Dr. Ray Schilling

Dr. Ray Schilling born in Tübingen, Germany and Graduated from Eberhard-Karls-University Medical School, Tuebingen in 1971. Once Post-doctoral cancer research position holder at the Ontario Cancer Institute in Toronto, is now a member of the American Academy of Anti-Aging Medicine (A4M).

About Ray Schilling

Dr. Ray Schilling born in Tübingen, Germany and Graduated from Eberhard-Karls-University Medical School, Tuebingen in 1971. Once Post-doctoral cancer research position holder at the Ontario Cancer Institute in Toronto, is now a member of the American Academy of Anti-Aging Medicine (A4M).

Mar
25
2017

How Stress Affects Our Hormone System

Dr. Andrew Heyman gave a talk recently about how stress affects our hormone system. His talk was presented at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended. It was entitled “Understanding the Stress, Thyroid, Hormone Connections & Prioritizing Systems”.

Dr. Heyman stressed that there is a triad of hormonal connections that is important to remember: the thyroid hormones, the stress hormones (adrenal glands) and the pancreas (insulin production). We need a balance of these hormones for optimal energy production and circulation. Under stress our sugar metabolism can derail, we develop obesity and fatigue. When balanced we experience vitality and wellbeing.

Metabolic activation pathways

Dr. Heyman projected a slide that showed the metabolic activation pathways. He stated that a number of different factors could influence the hormone system:

  • Diet: trans fats, sugar, too many carbs, food allergies.
  • Drugs: drug-induced nutrient depletion (over-the-counter drugs, prescription drugs).
  • Physical exercise: frequency and type matters.
  • Environmental exposure: chemicals, pesticides, herbicides, heavy metals, plastics, molds, and pollens.
  • Stress: physical stress, psychogenic stress.
  • Genetics: methylene-tetra-hydro-folate reductase enzyme deficiency (MTHFR mutation), APOE genes, lack of vitamin D
  • Disease: past or present conditions, active disease or syndromes.

Target areas within your system

The target areas in your system are the

  • Pancreas, where blood sugar can rise because of insulin resistance. Too much insulin production causes inflammation, hormone disbalances, kidney damage, and hardening of the arteries through plaque formation.
  • Thyroid gland, which gets activated by TSH (thyroid stimulating hormone), but can also be affected negatively by autoantibodies).
  • Brain: decrease in serotonin resulting in anxiety, depression and food cravings; decreased melatonin causing sleep disturbances; increased ghrelin and decreased leptin secretion leading to overeating and obesity.
  • Liver/kidneys: both of these organs are important for detoxification; the liver produces thyroid binding globulin, which when increased can lower the free thyroid hormones.
  • Immune system (gut, lymph glands): the Peyer’s patches in the gut mucosa produce a large portion of the immune cells; lymph glands, the bone marrow and the spleen supply the rest. A leaky gut syndrome can affect the whole body, causing inflammation and autoimmune reactions.
  • Hypothalamus/pituitary/adrenal glands: this is the main axis of the stress reaction. If the brain is stressed, the hypothalamus sends a cascade of activating hormones via the pituitary gland and the adrenal glands. This leads to cortisol overproduction, and release of epinephrine and norepinephrine from the center of the adrenal glands. High blood pressure, anxiety, heart palpitations, arrhythmias and more can develop from this.

Hypothalamus/pituitary/adrenal glands activation and clinical effects

The main hormone axis of the stress reaction goes from the hypothalamus via the pituitary gland to the outside surface of the adrenal glands where cortisol is released. It is also called the HPA axis. Stressed people make too much cortisol, which weakens immune functions, reduces human growth hormone production, increases belly fat, increases blood pressure and reduces insulin action. Stress also reduces estrogen production in women and testosterone production in men.

The final clinical presentation is osteopenia, then osteoporosis with spontaneous fractures of bones. There is cardiovascular disease leading to heart attacks and strokes, and cognitive decline with memory loss. There are complications with infections. Also the metabolic syndrome can lead to obesity and type 2-diabetes.

Stress and the hippocampus

In the center of our brain there is a memory-processing unit, the hippocampus that converts short-term memory into long-term memory. Repeated stress interferes with normal hippocampus function. High cortisol levels interfere with the proper functioning of the hippocampus causing memory problems.

Chronically elevated cortisol levels from chronic stress have been shown to lead to hippocampus atrophy and can cause Alzheimer’s disease.

