You just THINK you're low-carb

Systematically checking postprandial (after-eating) blood sugars is providing some great insights into crafting a better diet for many people.

I last discussed the concept of postprandial glucose checks in To get low-carb right, you need to check blood sugars.

Here are some important lessons that many people--NON-diabetic people, most with normal blood glucoses or just mildly increased--are learning:

Oatmeal yields high blood sugars. Even if your fasting blood sugar is 90 mg/dl, a bowl of oatmeal with skim milk, walnuts, and some berries will yield blood sugars of 150-200 mg/dl in many people.

Cheerios yields shocking blood sugars. 200+ mg/dl is not uncommon in non-diabetics. (Diabetics have 250-350 mg/dl.)

Fruits like apples and bananas increase blood sugar to 130 mg/dl or higher.

Odd symptoms, such as mental "fog," fatigue, and a fullness in the head, are often attributable to high blood sugars.

A subset of people with lipoprotein(a) can have wildly increased blood sugars despite their slender build and high aerobic exercise habits.


Once you identify the high blood sugar problem, you can do something about it. The best place to start is to reduce or eliminate the sugar-provoking food.

The LDL-Fructose Disconnect

I believe that we can all agree that the commonly obtained Friedewald LDL cholesterol (what I call "fictitious" LDL cholesterol) is wildly inaccurate. 100%--yes, 100% inaccuracy--is not at all uncommon.

This flagrant inaccuracy, unacceptable in virtually every other discipline (imagine your airplane flight to New York lands in Pittsburgh--close enough, isn't it?), is highlighted in the University of California study by Stanhope et al I discussed previously.

32 participants consumed either a diet enriched with either fructose or glucose. Compared to the effect of glucose, after 10 weeks fructose:

Increased LDL cholesterol (calculated) by 7.6%

Increased Apoprotein B (a measure of the number of LDL particles) by 24%

Increased small dense LDL by 41%

Increased oxidized LDL by 12.6%



In other words, conventional calculated LDL substantially underestimates the undesirable effects of fructose. The divergence between calculated LDL and small LDL is especially dramatic. (By the way, this same divergence applies to the studies suggesting that calculated LDL cholesterol is reduced by low fat diets--While calculated LDL may indeed be reduced, small LDL goes way up, a striking divergence.)

This is yet another reason to not rely on this "fictitious" LDL cholesterol value that, inaccuracies notwithstanding, serves as the foundation for a $27 billion per year industry.

"I dream about bread"

Marion sat in my office, sobbing.

It had been 4 weeks since the last piece of bread, bagel, or bun had passed her lips.

"I can't do it! I just can't do it! I've tried to eliminate wheat, but it's making me crazy. I'm having dreams about bread!"

Yes, Timmy, such dark corners of human behavior are truly unveiled by removing wheat from the diet. (See the previous Heart Scan Blog post, Wheat withdrawal.)

This is a real phenomenon: Wheat is the crack cocaine of the masses. Maybe you don't exchange $100 bills in dark corners of an inner city crack house, but I'll bet you paid $3.99 for your latest fix of French bread.

Just in the last 2 weeks, people in my office who have eliminated wheat have experienced:

14 lbs weight loss in 14 days

Increased mental clarity, reduced moodiness, deeper sleep

70% reductions in small LDL

More than 300 mg/dl reductions in triglycerides

Relief from chronic scalp rash


I could go on.

All the while, the USDA, the American Heart Association, the American Diabetes Association, the American Dietetic Association, the Surgeon General's Office all advise you to eat more "healthy whole grains."

70% of people (NOT 100%, but the majority) will experience unexpected health benefits by eliminating this corrupt, unphysiologic product called wheat from their diet.

You won't know until you try.

Prototypical Lipoprotein(a)

Here's the prototypical male with lipoprotein(a):



Several features stand out in the majority of men with lipoprotein(a), Lp(a):

Slender--Sometimes absurdly so: BMIs of 21-23 are not uncommon. These are the people who claim they can't gain weight.

Intelligent--Above average to way above average intelligence is the rule.

Gravitate to technical work--Plenty of engineers, scientists, accountants, and other people who work with numbers and/or technical details are more likely to have Lp(a).

Enjoy high levels of aerobic performance--I tell my Lp(a) patients that, if they want to see a bunch of other people with Lp(a), go to a marathon or triathlon. They'll see plenty of people with the pattern among the aerobically-elite.

Are rabid fans of Star Trek.


Okay, I made the last one up. But the rest are uncannilly true, shared by the majority (though not all) men with Lp(a).

Why? I can only speculate that the gene(s) for Lp(a) are closely linked to gene(s) for intelligence of a quantitative kind and some factor that enhances aerobic performance or yields a desirable emotional state with exercise.

Oddly, the same patterns tend not to occur in women in Lp(a). I have yet to discern a personality or body configuration phenotype among the ladies.

Gastric emptying: When slower is better

When it comes to the Internet and Nascar, speed is good: The faster the better.

But when it comes to gastric emptying (the rate at which food passes from the stomach and into the duodenum and small intestine), slower can be better.

Slower transit time for foods passing through the stomach leads to lower blood sugar, lower blood glucose area under-the-curve (AUC), i.e., reduced blood glucose levels over time. Lower postprandial (after-eating) blood sugars can reduce cardiovascular risk. It can lead to a reduction in net calorie intake and weight loss.

