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The Peskin Primer - Succesboeken

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<strong>The</strong> <strong>Peskin</strong> <strong>Primer</strong><br />

Understanding Professor* <strong>Peskin</strong>’s Approach<br />

<strong>The</strong> Perfect Ten — Ten Years in Ten Pages<br />

A decade of work by Prof. Brian <strong>Peskin</strong><br />

Pages 1 - 10<br />

Relative Risk — Absolute Deception<br />

Why “Studies” are Misleading—Studies Aren’t Science<br />

Pages 11 - 25<br />

* Brian <strong>Peskin</strong> received an appointment as an Adjunct Professor at Texas Southern University in the<br />

Department of Pharmacy and Health Sciences (1998-1999).


<strong>The</strong> Perfect Ten — 10 Years in 10 Pages:<br />

A decade of work by Prof. Brian <strong>Peskin</strong><br />

<strong>The</strong> world’s leading physiologic EFA expert — Prof. Brian <strong>Peskin</strong><br />

Prof. Brian <strong>Peskin</strong> is a world-leading scientist<br />

specializing in parent EFAs — termed PEOs — and<br />

their direct relationship to both cancer and<br />

cardiovascular disease. While advancing the scientific<br />

understanding of the role of essential fatty acids in the<br />

body’s metabolic pathways, he has concurrently<br />

developed a means for alleviating cancer’s prime cause,<br />

as postulated by Nobel Prize-winner Otto Warburg,<br />

M.D., Ph.D., by increasing cellular oxygenation (<strong>The</strong><br />

Hidden Story of Cancer, www.pinnacle-press.<br />

com). Amazingly, there is a fundamental cancer /<br />

heart disease connection, whereby the same physiologic solution solves<br />

both conditions. This information will lead to a new understanding of how<br />

to treat and prevent both cancer and heart disease. <strong>The</strong> basis for <strong>Peskin</strong>’s<br />

current work, grounded strictly in state-of-the-art science — in particular,<br />

physiology — can be found in his seminal work and peer-reviewed medical<br />

journal articles. Clinical physicians throughout the world have validated<br />

Prof. <strong>Peskin</strong>’s EFA recommendations. In the most exciting development to<br />

date, Brian’s theoretical conclusions were recently and completely validated<br />

in a physiological experiment by precise instrumentation capable of<br />

measuring arterial compliance. This experiment (IOWA experiment)<br />

provided the first conclusive clinical proof and validation of Prof. <strong>Peskin</strong>’s<br />

theory. <strong>Peskin</strong> Pharmaceuticals has a patent pending on the medicament<br />

that embodies this development.<br />

What is a Parent Essential Oil (PEO)?<br />

<strong>The</strong>re are only two (2) essential fatty acids, LA (parent omega-6) and<br />

ALA (parent omega-3). <strong>The</strong>y MUST come from food. To work properly,<br />

they MUST be NOT heated, chemically unprocessed, organically raised<br />

and processed to guarantee full physiologic functionality. Fast foods<br />

use adulterated, non-functional EFAs that can no longer be termed a fully<br />

functional parent essential oils. All other EFAs excluding ALA and LA<br />

are correctly termed EFA “derivatives.” This includes the most common<br />

derivatives such as AA, DHA, EPA, etc. What is not understood by most<br />

physicians is that derivatives are made in the body, from the parent EFAs,<br />

1


on an “as needed” basis in extremely limited quantities. Consumption<br />

of derivatives from food is therefore not necessary, yet fish oil consists<br />

entirely of DHA and EPA in supra-pharmacological OVERDOSES, thereby<br />

overdosing the patient and causing damage instead of health. Few, if any,<br />

physicians ask to see the “normal standard” values of physiologic DHA/<br />

EPA amounts in tissue and plasma compared to the parent PEO amounts<br />

in tissue and plasma. When they discover the truth of how little DHA and<br />

EPA there should be in relation to how much they’ve been administering,<br />

physicians are shocked and dismayed that they have been (unknowingly)<br />

harming their patients, and wish to correct their recommendation to <strong>Peskin</strong><br />

Protocol PEOs (as per the above physician testimonials). <strong>Peskin</strong> Protocol<br />

PEOs are a (patent-pending) plant-based proprietary formulation unlike<br />

any in the world and can be obtained organically from precise mixtures<br />

of sunflower, safflower, pumpkin, and evening primrose seed oils and<br />

coconut oil.<br />

IOWA (Investigating Oils With respect to Arterial blockage) Experiment<br />

This is the first experiment using photoplethysmography to detail the<br />

differences in arterial flexibility between subjects taking PEOs and those<br />

taking fish oil. <strong>The</strong> results were staggering and shocking for those unfamiliar<br />

with <strong>Peskin</strong>’s work. IOWA is the first experiment conclusively proving the<br />

INFERIORITY of fish oil to PEOs as regards cardiovascular protection.<br />

<strong>The</strong> IOWA experiment (whose testing center is in Des Moines, Iowa) is run<br />

under the direction of Prof. <strong>Peskin</strong> (of Houston, Texas) in conjunction with<br />

renowned interventional cardiologist David Sim, M.D. (of Boise, Idaho).<br />

Long-term PEO supplementation in patients presenting with a broad<br />

spectrum of maladies resulted in: 35 subjects, 13 male and 22 female, aged 35-<br />

75. <strong>The</strong> median age was 62 years old. <strong>The</strong>se volunteers were supplemented<br />

with plant-based essential fatty acids of the <strong>Peskin</strong> Protocol formulation for<br />

a period of 3 months to 48 months.<br />

<strong>The</strong> median duration of use was 24 months. Half of the subjects used the<br />

PEO formulation for less than 24 months and half used it for more than<br />

24 months. Twenty-five of the subjects improved their arterial flexibility.<br />

That’s a stunning 73% effectiveness (absolute — not relative). <strong>The</strong> average<br />

improvement was a 9 year decrease in biological arterial age, making<br />

their effective age younger than their physical age.<br />

What is outstanding is the NNT (number needed to treat to see an effect<br />

in just one person) was 1.4. Pharma considers an NNT of less than 50 a<br />

good result for the effectiveness of their drugs. For example, for statins, the<br />

2


NNT to “prevent” one cardiovascular event is >80. That means more than<br />

80 people would need to take a statin to see a single positive outcome. In<br />

contrast, just 1.4 people taking parent essential oils are required to see a<br />

positive outcome in 1 person. <strong>The</strong> statistical significance of the experiment,<br />

according to Alex Kiss, PhD, a statistician who has worked as consultant to<br />

the National Institute of Health (NIH) and is co-author of numerous peerreviewed<br />

medical journal papers, including New England Journal of Medicine<br />

and Cancer, is extremely high (99.85%), compared to most studies, which<br />

come in at only 95%. This experiment is 30 times more accurate than the<br />

average clinical study. That means the results can’t be due to chance or<br />

error. <strong>The</strong> mean (average) arterial (biological) age of the subjects dropped<br />

over 8.8 years — making each of them in effect a younger patient!<br />

Predictable failure of fish oil<br />

In a completely different group of subjects, fifteen (15) subjects (7 males and<br />

8 females aged 46-74, average age was 60 years old) were consuming fish<br />

oil supplements for at least 6 months prior to switching to PEOs. Baseline<br />

analysis was performed prior to switching to PEOs. After an average time<br />

duration of PEO use of only 3.5 months, another scan was performed.<br />

Thirteen (13) of the 15 patients improved. That’s an 87% effectiveness<br />

rate, a NNT of only 1.2, and a reduction in biological arterial age of 11.1<br />

years, measured by standard population samples. One subject remained<br />

unchanged, and one subject worsened (by a mere 1 year, which is statistically<br />

irrelevant). <strong>The</strong> statistical significance was 99.99%. CONCLUSION: you<br />

can take this result “to the bank.”<br />

It gets even more exciting. In subjects with high cholesterol, simply<br />

replacing their fish oil with PEOs improved 6 of the patients. Here the<br />

NNT to improve the vascular system in those with high cholesterol was<br />

an incredible 1.2. One subject with both diabetes and high cholesterol<br />

improved. Again, statins would need more than 80 people treated to effect<br />

one less cardiovascular event, an NNT of 80 (at best, as some studies show<br />

statins have an NNT of 300+). In two patients on statins, both improved<br />

their arterial flexibility by 20 years with the PEO formulation. Here, we<br />

have a group of people across all walks of life – no special groups were used<br />

and no particular groups were excluded. Using fish oil, the biological mean<br />

(arithmetic average) arterial biological age was 49. After using PEO, it fell<br />

to 38 — 11 years YOUNGER. CONCLUSION: compared to PEOs, fish oil<br />

worsens the cardiovascular system.<br />

3


Fish oil (and krill oil) don’t work in clinical practice<br />

(despite most everyone saying they do)<br />

Sometimes, ingrained beliefs, even those without scientific foundation, are<br />

hard to change. As has occurred with many other nutritional supplements<br />

once in the limelight, there is little, if any, scientific validity to fish oil<br />

and krill oil’s miraculous claims. It is simply another case of “finance<br />

masquerading as science”— in this case, developing new markets for fish<br />

— and of medicine’s long history of mistakes and wrong recommendations.<br />

Making money is fine when you truly help people, but not when you harm<br />

them, even unknowingly. Results consisting of mere “associations,” and<br />

“studies“ conducted without valid experiments in which only one variable<br />

is changed at a time are meaningless. That’s why the recommendations<br />

from most “studies” are later reversed and withdrawn, which leaves the<br />

lay public confused.<br />

In sharp contrast, the IOWA experiment is definitive and remarkable in<br />

proving PEOs increase arterial compliance (flexibility). When physicians<br />

hear of IOWA, they realize this information is irrefutable because these<br />

results, unlike those of other “studies,” are not open to interpretation; the<br />

machine output of photoplethysmography is akin to measuring one’s weight<br />

with a scale. IOWA’s landmark results afford a unique and significant<br />

opportunity. Melatonin was hailed decades ago as a “wonder supplement,”<br />

then faded into obscurity because its benefits were never based on science.<br />

IOWA’s results are based solely on science and the positive results are<br />

predicted theoretically. <strong>The</strong>se results, like gravity, are here to stay.<br />

Fish oil supplements were an initial attempt at correcting EFA deficiencies<br />

due to the widespread consumption of processed foods, but its constituents<br />

are far from being correct physiologically for most tissue. In fact, contrary to<br />

helping patients, fish oil is harmful for most patients. With today’s stateof-the-art<br />

science spearheaded by Prof. <strong>Peskin</strong>, we can move far beyond fish<br />

oil and significantly improve patient outcomes. PEOs’ significant positive<br />

effects in increasing cardiovascular compliance (increased arterial<br />

flexibility) compared to fish oil — IOWA experiment — resulted in an<br />

11.1-year biological age improvement (a younger patient). <strong>The</strong> following is<br />

a representative sampling of international physicians using <strong>Peskin</strong> Protocol<br />

PEOs instead of fish oil:<br />

“Having implemented EFA supplementation for over 25 years,<br />

clinical results were mediocre until I began using the <strong>Peskin</strong><br />

4


Protocol. Dr. Rudin’s work with flax oil was important but<br />

lacked clinical effectiveness; likewise with Horrobin regarding<br />

GLA from Borage, Black Currant, and Evening Primrose oils.<br />

Unlike the studies suggested, fish oil, too, was disappointing.<br />

Finally, I read <strong>The</strong> Hidden Story of Cancer, which introduces<br />

the <strong>Peskin</strong> Protocol. Once implemented, I experienced clinical<br />

success. Although Brian’s book deals extensively, but not<br />

exclusively, with cancer prevention, utilizing his protocol I<br />

have seen positive results (dermatological, cardiovascular,<br />

pediatric, and neurological) in over 100 of my patients.”<br />

Abram Ber, M.D., Homeopathy<br />

(Phoenix Scottsdale, AZ)<br />

“As a practicing cardiologist, I have a strong interest in both<br />

the treatment and prevention of cardiovascular disease. As<br />

Brian details, the paramount discovery by Otto Warburg<br />

regarding oxygenation must also be considered the most<br />

important physiologic discovery in the cardiovascular disease<br />

arena. Brian has advanced the basic science principles<br />

of Warburg into a practical, cost-effective formula – the<br />

<strong>Peskin</strong> Protocol – for patient care utilizing an increased<br />

scientific understanding of Omega-6 and Omega-3 essential<br />

fatty acid ratios. For those patients in my practice, and<br />

others I am aware of (hundreds) willing to embrace<br />

these basic principles, I have seen clinical improvement<br />

and success without adverse effects. Brian <strong>Peskin</strong>, in my<br />

opinion, has diligently and carefully “teased out” from the<br />

available, published scientific data base the links necessary<br />

to explain, understand, and help combat the most prominent<br />

cardiovascular state faced by patients.”<br />

David Sim, M.D., Interventional Cardiologist (Boise, ID)<br />

“I have been using the <strong>Peskin</strong> Protocol EFAs for the last<br />

five months. I have had excellent reports from patients.<br />

Previously, I was recommending fish oil to almost all my<br />

patients. Some improved, specifically those with joint pains<br />

and heart disease. However, I did not see any improvement<br />

in my diabetic / HTN patients or those w/dermatologic<br />

problems. In fact, the latter group actually got worse. <strong>The</strong>se<br />

patients had eczematous type rashes and psoriasis. After<br />

reviewing Brian’s data regarding the concentration ratios of<br />

parent Omega-6 to parent Omega-3 in various tissues, it all<br />

made sense – five out of six (83%) of my worst dermatologic<br />

5


cases showed good to very good improvement in as little<br />

as three months with <strong>Peskin</strong> Protocol. Just taking Omega-3<br />

alone (flax or fish oil) without regard to the appropriate<br />

balance can adversely affect diabetic patients. This was<br />

proven in two of my patients. <strong>The</strong>se patients kept meticulous<br />

effect of diet on their glucose levels. Without changing their<br />

diets, they noticed significant elevations in the glucose<br />

levels after Omega-3 fatty acids for three to four months;<br />

one patient had an increase of 40 points. After starting the<br />

proper balanced blend of parent Omega-6 and -3, not only<br />

did their BS normalize to more normal values, but they felt<br />

better overall and both commented that their energy level<br />

improved. Use of the <strong>Peskin</strong> Protocol in clinical practice<br />

has made a strong believer out of me, and I will continue to<br />

recommend this product to ALL my patients and refer them<br />

to <strong>Peskin</strong>’s research for more information.”<br />

Angelo A. Della Pietra, M.D., D.O., Family and Integrative Medicine<br />

(Poughkeepsie, New York)<br />

“I had been taking high-dose fish oil for many years in an<br />

attempt to prevent C-V disease and retard inflammation.<br />

However, I noticed that my fasting blood sugars were always<br />

in the high range (100-115) and measurements of oxidative<br />

stress also reflected high levels. No one could explain it since<br />

my hemoglobin a1c always stayed low. Since switching to<br />

the parent EFAs (PEOs), as recommended in <strong>The</strong> Hidden<br />

Story of Cancer, my FBS came down to 84. My lipids also<br />

looked better than ever. I think many of our colleagues do<br />

not appreciate the dangers of high dose fish oil. Derivative<br />

EFAs like fish oil easily oxidize, and although some surrogate<br />

markers may improve, the final cost is still unknown. Thanks<br />

so very much for your book.”<br />

A4M Fellowship physician Ira L Goodman, M.D.<br />

Ophthalmic Surgeon (retired), Holistic Medicine<br />

“Impeccable research and novel insights of sheer genius.<br />

Brian’s accomplishment is singular - no groups, no public<br />

money, only elegant science showing how proper use of EFAs<br />

is the missing link for practical application of Otto Warburg’s<br />

discovery. This knowledge is priceless for your future<br />

health.”<br />

Brian N. Vonk, M.D., Board certified: Internist, Cardiologist<br />

and Radiologist (Norfolk, Nebraska)<br />

6


“This information could prove to be one of the most significant health<br />

discoveries of the 21st century. It is extraordinary. Finally, an effective and<br />

practical program of cancer prevention. Brian <strong>Peskin</strong> has put together a<br />

program that must be called ‘brilliant.’ It is a must... for all.”<br />

Stephen Cavallino, M.D., Emergency Physician, Prototherapy Specialist,<br />

(Reggio Emilia, Italy)<br />

How and why PEOs work when omega-3 derivative fish oil<br />

doesn’t work?<br />

Physiology is the prime science utilized to determine the correct tissue amounts of parent<br />

omega-6, parent omega-3, and their derivatives. Once these values are known, biochemistry<br />

may then be utilized. Fortunately, these physiologic values have already been determined,<br />

making it immediately obvious why fish oil can’t possibly work as claimed because, aside<br />

from the brain and nervous system, the body has little use for DHA/EPA. <strong>The</strong> prime<br />

issue that everyone overlooks is that the body can easily supply the brain and nervous<br />

system with adequate parent PEOs without the risk of overdosing on EPA/DHA. <strong>The</strong>re is<br />

a maximum of


Amounts of EPA/DHA in fish oil<br />

It is common amongst fish oil capsule manufacturers to have in excess of 300 mg of EPA<br />

and over 200 mg of DHA, with insignificant amounts of other omega-3 derivatives. <strong>The</strong>y<br />

typically recommend 2 capsules each day for a total of over 600 mg EPA and 400 mg<br />

DHA daily. Three grams of PEOs per day is the general prophylactic dosage. <strong>The</strong>refore<br />

the amount of parent omega-3 (ALA) is approximately 1,000 mg. Given that 2% maximum<br />

of this would be converted into the omega-3 derivative DHA, that would mean the body<br />

would naturally convert only 20 mg to DHA. Contrast this with the fish oil dosage of more<br />

than 400 mg, i.e., a DHA pharmacological overdose by a factor of 20! EPA overdose is<br />

even worse, as only 0.26% of ALA is normally converted. Of the 1,000 mg of ALA in <strong>Peskin</strong><br />

Protocol PEOs, just 2.6 mg is converted, whereas the fish oil supplement provides over<br />

600 mg or a 250-fold pharmacological overdose of EPA. This is analogous to giving the<br />

patient 250 aspirin tablets — you would kill him! Krill oil has less of the overdose amounts<br />

(approximately 130 mg EPA and 70 mg DHA per capsule) but it is still quite harmful.<br />

Given these facts, is it any wonder that fish oil categorically fails in experimental tests? No,<br />

of course not. Recommending these pharmacological overloads without compensating<br />

PEOs or omega-6 based derivatives is even worse, because of the gross disparity between<br />

the omega-6 and omega-3 series derivatives. Fish oil is harmful to most patients and the<br />

IOWA experiment proves its enormous NEGATIVE effect in the cardiovascular area.<br />

Photoplethysmography (PTG) / Digital Pulse Analysis (DPA) and<br />

why I trust it<br />

Photoplethysmography (PTG) is a noninvasive method to measure arterial<br />

compliance (flexibility). Processing of this waveform by digital pulse<br />

analysis (DPA) affords clinicians a superb diagnostic tool. “Hardening<br />

of the arteries” is a prime cause of heart disease. <strong>The</strong>refore, reversing or<br />

eliminating hardening of the arteries leads to significantly less patient heart<br />

disease. A digital pulse analyzer (DPA) can measure arterial flexibility. This<br />

device is simple. You put your finger in a plastic clip. It emits a soft laser<br />

light into your fingernail, much like an oxygen analysis with the common<br />

pulse oximeter. <strong>The</strong> waveform it reads is an incredibly accurate measure<br />

of the elasticity (or stiffness) of both your large (aorta) and small arteries of<br />

8


the cardiovascular system. Arterial rigidity is a direct reflection of arterial<br />

damage and arteriosclerosis. Computer software analysis allows simple<br />

and precise computation of the speed and volumes of the blood along with<br />

the associated waveforms over time. Mathematically, second derivatives (a<br />

tool of calculus) of the PTG waveforms are then taken to produce another<br />

waveform termed an accelerated plethysmograph (APG). This output is<br />

compared with outputs of known population values so it is easy to provide<br />

a “biological age” of the arteries based on already scanned populations.<br />

Supplementation with PEOs resulted in substantial improvement in arterial<br />

flexibility — i.e., a younger patient.<br />

Flax, krill, and coconut oils ... Aren’t they good?<br />

Flax oil contains much more parent omega-3 than omega-6 — a backwardsphysiologic<br />

ratio. Krill oil is in the same category as fish oil. Furthermore,<br />

no human would ever naturally eat krill, as it is a food for whales, seals,<br />

penguins, squid, various fish, and sea birds, not humans — as they are simply<br />

9


too small to bother with. Most of the krill catch is used for aquaculture and<br />

aquarium feeds, as bait in sport fishing, or in the pharmaceutical industry.<br />

