheat changed. What might have been the "staff of life" has now become the cause of an incredible array of diseases of "wheat" intolerance.

Comments (32) -

  • Anonymous

    5/21/2010 8:38:44 AM |

    I guess the scientists can once again manipulate wheat sorts to a form that may benefit us folks who love toast at breakfast.

  • Anne

    5/21/2010 11:24:05 AM |

    "Emmer wheat is 40% protein, compared to around 12% protein for modern wheat."

    Is that supposed to be 12% for emmer wheat and 40% for modern wheat?

    In Italy Emmer wheat is called faro. Is the ancient emmer wheat the same thing as what is grown today or have we "improved" it?

    There are some ancient grains unrelated to wheat that are used by people with celiac disease. Amaranth and teff are two examples. Indian rice grass used by native Americans is sold under the name Montina.

    All grains raise my blood glucose.

  • arnoud

    5/21/2010 11:47:28 AM |

    Very interesting post. Even when buying supposedly 'unprocessed' foods at the grocery store, we need to keep in mind that there may be little 'natural' about some/many of those foods.   The processing may be in the modified genetics...

    Are the original emmer and einkorn still available somewhere?

  • Meredith

    5/21/2010 12:31:50 PM |

    An absolutely fascinating history!  Is it possible to obtain ungenetically modified Einkorn wheat today?

  • Ned Kock

    5/21/2010 2:56:57 PM |

    Fascinating analysis. This may explain why many people whose ancestors consumed wheat in great quantities do not tolerate wheat well. This happens even though it may not take that long for a food-related trait to evolve (as little as 396 years may be enough):

    http://healthcorrelator.blogspot.com/2010/01/how-long-does-it-take-for-food-related.html

  • Kathryn

    5/21/2010 3:55:52 PM |

    I love this info.

    But on occasion i wish you would quote your source.  I belong to a health forum where we use stuff like this, but without an original source i can't do much with it.  

    Not to be critical.  I so appreciate all that you take time to share here.

  • shel

    5/21/2010 10:20:28 PM |

    brilliant. thanks for this.

  • shel

    5/21/2010 10:24:15 PM |

    ...incidentally, can you put a search box on this blog?

  • Dr. William Davis

    5/22/2010 12:46:08 AM |

    Hi, Anne--

    No, the emmer is unusually rich in protein.

    Makes you wonder if there is a lesson in that observation. The protein--gluten--differs in structure, also.

  • Dr. William Davis

    5/22/2010 12:47:13 AM |

    Meredith--

    I am looking!

    It would be an interesting experiment to consume emmer alongside modern wheat and see what happens. Some people claim that einkorn can be consumed by celiacs safely.

  • Anonymous

    5/22/2010 12:59:17 AM |

    Interesting and thought provoking post. As another commenter said, I do really wish you would quote the source of your information.

  • Kurt N.

    5/22/2010 2:06:28 AM |

    Do you have a reference for the protein content of emmer?  I've heard it was pretty high, but 40% seems off the scale.

  • Anne

    5/22/2010 3:50:13 AM |

    Oops, the high percentage I was thinking of was the percentage of the protein that is gluten.

  • Dr. William Davis

    5/22/2010 12:57:41 PM |

    Source for emmer wheat protein composition:

    Avivi L. High grain protein content in wild tetraploid wheat, Triticum dicoccoides. In Fifth International Wheat Genetics Symposium, New Delhi, India 1978, Feb 23-28;372-80.

    Dr. Shewry of the UK is a great resource:

    Wheat. J Exp Botany 2009; 60(6):1537-53.

  • billye

    5/22/2010 5:05:31 PM |

    Hi Dr. Davis,

    More confusing information for the evolutionary life style advocate to deal with.  This is my simple clarifying statement.  Since wheat in any form, regardless of chromosome content, is not a health supporting evolutionary food, due to the fact that we did not evolved to eat it, should we not avoid it like the plague?  After all, it along with high fructose, and high starch vegetables and fruits are the main cause of most if not all of the diseases of the metabolic syndrome.

    Billy E
    Nephropal.com

  • Anonymous

    5/22/2010 9:35:37 PM |

    Source for organically grown emmer:  http://www.bluebirdgrainfarms.com/

  • Santiago

    5/23/2010 12:40:46 AM |

    Something similar most happen with the corn we eat here (Colombia), as it causes very little blood sugar raise no where close to what you describe when you talk about corn bread

  • Stan Ness

    5/23/2010 8:05:20 AM |

    Great post on einkorn and emmer you have provided here. Thanks for sharing.  I've been following the research on einkorn for some time now.  More and more, I see that einkorn has many health benefits that our modern wheat lacks.  You are right on when you call it a "genetic slight-of-hand".  Well said!  I found some research about antioxidants in einkorn grain and thought you may also find it interesting.  There's a lot too this stuff!

  • Dr. William Davis

    5/23/2010 2:10:40 PM |

    Thanks for the lead anonymous.

  • Dr. William Davis

    5/23/2010 2:11:16 PM |

    Stan--

    I've perused your Einkorn Blog. Great stuff!