Strategies that can slow gastric emptying include:

--Minimizing fluids during a meal--Drinking a lot of fluids, e.g., water, accelerates gastric emptying by approximately 20%.

--Cinnamon--While the full reason to explain Cassia cinnamon's blood glucose-reducing effect has not been completely worked out, part of the effect is likely to due slowed gastric emptying. Thus, a 1/4-2 teaspoons of cinnamon per day can reduce postprandial blood sugar peaks by 10-25 mg/dl.

--Vinegar--Two teaspoons of vinegar in its various forms slows gastric emptying. The effect is likely due to acetic acid, the compound shared by apple cider vinegar, white vinegar, red wine vinegar, Balsamic vinegar, and other varieties.

--Increased fat content--Fat is digested more slowly and slows gastric emptying time, compared to the rapid transit of carbohydrates.

Not everybody should slow gastric emptying. Diabetics with a condition called diabetic gastroparesis should not use these methods, as they can further slow the abnormal gastric emptying that develops as part of their disease, making a bad situation worse.

However, in the rest of us with normal gastric emptying time, a delay in gastric emptying can reduce blood sugar and induce satiety, effects that can work in your favor in reducing cardiovascular risk.

Genetic vs. lifestyle small LDL

Let me explain what I mean by "genetic small LDL." I think it helps to illustrate with two common examples.

Ollie is 50 years old, 5 ft 10 inches tall, and weighs 253 lbs. BMI = 36.4 (obese). Starting lipoproteins (NMR):

LDL particle number 2310 nmol/L
Small LDL: 1893 nmol/L
(1893/2310 = 81.9% of total, a severe small LDL pattern)


Stan is 50 years old, also, 5 ft 10 inches tall, and weighs 148 lbs. BMI = 21.3. Starting lipoproteins:

LDL particle number 1424 nmol/L
Small LDL 1288 nmol/L
(1288/1424 = 90.4% of total, also severe)


Both Ollie and Stan go on the New Track Your Plaque diet and eliminate wheat, cornstarch, and sugars, while increasing oils, meats and fish, unlimited raw nuts, and vegetables. They add fish oil and vitamin D and achieve perfect levels of both. Six months later, Ollie has lost 55 lbs, Stan has lost 4 lbs. A second round of lipoproteins:

Ollie:

LDL particle number 1810 nmol/L
Small LDL: 193 nmol/L
(193/1810 = 10.6% of total)


Stan:

LDL particle number 1113 nmol/L
Small LDL 729 nmool/L
(729/1113 = 65.4% of total)


Ollie has reduced, nearly eliminated, small LDL through elimination of wheat, cornstarch, and sugars, along with weight loss, fish oil, and vitamin D.

Stan, beginning at a much more favorable weight, reduced both total and small LDL with the same efforts, but retains a substantial proportion (65.4%) of small LDL.

Stan's pattern is what I call "genetic small LDL." Of course, this is a presumptive designation, since we've not identified the specific gene(s) that allow this (e.g., gene for variants of cholesteryl ester transfer protein, hepatic lipase, lipoprotein lipase, and others). But it is such a sharp distinction that I am convinced that people like Stan have this persistent pattern as a genetically-determined trait.

Carbohydrate sins of the past

Fifty years ago, diabetes was a relatively uncommon disease. Today, the latest estimates are that 50% of Americans are now diabetic or pre-diabetic.

There are some obvious explanations: excess weight, inactivity, the proliferation of fructose in our diets. It is also my firm belief that the diets advocated by official agencies, like the USDA, the American Heart Association, the American Dietetic Association, and the American Diabetes Association, have also contributed with their advice to eat more “healthy whole grains.”

When I was a kid, I ate Lucky Charms® or Cocoa Puffs® for breakfast, carried Hoho’s® and Scooter Pies® in my lunchbox, along with a peanut butter sandwich on white bread. We ate TV dinners, biscuits, instant mashed potatoes for dinner. Back then, it was a matter of novelty, convenience, and, yes, taste.

What did we do to our pancreases eating such insulin-stimulating foods through childhood, teenage years, and into early adulthood? Did our eating habits as children and young adults create diabetes many years later? Could sugary breakfast cereals, snacks, and candy in virtually unlimited quantities have impaired our pancreas’ ability to produce insulin, leading to pre-diabetes and diabetes many years later?

A phenomenon called glucose toxicity underlies the development of diabetes and pre-diabetes. Glucose toxicity refers to the damaging effect that high blood sugars (glucose) have on the delicate beta cells of the pancreas, the cells that produce insulin. This damage isirreversible: once it occurs, it cannot be undone, and the beta cells stop producing insulin and die. The destructive effect of high glucose levels on pancreatic beta cells likely occurs through oxidative damage, with injury from toxic oxidative compounds like superoxide anion and peroxide. The pancreas is uniquely ill-equipped to resist oxidative injury, lacking little more than rudimentary anti-oxidative protection mechanisms.

Glucose toxicity that occurs over many years eventually leaves you with a pancreas that retains only 50% or less of its original insulin producing capacity. That’s when diabetes develops, when impaired pancreatic insulin production can no longer keep up with the demands put on it.

(Interesting but unanswered question: If oxidative injury leads to beta cell dysfunction and destruction, can antioxidants prevent such injury? Studies in cell preparations and animals suggest that anti-oxidative agents, such as astaxanthin and acetylcysteine, may block beta cell oxidative injury. However, no human studies have yet been performed. This may prove to be a fascinating area for future.)