Coconut oil is not unhealthful, but contains very few PEOs (


Appetite<br />

• Less Cravings<br />

• Less Hunger<br />

• Better Appetite<br />

Fulfillment<br />

Heart Health<br />

• Flexible Arteries<br />

• Clean Arteries<br />

• Fast Blood flow<br />

• Lower Blood Pressure<br />

• Improves Lipids<br />

Beauty<br />

• Healthier Skin<br />

• Less Dandruff<br />

• Less Cellulite<br />

• Healthier Hair<br />

• Eczema Improved<br />

Diabetes<br />

• Less Sweet Cravings<br />

• Lower Blood Sugar<br />

• Less Neuropathy/<br />

Retinopathy<br />

PEOs<br />

SUPPORT<br />

Anti-inflammation<br />

• Less Arthritis<br />

• Less Joint Pain/Swelling<br />

• Faster Healing<br />

Hormones/Endocrine<br />

• Better Sexual Function<br />

• Smoother Pregnancies<br />

• Less PMS<br />

• Fewer Headaches<br />

Brain Health<br />

• Better Clarity<br />

• Better Focus<br />

• Improved Memory<br />

• Helps Improve<br />

ADD & ADHD<br />

Endurance<br />

• More Energy<br />

• Less Fatigue<br />

• Greater Intensity<br />

• Faster Recuperation<br />

11


Relative Risk — Absolute Deception<br />

Why “Stuides” Are Misleading—Studies Aren’t Science<br />

This report was developed to assist physicians and health care professionals<br />

in their evaluation of treatment protocols. It also serves as a response to the<br />

following question:<br />

How Can Professor <strong>Peskin</strong> Be Right and Everyone Else Wrong?<br />

I am frequently asked, “How can you be right, and everyone else wrong?”<br />

This is a valid question. First, everyone else is not “wrong.” <strong>The</strong>re are others<br />

who understand and report on the pharmaceutical companies’ statistical<br />

misrepresentations, but they are typically overlooked by the media. I<br />

am not alone in exposing the fallacies behind many pharmaceutical and<br />

nutraceutical “successes.” In particular, world-renowned physician,<br />

mathematician and statistician John P.A. Ioannidis, MD, DSc, is a prominent<br />

colleague who has been questioning the “massaged” pharmaceutical<br />

statistics for many years.<br />

I am right in my scientific conclusions because, like Dr. Ioannidis, I<br />

follow the science and only use studies to confirm where the sciences of<br />

human physiology and biochemistry lead. I also understand the science of<br />

statistics and am not easily fooled by its often-improper use by those more<br />

interested in finance than accuracy. But physicians and health researchers<br />

are overworked and have precious little time to do their own research and<br />

analysis of the latest “breakthrough” study. <strong>The</strong>y need to be able to rely<br />

upon studies published in the professional journals.<br />

Sharon Begley’s insightful Newsweek article, “Why Almost Everything<br />

You Hear About Medicine is Wrong,” which cites Dr. Ioannidis’ findings,<br />

was published in the January 31, 2011 edition on pages 8-9. Prepared to be<br />

shocked:<br />

• “But what if wrong answers aren’t the exception but the rule? More<br />

and more scholars who scrutinize health research are now making<br />

that claim.<br />

• “…[T]he very framework of medical investigation may be offkilter,<br />

leading time and again to findings that are at best unproved<br />

and at worst dangerously wrong.<br />

• “<strong>The</strong> result is a system that leads patients and physicians astray—<br />

spurring often costly regimens that won’t help and may even harm<br />

you.<br />

12


• “As the new chief of Stanford University’s Prevention Research Center,<br />

Ioannidis is cementing his role as one of medicine’s top mythbusters.<br />

‘People are being hurt and even dying’ because of false medical<br />

claims, he says: not quackery, but errors in medical research .<br />

• “But if Ioannidis is right, most biomedical studies are wrong. [Note: Dr.<br />

Ioannidis is very right!] 1<br />

• “In just the last two months, two pillars of preventive medicine fell.<br />

• “A major study concluded there’s no good evidence that statins<br />

(drugs like Lipitor and Crestor) help people with no history of<br />

heart disease. <strong>The</strong> study, by the Cochrane Collaboration, a global<br />

consortium of biomedical experts, was based on an evaluation of<br />

14 individual trials with 34,272 patients. Cost of statins: more than<br />

$20 billion per year, of which half may be unnecessary. [Note:<br />

This evaluation did not even consider the negative side-effects<br />

unnecessarily experienced by the unsuspecting patients.]<br />

• “‘Negative results sit in a file drawer, or the trial keeps going in<br />

hopes the results turn positive.’ With billions of dollars on the<br />

line, companies are loath to declare a new drug ineffective. As a<br />

result of the lag in publishing negative studies, patients receive a<br />

treatment that is actually ineffective. That made Ioannidis wonder,<br />

how many biomedical studies are wrong?<br />

• “His answer, in a 2005 paper: ‘the majority.’ From clinical trials of<br />

new drugs to cutting-edge genetics, biomedical research is riddled<br />

with incorrect findings, he argued. Ioannidis deployed an abstruse<br />

mathematical argument to prove this, which some critics have<br />

questioned. [Note: I found his proof unquestionably correct.]<br />

• “Stanford, the epitome of the establishment, hired him [Dr. Ioannidis]<br />

in August to run the preventive-medicine center. ‘<strong>The</strong> core of<br />

medicine is getting evidence that guides decision making for patients<br />

and doctors,’ says Ralph Horwitz, chairman of the department of<br />

medicine at Stanford. ‘John has been the foremost innovative thinker<br />

about biomedical evidence, so he was a natural for us.’<br />

1. When I was working on my undergraduate thesis at M.I.T., I derived a different result than one<br />

reported in a top science journal. Naturally I thought I was wrong, but I wasn’t wrong. To my<br />

surprise, my thesis adviser told me that 95% of the published journal articles are WRONG. As a<br />

young student, I was shocked and appalled! When it comes to the next “miracle” product, you<br />

should approach the journals with a healthy dose of skepticism<br />

13


“Ioannidis’s first targets were shoddy statistics used in early genome<br />

studies. [Note: See the report, “Good News: It’s Not Genetic” at www.<br />

brianpeskin.com.]<br />

• “‘When you do thousands of tests, statistics says you’ll have some<br />

false winners,’ says Ioannidis.<br />

• “Drug companies make a mint on such dicey statistics. By testing<br />

an approved drug for other uses, they get hits by chance...<br />

• “Even when a claim is disproved, it hangs around like a deadbeat<br />

renter you can’t evict.”<br />

(Emphasis added.)<br />

I warned you in advance that you’d be shocked to discover this deception.<br />

Now, I will give you the tools so that you will never be fooled again.<br />

Deceptive Statistics Mislead Patients…<br />

• Recently, a physician colleague told me that there were over fifteen<br />

thousand — that’s correct, 15,000 — studies showing fish oil’s<br />

effectiveness. My first response was laughter.<br />

• <strong>The</strong> next day, a close friend of my wife told her she needed to take<br />

calcium because it decreased risk of colon cancer by 40%. She went<br />

on to explain that because she was taking it, and my wife was not,<br />

that she had a 40% lower risk of contracting colon cancer. Again, I<br />

started laughing…<br />

• Later in the week, another physician colleague told me statins<br />

decrease the chance of a heart attack by over 30%. You’ve likely<br />

guessed it… more uncontrollable laughter. We shall soon discover<br />

why, but first let’s explore the reasons for the absurd number of<br />

repetitive studies.<br />

Startling Revelation: <strong>The</strong> number of studies is inversely<br />

proportional to the effectiveness of what is being studied.<br />

<strong>The</strong>re should not be a need to keep repeating studies<br />

unless the substance being studied doesn’t work; if you<br />

do this, you are trying to get random chance<br />

14


to back up your study, rather than science<br />

confirming its effectiveness. This is precisely<br />

the reason why there may be 1,000 studies showing a<br />

positive result and 950 showing a negative result, yet<br />

the “positives” are considered to prevail. Physicians will<br />

actually say this slight preponderance “proves it works.”<br />

This is dreadfully WRONG and shows an enormous<br />

lack of scientific reasoning by the health and medical<br />

professions, because they have no idea of where the<br />

science is leading them. Experimental results MUST<br />

CONFIRM science‘s prediction, not be counter to it.<br />

How we become misled is described below.<br />

Is Gravity Confirmed on a Weekly Basis?<br />

How many experiments have been recently done confirming gravity? None.<br />

It was proven hundreds of years ago, and a small number of scientists<br />

confirmed its mathematical effects, resulting in proven theorems such as<br />

that showing the relation between how much distance is traveled versus<br />

the length of time an object drops when released from the top of a tall<br />

structure. Case closed. Contrast this to fish oil’s reported 15,000 studies.<br />

Consider why so many studies need to be done IF it really works. When<br />

you hear terms like “1,000 studies show…” simply ask, “why so many?”<br />

You are being deceived.<br />

When a study or, better yet, an experiment (which has just one highly<br />

controlled variable), is conducted, the result is either significant in<br />

EFFECTIVENESS — working very well on the vast majority of patients —<br />

or it isn’t. <strong>The</strong>n, if you want to double check, another group performs the<br />

same experiment ONCE more, to confirm it. That’s it. (As an example of<br />

both high effectiveness and high significance see www.brianpeskin.com for<br />

the IOWA Experiment.)<br />

Before any experiment is conducted, one should have a good idea of what the<br />

result will be based on established physiology and biochemistry. This was<br />

conveyed to me while a student at Massachusetts Institute of Technology<br />

(MIT). <strong>The</strong> experiment should merely CONFIRM the SCIENCE.<br />

As a prime example, take fish oil. <strong>The</strong> simple reason for so many “studies”<br />

is that it simply doesn’t work as we are led to believe. Fish oil doesn’t work<br />

because it can’t work. It can’t work because there are no significant metabolic<br />

pathways that omega-3 EFA derivatives influence that could possibly give<br />

15


those supposed “extraordinary” results (see www.brianpeskin.com for<br />

“Fish Oil Fallacies” report). A quick review of physiology (see ”Fish Oil<br />

Fallacies” at www.brianpeskin.com) tells us why it can’t work — humans<br />

don’t live in frigid cold waters like most fish do. EPA/DHA oxidize (turn<br />

rancid and spoil) automatically at room temperature and oxidize even more<br />

rapidly at body temperature.<br />

Physicians are in an Unfortunate Situation<br />

Physicians want to help their patients. As a result, they are often quick<br />

to dismiss failure or harmful side effects in order to give something to a<br />

suffering patient. As a recent example, physicians often told patients that<br />

side effects such as muscle weakness, cognitive impairment, decreased<br />

sexual desire, etc., did not occur from statin use. After 10 years of steadfastly<br />

denying that these harmful side effects existed, physicians recently had no<br />

choice but to acknowledge them.<br />

Clear thinking is required of today’s medical<br />

researchers; unfortunately, it doesn’t often occur.<br />

“<strong>The</strong> scientists of today think deeply instead of clearly.<br />

One must be sane to think clearly, but one can think<br />

deeply and be quite insane.”<br />

Nicola Tesla<br />

Finance Masquerades as Science….<strong>The</strong> Ultimate Tragedy<br />

To compound the problem, finance often masquerades as science. Nutritional<br />

companies and pharmaceutical companies often mislead both physicians<br />

and their patients while chasing profits. Instead of measuring the outcome<br />

directly, such as fewer heart attacks or less cancer, “surrogates” are used. A<br />

surrogate is a substitute measure assumed to be associated with the desired<br />

outcome. This consistent mistake often leads to the tragedy of more failure.<br />

For example, doctors and researchers concentrate on lowering cholesterol<br />

rather than studying the ultimate objective of decreased heart attacks. <strong>The</strong>re<br />

is an assumed relationship. However, this is not backed up by the science:<br />

while drug companies have done a wonderful job of discovering cholesterollowering<br />

drugs, this has unfortunately not translated into fewer heart<br />

16


attacks. Yet this practice is so prevalent that it has become “conventional<br />

wisdom” that you are supposed to reduce your (LDL) cholesterol!<br />

Without being overly cynical, this is done because the latest “wonder” drug<br />

likely has an effect on the surrogate, without regard to its DIRECT impact<br />

on the problem at hand. Consequently, the drug-company-led studies focus<br />

on their drug’s ability to alter the surrogate.<br />

“Effectiveness” is Interpreted Quite Differently Than Any<br />

True Scientist Would<br />

If I were told that taking a drug affords me 40% less risk, then I would assume<br />

that taking that drug would reduce my risk of contracting said disease by<br />

40% compared to someone not taking the drug. WRONG. You can’t tell the<br />

size of the effect unless you know the subject population size. This “40%<br />

reduction” that you think you have achieved would be what is called an<br />

“absolute” risk, but all the pharmaceutical studies use “relative” risk<br />

when reporting statistics. <strong>The</strong> difference is staggering, and it is virtually<br />

guaranteed that the real difference, the ONLY one that matters, is FAR<br />

LESS than the reported percentage. This is illustrated in the example below.<br />

Absolute Risk vs Relative (“Endpoint”) Risk — A Case Study<br />

in Tortured Logic<br />

Question: What is the difference between 2 successes in 1,000,000 (drug)<br />

vs. 1 success in 1,000,000 (placebo)?<br />

Drug<br />

Placebo<br />

2 patient successes out of vs 1 patient success out of<br />

1,000,000 patients treated 1,000,000 patients treated<br />

Answer: <strong>The</strong> absolute result is 0.0002% vs. 0.0001%, or effectively 0%<br />

success in both cases―ABSOLUTE FAILURE...<br />

That is, unless you are part of the pharmaceutical or nutraceutical industry,<br />

whereby 0% success MAGICALLY BECOMES 50% success.<br />

Here’s how they deceive you: <strong>The</strong> calculation they will use is this: Ignoring<br />

the total number of patients tested, they will say that there is a 50% difference<br />

in effectiveness of the results (2 to 1). <strong>The</strong>y have deleted the sample size of<br />

1,000,000 patients. This calculation of 50% is termed “relative” risk because<br />

the sample size was deleted and only the “endpoints”— the successes in each<br />

group — are used. <strong>The</strong>re is only one “small” problem with this method of<br />

reporting the drug’s supposed success—it’s absurd!<br />

17


Absolute Risk MUST Include Sample Size<br />

No honest scientist or physician would<br />

claim a 50% improvement with this drug,<br />

because the SAMPLE SIZE is not included.<br />

In the following statin example, 1% “magically becomes 36%,” misleading you<br />

as to the true, accurate measure of difference in heart attack risk. <strong>The</strong> TRUE<br />

EFFECTIVENESS is the difference in results in ABSOLUTE MEASURES<br />

that INCLUDE SAMPLE SIZE: 3% effectiveness of the statin minus 2%<br />

effectiveness of a placebo equals 1% effectiveness in absolute terms. That’s<br />

right, a shockingly low 1% is reported as a much more significant 36%!<br />

<strong>The</strong> correct effectiveness is NOT calculated as (3% – 2%)/3% = 33%, which<br />

the drug companies purposely and deceptively use.<br />

18


Shockingly, there is a one percent (1%)<br />

difference in effectiveness between the<br />

results with Lipitor and the results with<br />

a placebo. If you were given this information,<br />

would you take this drug? Of course not. That is,<br />

IF you knew and understood the TRUTH.<br />

This miniscule 1% difference is termed absolute risk and correctly takes into<br />

account the sample size. This leads to NNT (number needed to treat) and<br />

shows why it is critical when evaluating the effectiveness of a protocol.<br />

NNT (Number Needed to Treat) is Paramount — Not Misleading<br />

“Endpoint” Statistics<br />

Many physicians are misled because they have no idea the pharmaceutical<br />

companies are allowed to manipulate statistics. Pharmaceutical companies<br />

shockingly, yet legally, get to remove the sample size. Again, when is one<br />

patient event in a million (drug) compared to two patient events in a million<br />

(placebo) equal to 50% improvement instead of the statistically correct 1 in<br />

1,000,000 or 0.0001%? Answer: with the fanciful “pharmaceutical endpoint<br />

method,”also termed “relative risk,” as Professor of Medicine Stanton Glantz<br />

so aptly put in his book. (Glantz SA. <strong>Primer</strong> of Biostatistics. 5th ed. New<br />

York, NY: McGraw-Hill, 2002, 149-156.)<br />

You will often see the statement, “Lipitor reduces the risk of heart attack<br />

by 36% ... in patients with multiple risk factors for heart disease,” quoted<br />

in drug ads, such as the one on television a few years back featuring Dr.<br />

Robert Jarvik, inventor of the Jarvik artificial heart. In newspaper ads, the<br />

36% comes with an asterisk (*) saying, “That means in a large clinical study,<br />

3% of patients taking a sugar pill or placebo had a heart attack compared<br />

to 2% of patients taking Lipitor.” <strong>The</strong> difference between the treated and<br />

non-treated groups is a miniscule 1%, hardly worth getting excited about<br />

UNLESS you are a pharmaceutical or nutraceutical company that has<br />

already invested hundreds of millions of dollars in this drug and must<br />

ultimately sell this FAILURE to the desperate masses.<br />

In the case of statins, the NNT is 100 (the reciprocal of the absolute risk, i.e.<br />

1/1% = 1/.01 = NNT of 100). No, this “100” isn’t a perfect score you aspire<br />

to on a college exam; quite the contrary, it is an awful score. It means that<br />

to see a positive effect in just one patient, one hundred patients have to be<br />

19


treated, and often treated for many years at that. <strong>The</strong>refore, 99 out of 100<br />

patients will see no positive effect — a 99% FAILURE RATE! Many medical<br />

researchers are convinced that the real NNT for statins in a standard mixed<br />

population, such as the typical patient a physician treats for CAD, may be<br />

closer to 250. Even assuming the lower 100 NNT figure, this is even more<br />

problematic for statins’ performance because 10% to 15% of statin patients<br />

experience negative side effects, including sexual dysfunction, muscle<br />

aches – prominently mentioned on Lipitor’s label – and significant cognitive<br />

problems, including loss of memory. Be aware that neither the NNT nor<br />

any of the risk statistics looks at negative side effects. This is an entirely<br />

separate issue.<br />

Dr. Nortin M. Hadler, Professor of Medicine at the University of North<br />

Carolina at Chapel Hill and a long-time drug industry critic, states,<br />

“Anything over an NNT of 50 is worse than a lottery ticket; there may be no<br />

winners.” (Carey J., “Lipitor: for many people, cholesterol drugs may not<br />

do any good,” BusinessWeek. January 17, 2008:52-59.) Even Las Vegas has<br />

games with a chance of winning greater than 1% or 2%. Shouldn’t drugs or<br />

nutraceuticals have a higher standard?<br />

Grasping the Magnitude of the Problem<br />

Decades old antibiotics commonly have an NNT = 1.1. When 11 people<br />

are given antibiotics, ten patients are cured of the problem for which the<br />

antibiotics were prescribed. Contrast this with statins, where 100 patients<br />

are given the drug and one person is helped; NNT = 100.<br />

<strong>The</strong> higher the NNT, the LESS effective the drug.<br />

If you remember only one point from this report, it should be that the<br />

intelligence of the answer is directly related to the intelligence of the<br />

question. Don’t let yourself be misled with shoddy statistics that don’t<br />

include the critical sample size.<br />

One Last Critically Important Thought<br />

When you receive news of the next “miracle” supplement, aside from<br />

requiring SPECIFIC METABOLIC PATHWAYS and state-of-the-art<br />

physiologic science supporting these claims, ask yourself:<br />

20


1. Why is this needed TODAY when it wasn’t needed years ago?<br />

Take fish oil supplements. People living in 1950 certainly consumed<br />

significantly less fish oil supplements than we do today; there was only a very<br />

small market for it. <strong>The</strong> supposed benefits of fish were not publicized in<br />