  • billye

    5/23/2010 3:43:47 PM |

    I perused Bluebird farms.com as a commenter recommended.  Emmer, einkorn etc, a grain by any other name is still a grain.  One of Bluebird farms offerings says it all. "we offer a variety of gift baskets and boxes filled with fresh milled whole grains and local artisanal honey and syrup."  This is great for those of you that wish to raise your blood sugar and prompt diabetes type 2 along with any number of metabolic syndrome diseases, including Celiac disease.

    Billy E
    Nephropal.com

  • Miki

    5/23/2010 5:26:38 PM |

    It does seems the diploid and tetraploid varieties of wheat are less potent as far as gluten poisoning is concerned: "Mapping of gluten T-cell epitopes in the bread wheat ancestors: implications for celiac disease." (http://www.ncbi.nlm.nih.gov/pubmed/15685550?dopt=AbstractPlus&holding=f1000,f1000m,isrctn). A quote from the conclusions: "we found that the fragments identical or equivalent to the immunodominant 33mer fragment are encoded by alpha-gliadin genes on the wheat chromosome 6D and thus absent from gluten of diploid einkorn (AA) and even certain cultivars of the tetraploid (AABB) pasta wheat".

  • Anonymous

    5/24/2010 1:35:10 AM |

    I have some kind of sensitivity to wheat. After reading this post I've been looking arround and found in wikipedia some info saying Durum wheat doesn't cause alergui reaction either.
    Maybe this is why I have so strong reactions to beer, bread and pizza, but I seem to be able to eat pasta with out any problems.
    Maybe this explains a bit of the italian heart health thing, probably most of the wheat they eat is of a healthier kind.

  • Cherry

    5/24/2010 8:20:21 AM |

    Love your blog, not only for your thorough much needed nutritional correlates to CAD, but also your gutsy willingness to expose the truth around big pharma, and greed influencing the practice of medicine.  
    Here in France, Einhorn( Triticum monococcum) has been cultivated since the 9 th millennium BC in a small area of Haute Provence. It is called petit epeautre and it is truly delicious!  It has very little gluten.
    There is much regulation in the cultivation in order to protect the genetic purity of this ancient grain.  Like wines it has a AOC (appelation d'origine controlee)  Petitepeautre.com has wonderful information also in english. Each September there is a petit epeautre festival.  It is one grain I allow myself to enjoy occasionally.

  • Dr. William Davis

    5/24/2010 10:39:46 PM |

    Great find, Miki!

    Thanks for the lead.

  • Dr. William Davis

    5/24/2010 10:53:49 PM |

    Hi, Cherry--

    Thank you for pointing me towards the French source.

    While I knew that there was some einkorn or emmer grown in Italy, some in the Middle East, and very little in the U.S., I had difficulty locating it in France.

    It would be interesting to compare the various sources.

  • Anonymous

    7/21/2010 7:29:47 AM |

    As someone (a celiac) who is EXTREMELY interested in introducing ancient and potentially benign wheat ancestors into my diet, I am very curious as to how someone like myself might be expected to react to emmer.  (And by the way, I'm pending reception of some einkorn I've already ordered to see if I can tolerate it.)

    In any case, success stories will be warmly welcomed.  Failure stories not so much, but I would appreciate you please tell them, nevertheless.  The pain is necessary, and it is for all of us to share for our common edification.

  • David Isaak

    8/1/2010 11:16:22 PM |

    Well, I expect a whole host of bricks to come hurtling my way when I say this, but I'm  a low-carber...and one of the things I eat quite frequently is seitan. That's essentially pure wheat gluten (which has long been a staple in Asian cuisines).

    I avoid most grains (other than flaxseed), but I don't avoid grain proteins. I sometimes wonder if all the wheat problems people report are really from the gluten proteins. Funny those problems weren't reported in China over all those centuries...

  • Fredo

    8/3/2010 9:41:19 AM |

    i`m not sure if this was posted here before, but i guess it fits good into the context:

    http://www.einkorn.com/toxicity-of-einkorn-gluten/

  • Principal Quattrano

    10/3/2010 4:58:07 AM |

    I used to eat a lot of seitan myself, before I had to give up wheat.

    I have heard a great many suggestions as to what celiacs can or ought to be able to eat, but very little evidence that such things are truly safe for one who reacts to gluten. A lot of common knowledge is based on nothing but oft-repeated rumors.

    Before giving up gluten, I purchased some farro in an Italian grocery. It was regular wheat. Emmer was not available. Perhaps it is in Italy.

  • Anonymous

    12/22/2010 4:58:51 AM |

    Dr Davis,
    I would like to know your thoughts on Ezekiel bread.  I thought it was better since it's a pure protein and sprouted.  

    I would really appreciate your feedback.

    thanks,
    tina

  • Henry North London 2.0

    2/25/2011 12:12:39 AM |

    I've just come across Kamut flour

    http://www.kamut.com/en/origin.html

    This is a tetraploid wheat high in selenium.  Ive bought a couple of lbs of flour to try it out.

    Im hoping that this will restore bread to my diet as I find modern pappy breads made by the CBP really awful,on my digestion and this wheat has higher protein.

    Its much like emmer in that its tetraploid and has been called everything from King Tut wheat to Noahs Flood wheat.

Loading