Now that 50% of American have diabetes or pre-diabetes, how much should we blame on eating habits when we were younger? I would wager that eating habits of youth play a large part in determining potential for diabetes or pre-diabetes as an adult.

The lesson: Don’t allow children to repeat our mistakes. Letting them indulge in a lifestyle of soft drinks, candy, pretzels, and other processed junk carbohydrates has the potential to cause diabetes 20 or 30 years later, shortening their life by 10 years. Kids are not impervious to the effects of high sugar, including the cumulative damaging effects of glucose toxicity.

Saturated fat and large LDL

Here's a half-truth I often encounter in low-carb discussions:

Saturated fat increases large LDL particles


For those of you unfamiliar with the argument, I advocate a low-carbohydrate approach, specifically elimination of all wheat, cornstarch, and sugars, to reduce expression of the small LDL pattern (not to mention reduction of triglycerides, relief from acid reflux and irritable bowel, weight loss, various rashes, diabetes, etc). Small LDL particles have become the most common cause for heart disease in the U.S., exploding on the scene ever since agencies like the USDA and American Heart Association have been advising the public to increase consumption of "healthy whole grains."

This has led some to make the pronouncement that saturated fat increases large LDL, thereby representing a benign effect.

Is this true?

It is true, but only partly. Let me explain.

There are two general categories of factors causing small LDL particles: lifestyle (overweight, excess carbohydrates) and genetics (e.g., variants of the gene coding for cholesteryl-ester transfer protein, or CETP).

If small LDL is purely driven by excess carbohydrates, then adding saturated fat will reduce small LDL and increase large LDL.

If, on the other hand, your small LDL is genetically programmed, then saturated fat will increase small LDL. In other words, saturated fat tends to increase the dominant or genetically-determined form of LDL. If your dominant genetically-determined form is small, then saturated fat increases small LDL particles.

So to say that saturated fat increases large LDL is an oversimplification, one that can have dire consequences in the wrong situation.

Is glycemic index irrelevant?



University of Toronto nutrition scientist, Dr. David Jenkins, was the first to quantify the phenomenon of "glycemic index," describing how much blood sugar increased over 90 minutes compared to glucose. The graph is from their 1981 study, The glycemic index of foods: a physiologic basis for carbohydrate exchange. The research originated with an effort to characterize carbohydrates for diabetics to gain better control over blood sugar.

Since Dr. Jenkins’ original work, thousands of clinical studies have been performed by others exploring this concept. The food industry has also devoted plenty of effort exploiting it (e.g., low-glycemic index noodles, low-glycemic index cereals, etc.).

Most Americans are now familiar with the concept of glycemic index. You likely know that table sugar has a high glycemic index (60), increasing blood sugar to a similar degree as white bread (glycemic index 71). Oatmeal (slow-cooked) has a lower glycemic index (48), since it increases blood sugar less than white bread.

A number of studies have shown that when low glycemic index foods replace high glycemic index foods (e.g., whole wheat bread in place of cupcakes), people are healthier: less diabetes, less heart attack, less high blood pressure. Books have been written about glycemic index, touting its benefits for health and weight control. Health-conscious people will try to substitute low-glycemic index foods for high-glycemic index foods.

So what’s not to like here?

There are several fundamental flaws with the notion that low-glycemic index foods are good for you:

1) Check your blood sugar after a low-glycemic index food like oatmeal. Most non-diabetic adults will show blood sugars in the 140 to 200 mg/dl range. The more central (visceral) fat you have, the higher the value will be. In other words, an apparently “healthy” whole grain food like oatmeal can generate extravagantly high blood sugars. Repeated high blood sugars of 125 mg/dl or greater after eating increase heart disease risk by 50%.

2) Foods like whole wheat pasta have a low glycemic index because the blood sugar effect over the usual 90 minutes is increased to a lesser degree. The problem is that it remains increased for an extended period of up to several hours. In other words, the blood sugar-increasing effect of pasta, even whole grain, is long and sustained.

3) Low-glycemic index foods trigger other abnormalities, such as small LDL particles, triglycerides, and c-reactive protein (a measure of inflammation). While they are not as bad as high-glycemic index foods, they are still quite potent triggers.

Low-glycemic index foods trigger the very same responses as high-glycemic index foods—they’re just less bad. But less bad does not equate to good. Low-glycemic index foods cause weight gain, trigger appetite, increase blood pressure, and lead to the patterns that cause heart disease.

High-glycemic index foods are bad for you. This includes foods made with white flour (bagels, white bread, pretzels). Low-glycemic foods (whole grain bread, whole wheat crackers, whole wheat pasta) are less bad for you—but they are not necessarily good.

Don’t be falsely reassured by foods because they are billed as “low-glycemic index.” View low-glycemic index foods as indulgences, something you might have once in a while, since a slice of whole grain bread is really not that different from a icing-covered cupcake.
All posts by william-davis

Alternatives to fish oil capsules

Occasionally, someone will be unable to take fish oil due to the large capsule size, excessive fishy belching, or stomach upset. The easiest solution is usually just to try a different brand, e.g., Sam's Club (Makers' Mark brand) enteric-coated.

However, sometimes liquid fish oil preparations may be preferred. Here'a list of products we've used successfully. All cost more than plain old fish oil capsules, but fish oil is so crucial to your heart scan/coronary plaque control efforts, that it really pays to search out alternatives.