1950, and fish oil supplementation (being highly susceptible to spoilage)<br />

was simply not as common as it is today. <strong>The</strong>refore, we should have seen<br />

gross pathological disorders due to the deficiency of DHA/EPA found in<br />

those supplements, which of course we did not.<br />

• Were there tremendous neurological impairments in the brain, eyes,<br />

and central nervous system due to low DHA levels? No, and there<br />

should have been if the supposition were true.<br />

2. Will taking the supplement stop or reverse conditions it is supposed<br />

to prevent?<br />

Regarding fish oil and its huge (supra-physiologic) amount of DHA/EPA, it<br />

should both prevent Alzheimer’s AND stop the progression of Alzheimer’s<br />

in patients with low DHA levels. Does it?<br />

No, in 2010, fish oil FAILED miserably to prevent Alzheimer’s (see www.<br />

brianpeskin.com, “Fish Oil Fallacy” Special Medical Report). Fish oil<br />

FAILED to either prevent or to slow the progression of Alzheimer’s. Since<br />

the same metabolic pathways are used to both prevent and to slow progression<br />

of any disease, you CANNOT make the absurd claim, as was made in front<br />

of hundreds of physicians, that fish oil prevents Alzheimer’s, but once you<br />

have it, fish oil won’t slow its progression. Logic maintains that it is more<br />

difficult for a substance to prevent a disease (the ultimate “cure”) than for<br />

a substance to slow progression of that disease. It is illogical to state that it<br />

will prevent but NOT slow progression. Scientific logic must prevail.<br />

1. Look at the dosage the supplement provides vs. the amount of food<br />

that would need to be eaten to provide it. While we are discussing<br />

fish, do you realize that suggested amounts from the manufacturers<br />

themselves provide DHA up to 120 times what your body would<br />

naturally produce on its own, and up to 500 times the amount of EPA<br />

that your body would naturally produce on its own. Ask what are the<br />

effects of this tremendous overdosing?<br />

2. Never rely on mere “associations” from “studies” masquerading as<br />

experiments (where one controlled variable only is changed). This is<br />

why one medical and nutritional recommendation after another gets<br />

REVERSED, like women taking synthetic HRT for its supposed heart<br />

protection and cancer protection, when in fact the opposite was true.<br />

(Often you never see the retraction.)<br />

21


Advanced information for health care professionals (not<br />

required for the lay public, but included for a more complete<br />

understanding of this subject)<br />

What is a “p”-value?”<br />

Statistics is mathematics and therefore extremely detailed. However, the<br />

essential concepts you need to know so that you aren’t misled again are<br />

relatively simple:<br />

1. <strong>The</strong> first value looked at by physicians and others (and mistakenly<br />

too often assumed to be the only important value) is the “p value<br />

“ or 1 — (p-value), meaning this experimental result occurred by<br />

chance alone, i.e., the drug doesn’t really work. When the study or<br />

experiment is repeated many times using the same general group<br />

of people, this same “successful result” recurs that is entirely due<br />

to chance alone. <strong>The</strong> item of interest (drug or nutraceutical) really didn’t<br />

work at all, but we think it did work.<br />

2. Typically, the p-value is set to 0.95 (at a 95% confidence level you<br />

get an inherent 5% allowed possible error rate) for the result to<br />

be considered “statistically significant.” If p = 0.95 then the study<br />

would be termed a 95% confidence level study (although a bit more<br />

information is required). A 0.99 (1% error rate) or 0.995 p-value (0.5%<br />

error rate) would be even better because there would be much less of<br />

a random chance effect behaving as though the drug worked when<br />

it really didn’t, thereby fooling both the physician and patient. With<br />

p=95%, even if the drug didn’t work, there is a 5% chance that you<br />

would get these pseudo-positive results 5% of the time, making it<br />

appear like the drug did work. This 5% means 1 out of 20 times you are<br />

FOOLED into thinking FAILURE is SUCCESS.<br />

Once again, a 95% p-value means that if this experiment were carried out<br />

in the same population sample 100 separate times, then this same result<br />

would be included at least 95% of the time; this pseudo-positive result<br />

would occur entirely randomly 5 times, although the drug was a complete<br />

FAILURE.<br />

It’s Easy for them to Mislead Everyone…<br />

22


All a company has to do is to conduct many<br />

studies and then purposely select only those that<br />

randomly show a “positive” result. Don’t mention<br />

the failures, and presto, you have a “successful”<br />

drug! All you need is lots and lots of money.<br />

• <strong>The</strong> p-value is NOT a measure of the size or magnitude of the effect<br />

of the drug. That is a completely different issue and has to do with<br />

the means (difference of the averages between both groups). Many<br />

physicians and patients don’t understand this critical fact and<br />

mistakenly think that a p-value alone is all that is needed. Wrong.<br />

• It is true that the MINIMUM p-value should be at least 95%; however,<br />

even IF the study has a “significant” effect, then one must ask this<br />

next critical question:<br />

How Strong is the Effect? A Little or A Lot?<br />

You need to ask “What is the magnitude of the<br />

positive effect?” A positive effect can range from a<br />

very small negligible effect to a tremendous effect.<br />

What is considered a significant amount or a significant effect?<br />

If more than 51% (the majority) of a group doesn’t respond IN ABSOLUTE<br />

NUMBERS (NOT relative measures) to the drug, then I am not impressed,<br />

and you shouldn’t be, either. Typically today, if just 20% of the treated<br />

group obtains any positive effect (regardless of how little), it is considered<br />

a huge success. But this really means 80% FAILURE.<br />

I am disgusted when substantial failure is transformed, by statistical sleightof-hand,<br />

into a so-called success. To put this into a real-world perspective,<br />

an 80% FAILURE rate, whereby buildings collapsed or televisions blew up<br />

in your face when turned on, would be unacceptable. I hope you would<br />

concur.<br />

23


Before I personally would trumpet a drug’s success, at least 80% of the<br />

subjects IN ABSOLUTE NUMBERS must benefit. Recall that there are<br />

examples of such high levels of success with drugs: insulin lowers everyone’s<br />

blood sugars; thyroid hormone decreases everyone’s TSH level; the proper<br />

antibiotics stop every infection.<br />

Is the Item Measured Significant, or a Worthless “Surrogate”?<br />

Low NNT is a necessary, but not an entirely sufficient condition to be<br />

able to claim victory. Is there a DIRECT cause/effect relationship? This is<br />

absolutely required or once more, you are being misled.<br />

To Reiterate: Worthless Surrogates — NOT the Desired Result<br />

Itself — Are Often Used…<strong>The</strong> Deception Continues…<br />

Even though statins lower LDL-cholesterol, heart disease is not significantly<br />

reduced. <strong>The</strong> tragic truth was only recently accepted. This still hasn’t<br />

stopped the pharmaceutical companies and physicians from saying that<br />

lowered LDL-cholesterol is all that counts. <strong>The</strong>y are WRONG, and patients<br />

are paying with their lives.<br />

<strong>The</strong>refore, one CANNOT blindly assume that the “disease” is solved when<br />

a worthless “SURROGATE” is used INSTEAD of measuring the result itself,<br />

such as how many heart attacks occur with and without statins (the answer is<br />

the same amount, or even more, occur WITH STATINS). This means that<br />

statins are ineffective at stopping heart disease.<br />

A recent example: <strong>The</strong> JUPITER FAILURE Hailed<br />

as A Success<br />

Of course, from the above, it goes without saying that there must first be a<br />

direct cause/effect relationship to the disease. If you treat 100 patients with<br />

a drug and all 100 improve, the drug’s number needed to treat (NNT) is 1<br />

(100 patients/100 successes). If you treat 100 patients and only 1 patient<br />

responds positively the NNT would be 100 (100 patients treated/1 positive<br />

response). This is an awful result and equivalent to a 99% failure rate. Dr.<br />

Nortin M. Hadler, Professor of Medicine at the University of North Carolina<br />

at Chapel Hill states: “Anything over an NNT of 50 is worse than a lottery<br />

ticket…”<br />

Of significant importance is the fact that the 2008 JUPITER study was used to<br />

try and gloss over the fact that numerous attempts to prove the “cholesterol<br />

theory” (the lower the patient’s low density cholesterol [LDL-C], the greater<br />

the prevention of CVD), by attempting to make the case that the real mode<br />

24


of action of statin drugs was C-reactive protein (CRP) reduction, have<br />

failed. However, there is one tragic flaw: CRP is not a reliable prognostic<br />

indicator of cardiovascular events; there are better markers. An article<br />

entitled Largest-Ever Meta-Analysis Finds CRP Is Unlikely to Be Causal for<br />

CVD, reports that scientists of the Cambridge-based Emerging Risk Factors<br />

Collaboration (ERFC) found:<br />

“[A]lthough CRP concentration was linearly associated with CHD<br />

(coronary heart disease), stroke, and vascular mortality, as well<br />

as nonvascular mortality, statistical adjustment for conventional<br />

cardiovascular risk factors resulted in considerable weakening of<br />

associations.”<br />

An Example of How <strong>The</strong>y Fool You<br />

In the Jupiter Study, the NNT of 240 for<br />

statins, in preventing any stroke<br />

(99.58% failure disguised as a hazard<br />

ratio of 0.52; p = 0.002), was not stated.<br />

This means that the JUPITER Study had an undisclosed NNT of 240 (99.6%<br />

FAILURE) for preventing any stroke – instead, a hazard ratio (an estimate<br />

of relative risk) of 0.52 (appearing as a 52% success) was published, thus<br />

making the trial appear much more successful than it actually was.<br />

What appears more impressive? A 0.04 success rate / 99.6% FAILURE rate<br />

or a 52% success rate / smaller 48% FAILURE rate? Physicians are deceived<br />

and so are their patients.<br />

• Always ask for the SAMPLE SIZE, since without it you cannot<br />

draw any meaningful conclusions.<br />

• Always ask for the ABSOLUTE RISK DIFFERENCE BETWEEN<br />

BOTH GROUPS, since without it you cannot draw any meaningful<br />

conclusions.<br />

25


CambridgeMedScience.org<br />

CAMBRIDGE INTERNATIONAL INSTITUTE FOR MEDICAL SCIENCE<br />

Stephen Cavallino, M.D. - Founder & Chairman (Italy) • Amid Habib, M.D. • David Sim, M.D. • Robert Nemer, D.O.<br />

THE PHYSICIAN’S CONCISE GUIDE TO:<br />

- 27 -<br />

Relative Risk — Absolute Deception<br />

Why “Studies” are Misleading—Studies Aren’t Science<br />

Copyright 2011<br />

Dedicated to advancing and publicizing breakthrough discoveries in the health sciences


<strong>The</strong>re is simply no one better in the 21st century at developing<br />

practical health-related solutions based on the world’s leading medical and<br />

nutritional science. “Science — Not opinion” is Brian’s trademark. When<br />

Brian is through explaining a topic it is “case closed!” When he says it, you<br />

“can take the information to the bank!”<br />

Unlike most of his peers’ recommendations, Brian’s health and<br />

nutritional recommendations have stood the test of time. Brian has never<br />

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that have tackled everything from the dangers of soy, to the wrongly<br />

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harm of supplementing with copious amounts of omega-3. In 1995 he<br />

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research are acknowledging the silliness of recommending fiber in the diet<br />

of a human being. Brian’s latest crusade is to warn of the dangers of excess<br />

omega-3 (in particular, fish oil) and how it will lead to increased cases of<br />

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Brian received an appointment as an Adjunct Professor at Texas Southern<br />

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Brian continues to be a featured guest on hundreds of radio and<br />

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Brian has dedicated his life to provide the truth — which is almost<br />

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America to listen to when it comes to your health.


This report was developed to assist physicians and health care professionals<br />

in their evaluation of treatment protocols. It also serves as a response to the<br />

following question:<br />

How Can Professor <strong>Peskin</strong> Be Right and Everyone Else Wrong?<br />

I am frequently asked, “How can you be right, and everyone else wrong?”<br />

This is a valid question. First, everyone else is not “wrong.” <strong>The</strong>re are others<br />

who understand and report on the pharmaceutical companies’ statistical<br />

misrepresentations, but they are typically overlooked by the media. I<br />

am not alone in exposing the fallacies behind many pharmaceutical and<br />

nutraceutical “successes.” In particular, world-renowned physician,<br />

mathematician and statistician John P.A. Ioannidis, MD, DSc, is a prominent<br />

colleague who has been questioning the “massaged” pharmaceutical<br />

statistics for many years.<br />

I am right in my scientific conclusions because, like Dr. Ioannidis, I<br />

follow the science and only use studies to confirm where the sciences of<br />

human physiology and biochemistry lead. I also understand the science of<br />

statistics and am not easily fooled by its often-improper use by those more<br />

interested in finance than accuracy. But physicians and health researchers<br />

are overworked and have precious little time to do their own research and<br />

analysis of the latest “breakthrough” study. <strong>The</strong>y need to be able to rely<br />

upon studies published in the professional journals.<br />

Sharon Begley’s insightful Newsweek article, “Why Almost Everything<br />

You Hear About Medicine is Wrong,” which cites Dr. Ioannidis’ findings,<br />

was published in the January 31, 2011 edition on pages 8-9. Prepared to be<br />

shocked:<br />

• “But what if wrong answers aren’t the exception but the rule? More<br />

and more scholars who scrutinize health research are now making<br />

that claim.<br />

• “…[T]he very framework of medical investigation may be offkilter,<br />

leading time and again to findings that are at best unproved<br />

and at worst dangerously wrong.<br />

• “<strong>The</strong> result is a system that leads patients and physicians astray—<br />

spurring often costly regimens that won’t help and may even harm<br />

you.<br />

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• “As the new chief of Stanford University’s Prevention Research Center,<br />

Ioannidis is cementing his role as one of medicine’s top mythbusters.<br />

‘People are being hurt and even dying’ because of false medical<br />

claims, he says: not quackery, but errors in medical research .<br />

• “But if Ioannidis is right, most biomedical studies are wrong. [Note: Dr.<br />

Ioannidis is very right!] 1<br />

• “In just the last two months, two pillars of preventive medicine fell.<br />

• “A major study concluded there’s no good evidence that statins<br />

(drugs like Lipitor and Crestor) help people with no history of<br />

heart disease. <strong>The</strong> study, by the Cochrane Collaboration, a global<br />

consortium of biomedical experts, was based on an evaluation of<br />

14 individual trials with 34,272 patients. Cost of statins: more than<br />

$20 billion per year, of which half may be unnecessary. [Note:<br />

This evaluation did not even consider the negative side-effects<br />

unnecessarily experienced by the unsuspecting patients.]<br />

• “‘Negative results sit in a file drawer, or the trial keeps going in<br />

hopes the results turn positive.’ With billions of dollars on the<br />

line, companies are loath to declare a new drug ineffective. As a<br />

result of the lag in publishing negative studies, patients receive a<br />

treatment that is actually ineffective. That made Ioannidis wonder,<br />

how many biomedical studies are wrong?<br />

• “His answer, in a 2005 paper: ‘the majority.’ From clinical trials of<br />

new drugs to cutting-edge genetics, biomedical research is riddled<br />

with incorrect findings, he argued. Ioannidis deployed an abstruse<br />

mathematical argument to prove this, which some critics have<br />

questioned. [Note: I found his proof unquestionably correct.]<br />

• “Stanford, the epitome of the establishment, hired him [Dr. Ioannidis]<br />

in August to run the preventive-medicine center. ‘<strong>The</strong> core of<br />

medicine is getting evidence that guides decision making for patients<br />

and doctors,’ says Ralph Horwitz, chairman of the department of<br />

1. When I was working on my undergraduate thesis at M.I.T., I derived a different result than one<br />

reported in a top science journal. Naturally I thought I was wrong, but I wasn’t wrong. To my<br />

surprise, my thesis adviser told me that 95% of the published journal articles are WRONG. As a<br />

young student, I was shocked and appalled! When it comes to the next “miracle” product, you<br />

should approach the journals with a healthy dose of skepticism<br />

2


medicine at Stanford. ‘John has been the foremost innovative thinker<br />

about biomedical evidence, so he was a natural for us.’<br />

“Ioannidis’s first targets were shoddy statistics used in early genome<br />

studies. [Note: See the report, “Good News: It’s Not Genetic” at www.<br />

brianpeskin.com.]<br />

• “‘When you do thousands of tests, statistics says you’ll have some<br />

false winners,’ says Ioannidis.<br />

• “Drug companies make a mint on such dicey statistics. By testing<br />

an approved drug for other uses, they get hits by chance...<br />

• “Even when a claim is disproved, it hangs around like a deadbeat<br />

renter you can’t evict.”<br />

(Emphasis added.)<br />

I warned you in advance that you’d be shocked to discover this deception.<br />

Now, I will give you the tools so that you will never be fooled again.<br />

Deceptive Statistics Mislead Patients…<br />

• Recently, a physician colleague told me that there were over fifteen<br />

thousand — that’s correct, 15,000 — studies showing fish oil’s<br />

effectiveness. My first response was laughter.<br />

• <strong>The</strong> next day, a close friend of my wife told her she needed to take<br />

calcium because it decreased risk of colon cancer by 40%. She went<br />

on to explain that because she was taking it, and my wife was not,<br />

that she had a 40% lower risk of contracting colon cancer. Again, I<br />

started laughing…<br />

• Later in the week, another physician colleague told me statins<br />

decrease the chance of a heart attack by over 30%. You’ve likely<br />

guessed it… more uncontrollable laughter. We shall soon discover<br />

why, but first let’s explore the reasons for the absurd number of<br />

repetitive studies.<br />

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Studies Aren’t Science!<br />

Startling Revelation: <strong>The</strong> number of studies is inversely<br />

proportional to the effectiveness of what is being studied.<br />

<strong>The</strong>re should not be a need to keep repeating studies<br />

unless the substance being studied doesn’t work; if you<br />

do this, you are trying to get random chance<br />

to back up your study, rather than science<br />

confirming its effectiveness. This is precisely<br />

the reason why there may be 1,000 studies showing a<br />

positive result and 950 showing a negative result, yet<br />

the “positives” are considered to prevail. Physicians will<br />

actually say this slight preponderance “proves it works.”<br />

This is dreadfully WRONG and shows an enormous<br />

lack of scientific reasoning by the health and medical<br />

professions, because they have no idea of where the<br />

science is leading them. Experimental results MUST<br />

CONFIRM science‘s prediction, not be counter to it.<br />

How we become misled is described below.<br />

Is Gravity Confirmed on a Weekly Basis?<br />

How many experiments have been recently done confirming gravity? None.<br />

It was proven hundreds of years ago, and a small number of scientists<br />

confirmed its mathematical effects, resulting in proven theorems such as<br />

that showing the relation between how much distance is traveled versus<br />

the length of time an object drops when released from the top of a tall<br />

structure. Case closed. Contrast this to fish oil’s reported 15,000 studies.<br />

Consider why so many studies need to be done IF it really works. When<br />

you hear terms like “1,000 studies show…” simply ask, “why so many?”<br />

You are being deceived.<br />

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When a study or, better yet, an experiment (which has just one highly<br />

controlled variable), is conducted, the result is either significant in<br />

EFFECTIVENESS — working very well on the vast majority of patients —<br />

or it isn’t. <strong>The</strong>n, if you want to double check, another group performs the<br />

same experiment ONCE more, to confirm it. That’s it. (As an example of<br />

both high effectiveness and high significance see www.brianpeskin.com for<br />

the IOWA Study.)<br />

Before any experiment is conducted, one should have a good idea of what the<br />

result will be based on established physiology and biochemistry. This was<br />

conveyed to me while a student at Massachusetts Institute of Technology<br />

(MIT). <strong>The</strong> experiment should merely CONFIRM the SCIENCE.<br />

As a prime example, take fish oil. <strong>The</strong> simple reason for so many “studies”<br />

is that it simply doesn’t work as we are led to believe. Fish oil doesn’t work<br />

because it can’t work. It can’t work because there are no significant metabolic<br />

pathways that omega-3 EFA derivatives influence that could possibly give<br />

those supposed “extraordinary” results (see www.brianpeskin.com for<br />

“Fish Oil Fallacies” report). A quick review of physiology (see ”Fish Oil<br />

Fallacies” at www.brianpeskin.com) tells us why it can’t work — humans<br />

don’t live in frigid cold waters like most fish do. EPA/DHA oxidize (turn<br />

rancid and spoil) automatically at room temperature and oxidize even more<br />

rapidly at body temperature.<br />

Physicians are in an Unfortunate Situation<br />

Physicians want to help their patients. As a result, they are often quick<br />

to dismiss failure or harmful side effects in order to give something to a<br />

suffering patient. As a recent example, physicians often told patients that<br />

side effects such as muscle weakness, cognitive impairment, decreased<br />

sexual desire, etc., did not occur from statin use. After 10 years of steadfastly<br />

denying that these harmful side effects existed, physicians recently had no<br />

choice but to acknowledge them.<br />

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Clear thinking is required of today’s medical<br />

researchers; unfortunately, it doesn’t often occur.<br />

“<strong>The</strong> scientists of today think deeply instead of clearly.<br />

One must be sane to think clearly, but one can think<br />

deeply and be quite insane.”<br />

Nicola Tesla<br />

Finance Masquerades as Science….<strong>The</strong> Ultimate Tragedy<br />

To compound the problem, finance often masquerades as science. Nutritional<br />

companies and pharmaceutical companies often mislead both physicians<br />

and their patients while chasing profits. Instead of measuring the outcome<br />

directly, such as fewer heart attacks or less cancer, “surrogates” are used. A<br />

surrogate is a substitute measure assumed to be associated with the desired<br />

outcome. This consistent mistake often leads to the tragedy of more failure.<br />

For example, doctors and researchers concentrate on lowering cholesterol<br />

rather than studying the ultimate objective of decreased heart attacks. <strong>The</strong>re<br />

is an assumed relationship. However, this is not backed up by the science:<br />

while drug companies have done a wonderful job of discovering cholesterollowering<br />

drugs, this has unfortunately not translated into fewer heart<br />

attacks. Yet this practice is so prevalent that it has become “conventional<br />

wisdom” that you are supposed to reduce your (LDL) cholesterol!<br />

Without being overly cynical, this is done because the latest “wonder” drug<br />

likely has an effect on the surrogate, without regard to its DIRECT impact<br />

on the problem at hand. Consequently, the drug-company-led studies focus<br />

on their drug’s ability to alter the surrogate.<br />

“Effectiveness” is Interpreted Quite Differently Than Any<br />

True Scientist Would<br />

If I were told that taking a drug affords me 40% less risk, then I would assume<br />

that taking that drug would reduce my risk of contracting said disease by<br />

40% compared to someone not taking the drug. WRONG. You can’t tell the<br />

6


size of the effect unless you know the subject population size. This “40%<br />

reduction” that you think you have achieved would be what is called an<br />

“absolute” risk, but all the pharmaceutical studies use “relative” risk<br />

when reporting statistics. <strong>The</strong> difference is staggering, and it is virtually<br />

guaranteed that the real difference, the ONLY one that matters, is FAR<br />

LESS than the reported percentage. This is illustrated in the example below.<br />

Absolute Risk vs Relative (“Endpoint”) Risk — A Case Study<br />

in Tortured Logic<br />

Question: What is the difference between 2 successes in 1,000,000 (drug)<br />

vs. 1 success in 1,000,000 (placebo)?<br />

Drug<br />

Placebo<br />

2 patient successes out of vs 1 patient success out of<br />

1,000,000 patients treated 1,000,000 patients treated<br />

Answer: <strong>The</strong> absolute result is 0.0002% vs. 0.0001%, or effectively 0%<br />

success in both cases―ABSOLUTE FAILURE...<br />

That is, unless you are part of the pharmaceutical or nutraceutical industry,<br />

whereby 0% success MAGICALLY BECOMES 50% success.<br />

Here’s how they deceive you: <strong>The</strong> calculation they will use is this: Ignoring<br />

the total number of patients tested, they will say that there is a 50% difference<br />

in effectiveness of the results (2 to 1). <strong>The</strong>y have deleted the sample size of<br />

1,000,000 patients. This calculation of 50% is termed “relative” risk because<br />

the sample size was deleted and only the “endpoints”— the successes in each<br />

group — are used. <strong>The</strong>re is only one “small” problem with this method of<br />

reporting the drug’s supposed success—it’s absurd!<br />

Absolute Risk MUST Include Sample Size<br />

No honest scientist or physician would<br />

claim a 50% improvement with this drug,<br />

because the SAMPLE SIZE is not included.<br />

7


In the following statin example, 1% “magically becomes 36%,” misleading you<br />

as to the true, accurate measure of difference in heart attack risk. <strong>The</strong> TRUE<br />

EFFECTIVENESS is the difference in results in ABSOLUTE MEASURES<br />

that INCLUDE SAMPLE SIZE: 3% effectiveness of the statin minus 2%<br />

effectiveness of a placebo equals 1% effectiveness in absolute terms. That’s<br />

right, a shockingly low 1% is reported as a much more significant 36%!<br />

<strong>The</strong> correct effectiveness is NOT calculated as (3% – 2%)/3% = 33%, which<br />

the drug companies purposely and deceptively use.<br />

Shockingly, there is a one percent (1%)<br />

difference in effectiveness between the<br />

results with Lipitor and the results with<br />

a placebo. If you were given this information,<br />

would you take this drug? Of course not. That is,<br />

IF you knew and understood the TRUTH.<br />

8


This miniscule 1% difference is termed absolute risk and correctly takes into<br />

account the sample size. This leads to NNT (number needed to treat) and<br />

shows why it is critical when evaluating the effectiveness of a protocol.<br />

NNT (Number Needed to Treat) is Paramount — Not Misleading<br />

“Endpoint” Statistics<br />

Many physicians are misled because they have no idea the pharmaceutical<br />

companies are allowed to manipulate statistics. Pharmaceutical companies<br />

shockingly, yet legally, get to remove the sample size. Again, when is one<br />

patient event in a million (drug) compared to two patient events in a million<br />

(placebo) equal to 50% improvement instead of the statistically correct 1 in<br />

1,000,000 or 0.0001%? Answer: with the fanciful “pharmaceutical endpoint<br />

method,”also termed “relative risk,” as Professor of Medicine Stanton Glantz<br />

so aptly put in his book. (Glantz SA. <strong>Primer</strong> of Biostatistics. 5th ed. New<br />

York, NY: McGraw-Hill, 2002, 149-156.)<br />

You will often see the statement, “Lipitor reduces the risk of heart attack<br />

by 36% ... in patients with multiple risk factors for heart disease,” quoted<br />

in drug ads, such as the one on television a few years back featuring Dr.<br />

Robert Jarvik, inventor of the Jarvik artificial heart. In newspaper ads, the<br />

36% comes with an asterisk (*) saying, “That means in a large clinical study,<br />

3% of patients taking a sugar pill or placebo had a heart attack compared<br />

to 2% of patients taking Lipitor.” <strong>The</strong> difference between the treated and<br />

non-treated groups is a miniscule 1%, hardly worth getting excited about<br />

UNLESS you are a pharmaceutical or nutraceutical company that has<br />

already invested hundreds of millions of dollars in this drug and must<br />

ultimately sell this FAILURE to the desperate masses.<br />

In the case of statins, the NNT is 100 (the reciprocal of the absolute risk, i.e.<br />

1/1% = 1/.01 = NNT of 100). No, this “100” isn’t a perfect score you aspire<br />

to on a college exam; quite the contrary, it is an awful score. It means that<br />

to see a positive effect in just one patient, one hundred patients have to be<br />

treated, and often treated for many years at that. <strong>The</strong>refore, 99 out of 100<br />

patients will see no positive effect — a 99% FAILURE RATE! Many medical<br />

researchers are convinced that the real NNT for statins in a standard mixed<br />

population, such as the typical patient a physician treats for CAD, may be<br />

closer to 250. Even assuming the lower 100 NNT figure, this is even more<br />

problematic for statins’ performance because 10% to 15% of statin patients<br />

experience negative side effects, including sexual dysfunction, muscle<br />

9


aches – prominently mentioned on Lipitor’s label – and significant cognitive<br />

problems, including loss of memory. Be aware that neither the NNT nor<br />

any of the risk statistics looks at negative side effects. This is an entirely<br />

separate issue.<br />

Dr. Nortin M. Hadler, Professor of Medicine at the University of North<br />

Carolina at Chapel Hill and a long-time drug industry critic, states,<br />

“Anything over an NNT of 50 is worse than a lottery ticket; there may be no<br />

winners.” (Carey J., “Lipitor: for many people, cholesterol drugs may not<br />

do any good,” BusinessWeek. January 17, 2008:52-59.) Even Las Vegas has<br />

games with a chance of winning greater than 1% or 2%. Shouldn’t drugs or<br />

nutraceuticals have a higher standard?<br />

Grasping the Magnitude of the Problem<br />

Decades old antibiotics commonly have an NNT = 1.1. When 11 people<br />

are given antibiotics, ten patients are cured of the problem for which the<br />

antibiotics were prescribed. Contrast this with statins, where 100 patients<br />

are given the drug and one person is helped; NNT = 100.<br />

<strong>The</strong> higher the NNT, the LESS effective the drug.<br />

If you remember only one point from this report, it should be that the<br />

intelligence of the answer is directly related to the intelligence of the<br />

question. Don’t let yourself be misled with shoddy statistics that don’t<br />

include the critical sample size.<br />

One Last Critically Important Thought<br />

When you receive news of the next “miracle” supplement, aside from<br />

requiring SPECIFIC METABOLIC PATHWAYS and state-of-the-art<br />

physiologic science supporting these claims, ask yourself:<br />

1. Why is this needed TODAY when it wasn’t needed years ago?<br />

10


Take fish oil supplements. People living in 1950 certainly consumed<br />

significantly less fish oil supplements than we do today; there was only a very<br />

small market for it. <strong>The</strong> supposed benefits of fish were not publicized in<br />

1950, and fish oil supplementation (being highly susceptible to spoilage)<br />

was simply not as common as it is today. <strong>The</strong>refore, we should have seen<br />

gross pathological disorders due to the deficiency of DHA/EPA found in<br />

those supplements, which of course we did not.<br />

• Were there tremendous neurological impairments in the brain, eyes,<br />

and central nervous system due to low DHA levels? No, and there<br />

should have been if the supposition were true.<br />

2. Will taking the supplement stop or reverse conditions it is supposed<br />

to prevent?<br />

Regarding fish oil and its huge (supra-physiologic) amount of DHA/EPA, it<br />

should both prevent Alzheimer’s AND stop the progression of Alzheimer’s<br />

in patients with low DHA levels. Does it?<br />

No, in 2010, fish oil FAILED miserably to prevent Alzheimer’s (see www.<br />

brianpeskin.com, “Fish Oil Fallacy” Special Medical Report). Fish oil<br />

FAILED to either prevent or to slow the progression of Alzheimer’s. Since<br />

the same metabolic pathways are used to both prevent and to slow progression<br />

of any disease, you CANNOT make the absurd claim, as was made in front<br />

of hundreds of physicians, that fish oil prevents Alzheimer’s, but once you<br />

have it, fish oil won’t slow its progression. Logic maintains that it is more<br />

difficult for a substance to prevent a disease (the ultimate “cure”) than for<br />

a substance to slow progression of that disease. It is illogical to state that it<br />

will prevent but NOT slow progression. Scientific logic must prevail.<br />

1. Look at the dosage the supplement provides vs. the amount of food<br />

that would need to be eaten to provide it. While we are discussing<br />

fish, do you realize that suggested amounts from the manufacturers<br />

themselves provide DHA up to 120 times what your body would<br />

naturally produce on its own, and up to 500 times the amount of EPA<br />

that your body would naturally produce on its own. Ask what are the<br />

effects of this tremendous overdosing?<br />

2. Never rely on mere “associations” from “studies” masquerading as<br />

experiments (where one controlled variable only is changed). This is<br />

11


why one medical and nutritional recommendation after another gets<br />

REVERSED, like women taking synthetic HRT for its supposed heart<br />

protection and cancer protection, when in fact the opposite was true.<br />

(Often you never see the retraction.)<br />

Advanced information for health care professionals (not<br />

required for the lay public, but included for a more complete<br />

understanding of this subject)<br />

What is a “p”-value?”<br />

Statistics is mathematics and therefore extremely detailed. However, the<br />

essential concepts you need to know so that you aren’t misled again are<br />

relatively simple:<br />

1. <strong>The</strong> first value looked at by physicians and others (and mistakenly<br />

too often assumed to be the only important value) is the “p value<br />

“ or 1 — (p-value), meaning this experimental result occurred by<br />

chance alone, i.e., the drug doesn’t really work. When the study or<br />

experiment is repeated many times using the same general group<br />

of people, this same “successful result” recurs that is entirely due<br />

to chance alone. <strong>The</strong> item of interest (drug or nutraceutical) really didn’t<br />

work at all, but we think it did work.<br />

2. Typically, the p-value is set to 0.95 (at a 95% confidence level you<br />

get an inherent 5% allowed possible error rate) for the result to<br />

be considered “statistically significant.” If p = 0.95 then the study<br />

would be termed a 95% confidence level study (although a bit more<br />

information is required). A 0.99 (1% error rate) or 0.995 p-value (0.5%<br />

error rate) would be even better because there would be much less of<br />

a random chance effect behaving as though the drug worked when<br />

it really didn’t, thereby fooling both the physician and patient. With<br />

p=95%, even if the drug didn’t work, there is a 5% chance that you<br />

would get these pseudo-positive results 5% of the time, making it<br />

appear like the drug did work. This 5% means 1 out of 20 times you are<br />

FOOLED into thinking FAILURE is SUCCESS.<br />

Once again, a 95% p-value means that if this experiment were carried out<br />

in the same population sample 100 separate times, then this same result<br />

12


would be included at least 95% of the time; this pseudo-positive result<br />

would occur entirely randomly 5 times, although the drug was a complete<br />

FAILURE.<br />

It’s Easy to Mislead Everyone…<br />

All a company has to do is to conduct many<br />

studies and then purposely select only those that<br />

randomly show a “positive” result. Don’t mention<br />

the failures, and presto, you have a “successful”<br />

drug! All you need is lots and lots of money.<br />

• <strong>The</strong> p-value is NOT a measure of the size or magnitude of the effect<br />

of the drug. That is a completely different issue and has to do with<br />

the means (difference of the averages between both groups). Many<br />

physicians and patients don’t understand this critical fact and<br />

mistakenly think that a p-value alone is all that is needed. Wrong.<br />

• It is true that the MINIMUM p-value should be at least 95%; however,<br />

even IF the study has a “significant” effect, then one must ask this<br />

next critical question:<br />

How Strong is the Effect? A Little or A Lot?<br />

You need to ask “What is the magnitude of the<br />

positive effect?” A positive effect can range from a<br />

very small negligible effect to a tremendous effect.<br />

What is considered a significant amount or a significant effect?<br />

If more than 51% (the majority) of a group doesn’t respond IN ABSOLUTE<br />

NUMBERS (NOT relative measures) to the drug, then I am not impressed,<br />

and you shouldn’t be, either. Typically today, if just 20% of the treated<br />

13


group obtains any positive effect (regardless of how little), it is considered<br />

a huge success. But this really means 80% FAILURE.<br />

I am disgusted when substantial failure is transformed, by statistical sleightof-hand,<br />

into a so-called success. To put this into a real-world perspective,<br />

an 80% FAILURE rate, whereby buildings collapsed or televisions blew up<br />

in your face when turned on, would be unacceptable. I hope you would<br />

concur.<br />

Before I personally would trumpet a drug’s success, at least 80% of the<br />

subjects IN ABSOLUTE NUMBERS must benefit. Recall that there are<br />

examples of such high levels of success with drugs: insulin lowers everyone’s<br />

blood sugars; thyroid hormone decreases everyone’s TSH level; the proper<br />

antibiotics stop every infection.<br />

Is the Item Measured Significant, or a Worthless “Surrogate”?<br />

Low NNT is a necessary, but not an entirely sufficient condition to be<br />

able to claim victory. Is there a DIRECT cause/effect relationship? This is<br />

absolutely required or once more, you are being misled.<br />

To Reiterate: Worthless Surrogates — NOT the Desired Result<br />

Itself — Are Often Used…<strong>The</strong> Deception Continues…<br />

Even though statins lower LDL-cholesterol, heart disease is not significantly<br />

reduced. <strong>The</strong> tragic truth was only recently accepted. This still hasn’t<br />

stopped the pharmaceutical companies and physicians from saying that<br />

lowered LDL-cholesterol is all that counts. <strong>The</strong>y are WRONG, and patients<br />

are paying with their lives.<br />

<strong>The</strong>refore, one CANNOT blindly assume that the “disease” is solved when<br />

a worthless “SURROGATE” is used INSTEAD of measuring the result itself,<br />

such as how many heart attacks occur with and without statins (the answer is<br />

the same amount, or even more, occur WITH STATINS). This means that<br />

statins are ineffective at stopping heart disease.<br />

A recent example: <strong>The</strong> JUPITER FAILURE Hailed<br />

as A Success<br />

Of course, from the above, it goes without saying that there must first be a<br />

direct cause/effect relationship to the disease. If you treat 100 patients with<br />

14


a drug and all 100 improve, the drug’s number needed to treat (NNT) is 1<br />

(100 patients/100 successes). If you treat 100 patients and only 1 patient<br />

responds positively the NNT would be 100 (100 patients treated/1 positive<br />

response). This is an awful result and equivalent to a 99% failure rate. Dr.<br />

Nortin M. Hadler, Professor of Medicine at the University of North Carolina<br />

at Chapel Hill states: “Anything over an NNT of 50 is worse than a lottery<br />

ticket…”<br />

Of significant importance is the fact that the 2008 JUPITER study was used to<br />

try and gloss over the fact that numerous attempts to prove the “cholesterol<br />

theory” (the lower the patient’s low density cholesterol [LDL-C], the greater<br />

the prevention of CVD), by attempting to make the case that the real mode<br />

of action of statin drugs was C-reactive protein (CRP) reduction, have<br />

failed. However, there is one tragic flaw: CRP is not a reliable prognostic<br />

indicator of cardiovascular events; there are better markers. An article<br />

entitled Largest-Ever Meta-Analysis Finds CRP Is Unlikely to Be Causal for<br />

CVD, reports that scientists of the Cambridge-based Emerging Risk Factors<br />

Collaboration (ERFC) found:<br />

“[A]lthough CRP concentration was linearly associated with CHD<br />

(coronary heart disease), stroke, and vascular mortality, as well<br />

as nonvascular mortality, statistical adjustment for conventional<br />

cardiovascular risk factors resulted in considerable weakening of<br />

associations.”<br />

An Example of How <strong>The</strong>y Fool You<br />

In the Jupiter Study, the NNT of 240 for<br />

statins, in preventing any stroke<br />

(99.58% failure disguised as a hazard<br />

ratio of 0.52; p = 0.002), was not stated.<br />

This means that the JUPITER Study had an undisclosed NNT of 240 (99.6%<br />

FAILURE) for preventing any stroke – instead, a hazard ratio (an estimate<br />

15


of relative risk) of 0.52 (appearing as a 52% success) was published, thus<br />

making the trial appear much more successful than it actually was.<br />

What appears more impressive? A 0.04 success rate / 99.6% FAILURE rate<br />

or a 52% success rate / smaller 48% FAILURE rate? Physicians are deceived<br />

and so are their patients.<br />

• Always ask for the SAMPLE SIZE, since without it you cannot<br />

draw any meaningful conclusions.<br />

• Always ask for the ABSOLUTE RISK DIFFERENCE BETWEEN<br />

BOTH GROUPS, since without it you cannot draw any meaningful<br />

conclusions.<br />

16


IOWA Study Results<br />

Remarkable experimental results of<br />

arterial compliance improvement with PEOs<br />

Professor Brian S. <strong>Peskin</strong>* with David Sim, M.D.*<br />

* Brian <strong>Peskin</strong> received an appointment as an Adjunct Professor at Texas Southern University in the<br />

Department of Pharmacy and Health Sciences (1998-1999).<br />

Dr. Sim is a practicing Interventional Cardiologist.


Long-term Results<br />

IOWA: Investigating Oils With Respect to Arterial Flexibility<br />

Significant differences in biological age compared to physical age<br />

Brian <strong>Peskin</strong>, BSEE: Founder Life-Systems Engineering Science<br />

with David Sim, M.D., Interventional Cardiologist<br />

Long-term Use in Subjects with PEO Formulation<br />

Long-term (48 month maximum) PEO use<br />

<strong>The</strong> effects of long-term PEO supplementation were evaluated in thirty-four (34)<br />

subjects with a daily dosage of 2,900 mg PEO formulation. <strong>The</strong> sub-groups were as<br />

follows: thirteen (13) male subjects and twenty-two (22) female subjects aged 35-75,<br />

with a median age of 62-years-old, utilizing the formulation a minimum of three (3)<br />

months to a maximum of forty-eight (48) months. <strong>The</strong> median duration usage was<br />

twenty-four (24) months with half of the subjects using the PEO formulation less than 2<br />

years and the remaining half utilizing the formulation over 2 years but less than 4 years.<br />

Vascular assessment was made via Photoplethysmography measuring arterial<br />

flexibility.<br />

Overall Improvement = 73% Effectiveness – Highly Significant<br />

Twenty-five (25) subjects of the 34 subjects in the trial improved. This corresponds to a<br />

seventy-three per cent (73%) effectiveness rating. <strong>The</strong> average improvement in arterial<br />

flexibility was 9 years improvement meaning the average subject utilizing the PEO<br />

formulation had a cardiovascular system with the arterial flexibility of a subject<br />

representative of nearly a decade younger.<br />

<strong>The</strong> best subject measured 39 years less (improvement) than their physical age<br />

waveforms would suggest. Of the 34 subjects, there was only one (1) subject who<br />

worsened.<br />

NNT Effectiveness = 1.4 — A “Remarkable” Result<br />

<strong>The</strong> number needed to treat (NNT) is calculated as follows: 34 subjects — 25 improved<br />

subjects = 1.4.<br />

NNT quantifies how many patients have to be treated to obtain one successful outcome.<br />

An NNT of less than 50 is considered effective in the pharmaceutical industry.<br />

<br />

1


Comparison to Statins<br />

As a comparative example, statins, as reported by the pharmaceutical industry, have<br />

NNTs > 80 in preventing a cardiovascular event.<br />

This means a minimum of 80 patients would need to be treated to see a single (1)<br />

positive outcome when using statins.<br />

In contrast, the PEOs improve a much more direct physiologic measure, i.e., arterial<br />

flexibility, in a profound way resulting in a remarkable 1.4 NNT.<br />

Statistics (Highly Significant) — 99.8% Accuracy<br />

<br />

2


Short-term Results<br />

IOWA: Investigating Oils With Respect to Arterial Flexibility<br />

Significant differences in biological age compared to physical age<br />

Brian <strong>Peskin</strong>, BSEE: Founder Life-Systems Engineering Science<br />

with David Sim, M.D., Interventional Cardiologist<br />

Short-term Improvement in Subjects with PEO Formulation<br />

Short-term (3-month) PEO use<br />

<strong>The</strong> effects of short-term PEO supplementation were evaluated in sixteen (16) subjects<br />

with a daily dosage of 2,900 mg PEO formulation. <strong>The</strong> sub-groups were as follows:<br />

seven (7) male subjects and nine (9) female subjects aged 46-84, with a median age of 64-<br />

years-old, utilizing the formulation a median of 2.5 months usage (half of the subjects<br />

with less duration and half of the subjects with more duration) and mean average of 3<br />

month’s usage. Minimum PEO formulation usage was one (1) month and the maximum<br />

subject usage was eight (8) months PEO usage. Vascular assessment was made via<br />