Liquid fish oil alternatives to capsules:

Liquid fish oil--e.g., Carlson's liquid fish oil. Most liquid fish oil comes flavored either lemon or orange.



Frutol--A very clever re-formulation of fish oil that makes it water-soluble and non-oily. The Pharmax company has put their fish oil into a fruit flavored base that tastes pretty good and is not too expensive.
Go to www.pharmaxllx.com for more information. Unfortunately, I do not believe it's available in stores.





Coromega--another non-oily preparation, though available in some health food stores. Coromega comes in little single-serving foil dispensers. It tastes kind of fruity (though I personally like the Frutol better for taste and consistency). It's kind of pricey ($1.40 per day for two packets).



Regardless of what preparation you choose, you can determine the dose needed by adding up the EPA+DHA content. For the basic prevention effect, the starting dose for the Track Your Plaque program, you need a total of 1200 mg per day of EPA+DHA. Higher doses, e.g., 1800-2400 mg per day, may be required for correction of high triglyceres or postprandial (after-eating) abnormalities.

Ignoring your heart scan is medical negligence

I continue to be dumbfounded that many doctors continue to pooh-pooh or ignore CT heart scans when people get them.

I can't count the number of people I've seen or talked to through the Track Your Plaque program who've been told to ignore their heart scan scores. The most extreme example was a man whose physician told him his heart scan score of nearly 4000 was nothing to worry about!


A real-life story of a retired public defense attorney whose heart scan score of 1200 was ignored, followed two years later by sudden unstable heart symptoms and urgent bypass prompted us to write this fictitious lawsuit. Though it's not real, it could easily become real. To our knowledge, no single act of ignorance about heart scans has yet prompted such a lawsuit, but it's bound to happen given the number of scans being performed every year and the continued stubbornness of many physicians to acknowledge their importance.



Major Malpractice Class Action Lawsuit Looms for Doctors Who Ignore Heart Scan Tests

It's been several years since new medical discoveries have debunked old theories regarding heart disease and heart attack and have verified the efficacy of CT heart scans for detecting both early and advanced heart disease. Doctors who fail to keep apprised of these finding or refuse to change their practice for financial reasons put themselves at risk for becoming defendants in a major malpractice class action lawsuit. The plaintiffs will be a growing class of persons who were debilitated by avoidable heart attacks and heart procedures and the heirs and estates of those who have died.
Milwaukee , WI (PRWEB) November 29, 2005 -- This press release outlines a template for a potential class action lawsuit that may be on the horizon for the medical industry. The class of plaintiffs for this theoretical action remains latent but is growing on a daily basis. However, it requires only one such plaintiff to find an attorney who recognizes the scale and magnitude of the potential damages and move forward on a contingency basis. In real terms, this class could include 80% of those who had a heart attack, underwent a heart procedure, or subsequently died. According to the latest American Heart Association statistics, this number is estimated to be a least 865,000 persons and the entire class could easily be 10 times that number. Using a conservative estimate of $500,000 in damages per class member, the total damages could exceed $400 billion.

The plaintiffs, defendants, third parties, and facts surrounding the following moot complaint represent an actual incident. The names, specific health information, and dates have been changed to protect potential litigants.

Plaintiff, through his attorneys, brings this action on behalf of himself and all others similarly situated, and on personal knowledge as to himself and his activities, and on information and belief as to all other matters, based on investigation conducted by counsel, hereby alleges as follows:

NATURE OF THE ACTION

1.Plaintiff brings this class action on behalf of himself and all other persons who suffered physical damages or mental distress as a result of receiving a medical diagnosis indicating they had no identifiable heart disease, elevated risk for heat attack, or who were prescribed medications not suited to treat their heart disease once detected.

2.Substantial and irrefutable medical evidence has established that cardiac stress testing is an ineffective method for detecting heart disease of the type that is the root cause in over 90% of all heart attacks and other complications of heart disease that result in death or debilitating injury. A readily available and well-publicized test known as “CT heart scanning” is capable of detecting virtually all heart disease of this nature. It has also been established that simple cholesterol testing often fails to detect persons like likely to develop serious heart disease and prevents them from receiving common treatments capable of reducing or eliminating the source of their undetected heart disease. Readily available blood testing techniques exist that are capable of detecting non-cholesterol related sources of heart disease.

3.The medical community has made significant investments in outdated methods of detecting and treating heart disease. They rely on the revenue streams generated by providing these treatments to persons whose heart disease has progressed to the stage that intervention is required to prevent death or debilitation. Any change in diagnostic or treatment methods resulting in the prevention of heart disease would require substantial investments in new technologies and would severely reduce the market for current treatments. Plaintiffs believe this is a motivating factor in the neglect and willful suppression of readily available technology capable of detecting and preventing heart disease and represents gross medical malpractice.

SUBSTANTIVE ALLEGATIONS

On January 23, 1999, Plaintiff underwent a CT Heart Scan which was interpreted by a cardiologist at the ABC Scan Center . Plaintiff received a report from the Scan Center cardiologist indicating that his “calcium score” placed him in the top 1% for heart attack risk among men in his age group. The report also included the comment “Patient has a high risk of having at least one major stenosis (50% or greater blockage) in his Left Anterior Descending (LAD) artery and is urged to consult with a physician regarding this finding.”

On March 3, 1999 Plaintiff presented Defendant with the results of the January 23, 1999 CT Heart Scan. Defendant told Plaintiff to disregard the CT Heart Scan Results and ordered a physical including a stress test and cholesterol blood test.