Photoplethysmography measuring arterial flexibility.<br />

Overall Short-term Improvement = 43% Effectiveness – Highly Significant<br />

Seven (7) subjects of the sixteen (16) subjects in the trial improved. This corresponds to<br />

a forty-three per cent (43%) effectiveness rating over a very short period of time. <strong>The</strong><br />

average improvement in arterial flexibility was 7.2 years improvement meaning the<br />

average subject utilizing the PEO formulation had a cardiovascular system with the<br />

arterial flexibility of a younger subject.<br />

NNT Effectiveness = 2.3 – A “Remarkable” Result<br />

<strong>The</strong> number needed to treat (NNT) is calculated as follows: 16 subjects / 7 improved<br />

subjects = 2.3, an outstanding result for such a short period of time.<br />

NNT quantifies how many patients have to be treated to obtain one successful outcome.<br />

An NNT of less than 50 is considered effective in the pharmaceutical industry.<br />

Comparison to Statins<br />

As a comparative example, statins, as reported by the pharmaceutical industry, have<br />

NNTs > 80 in preventing a cardiovascular event.<br />

<br />

3


This means a minimum of 80 patients would need to be treated to see a single (1)<br />

positive outcome.<br />

In contrast, the PEOs improve a much more direct physiologic measure, i.e., arterial<br />

flexibility, in a profound way resulting in a remarkable 2.3 NNT.<br />

Statistics (Highly Significant) — 99% Accuracy<br />

<br />

4


PEOs versus Fish Oil<br />

IOWA: Investigating Oils With Respect to Arterial Flexibility<br />

Significant differences in biological age compared to physical age<br />

Brian <strong>Peskin</strong>, BSEE: Founder Life-Systems Engineering Science<br />

with David Sim, M.D., Interventional Cardiologist<br />

Subjects Discontinued Fish Oil Supplementation, replacing it with PEO<br />

Formulation<br />

PEOs versus fish oil<br />

<strong>The</strong> effects of the PEOs were evaluated in subjects who ceased fish oil supplementation,<br />

replacing it with a daily dosage of 2,900 mg PEO formulation. <strong>The</strong> effects of the PEO<br />

formulation were measured in 15 subjects: seven (7) male subjects and eight (8) female<br />

subjects aged 46-74, with a mean age of 60-years-old, utilizing the formulation an average<br />

duration of 3.5 months. Vascular assessment was made via Photoplethysmography<br />

measuring arterial flexibility.<br />

Overall Improvement<br />

Thirteen (13) of the fifteen (15) subjects improved with the PEOs for an 87%<br />

effectiveness rating and an NNT of 15 / 13 = 1.2. Improvement was 11.1 years as<br />

measured by standard population samples.<br />

On average, the PEO formulation quickly improved the cardiovascular system’s arterial<br />

flexibility by over 11 years (younger) in the subjects. Thirteen (13) subjects improved;<br />

one (1) subject remained the same, one (1) subject worsened by 1 year. Results were<br />

highly statistically significant (p=0.0001) — 99.99% accuracy.<br />

Subjects with “high cholesterol”<br />

Of the seven (7) subjects previously diagnosed with high cholesterol levels replacing<br />

fish oil supplements with the PEO formulation instead, six (6) subjects improved their<br />

cardiovascular biological ages. This translates to an NNT of 7 / 6 = 1.2 for improvement<br />

in cardiovascular system compliance in subjects with high cholesterol manifestations of<br />

heart disease.<br />

Subject with both diabetes and “high cholesterol”<br />

One (1) subject having both diabetes and high cholesterol diagnosis also improved.<br />

<br />

5


Comparison to Statins<br />

As a comparative example, statins, as reported by the pharmaceutical industry, have<br />

NNTs > 80 in preventing a cardiovascular event.<br />

This means a minimum of 80 patients would need to be treated to see a single (1)<br />

positive outcome.<br />

In contrast, the PEOs improve a much more direct physiologic measure, i.e., arterial<br />

flexibility, in a profound way resulting in a remarkable 1.2 NNT.<br />

Statin user improvements<br />

Two patients are taking statins and both subjects improved their biological age by<br />

twenty years for an NNT = 1 in those patients taking statins. NNTs of less than 50 are<br />

considered excellent. Even with the small number of subjects in this sub-group taken<br />

into account, the results of this trial are exceptional and not due to chance.<br />

Statistics (Highly Significant) — 99.99% Accuracy<br />

<br />

6


<strong>The</strong> Missing Link: EFA “Oxygen Magnets”<br />

Scientific Studies Show That EFAs Prevent Cancer<br />

<strong>The</strong> great news, presented to the public in a cohesive manner for the<br />

first time in this book, is that EFAs have been proven in numerous<br />

studies to prevent cancers from forming in conditions and situations<br />

where they were expected to form and would have formed had EFAs<br />

not been administered. Some of these studies also show that EFAs<br />

can inhibit the growth of cancer already present in the body. <strong>The</strong><br />

results of the most significant of these studies are discussed in detail<br />

in Chapter 11.<br />

However, the results of a new study we commissioned to directly<br />

test the effects of the EFA ratios recommended in this plan were so<br />

positive that we want to review them here.<br />

A New EFA Cancer Experiment—Proof That EFAs<br />

Work<br />

Starting on page 373, Chapter 11 shows numerous EFA-related studies<br />

demonstrating how EFAs minimize cancer growth and how distorted<br />

EFAs (transfats) encourage cancer growth.<br />

173


<strong>The</strong> Hidden Story of Cancer<br />

For example, in 1997, it was shown that an EFA deficiency in<br />

mice allowed cancer to grow faster. Here is their quote:<br />

“It may be concluded that, when a tumor initiator injures<br />

the body as a whole, EFAD [Essential Fatty Acid Deficiency],<br />

achieved either through a fat-free or an oleic-supplemented<br />

diet [like olive oil], behaves as a general promoting condition<br />

for tumorigenesis [cancer].” This finding was published in an<br />

article titled “Dietary deficiency or enrichment of essential<br />

fatty acids modulates tumorigenesis in the whole body of<br />

cobalt-60-irradiated mice.” 8<br />

That study makes it clear that an EFA deficiency is a cancercausing<br />

problem. <strong>The</strong> question that had to be answered was would<br />

a laboratory experiment under controlled conditions prove that a<br />

diet sufficient in EFAs either stop or halt cancer in vivo (in the body)<br />

and not merely in vitro (in a test tube). Too often tests conducted in<br />

a test tube give a different result than a test in the body in a real-life<br />

situation.<br />

I could not find an experiment done on an animal that metabolized<br />

EFAs in a similar fashion to humans, such as mice, that were<br />

given an EFA formulation comparable to the one suggested in this<br />

book (greater parent omega-6 than parent omega-3). 9 Furthermore,<br />

I could not find any experimenter that used oils from organically<br />

grown and organically processed sources—guaranteeing that no<br />

cancer-causing hydrogenated/oxygen deficient oils were used. <strong>The</strong>re<br />

was only one way to see if the EFA suggestion in <strong>The</strong> Hidden Story of<br />

Cancer would work under third-party controls using an independent<br />

laboratory specializing in oncological (cancer) studies. Furthermore,<br />

a third-part statistical expert was employed to calculate the validity<br />

of the results. You will see the undeniably powerful results of this<br />

8 Prostaglandins Leukot Essent Fatty Acids, 1997 Mar;56(3):239-44.<br />

9 Unfortunately, tests utilizing cells grown in a test tube often give different results<br />

than in the body. I hate to see animals harmed if there is another way. It is mandatory<br />

for an experimenter to be as certain as possible of the outcome based on theoretical<br />

analysis, as we were, BEFORE needlessly sacrificing animals. We used the minimum<br />

number of mice (20) so as to obtain a statistically meaningful and valid result.<br />

.<br />

174


<strong>The</strong> Missing Link: EFA “Oxygen Magnets”<br />

experiment. Its promise of hope for extending existing cancer patient’s<br />

lives is nothing short of spectacular.<br />

In 2004 we commissioned an experiment with mice at an independent<br />

laboratory experienced in oncological studies. <strong>The</strong> purpose<br />

of the experiment was to show whether pretreatment with organic<br />

raw parent EFA oils in the ratios and amounts comparable to our<br />

human recommendations, prior to implantation of breast cancer<br />

tumors in the mice, affected the growth of the cancer cells in any<br />

way. A breast cancer strain was chosen because breast cancer is the<br />

Number 1 worldwide cause of death by cancer in women. Mice were<br />

used because they respond very similarly to humans regarding EFA<br />

metabolism and because their shorter lifespan allows all effects and<br />

results to occur more quickly. 10<br />

One group of mice was pretreated with the EFA oils for four weeks<br />

prior to tumor implantation (Group 2, showing the greatest inhibition<br />

of tumor growth at the bottom of the graph in Figure 1), followed by<br />

a daily dose (five days a week) for 50 days after implantation of the<br />

cancer tumors. A second group was pretreated with EFA oils for two<br />

weeks prior to implantation (Group 1, showing less tumor growth at<br />

the middle of the graph) and then given the daily dose for the rest of<br />

the 50 days. <strong>The</strong> third group, the control group (Group 3, showing<br />

uncontrolled tumor growth at the top of the graph), was not pretreated<br />

or given any EFAs at all.<br />

Tumors consisting of two million breast cancer cells each were<br />

implanted in the mice and measurement began. <strong>The</strong> statistical<br />

analysis focused on the period from day 26 to 50 to ensure that any<br />

hormonal changes and other transitory effects that occurred after<br />

implantation had stabilized (as recommended by Dr. Warburg). An<br />

independent expert in statistical analysis calculated and reported the<br />

results.<br />

10 <strong>The</strong> metabolism of n-6 and n-3 PUFAs in rats and mice are similar to humans.<br />

(Lands, W.E.., et al., Lipids, Vol. 25(9), 1990, pages 505-516.) <strong>The</strong>refore, studies in<br />

mice would be predicted to be similar in humans. Regardless, one must be always<br />

aware that mice are not humans. For this reason, many drugs do not work as well<br />

in humans as in animals, if at all. Because this EFA formulation was designed<br />

specifically for humans and their “parent” omega-6/3 tissue ratios, we would<br />

therefore expect human results to be significantly better than results in mice.<br />

175


<strong>The</strong> Hidden Story of Cancer<br />

<strong>The</strong> following statistical analysis doesn’t suffer from mistakes that<br />

often occur that you learned about on page 58. An F test, opposed to<br />

multiple t tests, was used to determine the significance. 11<br />

<strong>The</strong> experiment showed that although the tumors continued to<br />

grow in all mice, there was a highly significant 24% smaller tumor size<br />

(growth) in the longer four-week pretreatment mice than in the control<br />

mice that received no EFA oils at all. This result occurred consistently<br />

upon measurements at the day 26 endpoint, the final endpoint (day<br />

50), and at every intermediate point. This same effect occurred with<br />

the two-week pretreatment group, although to a lesser extent than<br />

the four-week pretreatment group, as would be expected.<br />

Additionally, in the last 10 days of the experiment, there was a<br />

whopping 42.8% lower growth volume of the tumors in the four-week<br />

pretreated mice than in the tumors in the untreated mice.<br />

<strong>The</strong>se results clearly show the EFAs’ value increases with longer<br />

pretreatment. A logical conclusion from this result would be that the<br />

EFA oils are modifying the cells’ internal structure, making them<br />

more cancer resistant.<br />

A few additional key points should be mentioned: <strong>The</strong> oils were given<br />

to the mice only five out of seven days each week. <strong>The</strong> recommended<br />

schedule for humans is seven days a week. Although mice use EFAs in<br />

a similar fashion as humans, this plan’s EFA recommendations were arrived<br />

at by considering human tissue structure and human biochemistry.<br />

<strong>The</strong>refore, the results should be even better in humans than in the mice<br />

in the experiment. <strong>The</strong> dramatic results are present in Figure 1.<br />

Why Did the Cancer Cells Keep Growing?<br />

Now, these results sound good, but you might be wondering why<br />

the tumors in all groups of mice continued to grow, even though the<br />

pretreated mice’s tumors grew significantly less. Does this negate<br />

the positive results of the experiment?<br />

11 F test means the variation between the means (averages) of all the groups divided<br />

by the variation within the groups. If the groups were the same (no difference) then<br />

the F value would equal close to 1. In this case it was greater than 4 with 98%<br />

accuracy. All mice were included in this experiment. Unlike most “studies,” none<br />

were excluded for any reason. <strong>The</strong> bottom line; a very significant result.<br />

176


<strong>The</strong> Missing Link: EFA “Oxygen Magnets”<br />

Figure 1: Tumor volumes between groups from 26 to 50 days<br />

No, it doesn’t. To be able to complete this kind of experiment<br />

within a reasonable time, a tumor of sufficient size to be easily<br />

measurable had to be used. If we started the experiment with one<br />

or very few cancer cells, we would have a great deal of difficulty<br />

finding them, much less measuring them, and due to most cancers’<br />

slow growth rates, the cells might not have been measurable within<br />

the mice’s usual lifespan.<br />

Implanting a tumor consisting of 2 million cancer cells is an<br />

overwhelming amount for a mouse’s system. We expected this<br />

avalanche of cancer cells to continue to grow even in the presence<br />

of EFAs because there is no safe way you can destroy all of it, no<br />

matter what your defense is.<br />

But by the same token, when we saw a significant lower tumor<br />

growth in spite of the initial size of the tumors, it was a telling indication<br />

that something had acted powerfully against the development of<br />

the cancer in the mice’s bodies: the EFA oils must have a significant<br />

cellular modifying capability that made the mice more resistant to<br />

developing cancer. This was made clear because both the 2-week<br />

pretreated mice and the 4-week pretreated group were given identical<br />

EFA doses—only the length of the pretreatment phase differed.<br />

177


<strong>The</strong> Hidden Story of Cancer<br />

In view of this apparent cellular modifying capability, and the fact<br />

that naturally occurring cancer begins to develop in the human body<br />

very slowly, one cell at a time, we must pose this question: Given<br />

adequate pretreatment with the correct EFAs, would cancer ever<br />

normally occur in a human? We believe a high degree of probability<br />

exists that the answer is “no.”<br />

<strong>The</strong> results of this experiment clearly demonstrate the cancerprotective<br />

properties gained by taking parent EFAs in the ratios<br />

recommended in this book.<br />

EFAs Provide Many More Health Benefits Above<br />

and Beyond Cancer Protection<br />

This book is about the anticancer solution. However, it is important<br />

that you understand that there are other areas EFAs benefit.<br />

In addition to EFAs’ cancer-protective properties, EFAs make it<br />

possible for your cell membranes to operate optimally for a multitude<br />

of other biochemical functions, such as hormone transfer. This includes<br />

effective insulin uptake. That’s why these critical EFAs help prevent<br />

and control diabetes.<br />

Not least of the benefits of adequate EFA supplementation and<br />

its resulting increased cellular oxygenation is greatly increased energy.<br />

Lack of energy is one of Americans’ chief complaints. Proper<br />

EFA supplementation as given in this book will provide you with a<br />

marked improvement in your energy level.<br />

EFAs are the building block of your sexual hormones. With<br />

sufficient amounts of EFAs you won’t run short because the “raw<br />

material” was in short supply. EFAs are also the building blocks of<br />

the endocrine system. This system regulates your levels of anxiety,<br />

your ability to concentrate and focus, too. Athletes will benefit from<br />

increased endurance, increased performance, and better immunity<br />

from fatigue.<br />

On the next page is a table showing a sampling of the multitude<br />

of additional areas helped with fully functional EFAs. <strong>The</strong> medical<br />

textbooks and medical journals have understood EFAs’ importance<br />

for years but this information typically is not covered by the popular<br />

press.<br />

178


What You Should Not Eat: Cancer-Causing Transfats (EFA Imposters)<br />

<strong>The</strong> Power of PEOs (Parent EFAs) to Help<br />

Surgeons and <strong>The</strong>ir Patients<br />

Dr. ANDREA RONCARATI FERRARA-Via Montebello 1 tel: 0532/200234<br />

Specialista in Chirurgia Plastica RAVENNA-Viale Cilla 20 tel: 0544/456511<br />

Ricostruttiva ed Estetica info@roncaratiandrea.it<br />

February 25, 2005<br />

Nella mia attività di Chirurgo Plastico, mi sono trovato ad affrontare<br />

esiti post-operatori di varia intensità, da quello regolare ( sicuramente in<br />

numero maggiore ) a quello molto impegnativo per la risoluzione flogistica,<br />

edematosa,cicatriziale.<br />

I risultati sono migliorati cambiando le tecniche chirurgiche e delle medicazioni,<br />

utilizzando coperture antibiotiche e antiflogistiche, ma riconosco<br />

un vero salto di qualità da quando ho consigliato e prescritto, almeno 15<br />

giorni prima e 30 giorni dopo l’intervento chirurgico, l’assunzione di ACIDI<br />

GRASSI ESSENZIALI.<br />

Il livello di “restituito ad integrum”, da me ricercato in ogni occasione, ma<br />

soprattutto in cinque pazienti usando la formula dei EFAs di Brian <strong>Peskin</strong>, ho<br />

trovato grandissimo giovamento con l’utilizzo di questa semplice ed efficace<br />

terapia medica che ha dato dei risultati di guarigione quanto segue:<br />

1. più rapida cicatrizzazione<br />

2. meno infiammazione<br />

3. migliore tessuto cicatriziale<br />

4. meno dolore in fine per il paziente<br />

Il prolocolo di “Brian <strong>Peskin</strong>” non causa eccessivo sanguinamento<br />

come olio di pesce che mi rende la chirurgia più facile ed infine la guarigione<br />

dei pazienti è migliore.<br />

Infine credo fermamente sia giusto continuare su questa interessantissima<br />

strada intrapresa in particolare sul meccanismo dei tessuti riparativi.<br />

Dr. Andrea Roncarati<br />

331


<strong>The</strong> Hidden Story of Cancer<br />

Translation<br />

February 25, 2005<br />

In my practice as a Plastic Surgeon, I have found myself understanding that<br />

to obtain good post operative results according to the intensity that varies<br />

from minor to major operations (the majority are very intense operations)<br />

the repair flogistic resolution, edema and the scar tissue are all key factors<br />

to success.<br />

My results have improved according to the use of new surgical techniques<br />

as well as the use of antibiotics and antiflogistic drugs.<br />

However, I must point out a new major factor that improved greatly my<br />

patients’ surgical results after introducing certain “essential fatty acids” 15<br />

days prior to 30 days after surgery.<br />

<strong>The</strong> level of tissue repair is what I look for especially in my practice and<br />

having the trial opportunity of five patients using Brian <strong>Peskin</strong>’s EFA recommendations,<br />

I found in all five patients an enormously improved result<br />

with better recovery by just assuming a simple prescribed medical therapy<br />

with his EFA-based recommendations.<br />

Unlike fish oil which causes excessive bleeding, Brian <strong>Peskin</strong>’s Protocol<br />

does not cause excessive bleeding. In fact, it makes surgery easier and improves<br />

patient recovery.<br />

This improved recovery included:<br />

1. faster healing<br />

2. less inflammation<br />

3. less scar tissue and<br />

4. less pain to the patient.<br />

I finally believe and feel it is necessary to continue this very interesting tissue<br />

repair in the near future.<br />

Dr. Roncarati Andrea<br />

332


<strong>Peskin</strong> Protocol: Adjunct <strong>The</strong>rapy for Use with Chemotherapy and Radiation<br />

May 2008 it was brought to my attention by the superb radiologist, Robert Kagan, M.D.,<br />

Medical Director of MRI Scan & Imaging Centers in Ft. Lauderdale, Florida, that increased<br />

cellular oxygen increases the effectiveness of both chemotherapy and radiation treatments<br />

in destroying cancer cells.<br />

It was extremely gratifying to learn of this, since the <strong>Peskin</strong> Protocol is designed to<br />

increase cellular oxygen throughout the body, including at cancerous sites.<br />

James B. Mitchell, Ph.D., head of the tumor biology (NCI-radiation biology branch) section at<br />

the National Cancer Institute, reported in an article published by Radiological Society of<br />

North America (4/23/2008):<br />

· “…‘[T]hey were able to successfully measure oxygen levels in tumors,’ which<br />

could be important because ‘tumors with higher concentrations of oxygen [are]<br />

more susceptible to radiation.’<br />

· “Lower oxygen level ‘in the tumor allows tumor cells to survive more easily<br />

by making the DNA destruction more difficult.’<br />

· “‘Chemotherapy drugs also don’t work as well when tumors have less<br />

oxygen.’” (emphasis added)<br />

I immediately began searching medical journal articles to see if this critical concept was wellunderstood.<br />

<strong>The</strong> following comments comprise a (small) representative sample of what I<br />

found:<br />

RADIATION ADJUNCT THERAPY:<br />

· “A large body of published evidence points to tumor hypoxia as a major<br />

obstacle to effective treatment of tumors using ionizing radiation a,b because<br />

cells exposed to radiation under hypoxic conditions are approximately thrice [3<br />

times] more resistant than when treated under aerobic conditions. c (emphasis<br />

added)<br />

· “Despite significant evidence of a role of hypoxia [low cellular oxygen] in cellular<br />

resistance to ionizing radiation–induced toxicity, the underlying molecular<br />

mechanisms remain unclear. This study focused on the influence of hypoxia on<br />

radiation-induced signals in TK6 human lymphoblastoid cells. d (emphasis added)<br />

• OVER •


CHEMOTHERAPY ADJUNCT THERAPY:<br />

· “Solid tumors frequently contain large regions with low oxygen<br />

concentrations (hypoxia). <strong>The</strong> hypoxic microenvironment induces adaptive<br />

changes to tumor cell metabolism, and this alteration can further distort the local<br />

microenvironment. <strong>The</strong> net result of these tumor specific changes is a<br />

microenvironment that inhibits many standard cytotoxic anticancer therapies<br />

[“chemotherapy”] and predicts for a poor clinical outcome. e (emphasis added)<br />

· “Hypoxia and anemia (which contributes to tumor hypoxia) can lead to<br />

ionizing radiation and chemotherapy resistance by depriving tumor cells of the<br />

oxygen essential for the cytotoxic activities of these agents. Hypoxia may also<br />

reduce tumor sensitivity to radiation therapy and chemotherapy through one or<br />

more indirect mechanisms that include proteomic and genomic changes. f<br />

(emphasis added)<br />

a Eric, E., “<strong>The</strong> oxygen effect and reoxygenation.” In: Radiobiology for the radiologist. Philadelphia: JB<br />

Lippincott Co.; 1994. p. 133–52.<br />

b Samuni, A., et al., “Effects of Hypoxia on Radiation-Responsive Stress-Activated Protein Kinase, p53, and<br />

Caspase 3 Signals in TK6 Human Lymphoblastoid Cells,” Cancer Res 2005; 65(2): 579-86.<br />

c<br />

Brown, J., “Tumor microenvironment and the response to anticancer therapy,” Cancer Biol <strong>The</strong>r;<br />

2002;1:453–8.<br />

d Samuni, A., et al., “Effects of Hypoxia on Radiation-Responsive Stress-Activated Protein Kinase,<br />

p53, and Caspase 3 Signals in TK6 Human Lymphoblastoid Cells,” Cancer Res 2005; 65(2): 579-86.<br />

e Cairns, R., et al., “Metabolic targeting of hypoxia and HIF1 in solid tumors can enhance cytotoxic<br />

chemotherapy,” Proceedings of the National Academy of Science, May 29, 2007; vol. 104, no. 22:<br />

9445–9450.<br />

f Harrison, L., Blackwell, K., “Hypoxia and Anemia: Factors in Decreased Sensitivity to Radiation<br />

<strong>The</strong>rapy and Chemotherapy?,” <strong>The</strong> Oncologist 2004;9(suppl5):31-40.<br />

• OVER •


Breakthrough in Clinical<br />

Cardiology:<br />

In-Office Assessment with<br />

Pulse Wave Velocity (PWV) and<br />

Digital Pulse Analysis (DPA)<br />

by Brian Scott <strong>Peskin</strong>, BSEE, with Robert Jay Rowen, MD<br />

This article explores an exciting, noninvasive, easy-to-use,<br />

and economical method of assessing patients’ cardiovascular<br />

physiologic status that is backed by more than 25 years<br />

of advanced research in medical physics. A 2007 Clinical<br />

Medicine article points the way to better clinical treatment<br />

of CVD, stating: “Arterial stiffness measured by pulse wave<br />

velocity (PWV) is an accepted strong, independent predictor<br />

of cardiovascular events and mortality.” 1 Anesthesiologists are<br />

well aware of this technology, used for monitoring purposes.<br />

While pulse oximetry became standard in the operating room<br />

and in other critical care areas as a detector of hypoxemia<br />

– all pulse oximeters are fundamental photoelectric<br />

plethysmographs – PWV has been largely ignored. This is<br />

unfortunate, as PWV (plethysmographic) information itself<br />

may provide important clues regarding the CV condition of<br />

the patient. 2,3 With this advanced technology, cardiovascular<br />

science has moved forward, but many physicians have yet to<br />

appreciate these advances. As stated in the 1993 issue of the<br />

Journal of Hypertension, “Wave reflection is not a subject with<br />

which most physicians are familiar and only given mention in<br />

undergraduate physiology courses.” Little has changed.<br />

As this article was going to press, however, “Arterial Stiffness<br />

and Cardiovascular Events: <strong>The</strong> Framingham Heart Study,” by<br />

Gary F. Mitchell, MD, et al. (Circulation. 2010;121:505–511)<br />

was published and featured on Medscape, stating: “In this<br />

study, we assessed the incremental value of adding pulse<br />

wave velocity [PWV] ... to a risk model that includes standard<br />

risk factors for a first cardiovascular event. … Adding pulse<br />

wave velocity led to significant reclassification of risk and<br />

improvement in global risk prediction. … [W]e need to focus<br />

our efforts on identifying and implementing interventions that<br />

can prevent or reverse abnormal aortic stiffness in order to<br />

prevent a marked increase in the burden of disease potentially<br />

attributable to aortic stiffness.” <strong>The</strong> specific intervention/<br />

solution will be given later in this article.<br />

Known in 1993: Blood pressure alone provides no<br />

information of the wave itself<br />

“[T]he fallacy that there is a single ‘systolic’ and a<br />

single ‘diastolic’ blood pressure that is the same in<br />

all major arteries and can be measured in the brachial<br />

or radial artery is quite wrong, but few appreciate this<br />

fallacy, or its implications.” 4<br />

In 1996, Murray and Foster observed that pulse oximetry<br />

brought a major advance to patient monitoring in the 1980s,<br />

yet some of the most valuable data in the waveform signal<br />

were being overlooked. 5 Dorlas and Nijboer also make clear<br />

how this technology surpasses that used in the important (and<br />

complementary) ECG/EKG: “When displayed continuously<br />

on an oscilloscope, the plethysmograph indicates electromechanical<br />

dissociation. <strong>The</strong> device is noninvasive, and<br />

can be applied easily and rapidly. However, despite these<br />

advantages, the method is not applied universally. This may<br />

be because of unfamiliarity with the method. …” 6<br />

Cohn et al., writing in 1995, make clear that when waveforms<br />

are compared between the invasive and noninvasive methods,<br />

computer analysis allows a very high degree of correlation and<br />

repeatability for successful use in clinical application across all<br />

populations (including diabetics): “In hypertensive subjects,<br />

diabetics, and in the normal aging process – and in asymptotic<br />

individuals – there was an abnormality in the oscillatory<br />

component of the diastolic waveform.” 7 <strong>The</strong>y also suggested<br />

that pulse wave analysis would be useful in screening subjects<br />

for early evidence of vascular disease and in monitoring the<br />

response to therapy.<br />

<strong>The</strong> European Society of Hypertension (ESH) and the<br />

European Society of Cardiology (ESC) have added PWV<br />

measurement as an early index of large artery stiffening<br />

in their 2007 Guideline for the Management of Arterial<br />

Hypertension. 8<br />

Digital Pulse Analysis (DPA) is the next evolution in pulse<br />

wave velocity (PWV), and is based on the measurement of<br />

reflected infrared light (IR).<br />

Simple, easy-to-use, non-invasive<br />

finger probe<br />

<strong>The</strong>re has been an explosion of<br />

activity in pulse wave analysis,<br />

and the ability to identify<br />

premature vascular stiffening<br />

is of considerable value in the<br />

prevention of cardiovascular<br />

disease. “<strong>The</strong> PWV has been<br />

established as an important<br />

biophysical marker of arterial<br />

ageing, which is independently highly predictive of<br />

cardiovascular outcome. …” 9,10<br />

80 TOWNSEND LETTER – MAY 2010


Numerous independent confirma tions show statistically<br />

significant CV parameters based on age, and how PWV is the<br />

ideal method for assessing arterial stiffness and central aortic<br />

pressure. 1,11,12 Measurements are highly reproducible in clinical<br />

application and apply to both male and female patients. 12,13<br />

Methodology<br />

A photodiode detects changes in the amount of light<br />

absorbed by hemoglobin, and its output waveform is termed<br />

photoplethysmography, or PTG. PTG has been validated for<br />

calculating systemic arterial compliance (flexibility). 7 <strong>The</strong><br />

application of this technique in population studies confirms<br />

the early detection and evidence of vascular disease, as<br />

well as patients’ response to therapy. 10 <strong>The</strong> technique is<br />

underpublicized, and many physicians are not aware of the<br />

great clinical impact of this technology.<br />

With advanced computer analysis of the waveforms,<br />

clinicians can now use this simple, insurance-reimbursable<br />

procedure to assess the coronary health of their patients, in<br />

detail – in the office – in less than 5 minutes. Simplicity, ease<br />

of use, and detailed cardiovascular analysis of the patient<br />

are key to clinical use. As part of the analysis, the physician<br />

is also given patients’ CV “biological age” to compare with<br />

their actual age. This device is extremely responsive and can<br />

measure patient therapeutic improvement in as little as 3 to 6<br />

months, if not earlier.<br />

A New Successful Intervention<br />

Even though atherosclerosis is a leading cause of CVD,<br />

age-related arterial stiffening receives little attention<br />

in everyday clinical practice, because until recently,<br />

there was no successful intervention that could be<br />

prescribed. 14 Although no single parameter of arterial<br />

compliance or stiffness can be expected to describe all<br />

clinically relevant arterial wall properties, the use of a<br />

DPA–integrated, multimeasurement approach, coupled<br />

with an effective protocol to stop and reverse arterial<br />

stiffening with plant-based, bioidentical parent essential<br />

oils (PEOs), will change this commonly held belief. This<br />

approach and the PEO protocol are being investigated<br />

in the IOWA study – Investigating Oils With Respect<br />

to Arterial blockages, which commenced in December<br />

2009 (results reported later in article).<br />

2010/2009 IOWA (Investigation Oils with Respect to<br />

Arterial Blockage) Study<br />

IOWA’s goal is to assess the intervention of plant-based,<br />

bio identical PEOs and measure their effectiveness in both<br />

stopping progression of and reversing existing atherosclerosis;<br />

that is, reversing “hardening of the arteries” as evidenced not<br />

by hopeful but ineffective “surrogates,” but by detailed DPA<br />

patient profiles, which are a much more direct measure of the<br />

physiologic CV state. 15 <strong>The</strong> study ultimately will include over<br />

200 participants.<br />

Many commonly used CVD surrogates are not indicative<br />

of the true state of the cardiovascular system; that is, patient<br />

markers may improve but the patient still ultimately suffers<br />

from CVD. Even coronary calcification (CA), once considered<br />

a possible “gold standard” in cardiovascular diagnostic<br />

measurement, has recently been called into question as an<br />

accurate diagnostic risk indicator. 15–17 Another deficiency<br />

of CA is that patients’ soft plaque is not measured at all – a<br />

significant issue.<br />

LDL-C <strong>The</strong>rapy Fails to Prevent CVD (an ineffective<br />

surrogate)<br />

C-Reactive Protein Marker ‘Called into Question’<br />

<strong>The</strong>re is now significant doubt that C-reactive protein is a<br />

dependable CVD surrogate. 19 Current DPA technology provides<br />

a much better way to both prevent and treat CV disease in<br />

the 21st century than merely “controlling cholesterol” via<br />

statins (with their ineffective NNT of 100), or hoping that CRP<br />

reductions will help. 15<br />

Aging and Decreased Arterial Flexibility<br />

It is well known that aging is accompanied by increased<br />

stiffness of large elastic arteries, leading to an increase in<br />

PWV. Premature arterial aging, as determined by an elevated<br />

aortic PWV, is now recognized as a major risk factor for<br />

ischemic heart disease. 20–24 An influence of vascular aging on<br />

the contour of the peripheral pressure and volume pulse in the<br />

upper limb is also well recognized, and the aortic pulse wave<br />

velocity more than doubles between ages 17 and 70. 25,4<br />

Aortic / Large Artery Stiffness Measurements:<br />

Millasseau et al. report: “the stiffness of the aorta can be<br />

determined by measuring carotid-femoral pulse wave velocity<br />

(PWVcf). PWV may also influence the contour of the peripheral<br />

pulse, suggesting that contour analysis might be used to assess<br />

large artery stiffness.” 10 Because of difficulty in computing<br />

individual patient path lengths of these pulses, large artery<br />

stiffness (SI) cannot be considered a direct measure of the pulse<br />

wave velocity; however, SI is a definitive index of the stiffness<br />

of both the aorta and large arteries throughout the body. <strong>The</strong><br />

systolic component arises from the pressure wave from the<br />

left ventricle to the finger; the diastolic pressure component<br />

arises from the reflected wave’s traveling backward. Increased<br />

cardiovascular events are strongly correlated to arterial<br />

stiffness. 10<br />

Note: Healthy CV patients have a well defined “dicrotic<br />

wave” in the diastolic phase at D, whereas 98% of overt<br />

arteriosclerotic patients had significant decrease or<br />

disappearance of the wave. 26<br />

➤<br />

TOWNSEND LETTER – MAY 2010 81


Clinical Cardiology<br />

➤<br />

Elements of PTG (Systolic Phase)<br />

1. S (Starting Point)<br />

Starting point of systolic phase of arterial pulse-wave.<br />

Aortic valve opens and the blood of the LV is ejected into aorta.<br />

2. P (Percussion Wave)<br />

Wave caused from LV ejection that increases the blood volume within<br />

artery.<br />

Higher point means stronger LV ejection and higher compliance of<br />

larger artery.<br />

3. T (Tidal Wave)<br />

Reflected wave from the small artery.<br />

Higher point means contraction and stiffness of small artery.<br />

4. C (Incisura)<br />

End-point of systolic phase, then aortic valve is closed.<br />

Less drop from pulse height (PH) means larger resistance (arterial<br />

contraction & tension).<br />

Note: A sophisticated approach to contour analysis of<br />

the PTG utilizes its second derivative, often referred to as<br />

the acceleration photoplethysmograph. This facilitates the<br />

distinction of 5 sequential waves, called a, b, c, d, and e waves.<br />

<strong>The</strong> relative heights of these waves (b/a, c/a, d/a, and e/a ratios)<br />

have been related to age, arterial blood pressure, large artery<br />

stiffness, and effects of vasoactive drugs. <strong>The</strong> b/a ratio has been<br />

related to aging and carotid distensibility. Following analysis<br />

of the correlation of the b/a, c/a, d/a, and e/a ratios with age,<br />

a more complex “aging index” was defined as [(b–c–d–e)/a].<br />

In a study to assess arterial distensibility in adolescents, the<br />

d/a ratio identified individuals at increased risk of developing<br />

atherosclerosis. <strong>The</strong> second-derivative approach has also<br />

recently been applied to the study of the peripheral pressure<br />

pulse. 9,27<br />

With the PTG wave as a basis, its second derivative, termed<br />

the APG wave, provides an extremely useful measurement of<br />

the “biological age” of the patient’s cardiovascular system. 9,27<br />

A Short Summary of Operation<br />

A short description of operation of the photoelectric<br />

plethysmograph has been provided by Challoner and<br />

Ramsay. 28 <strong>The</strong> fact that the absorption spectrum of the skin<br />

varies with oxygen content was known in 1943. Photoelectric<br />

plethysmography dates back to 1936, with the research<br />

conducted by Molitor and Kniazuk. 29 It was important that<br />

detection of oxygen content alone could not be the basis of<br />

measurement based on frequency; and it was found that at<br />

a frequency of 805 nm, both oxygenated and deoxygenated<br />

blood have the same absorption, thereby ensuring accuracy<br />

based on blood flow alone.<br />

Blood has a light absorption coefficient that is higher than<br />

surrounding tissue. This is a consequence of the Lambert-Beer<br />

law relating light absorption to optical density. <strong>The</strong>refore,<br />

increases in the amount of blood give rise to decreased<br />

detected light. Erythrocytes and vessel walls also reflect light.<br />

However, reflection heavily dominates, and arterial pulses<br />

produce merely small reductions in detected light (1%–2%).<br />

82 TOWNSEND LETTER – MAY 2010


Detected light variation is amplified and converted to a voltage<br />

signal. 6 <strong>The</strong>re are many factors involved in the attenuation of<br />

light, including absorption, multiple scattering, and reflection.<br />

But all technical issues have been resolved, and small changes<br />

in patient profile are easily detectable.<br />

Blood Pressure Measurement Is Not Enough<br />

For many reasons, blood pressure measurement, even<br />

measuring the central aortic systolic, is highly problematic<br />

and is not definitive in diagnosing CVD because patient blood<br />

pressure varies significantly throughout the day, depending<br />

on stress level and physical activity. O’Shea and Murphy<br />

make it clear: “Thus, inconsistency in the selection of arms<br />

for BP measurement, by different techniques, may confound<br />

estimation of patients’ cardiovascular morbidity risk.” 31 Also,<br />

as Izzo and Shykoff comment, BP is a late-stage diagnostic:<br />

“Because wide pulse pressure and systolic hypertension are<br />

late manifestations of arteriosclerosis, they are only crude<br />

indicators of arterial wall disease.” 14<br />

Early DPA Detection in Diabetics – BP Measurement Failure<br />

Increased large artery stiffness contributes directly to<br />

the observed age-related increase in systolic pressure as the<br />

following illustration details. 14<br />

As this article was going to press, papers presented<br />

at the 2010 annual meeting of the American College of<br />

Cardiology (details published online at www.sciencedaily.<br />

com/releases/2010/03/100314091130.htm) and scheduled<br />

to be published in the New England Journal of Medicine<br />

(April 29, 2010) made clear that “hopeful” CVD interventions<br />

for type 2 diabetics aren’t effective: “ACCORD: Intensive<br />

BP, combined lipid therapies do not help adults with<br />

diabetes. Our results also showed a higher risk of serious<br />

adverse events with more intensive blood pressure control.”<br />

Shockingly, pharmacologically lowering blood pressure to<br />

normal levels – below currently recommended levels – did<br />

not significantly reduce the combined risk of fatal or nonfatal<br />

cardiovascular disease events in adults with type 2 diabetes<br />

Clinical Cardiology<br />

who were at especially high risk for cardiovascular disease<br />

events, according to new results from the landmark Action to<br />

Control Cardiovascular Risk in Diabetes (ACCORD) clinical<br />

trial. (Note: Lowering blood pressure to below the standard<br />

level significantly cut the risk of stroke by about 40% (relative<br />

risk). <strong>The</strong> researchers caution, however, that participants in<br />

the intensive blood pressure group were more likely to have<br />

complications such as abnormally low blood pressure or high<br />

levels of blood potassium.) “Our results provide no conclusive<br />

evidence that targeting a normal systolic blood pressure<br />

compared with targeting a systolic blood pressure of less than<br />

140 mmHg lowers the overall risk of major cardiovascular<br />

events in high risk adults with type 2 diabetes.” Clinician<br />

Dr Roger Blumenthal, referring to triglyceride-lowering<br />

fenofribrate, states in Medscape’s Heartwire:<br />

But a lot of us in the cardiology community who manage<br />

high-risk diabetic patients thought we were doing<br />

patients a favor, thinking we were decreasing events at<br />

five years. So it was a bit of a surprise [pharma cologically<br />

lowering patient triglycerides failed].<br />

<strong>The</strong> online CV News Digest for the American College<br />

of Cardiology stated: “According to studies presented at the<br />

American College of Cardiology meeting and to be published<br />

online March 18 by the New England Journal of Medicine:<br />

[A]ggressive treatment strategies doctors had expected<br />

would prevent heart attacks among people with type<br />

2 diabetes and some who are the verge of developing<br />

it have proved to be ineffective or even harmful. …<br />

Moreover, researchers found that Abbott’s drug TriCor<br />

(fenofibrate), even though it did lower triglyceride<br />

levels, did not stop patients from having strokes and<br />

heart attacks.<br />

If high-risk patients show no positive effect, it is unlikely<br />

that any patient will benefit with these interventions.<br />

Pharmacologic (artificial) – not physiologic lowering of BP<br />

may sound good, but doesn’t work. If you have followed my<br />

work you will understand why. For several years, I have been<br />

advocating an effective intervention to make patient arteries<br />

more compliant, which also positively affects lipid profiles<br />

without complications.<br />

Unlike other surrogates, a critically important aspect of the<br />

PWV is that “diastolic variability [arterial flexibility/compliance]<br />

in the plethysmograph is independent of arterial pressure.” 3<br />

Furthermore, plethysmography is extremely sensitive to small<br />

amounts of pulsatile blood flow, and most importantly, the<br />

amplitude of the plethysmograph signal is directly proportional<br />

to the vascular distensibility or flexibility. 3 <strong>The</strong>refore, DPA is<br />