On April 1, 2005, Plaintiff had a heart attack and a subsequent coronary angiography that confirmed multiple obstructive coronary plaques in his LAD. Plaintiff received an emergency balloon angioplasty to relieve his acute condition. Substantial damage to plaintiff's heart was incurred before emergency angioplasty could be instituted.

On April 3, 2005, per Defendant's recommendation, Plaintiff underwent open heart surgery to insert three bypasses in his LAD to resolve substantial obstructive heart disease, the same artery identified as having likely obstructive heart disease over 5 years earlier via CT heart scan.

On July 7, 2005, Plaintiff independently obtained additional blood testing not ordered by Plaintiff and was found to have several additional blood abnormalities not discovered by Defendant that are known to contribute to the development of heart disease and were readily treatable using lifestyle changes, nutritional supplements, and prescription drugs.

As early as September, 1996, the American Heart Association (AHA) issued a “Scientific Statement” to health professionals acknowledging the strong link between heart attacks and high calcium scores in asymptomatic patients. Extensive studies and references have confirmed the ineffectiveness of stress testing to reveal early heart disease in asymptomatic patients.

Plaintiff alleges that Defendant failed to utilize readily available medical tests and protocols to identify, aggressively treat, and potentially delay, halt, or reverse advanced heart disease that later resulted in extensive physical and emotional trauma to the Defendant.

PRAYER FOR RELIEF

WHEREFORE, Plaintiff herein demands judgment:

A. Declaring this action to be a proper class action maintainable pursuant to Rule 23 of the Federal Rules of Civil Procedure and declaring Plaintiff to be a proper Class representative;

B. Awarding damages against each defendant, joint and severally, and in favor of Plaintiff and all other members of the Class, in an amount determined to have been sustained by them, awarding money damages as appropriate, plus pre-judgment interest;

C. Awarding Plaintiff and the Class the costs and other disbursements of this suit, including without limitation, reasonable fees for attorneys, accountants, experts; and

JURY DEMAND

Plaintiff hereby demands a trial by jury.

Light the fuse of heart disease

Father Bob, despite his calling as a priest and counselor, led a stressful life. His average day was packed tightly with commitments: counseling members of his congregation, visiting the hospital, more official priest and church duties.

At age 53, his heart scan score of 799 came as a complete surprise. Even more of a surprise, his stress test was dramatically abnormal showing poor flow in the front of his heart at a level of exercise that wouldn't challenge most 75 year olds. His blood pressure with exericse: 230/100. Bob was shocked.

A few stents to the LDL later, Bob was trying to turn a new leaf on lifestyle. His life prior to the diagnosis of heart disease was driven by convenience. Because his day was so filled with commitments, he simply grabbed what he could from hospital cafeterias, fast foods, etc.

But after his procedure, Bob committed to choosing healthier foods, walk every day, and resist the food temptations presented by convenience.

However, temptation defeated him twice in the first few weeks after his stents. On the first occasion, Bob gave into eating a cheeseburger. On the second, Bob was at a fish fry (this is Wisconsin, after all) and ate a large serving of deep-fried fish.

On both occasions, Bob started feeling awful within minutes after eating: foggy, bloated, gassy, and fatigued. He took his blood pressure after each incident: 210/90, even though his blood pressure had more recently been trending down towards 130/80.

What happened? Grotesquely unhealthy foods like the deep-fried fish and cheeseburger provoke an abnormal constrictive process body wide. Some call this "endothelial dysfunction". Regardless, it is a graphic and frightening demonstration of the power of these sorts of unhealthy foods to wreak immediate and dangerous effects. Father Bob's response was more exagerrated than most, but it happens to all of us.

Eat badly and your body will pay the price. Even that occasional hot chocolate sundae or Egg McMuffin will yield cumulative injury, among which will be a rise in your heart scan score.

"I don't know what I'm doing here"

Jim came to the office at the prompting of his wife.

At age 52, Jim was semi-retired, having to work only a few hours a week to maintain his business. He'd had a high cholesterol identified about 10 years earlier and had been taking one or another statin drug ever since.

However, Jim's wife was a pretty savvy girl and understood the inadequacies of the conventional approach to heart disease prevention. Nonetheless, when Jim came in, he declared, "I feel great. I don't know what I'm doing here!"

I persuaded Jim to undergo a heart scan. His score: 2211, in the 99th percentile (the worst 1% for men in his age group). However, it was worse than that. Any score above 1000 carries a heart attack risk of 25% per year unless prevention issues are fully addressed.

Indeed, Jim proved to have far more than a high LDL cholesterol. Among the patterns uncovered with his lipoprotein analysis were small LDL, the postprandial (after-eating) abnormality of intermediate-density lipoprotein (IDL), and high triglycerides and VLDL. All would require correction if Jim is to hope to gain control of his extensive coronary plaque.

The message: Trying to discern risk for heart disease from cholesterol is complete folly. This man was going to die or have an urgent major heart procedure within the next year or two, all while taking his statin drug.

Discard the silly notion that cholesterol tells you everything you need to know about heart attack risk. It does not. It helps a little but leaves vast voids in risk determination. Fill those gaps with a heart scan, plain and simple.

I had a heart attack--and I don't know why!

Kevin came to my office for another opinion.

A husband and father of two teenagers, Kevin had his first heart attack at age 39. Kevin received two stents to his right coronary artery. The entire process took place in a flurry with little explanation over 48 hours, start to finish.