significantly superior to mere blood pressure measurement.<br />

➤<br />

“Yet the adverse consequences of age-related<br />

arterial stiffening still receive little attention in<br />

everyday clinical practice, perhaps because<br />

clinicians assume that nothing can be done<br />

about the process.” 14<br />

TOWNSEND LETTER – MAY 2010 83


Clinical Cardiology<br />

➤<br />

Fortunately, today there is an effective treatment with plantbased,<br />

bioidentical PEOs, as DPA measurement confirms.<br />

PWV Analysis with DPA Bests Ultrasound<br />

Ultrasound is insufficient to measure arterial compliance<br />

because arterial volume and the associated pressure cannot<br />

be simultaneously measured, and only a particular segment is<br />

scanned; DPA is significantly superior because it is a systemic<br />

measurement. <strong>The</strong> best method to estimate the distensibility<br />

and stiffness of the aorta and large arteries is PWV, because<br />

PWV is directly related to the stiffness of the large arteries.<br />

PWV directly correlates with aging, hypertension, renal failure,<br />

and other disorders affecting the cardiovascular system. To<br />

eliminate the need for central catheterization when measuring<br />

the central pulse contour, a transfer function was devised that<br />

reconstructs the central waveform from the peripheral. 33<br />

Aortic Stiffness (AI) Measurement<br />

An extremely useful parameter from this technique is termed<br />

the (systolic) augmentation index (AI), relating the magnitude<br />

of the reflected peak to the magnitude of the incident systolic<br />

pressure surge from the left ventricle contraction. <strong>The</strong><br />

amplitude of the pulsatile component of the DVP is influenced<br />

by respiration, sympathetic nervous system activity, and other<br />

factors that influence local perfusion. <strong>The</strong> shape or contour of<br />

the pulse, however, remains approximately constant. 9 This is a<br />

significant reason for the reliability of this measurement of the<br />

system circulation – it is uninfluenced by transitory conditions<br />

such as patient stress level.<br />

efficiency is decreased by just 16% from arterial stiffness,<br />

then for the heart to sustain the same systemic blood flow<br />

(stroke volume), myocardial oxygen consumption increases<br />

significantly by 30% to 50%. 4<br />

Arterial Stiffness: Arteriosclerosis and Atheromatosis<br />

<strong>The</strong> physiology of the artery necessitates two separate<br />

pathologies, although they are typically combined into<br />

the single term atherosclerosis, which is nonspecific.<br />

Arteriosclerosis is typically referred to as a generalized<br />

thickening and stiffening of the media (see illustration below).<br />

Atheromatosis refers to the inflammatory occlusion response of<br />

the endothelial tissue (intima) in the lumen from oxidized lipid<br />

deposits, etc. <strong>The</strong>se two processes often coexist. Over time,<br />

chronic inflammation makes vascular alterations irreversible.<br />

<strong>The</strong>refore, early intervention is critical. In atheromatosis, lumen<br />

diameter is maintained until the final stage of the disorder. <strong>The</strong><br />

process can be considered originating from the “inside out,”<br />

whereas arteriosclerosis is best defined as an “outside-in”<br />

process. Wall thickness and the outer arterial diameter both<br />

increase. Unfortunately, there are often no clinical symptoms<br />

until sudden death, an outcome cardiologists know too well.<br />

<strong>The</strong> pathologic hallmark of arteriosclerosis is thickening<br />

of the adventitia and media (see illustration) leading to excess<br />

arterial wall stiffness and systolic hypertension. <strong>The</strong>re is also<br />

loss of and degradation of elastin fibers.<br />

DPA Diagnoses Hypertrophy<br />

It is important to note that “muscular arteries” are not equally<br />

affected by arterial hypertension, so “normal appearance” may<br />

be misleading, whereas DPA outputs are comprehensive and<br />

detect otherwise hidden arterial concerns.<br />

Important note: <strong>The</strong> intima is 100% parent omega-6 (LA), not<br />

found in fish oil.<br />

Diabetic Implications<br />

Endothelial dysfunction and increased arterial stiffness<br />

are associated with type 1 diabetes mellitus, both of which<br />

contribute to excess cardiovascular mortality in these kinds of<br />

patients.<br />

2010 Newsflash: AI Diagnoses Diabetic Arterial Stiffness<br />

Increased Aortic Stiffness = Excess Oxygen Consumption =<br />

Increased Risk for Heart Attack<br />

Increased aortic stiffness causes decreased cardiac efficiency<br />

(ratio of stroke work to oxygen consumption). If cardiac<br />

Treatment of CVD with PEOs<br />

O’Rourke and Kelly commented: “Delay or reduction in<br />

wave reflection is a logical strategy to apply in the management<br />

of hypertension. Priority is given to ACE inhibitors (angiotensinconverting-enzyme<br />

inhibitors) and beta-blockers which<br />

reduce cardiac output, or to drugs which decrease arteriolar<br />

resistance.” 4 While these drugs have garnered the spotlight,<br />

there is a new therapy that has direct physiologic and etiologic<br />

effect for arterial compliance – PEOs.<br />

Because of its simplicity, DPA can be employed in largescale<br />

epidemiological studies and be used to assess the effects<br />

84 TOWNSEND LETTER – MAY 2010


of these new interventions. 9 Both the aorta and large arteries<br />

have slow turnover of both cells and matrix proteins. A main<br />

therapeutic aim in preventing and reversing CVD is to reduce<br />

arterial stiffness; i.e., produce sustained reduction in arterial<br />

pressure.<br />

Successful intervention: plant-based, bioidentical PEOs<br />

achieve this result naturally via numerous physiologic<br />

pathways.<br />

Prostacyclin (PGI 2<br />

) production to ensure platelets are<br />

free-flowing (natural blood-thinners), production of the<br />

body’s most potent anti-inflammatory – PGE 1<br />

– that<br />

both prevents and reverses thrombosis, incorporation<br />

of parent omega-6 into the epithelial tissue (intima)<br />

itself, along with incorporation directly into the media<br />

and adventitia, allowing maximum flexibility. PEOs,<br />

parent essential oils (plant-based) – not fish oils –<br />

in a ratio 1:1-2.5:1 LA/ALA, with more parent omega-6<br />

than parent omega-3, provide profound cardiovascular<br />

protection as evidenced by IOWA with 34 subjects, and<br />

the results are unprecedented:<br />

IOWA: Investigating Oils With respect to Arterial Blockage<br />

Significant differences in biological age compared to physical age<br />

Brian <strong>Peskin</strong>, BSEE: Founder: Life-Systems Engineering Science with David Sim, M.D., Interventional Cardiologist<br />

(Based on 34 patients using the PEOs over 3 month and as long as 144 months)<br />

Age: 35-75 Median age: 62 22 females, 13 males<br />

Paired t-test. Median: 24 months PEO use / Mean: 90 months PEO use<br />

Significant differences (p 0.0015) with standard error of the mean +-5 years.<br />

Subject’s biological age being (average of) 8.8 years lower than their actual physical age.<br />

Note: This experiment has a 99.85% accuracy—30 times more accurate than the 5% standard error<br />

used in most clinical trials. <strong>The</strong>refore, this result is not due to possible error and is highly significant<br />

with patient CV health 8.8 years better than physical age predicts.<br />

Analysis by Alex Kiss, Ph.D. (statistics) — January 21, 2010<br />

Analysis Variable : agediff<br />

N Minimum Maximum Mean Std Dev Pr > |t|<br />

34 -39.00 22.00 -8.82 14.84 0.0015<br />

Clinical Cardiology<br />

Study Summary<br />

<strong>The</strong> above numbers, based on APG, mean as follows:<br />

<strong>The</strong>re were 34 people who completed the study, using PEOs<br />

from 3 to 144 months. <strong>The</strong>re was no baseline (the weakness<br />

of the study). Half were under two-year users, and half were<br />

over two years, double females to males. <strong>The</strong> subjects had<br />

their arteries studied and compared with accepted waveforms<br />

for age. <strong>The</strong> best subject was 39 years less than chronological<br />

age. <strong>The</strong> worst was 22 years over, and the only subject greater<br />

than chronological age. Overall, the mean age of arteries<br />

(flexibility) was 8.82 years less than chronological age. <strong>The</strong><br />

p value (chance of this being chance only) was 15 in 1,000,<br />

indicating extremely significant results.<br />

Special thanks to renowned interventional cardiologist David<br />

Sim, MD, for his invaluable technical expertise, and to<br />

Michael Czajka (Australia) for introducing us to PWV and DPA<br />

technology.<br />

Notes<br />

1. Khoshdel AR, Carney SL, Nair BR, Gillies A. Better management of cardiovascular<br />

diseases by pulse wave velocity: combining clinical practice with clinical<br />

research using evidence-based medicine. Clin Med Res . 2007;5:45–52.<br />

2. Nijboer JA, Dorlas JC, Mahieu HF. Photoelectric plethysmography – some<br />

fundamental aspects of the reflection and transmission method. Clin Phys<br />

Physiol Meas. 1981;2:205–215.<br />

3. Shelley KH, Dickstein M, Shulman SM. <strong>The</strong> detection of peripheral venous<br />

pulsation using the pulse oximeter as a plethysmograph. J Clin Monit.<br />

1993;9:283–287.<br />

4. O’Rourke MF, Kelly RP. Wave reflection in the systemic circulation and its<br />

implications in ventricular function. J Hypertens. 1993;11:327–337.<br />

5. Murray WB, Foster PA. <strong>The</strong> peripheral pulse wave: information overlooked.<br />

J Clin Monit . 1996;12:365–377.<br />

6. Dorlas JC, Nijboer JA. Photo-electric plethysmography as a monitoring device in<br />

anaesthesia. Br J Anaesth . 1985;57:524–530.<br />

7. Cohn J, Finkelstein S, McVeigh G, et al. Noninvasive pulse wave analysis for the<br />

early detection of vascular disease. Hypertension. 1995;26:503–508.<br />

8. Mancia G, De Backer G, Dominiczak A, et al. 2007 Guidelines for the<br />

management of arterial hypertension: the Task Force for the Management of<br />

Arterial Hypertension of the European Society of Hypertension (ESH) and of the<br />

European Society of Cardiology (ESC). J Hypertens. 2007;25:1105–1187.<br />

➤<br />

Brian Scott <strong>Peskin</strong>, BSEE, is available to discuss how you can incorporate 21 st -century DPA, anti-CVD technology<br />

into your practice. Brian earned his bachelor of science degree in electrical engineering from Massachusetts Institute<br />

of Technology (MIT) in 1979. He founded the field of Life-Systems Engineering Science in 1995, and was appointed<br />

adjunct professor at Texas Southern University in the Department of Pharmacy and Health Science from 1998 to 1999.<br />

He is chief research scientist at Cambridge International Institute for Medical Science ( www.CambridgeMedScience.<br />

org). <strong>Peskin</strong> integrates theory into practical applications – enhancing and extending the quality of life. He readily<br />

acknowledges his role as the messenger of critically important but overlooked information published in leading medical<br />

textbooks and medical journals. His medical insights and often-unique ability to “connect the dots” have given him an<br />

international following of leading physicians demanding state-of-the-art medical science in treating their patients. For<br />

more information, visit www.peskinpharma.com or contact prof-peskin@peskinpharma.com .<br />

Robert Jay Rowen, MD, is editor-in-chief of Second Opinion Newsletter (www.secondopinionnewsletter.co m). He is<br />

affectionately known as the “father of medical freedom” and was instrumental as an Alaskan physician in drafting legislation<br />

making Alaska the first state to provide statutory protection to alternative physicians (medical freedom law). While he<br />

continues to treat patients for conditions like heart disease and cancer, Dr. Rowen’s greatest desire is to help people avoid<br />

these diseases in the first place. He has nearly 30 years’ experience practicing alternative medicine, and is considered one of<br />

America’s foremost physicians practicing state-of-the-art, evidence-based medicine.<br />

TOWNSEND LETTER – MAY 2010 85


Clinical Cardiology<br />

➤<br />

9. Millasseau SC, Ritter JM, Takazawa K, Chowienczyk PJ. Contour analysis of the<br />

photoplethysmographic pulse measured at the finger. J Hypertens. 2006;24:1449–<br />

1456.<br />

10. Millasseau SC, Kelly RP, Ritter JM, Chowienczyk PJ. Determination of age-related<br />

increases in large artery stiffness by digital pulse contour analysis. Clin Sci (Lond).<br />

2002;103:371–377.<br />

11. Hlimonenko I, Meigas K, Vahisalu R. Waveform analysis of peripheral pulse<br />

wave detected in the fingertip with photoplethysmograph. Measure Sci Rev.<br />

2003;3:49–52.<br />

12. Wilkinson IB, Cockcroft JR, Webb DJ. Pulse wave analysis and arterial stiffness. J<br />

Cardiovasc Pharmacol. 1998;32:S33–S37.<br />

13. Sherebrin MH, Sherebrin RZ. Frequency analysis of the peripheral pulse wave<br />

detected in the finger with the photoplethysmograph. IEEE Trans Biomed Eng.<br />

1990;37:313–317.<br />

14. Izzo JL Jr, Shykoff BE. Arterial stiffness: clinical relevance, measurement and<br />

treatment. Rev Cardiovasc Med. 2001;2:29–34,37–40.<br />

15. <strong>Peskin</strong> BS, Sim D. Vytorin failure explained – a new view of LDL. Townsend Lett.<br />

2008;299:101–112.<br />

16. McCullough PA, Chinnaiyan KM. Annual progression of coronary calcification<br />

in trials of preventative therapies: a systematic review. Arch Intern Med.<br />

2009;169:2064–2070.<br />

17. O’Malley P. A double take on serial measurement of coronary artery calcification.<br />

Arch Intern Med. 2009;169:2051–2052.<br />

18. Ridker P, Danielson E, Fonseca FA, et al. Rosuvastatin to prevent vascular<br />

events in men and women with elevated C-reactive protein. N Engl J Med.<br />

2008;359:2195–2207.<br />

19. Nazmi A, Victora CG. Socioeconomic and racial/ethnic differentials of C-reactive<br />

protein levels: a systematic review of population-based studies. BMC Public<br />

Health. 2007;7:212.<br />

20. Lehmann ED, Hopkins KD, Rawesh A, et al.<br />

Relation between number of cardiovascular risk<br />

factors/events and noninvasive Doppler ultrasound<br />

assessments of aortic compliance. Hypertension.<br />

1998;32:565–569.<br />

21. Blacher J, Asmar R, Djane S, London GM, Safar<br />

ME. Aortic pulse wave velocity as a marker of<br />

cardiovascular risk in hypertensive patients.<br />

Hypertension. 1999;33:1111–1117.<br />

22. Asmar R, Rudnichi A, Blacher J, London GM, Safar<br />

ME. Pulse pressure and aortic pulse wave velocity<br />

are markers of cardiovascular risk in hypertensive<br />

populations. Am J Hypertens. 2001;14:91–97.<br />

23. Blacher J, Guerin AP, Pannier B, Marchais SJ,<br />

Safar ME, London GM. Impact of aortic stiffness<br />

on survival in end-stage renal disease. Circulation.<br />

1999;99:2434–2439.<br />

24. Laurent S, Boutouyrie P, Asmar R, et al. Aortic<br />

stiffness is an independent predictor of all-cause<br />

and cardiovascular mortality in hypertensive<br />

patients. Hypertension. 2001;37:1236–1241.<br />

25. Kelly RP, Hayward C, Avolio A, O’Rourke<br />

M. Noninvasive determination of age related<br />

changes in the human arterial pulse. Circulation.<br />

1989;80:1652–1659.<br />

26. Lax H, Feinberg AW, Cohen BM. Studies of the<br />

arterial pulse wave and its modification in the<br />

presence of human arteriosclerosis. J Chronic Dis.<br />

1956;3:618–631.<br />

27. Hashimoto J, Chonan K, Aoki Y, et al. Pulse wave<br />

velocity and the second derivative of the finger<br />

photoplethysmogram in treated hypertensive<br />

patients: their relationship and associating factors. J<br />

Hypertens. 2002;20:2415–2422.<br />

28. Challoner AV, Ramsay CA. A photoelectric<br />

plethysmograph for the measurement of cutaneous<br />

blood flow. Phys Med Biol. 1974;19:317–328.<br />

29. Molitor H, Kniazuk M. A new bloodless method<br />

for continuous recording of peripheral circulatory<br />

changes. J Pharmacol Exp <strong>The</strong>r. 1936;57:6–18.<br />

30. Jago JR, Murray A. Repeatability of peripheral<br />

pulse measurements on ears, fingers and toes using<br />

photoelectric plethysmography. Clin Phys Physiol<br />

Measure. 1988;9:319–329.<br />

31. O’Shea JC, Murphy MB. Ambulatory blood<br />

pressure monitoring: which arm? J Hum Hypertens.<br />

2000;14:227–230.<br />

32. Wilkinson IB, MacCallum H, Rooijmans DF, et al.<br />

Increased augmentation index and systolic stress in<br />

type 1 diabetes mellitus. QJM. 2000;93:441–448.<br />

33. Karamanoglu M, O’Rourke MF, Avolio AP, Kelly<br />

RP. An analysis of the relationship between central<br />

aortic and peripheral upper limb pressure waves in<br />

man. Eur Heart J. 1993;14:160–167.<br />

34. Davies JE, Baksi J, Francis DP, et al. <strong>The</strong> arterial<br />

reservoir pressure increases with aging and is the<br />

major determinant of the aortic augmentation<br />

index. Am J Physiol Heart Circ Physiol.<br />

2010;298:H580–H586.<br />

35. Levy D, Larson MG, Vasan RS, Kannel WB, Ho KK.<br />

<strong>The</strong> progression from hypertension to congestive<br />

heart failure. JAMA. 1996;275:1557–1562.<br />

©2010 Brian Scott <strong>Peskin</strong><br />

TOWNSEND LETTER – MAY 2010


Cancer and Mitochondria Defects:<br />

New 21st Century Research<br />

by Brian <strong>Peskin</strong>, BSEE<br />

Founder, Life-Systems Engineering Science<br />

I recently presented at the 17th<br />

Annual World Congress on Anti-<br />

Aging Medicine in Orlando, Florida<br />

(April 2009), utilizing new research<br />

from 2007–2009 to identify the prime<br />

cause of cancer. Predictably, these<br />

findings caused quite a sensation.<br />

Numerous physicians met with me<br />

afterwards to applaud the presentation<br />

and discuss direct patient application<br />

in their practices. This article addresses<br />

the major points of my presentation,<br />

with a focus on clinical application.<br />

While environmental pollution and<br />

other factors certainly play a role in<br />

the cancer causing process, they are<br />

a topic unto themselves. “Connecting<br />

the dots” with this new information<br />

leads to a startling conclusion that we<br />

will now explore.<br />

What Cancer Isn’t<br />

First, let me state what cancer is not.<br />

Cancer is not an invader in our bodies<br />

like a virus or bacterial infection, nor<br />

is it a genetic distortion determined<br />

to kill us. Cancer is the body, at the<br />

cellular level, attempting to allow<br />

the injured tissue or organ to survive<br />

by reverting to a primitive survival<br />

mechanism. This definition is the<br />

result of embracing the latest research<br />

from a variety of disciplines whose<br />

practitioners include epidemiologists,<br />

geneticists, and oncologists in the<br />

forefront of their fields.<br />

More than 1.5 million<br />

Americans will be<br />

diagnosed with cancer<br />

this year, so effective<br />

prevention is vital.<br />

2008/2009 Cancer Research<br />

Breakthrough<br />

In remarkable research sponsored<br />

by the National Cancer Institute<br />

published in 2008 and 2009,<br />

researchers found major abnormalities<br />

in content or composition in a complex<br />

lipid called cardiolipin (CL). <strong>The</strong>se<br />

abnormalities are “found in all tumors,<br />

linking abnormal CL to irreversible<br />

respiratory injury.” 1 Cardiolipin is a fatbased<br />

complex phospholipid found in<br />

all mitochondrial membranes, almost<br />

exclusively in the inner membrane,<br />

and is intimately involved in<br />

maintaining mitochondrial functionality<br />

and membrane integrity. It is<br />

used for ATP (energy) synthesis, and<br />

consists roughly of 20% lipids. 2<br />

Abnormalities in CL<br />

impair mitochondrial<br />

function.<br />

CL serves as an insulator and<br />

stabilizes the activity of protein<br />

complexes important to the electron<br />

transport chain. It also “glues” these<br />

protein complexes together. 3 While<br />

most lipids are linked together in the<br />

endoplasmic reticulum, cardiolipin is<br />

synthesized in the mitochondria.<br />

In mammals, the main<br />

substrate in CL is<br />

parent omega-6 (LA)<br />

with virtually no parent<br />

omega-3 (ALA) or its<br />

derivatives. 4<br />

This means that humans require<br />

plenty of functional omega-6 –<br />

the opposite of what many cancer<br />

researchers and physicians believe;<br />

they think it is cancer-causing (which<br />

it is if adulterated).<br />

Breakthrough research in 2006<br />

by Valeria Fantin and colleagues<br />

at Harvard University showed that<br />

although mitochondria may be intact<br />

in cancerous cells, they don’t function<br />

properly because their membranes<br />

have a high potential, not a low<br />

potential as they should. 4 Why does<br />

this physiologic change occur? <strong>The</strong><br />

key is unadulterated, fully functional<br />

parent omega-6.<br />

Major American Heart Association<br />

Reversal: Omega-6 Is Good<br />

For over a decade, virtually all<br />

cancer researchers and physicians<br />

have scorned omega-6; however, in<br />

2009 the American Heart Association<br />

started championing parent omega-6<br />

because: “[O]mega-6 PUFAs also have<br />

powerful anti-inflammatory properties<br />

that counteract any pro-inflammatory<br />

activity.” 5<br />

<strong>The</strong> Cancer/Inflammation<br />

Connection<br />

Inflammation plays a large part in<br />

the development of cancer. This is<br />

exactly the condition that renowned<br />

cancer researcher Dr. Robert<br />

Weinberg of the Massachusetts<br />

Institute of Technology (MIT) spoke<br />

of in 2007: “<strong>The</strong> connection between<br />

inflammation and cancer has moved<br />

to center stage in the research arena.” 6<br />

It is fortunate that a cancer researcher<br />

of Weinberg’s stature has been<br />

influential in refocusing the research<br />

community’s attention. What does<br />

chronic inflammation cause? Massive<br />

➤<br />

TOWNSEND LETTER – AUGUST/SEPTEMBER 2009 87


amounts of oxygen deployment to the<br />

inflamed tissue, if enough oxygen is<br />

available.<br />

Respiration vs. Glycolysis<br />

(Fermentation)<br />

Over 80 years ago, medical<br />

physicist, physiologist, and Nobel<br />

Prize-winner Otto Warburg, MD,<br />

PhD, proved that a 35% reduction in<br />

oxygen causes any cell to either die or<br />

turn cancerous. Meticulous (American)<br />

experiments performed by renowned<br />

researchers from 1953 to 1955 also<br />

confirmed the result. While it is<br />

understood that heart attacks can stem<br />

from lack of oxygen, this is also true of<br />

cancer. Most normal, healthy cells get<br />

the majority of their energy by using<br />

oxygen – in a process called cellular<br />

respiration (oxidative phosphorylation)<br />

that takes place in the mitochondria.<br />

However, cells can also utilize energy<br />

without oxygen, and this metabolic<br />

process is termed glycolysis. This<br />

energy method is useful for short-term<br />

energy expenditure, such as lifting a<br />

weight, but not for long-term energy<br />

requirements like running a marathon<br />

– it is too energy inefficient. Cancers<br />

live and ultimately thrive on the energy<br />

from glycolysis, and that is why they<br />

need such large vascular networks<br />

providing tremendous amounts of<br />

carbohydrates. Glycolysis is also a<br />

much simpler biochemical process,<br />

compared with cellular respiration<br />

(oxidative phosphorylation). In the<br />

presence of oxygen deficiency, cells<br />

that can’t obtain enough energy<br />

through glycolysis perish. But the cells<br />

that succeed in utilizing glycolysis<br />

exhibit their innate will to survive;<br />

these are the ones that don’t die from<br />

the oxygen deficiency.<br />

But there is a huge price to be paid<br />

for lack of oxygen: lack of cellular<br />

intelligence – these cells have the<br />

intelligence of “dumb yeast.” In<br />

essence, cancer is the “idiot cell” that<br />

can survive but do little more than<br />

reproduce more “idiot cells” with no<br />

fully functional mitochondria.<br />

Recently Released Research<br />

Changing Minds<br />

Most members of the medical and<br />

research professions, including those<br />

physicians who treat cancer, still<br />

mistakenly believe that the answer<br />

to the cancer puzzle will be found in<br />

oncogenes – genes that predispose<br />

the individual toward cancer. <strong>The</strong><br />

following 2009 statement should give<br />

you pause:<br />

Nature provides a means to escape quick organ<br />

death caused by lack of oxygen by allowing<br />

anaerobic glycolysis, but at a price – that is, if the<br />

problem isn’t fixed, the benign tissue becomes<br />

malignant (cancerous) and ultimately destroys its<br />

host.<br />

concept has been advocated in the<br />

past, the most recent noteworthy<br />

research suggests that the cancerous<br />

tissue is the most oxygen-deprived<br />

tissue; that’s why that particular tissue<br />

became cancerous. 8 Once the cell<br />

is chronically oxygen deprived, the<br />

genetic material does change, but that<br />

is solely a consequence, not a cause.<br />

You’ve got much more to worry<br />

about than one cancerous area, since<br />

many tissues are oxygen deprived<br />

along with the cancerous ones. <strong>The</strong>y<br />

just haven’t reached the critical 35%<br />

cellular oxygen deficiency threshold<br />

yet.<br />

“<strong>The</strong>re is very little reason to be encouraged that<br />

prevention strategies can be revolutionized with<br />

what we’ve discovered so far [on the genetic basis<br />

of common diseases].”<br />

David Goldstein, Director<br />

Center for Population Genomics and Pharmacogenetics<br />

Duke University, Durham, North Carolina<br />

Geneticists Misled …<br />

In 2008, Scientific American<br />

published an article describing how<br />

cancer researchers had been led astray<br />

by renowned geneticist Lawrence<br />

Loeb’s claims of cancer’s 10,000<br />

to 100,000 mutations per cell. <strong>The</strong><br />

reality was that there were only 65 to<br />

475 mutations per cell – not enough<br />

mutations to cause cancer! 7 That is<br />

why “more research” in this area<br />

often yields little, except to motivate<br />

the well meaning to contribute more<br />

money to finance those researchers’<br />

wrong path.<br />

Cancer is a Systemic Problem – Not<br />

Just a Local One<br />

Many physicians approach cancer<br />

as a localized issue, meaning that<br />

they focus only on the affected tissue<br />

as the problem because the genes<br />

have been ruined there. While this<br />

“Breast cancer is not<br />

a local problem. It is a<br />

systemic [whole body]<br />

disease.” 9<br />

I’d like to acknowledge the extraordinary<br />

insight of the above 2009<br />

statement by Homer Macapintac,<br />

MD, chair and professor of nuclear<br />

medicine at the University of Texas<br />

M. D. Anderson Cancer Center. <strong>The</strong><br />

proof of his statement follows.<br />

In 2007 it was reported that<br />

tumor-free breast tissue manifests<br />

precancerous epigenetic changes: “A<br />

new study using mastectomy tissue<br />

shows that precancerous changes<br />

can occur in normal-appearing areas<br />

of the breast as distant as two inches<br />

from a tumor’s edge.” 10,11<br />

Relying solely on genetics to<br />

explain this is difficult at best.<br />

With the wealth of new scientific<br />

information that has become available<br />

over the last two and a half years, it is<br />

reasonable to conclude that there has<br />

to be a physiologic (epigenetic) cause<br />

changing the distant tissue, not vice<br />

versa.<br />

88 TOWNSEND LETTER – AUGUST/SEPTEMBER 2009


Major News Flash in 2007:<br />

Physiologic Environment Triggers<br />

Cancer<br />

Genetic factors may be less<br />

important than initially thought.<br />

In 2007 it was also reported that<br />

scientists discovered a new type of<br />

cell that plays a significant role in<br />

the development of cancer – a highly<br />

volatile, precancerous stem cell<br />

(pCSC) that can either remain benign<br />

or become malignant, depending<br />

upon environmental cues. “[I]t<br />

appears that pCSCs require some sort<br />

of signal, or cue, from their immediate<br />

environment that directs them to<br />

become benign or malignant.” 12<br />

<strong>The</strong>se cancer researchers are on the<br />

right path, and by now “connecting<br />

the dots” we understand that this<br />

environmental cue is lack of oxygen<br />

(hypoxia).<br />

Why Cancers Are Highly Resistant to<br />

Treatment Once <strong>The</strong>y Return<br />

Oncologists already know that<br />

when cancer returns, chemotherapy<br />

often won’t work again. <strong>The</strong> reason<br />

for the returning cancer’s virulence<br />

requires understanding the following<br />

three key points:<br />

1. Chemotherapy and radiation<br />

kill both respiring (normal) and<br />

cancerous (fermenting) cells. If<br />

respiration (oxygen transfer) falls<br />

below a specific minimum, even<br />

for a cancer cell, that cell will die.<br />

Normal cells survive chemo and<br />

radiation better than cancer cells,<br />

because they start with a better<br />

respiration; therefore they have<br />

stronger residual respiration after<br />

chemo/radiation treatments.<br />

2. Oncologists understand that after<br />

chemo and radiation treatments,<br />

many normal cells are killed and<br />

many new cancerous cells are<br />

created in which glycolysis takes<br />

the place of the cells’ ruined<br />

respiration. <strong>The</strong>se surviving de scendents<br />

of normal cells com pensate<br />

for decreased respiration with<br />

increased glycolytic capability.<br />

<strong>The</strong>refore, the cells that live and<br />

haven’t been killed are now prime<br />

candidates for a continued oxygendeficient<br />

environment. Hypoxia<br />

won’t kill these cells, because they<br />

already thrive in a deoxygenated<br />

environment, making them harder<br />

to treat.<br />

3. <strong>The</strong>refore, over time, these<br />

concentrated groups of functional<br />

hypoxic cells can easily become<br />

fully cancerous, capable of metastasis;<br />

they possess the exact<br />

conditions needed to cause more<br />

cancer in the future. Chemo and<br />

radiation will be much less effective<br />

the next time around because we<br />

have created (through “treatment”)<br />

a more efficient cell with decreased<br />

respiration capability that can better<br />

utilize glycolysis in a hy poxic<br />

environment; that is, cancer. 13–17<br />

Our cells are struggling<br />

to stay alive to keep<br />

the oxygen-deprived<br />

hypoxic organ alive, but<br />

they have a handicap<br />

and can’t get the<br />

necessary oxygen for<br />

respiration.<br />

2009 Revelation: Number One<br />

Cancer in Men Depends on Oxygen<br />

Level<br />

Very recently, a group of<br />

investigators studying prostate cancer<br />

reported: “Hypoxia, or reduced<br />

oxygen levels, in prostate tumors<br />

significantly predicts a poor longterm<br />

biochemical outcome, regardless<br />

of other prognostic factors…. We<br />

have followed the patients now for 8<br />

years and it turns out that the patients<br />

who had low prostate tumor oxygen<br />

levels had much worse outcomes and<br />

much more biochemical failures than<br />

patients who had normal or higher<br />

levels of oxygen in their tumors.” 18<br />

This is a problem because oxygen<br />

delivered to a tumor is critical to<br />

the treatment for many cancers. For<br />

example, radiation therapy creates free<br />

radicals that damage DNA in tumors,<br />

and oxygen acts as the mediator<br />

Mitochondria Defects<br />

that perpetuates the free radicals.<br />

This finding, along with many other<br />

medical journal reports concerning<br />

the hypoxia/cancer connection in<br />

nonprostate cancers, confirms that<br />

the greater the oxygen deficiency, the<br />

more virulent the cancer.<br />

A Possible Cause of Widespread<br />

Cellular Oxygen Deficiency<br />

Cellular oxygen deficiency occurs<br />

with long-term consumption of<br />

adulterated oils and fats courtesy of<br />

the food processing industry, crossing<br />

all socioeconomic barriers. Normal<br />

but harmful processing and refining<br />

ruin omega-6-containing oils, such as<br />

canola, safflower, and sunflower oils,<br />

and even many olive oils found in<br />

supermarkets.<br />

Tragically, we are<br />

unknowingly increasing<br />

the risk of contracting<br />

cancer by eating<br />

processed foods.<br />

<strong>The</strong> creation of trans fats by<br />

stopping the oxygenation capability<br />

of vital oxygenating fats is only one<br />

method used by food processors to<br />

obtain long shelf life. All commercial<br />

cooking oils have significantly<br />

impaired oxygen transferability. 8<br />

Nature in her wisdom has also<br />

provided us with an opportunity to<br />

fix this problem. Because full-blown<br />

cancer takes years to develop, often<br />

decades, we have the opportunity to<br />

remedy the cells’ oxygen deficiency.<br />

<strong>The</strong> great news is that it has already<br />

been proven that these precancerous<br />

cells can be kept in check so that<br />

they either stay benign or are killed<br />

as a result of the resupply of cellular<br />

oxygen.<br />

Identifying the Appropriate<br />

Omega-6:-3 Ratio<br />

My research emphasis over the<br />

past 15 years has been on deducing<br />

the appropriate supplemental ratio of<br />

➤<br />

TOWNSEND LETTER – AUGUST/SEPTEMBER 2009 89


Mitochondria Defects<br />

➤<br />

Figure 1: Group 2 (bottom) was pretreated with PEO formulation for 4 weeks prior<br />

to tumor implantation. Group 1 (middle) was pretreated for 2 weeks prior to tumor<br />

implantation. Group 3 (top) is the control.<br />

physiologic omega-6:-3 to maximally<br />

oxygenate cells and keep their<br />

mitochondria optimal. Parent omega-3<br />

(not fish oil derivatives, such as EPA)<br />

is required in each cell, although we<br />

require much more unadulterated<br />

parent omega-6. 19 Most physicians<br />

think that the majority of “parents”<br />

automatically become transformed<br />

into “derivatives,” so fish oil makes<br />

an appropriate supplement. This is<br />

questionable at best when referring<br />

to the most current research. It was<br />

published in 2008 that EFA derivatives<br />

(including DHA and EPA) are made “as<br />

needed” by the body and a maximum<br />

of only 1% to 5% of parents become<br />

derivatives; the majority, over 95%,<br />

remain as parents in the cell. 20 Other<br />

journal articles report less than 1%<br />

normal conversion amounts. 21 In view<br />

of these new findings, fish oils give<br />

a phar ma cologic overload of derivatives.<br />

Consequently, practitioners<br />

may need to reevaluate their recommendations.<br />

In my research, I commissioned and<br />

directed an experiment with mice to<br />

study the relationship between cancer<br />

growth rates and supplementation<br />

with <strong>Peskin</strong> Protocol PEOs. 22 Mice<br />

metabolize EFAs as humans do, so<br />

these experimental results are directly<br />

applicable to humans. This seminal<br />

experiment showed that, in spite of<br />

tumor implantation with 2 million<br />

cancer cells at once, there was a<br />

statistically significant 24% reduction<br />

in tumor size (growth) in the longer<br />

4-week pretreated mice compared<br />

with the control mice that received<br />

no PEO supplementation. In the last<br />

10 days of the experiment, there was<br />

a 42.8% lower growth volume of the<br />

tumors in the 4-week pretreated mice<br />

compared to the untreated mice. <strong>The</strong>se<br />

results clearly show the increasing<br />

value of a longer pretreatment period<br />

of PEOs, and that PEO-based oils are<br />

modifying the cells’ internal structure<br />

in an epigenetic fashion, making them<br />

more cancer resistant.<br />

Notes<br />

1. Kiebish MA, Han X, Cheng H, Chuang JH, Seyfried TN.<br />

Cardiolipin and electron transport chain abnormalities<br />

in mouse brain tumor mitochondria: lipidomic evidence<br />

supporting the Warburg theory of cancer. J Lipid Res.<br />

2008;49:2545–2566.<br />

2. Krebs JJ, Hauser H, Carafoli E. Asymmetric distribution<br />

of phospholipids in the inner membrane of beef heart<br />

mitochondria. J Biol Chem. 1979;254:5308–5316.<br />

3. Zhang M, Mileykovskaya E, Dowhan W. Gluing the<br />

respiratory chain together: cardiolipin is required for<br />

supercomplex formation in the inner mitochondrial/<br />

membrane. J Biol Chem. 2002;277:43553–43556.<br />

4. Fantin VR, St-Pierre J, Leder P. Attenuation of LDH-A<br />

expression uncovers a link between glycolysis,<br />

mitochondrial physiology, and tumor maintenance.<br />

Cancer Cell 2006;9:425–434.<br />

5. Harris WS, Mozaffarian D, Rimm E, et al. Omega-6<br />

fatty acids and risk for cardiovascular disease: a science<br />

advisory from the American Heart Association Nutrition<br />

Subcommittee of the Council on Nutrition, Physical<br />

Activity, and Metabolism; Council on Cardiovascular<br />

Nursing; and Council on Epidemiology and Prevention.<br />

Circulation. 2009;119:902–907.<br />

6. Stix G. A Malignant Flame. Sci Am. July 2007:60–67.<br />

7. <strong>The</strong> Special Edition of Scientific American (Vol. 18, No.<br />

3, August/September 2008) devoted the entire issue to<br />

cancer.<br />

8. <strong>Peskin</strong> BS, Carter MJ. Chronic cellular hypoxia as the<br />

prime cause of cancer: What is the de-oxygenating role<br />

of adulterated and improper ratios of polyunsaturated<br />

fatty acids when incorporated into cell membranes? Med<br />

Hypotheses. 2008;70:298–304.<br />

9. Tumor-free breast tissue can have precancerous changes.<br />

Medical News Today, Jan 15, 2007.<br />

10. Singer E. Interpreting the genome. Technol Rev. January/<br />

February 2009:48–53.<br />

11. Yan PS, Venkataramu C, Ibrahim A, et al. Mapping<br />

geographic zones of cancer risk with epigenetic biomarkers<br />

in normal breast tissue. Clin Cancer Res. 2006;12:6626–<br />

6636.<br />

12. Chen L, Shen R, Ye Y, et al. Precancerous stem cells have<br />

the potential for both benign and malignant differentiation.<br />

PLoS One. 2007;2:e293.<br />

13. Matsumoto S, Hyodo F, Subramanian S, et al. Low-field<br />

paramagnetic resonance imaging of tumor oxygenation and<br />

glycolytic activity in mice. J Clin Invest. 2008;118:1965–<br />

1973.<br />

14. Samuni AM, Kasid U, Chuang EY, et al. Effects of hypoxia<br />

on radiation-responsive stress-activated protein kinase,<br />

p53, and caspase 3 signals in TK6 human lymphoblastoid<br />

cells. Cancer Res. 2005;65:579–586<br />

15. Brown J. Tumor microenvironment and the response to<br />

anticancer therapy. Cancer Biol <strong>The</strong>r. 2002;1:453–458.<br />

16. Hockel M, Schlenger K, Aral B, Mitze M, Schaffer U,<br />

Vaupel P. Association between tumor hypoxia and<br />

malignant progression in advanced cancer of the uterine<br />

cervix. Cancer Res. 1996;56:4509–4515.<br />

17. Hall EJ, Giaccia AJ, Giaccia AJ. Radiobiology for the<br />

Radiologist. Philadelphia: Lippincott; 1994:133–152.<br />

18. Turaka A, et al. Hypoxic prostate/muscle pO2 (P/M pO2)<br />

ratio predicts for biochemical failure in patients with<br />

localized prostate cancer: long-term result [abstract 5136].<br />

Paper presented at: Annual meeting American Society of<br />

Clinical Oncology; May 31, 2009; Orlando, FL.<br />

19. <strong>Peskin</strong> BS. <strong>The</strong> scientific calculation of the optimum PEO<br />

ratio. Available at: www.brianpeskin.com. Accessed May<br />

23, 2009.<br />

20. Barceló-Coblijn G, Murphy EJ, Othman R, Moghadasian<br />

MH, Kashour T, Friel JK. Flaxseed oil and fish-oil capsule<br />

consumption alters human red blood cell n–3 fatty acid<br />

composition: a multiple-dosing trial comparing 2 sources<br />

of n–3 fatty acid. Am J Clin Nutr. 2008;88:801–809.<br />

21. Hussein N, Ah-Sing E, Wilkinson P, Leach C, Griffin BA,<br />

Millward DJ. Long-chain conversion of linolenic acid and<br />

alpha-linolenic acid in response to marked changes in<br />

their dietary intake in men. J Lipid Res. 2005;46:269–280.<br />

22. Perry Scientific Pre-clinical Oncology Group, San Diego,<br />

CA, 2004.<br />

Brian Scott <strong>Peskin</strong> earned his bachelor of<br />

science degree in electrical engineering from the<br />

Massachusetts Institute of Technology (MIT) in 1979.<br />

He founded the field of Life-Systems Engineering<br />

Science in 1995. Brian was appointed adjunct<br />

professor at Texas Southern<br />

University in the Department<br />

of Pharmacy and Health<br />

Science from 1998 to<br />

1999. He is chief research<br />

scientist at the Cambridge<br />

International Institute for<br />

Medical Science (www.<br />

CambridgeMedScience.<br />

org), exclusively devoting<br />

the last 5 years to the cause<br />

and solution of cancer.<br />

E-mail: prof-nutrition@<br />

sbcglobal.net; www.<br />

Brian<strong>Peskin</strong>.com.<br />

u<br />

90 TOWNSEND LETTER – AUGUST/SEPTEMBER 2009

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