He smoked a pack of cigarettes a day, but the only history of heart disease in his family was his father, who, also a smoker, had his heart disease uncovered in his late 70s.

His internist subsequently prescribed Zocor even though Kevin's LDL cholesterol was a relatively unimpressive 128 mg/dl.

Kevin subsequently asked his cardiologist, "Where did I get the heart disease from?"

"Cigarettes. And genetics. You can quit the first. There's nothing you can do about the second." End of explanation.

This left Kevin frightened and demoralized. If much of the cause of his heart disease couldn't be identified, why bother quitting smoking? Why not enjoy what time he had left?

Kevin was understandably shocked when I told him that genetic causes were 1)identifiable, 2)quantifiable, and 3) correctable.

Kevin's full lipoprotein analysis subsequently showed the most dire combination that commonly accounts for coronary disease in young people: Lp(a) with small LDL particles. This, along with smoking, fully accounted for this young father of two's heart disease.

Along with starting Kevin on a new program for correction of his patterns, I also persuaded him to get a heart scan. What usefulness is a heart scan after the fact? Plenty. Even though Kevin's right coronary was no longer "scorable" because the steel in the stent obscured our measurements, the two remaining unstented arteries would still yield a score. This provides a baseline for future comparison. Even after a stent, Kevin could "track his plaque".

Butter basics

There’s lot of confusion about butter, margarines, and their substitutes. Butter/margarine substitutes that avoid the negative aspects and provide modest health benefits are available, but I find that people confuse what's what. So here’s a brief primer.


Butter--Avoid it. Plain and simple. Butter is a rich source of saturated fat. Of 11.5 grams total fat per tablespoon, 7.3 grams are saturated. It is not better than margarine, contrary to simple-minded reports from some media sources. Butter raises LDL cholesterol, raises blood pressure, and has been related to various cancers.

Margarine--Not better than butter, arguably worse. Some argue that the trans-fatty acids, or hydrogenated oils, used to solidify vegetable oils to make margarine solid are worse than butter. In addition to the ill-effects of butter, margarine reduces HDL and raises cancer risk, perhaps even more than saturated fats. Hydrogenation yields a very unnatural structure that modifies cellular behavior of the sort that may promote the appearance of cancer cells. More recently, however, some of the major manufacturers, like Blue Bonnet, have produced soft spread products without hydrogenation. These are reasonable substitutes when used sparingly.

Smart Balance--This is a product made with canola oil, a source of monounsaturates (the best oil source after omega-3s), but manufactured without hydrogenation and therefore has no trans-fats. It does have, in my view, a bit too much saturated fat (1.5 gm per tbsp. in the 37% Light Spread; 2.5 gm per tbsp in the 67% regular spread). This is a reasonable product to use in small quantities.

There is also a Smart Balance Omega PLUS product that contains added flaxseed oil and sterol esters. I do not recommend this product because of the sterol content (see below). I also object to the manufacturers who label their products “rich in omega-3s” when they mean linolenic acid (in flaxseed), which is converted to a trivial quantity of omega-3s. Linolenic acid may pose unique benefits of its own, but it should not be listed as an omega-3 source.

Benecol--This is a butter substitute that contains stanol esters, a substance that reduces total and LDL cholesterol. Two tablespoons a day reduces LDL around 20 mg/dl, more or less depending on your starting cholesterol.
There’s a light and regular spread. The light contains 20 calories less per tablespoon but somewhat less monounsaturates, but the same LDL-reducing stanol esters. The manufacturer does hydrogenate the oils, yielding 0.5 mg trans-fats per tablespoon--a small drawback.

Take Control--Similar to Benecol, but made with sterol esters. Take Control also reduces LDL cholesterol. However, data from several high-quality studies from Finland suggest that sterol esters may, in some people, be absorbed into the blood. This is potentially concerning. There is a rare disease called sitosterolemia that results in coronary disease in teenagers and young adults in their 20s from increased absorption of sterol esters. While you can’t acquire this genetic disease, some people have the capacity to absorb sterol esters from their intestines very efficiently. I find it very disturbing and I suggest that you stay away this product and other sterol-containing products like HeartWise orange juice and Smart Balance Omega PLUS until the issue is clarified and safety assured.

Brummel and Brown--A blend of vegetable oils (soybean and partially hydrogenated soybean) with calories and fats reduced by blending in yogurt. This is an okay product. The hydrogenation yields trans-fats below the FDA required declaration limit of 1.0 mg.
There’s also 1.0 mg each of saturated and monounsaturated fats. The calories are relatively low as a consequence of the added yogurt, only 45 calories per tablespoon. This makes the Brummel and Brown a reasonable choice.


Other products are making their way out to supermarkets. Look for the type of oil used. Canola, olive, and flaxseed are the best. Also look for trans-fats and saturated fat content; both should be low, preferably <1.0 mg per tablespoon, ideally none.

The best choice among the above products in my view is Benecol, though it’s also the most expensive. It will yield substantial drops in LDL cholesterol. All the products in our informal tastings taste a lot like butter, or at least as well as we can remember what butter tasted like! The key with all of these products is use in moderation, since they all provide between 45?80 calories per tablespoon.

Let Dr. Friedewald rest in peace

In the 1960s, doctors struggled with the concept of cholesterol and its relationship to heart disease. It was becoming clear that higher levels of cholesterol were predictive of heart disease. It was also becoming clear that the low-density fraction of cholesterol, or LDL, was somewhat better than total cholesterol in predicting heart attack.

Cholesterol was easily measurable in the 1960s. LDL was not. So, Dr. Friedewald, a noted lipid researcher at the National Institutes of Health, proposed an easy method to calculate LDL cholesterol from total choleseterol, HDL, and triglycerides:

LDL cholesterol = Total cholesterol – HDL cholesterol – triglycerides/5

This simple manipulation would put LDL cholesterols into the hands of the practicing physician and the American public. Dr. Friedewald recognized that this calculation only represented an approximation of LDL cholesterol and that it was thrown off, sometimes substantially, by any abnormal rise in triglycerides or reduction in HDL. But it served its purpose at an age when most doctors hadn’t even heard of cholesterol and the public was still sold on whole milk and “farm-fresh” butter, and Chesterfields were the cigarette choice of most doctors.



The world has since changed. Most doctors have heard about cholesterol and, along with the public, have been drowned in drug company marketing for cholesterol-reducing drugs. Most people with some level of common sense and health awareness no longer use butter or whole milk, and no longer believe that the brand of cigarette you choose can be healthy. But we’re still using Dr. Friedewald’s original calculation for LDL cholesterol. When you get an LDL cholesterol from your clinic, doctor, or hospital, >99% of the time it is obtained using Dr. Friedewald’s calculation.

Is it because there’s nothing better available? No, it’s not. There’s two reasons why your neighborhood primary care physician or cardiologist is still using this dinosaur of testing called LDL:

1) The lag in science to practice is 20 years. Accept that most primary care doctors are 20 years behind the times on many issues, LDL cholesterol included.

2) Insurance companies vigorously discourage testing beyond conventional lipids. The array of objections we get from insurance companies is mind-boggling. It would be funny if human life and finances weren’t at stake. These “new” tests are “experimental”, “unproven”, not endorsed by standard guidelines, not approved by some internal committee, or simply “We don’t know what this test is” ?we’ve heard them all.

What are the tests that are superior to Dr. Friendewald’s calculated LDL? There are several, listed here in order of best to worst:

1) LDL particle number--the value generated by NMR lipoprotein testing. This is the gold standard, most reliable test available, and the one I recommend.

2) Apoprotein B--More widely available even from conventional laboratories in hospitals. Not as accurate as NMR LDL particle number, but a pretty good choice. Apo B is the principal protein in LDL, VLDL, and IDL particles, and so it’s a better reflector of risk from all of these lipoprotein fractions, not just LDL.

3) “Direct” LDL--This is LDL that is actually measured. Unfortunately, it ignores the issues of LDL size and has some other pitfalls, but it’s still better than calculated LDL

4) Non-HDL cholesterol--So-called because it incorporates all undesirable cholesterol-containing lipids except good HDL, thus “non-HDL”. This is another calculation, though better than LDL (because it sums up the risk from other apoprotein B-containing lipoproteins). Non-HDL is calculated from Total cholesterol – HDL. It’s therefore available from any standard lipid panel. It’s little used in everyday practice, however, because most people and their physicians find it confusing.

5) Friedewald calculated LDL--You can see that calculated LDL is last on a list of choices. Yet this is the measure that doctors use day in, day out. It’s the measure that drug companies base billions of dollars of revenue and profits on.

It’s an everyday occurrence in my office that calculated LDL is 89 mg/dl, but the real value is somewhere between 160 and 200 mg/dl. That’s a big difference. Imagine your realtor tells you your house’s estimated value is $200,000 and that’s what you sell it for to an eager buyer. After closing, you find out your house was really worth $300,000. You’d be upset. But that’s what you’re often getting with LDL cholesterol?a bum deal.

It’s part of the reason people will say, “My doctor said my cholesterol was fine and that no cause for my heart disease can be found. He said it was genetic.” In reality, they could have sky-high LDL cholesterol revealed by LDL particle number or apoprotein B.

Use LDL cholesterol in a pinch when you’ve got nothing else. It’s also helpful to gauge any treatment effect of diet, functional foods, drugs, etc. But it is a seriously flawed tool to diagnose your initial level of risk.

The key to losing weight

I saw three people this past week, all of whom set off on an effort to lose substantial quantities of weight. And all seriously needed to.

All three started with at least 70 lbs. excess weight; all showed substantial weight-sensitive lipoprotein patterns like low HDL, small LDL, high triglycerides, VLDL, and pre-diabetic levels of blood sugar. They also all shared high blood pressure.

All three also had high heart scan scores. Kate’s score was just over 1200. Tom, a 58-year old real estate developer, had a score of nearly 600. Susan, the youngest of the three at 52, had a heart scan score of 377¾99th percentile at this age. Losing weight was an absolute requirement for their plaque control program. Because their lipoprotein abnormalities and pre-diabetic patterns were triggered by weight, weight loss would provide powerful correction. Each and every one of them would need to lose much of their excess weight¾at least 50 lbs¾if they hoped to halt the relentless progression of their heart scan scores.

All three of them returned after 6-8 weeks, and all had lost between 17-24 lbs: spectacular results.

There’s no secret to weight loss. Each of them achieved their weight loss in slightly different ways. But they also shared several critical ingredients in their weight-loss efforts:

1) All three dramatically slashed their intake of wheat flour-containing foods and other processed carbohydrates and did so consistently. All also avoided the usual high-fat, high caloric-density foods like butter, margarine, fried foods, greasy foods, nuts roasted in oil, etc. They concentrated on vegetables, salads, raw nuts, lean proteins (inc. turkey, chicken, fish, lean red meats, low-fat cottage cheese and yogurt).

2) They stopped using food as a reward or as a consolation tool.

3) Exercise for one hour a day at least 5 days a week. The exercise in 2 of 3 of these people was just walking. It wasn’t strenuous, it wasn’t expensive. The women both liked walking with friends or their spouse. Tom followed a more common male path of more strenuous work on his treadmill, elliptical, and biking at the fitness club. But they all did it religiously and missed rare sessions.

4) They refrained from any and all alcoholic beverages. Yes, there are some advantages to 1-2 glasses of wine per day, but it stalls weight loss efforts.

5) They didn’t allow themselves any major indiscretions. There were no binges, major pig-outs at weddings, barbecues, or all-you-can-eat buffets. They did allow themselves an occasional “treat” but did so in small portions.

That’s it. But for most people, that’s simply too much. Adhering to an effort to lose dramatic weight requires day-after-day consistency. Nobody can lose the equivalent of 70,000 calories (20 lbs.) just by skipping a meal, a 20-minute walk, skipping the mashed potatoes at dinner.

It can be done. You’ve just got to be consistent about it.

How can I get my lipoproteins tested?

This question came up on our recent online chat session and comes up frequently in phone calls and e-mails.

If lipoprotein testing is the best way to uncover hidden causes of coronary heart disease, but your doctor is unable, unknowledgeable, or unwilling to help you, then what can you do?

There are several options:

1) Get the names of physicians who will obtain and interpret the test for you. Go to the websites for the three labs that actually perform the lipoprotein tests: www.liposcience.com (NMR); www.berkeleyheartlab.com (electropheresis or GGE); www.atherotech.com (VAP or centrifugation). None of them will provide you with the names of actual physicians. They will provide you with the name of a local representative who will know who the doctors in your area who are well-acquainted with their technology. I prefer this route to just having a representative identify a laboratory in your area where the blood sample can be drawn, because you will still need a physician to interpret the results¾this is crucial. The test is of no use to you unless someone interprets it intelligently and understands the range of treatment possibilities available. Don’t be persuaded by your doctor if he/she agrees to have the blood drawn but has never seen the test before. This will be a waste of your time. That’s like hoping the kid next door can fix your car just because he says he fixed his Mom’s car once. Interpretation of lipoproteins takes time, education, and experience.
2) Seek out a lipidologist. Lipidologists are the new breed of physician who has sought out additional training and certification in lipid and lipoprotein disorders. Sometimes they’re listed in the yellow pages, or you can search online in your area.
3) Contact us. I frankly don’t like doing this because I feel that I can only provide limited information through this method. I provide a written discussion of the implications and choices for treatment with the caveat to discuss them with your doctor, since I can’t provide medical advice without a formal medical relationship. We also charge $75 for the interpretation. But it’s a lot better than nothing.
4) Make do with basic testing. Basic lipids along with a lipoprotein(a), C-reactive protein, fibrinogen, and homocysteine would provide a reasonable facsimile of lipoprotein testing. You’ll still lack small LDL and postprandial (after-eating) information, but you can still do reasonably well if you try to achieve the Track Your Plaque targets of 60-60-60.

In 20 years, this will be a lot easier. But for now, you can still obtain reasonably good results choosing one of the above alternatives.

What do you think about those heart scans?

52-year old Jerry came in for a stress test. He displayed the usual apprehension: fidgeting while he sat on the bed, examining his surroundings, asking lots of questions.

“Your doctor asked you have have a stress test?” I asked.

“All the males in my family have had heart attacks by age 56, so my doctor suggested I have a stress test,” Jerry explained.

Jerry went on to tell me that he had exercised vigorously this morning for 45 minutes without symptoms. He had, in fact, gone surfing just several weeks earlier and described how aerobically challenging it was keeping up with the 20 year olds. “But I did it!” he proudly declared.

As he neared the end of his brisk walk on the treadmill, Jerry asked, “What do you think about those heart scans?”

Jerry had asked his primary care physician the same question. His doctor had apparently told him that they were just a gimmick. “We’ll get you a real test.”

Of course, Jerry’s stress test proved entirely normal. The likelihood of an abnormal stress test with his history of vigorous exercise was <2%. I explained to Jerry that not getting heart scan would be a mistake. In fact, a heart scan was the only easily obtainable test that would uncover hidden heart disease. In truth, the stress test was a waste of time—and an unneeded exposure to radiation.

If Jerry’s heart scan score turned out to be zero, great! He was probably spared the genes from the other males in his family, and his risk of heart attack in the next decade was nearly zero.

If his heart scan turned out be 1000, then an urgent scramble to uncover the causes and correct them to create a truly effective prevention program would be crucial for his long term health. Or, perhaps his score lies somewhere in between, but Jerry would then know how far along he stood on his way to heart disease.

Don’t be a victim of the ignorance of your doctor. Despite all the attention heart scans have received, the majority of doctors remain miserably, inexcusably in the dark. I say inexcusable because CT heart scans can uncover the number one killer of Americans, the number one cause of all deaths in any primary care physician’s practices, and it’s laughably easy. How can a physician not advise patients on the value of heart scans?

If given a choice and you’re without symptoms, a heart scan is far and away the superior test.