Effects of chronic stress

Chronic stress leads to cardiovascular disease, to diabetes, chronic inflammation, Alzheimer’s disease, thyroid disorders, cancer, neurological disorders and autoimmune diseases. Inflammation research has shown that with chronic inflammation tumor necrosis factor-alpha (TNF-alpha) is released, as key player of chronic inflammation. This however leads to the release of other inflammatory kinins like IL6 and others. The resulting chronic inflammation can cause Crohn’s disease, rheumatoid arthritis, insulin resistance, dementia, metabolic syndrome, obesity and atherosclerosis with associated markers (decreased HDL, increased LDL, CRP and triglycerides).

Hormone imbalance causes disease

  1. Excess cortisol production from stress leads to Th2 type inflammatory kinins; usually associated with this is a reduction of DHEA (a male hormone in the adrenal glands), which leads to reduced Th1 type kinins. The end result is chronic inflammation. When chronic stress has tired out the adrenal glands, a four-point salivary cortisol level test shows a flat curve. This indicates adrenal gland fatigue or, if worse, even adrenal gland insufficiency. Such a pattern is found in patients with leukemia, breast cancer, uterine cancer, prostate cancer, pituitary gland cancer and lung cancer.
  2. The metabolic syndrome is associated with dysregulation of the HPA axis. People who have this syndrome have a high morning serum cortisol level. High cortisol increases the risk to develop metabolic syndrome.
  3. Metabolic connections: high cortisol leads to a partial blockage of thyroid hormones, which in turn leads to hypothyroidism. Hypothyroidism will affect glucose tolerance, and if not treated leads to type 2 diabetes.

In a large study involving 46,578 members of Kaiser Permanente Northwest it was determined that for every 1 point above a fasting glucose level of 84 mg/dL there was an additional 6% risk to develop type 2 diabetes over the next 10 years.

Pathological hormone disturbances

The following hormone patterns were discussed in detail, an increased cortisol level, increased insulin level and decreased thyroid levels.

Elevated cortisol

Prolonged elevation of cortisol leads to atrophy of the hippocampus with brain atrophy and Alzheimer’s or dementia. The immune system gets altered, there is lower DHEA hormone leading to weaker muscles and weakened immunity. There is insulin resistance (decreased insulin sensitivity), decreased serotonin and increased depression. Carbohydrate cravings lead to weight gain (central obesity). Changes in the thyroid metabolism leads to hypothyroidism.

Increased insulin level

People who develop high insulin levels are usually sugar or carbohydrate addicts. As they gain weight they change their metabolism into the metabolic syndrome. The extra insulin that is floating around triggers the insulin receptors to become less sensitive (also called “resistant”). The people love to eat. They snack frequently on protein bars and candy bars. As they gain weight, their energy goes down and they often develop painful joints. This prevents them from being physically active. They notice episodes of foggy thinking. Women complain of frequent yeast infections.

The body tries to compensate by slightly decreasing thyroid hormones and slightly increasing cortisol levels.

Decreased thyroid levels

There is increased lactic acid production and decreased insulin sensitivity. Oxidative stress is increased. The patient is depressed and cognition and memory are reduced. The gut has slower motility. The mitochondria, the energy packages in each cell are reduced and functioning less productively. Cardiac function is reduced.

The body tries to compensate for the primary thyroid weakness by slightly elevating insulin and cortisol.

Treatment of stressed hormone system

Before the doctor can treat a disbalanced hormone system, blood tests have to be done that show what kind of hormone constellation is present. Dr. Heyman suggested the following support with supplements.

Treatment of thyroid disorders

Thyroid supplementation may involve any of these: Selenomethionine, iodine, chromium, thyroid glandular, tyrosine, ferritin, Ashwagandha, coleus forskohlii, 7-keto DHEA, ferritin and iron. Other possible supplements that were mentioned by Dr. Heyman were Rhodiola, schisandra, ginseng, Rg3, eurycoma longifolia, neuromedulla glandular, DHEA, tryptophan/5 HTP, licorice, Cordyceps.

This, however, is not all. Missing thyroid hormones have to be replaced with a balanced T3/T4 medication like Armour thyroid.

Adrenal support

The following supplements are used to support adrenals: Adrenal glandular, vitamin C, adrenal cortex extract, Holy Basil, Pharma GABA, Magnolia/Phellodendron, L-theanine, sterols & sterolins.

Pancreatic support

These supplements support the insulin production in the pancreas:

Chromium, vitamin D, magnesium, alpha-lipoic acid, fish oil, micro PQQ, bitter melon, cinnamon, arginine, vanadium, benfotiamine (synthetic derivative of B1 vitamin) and Bergamot.

Dr. Heyman completed his talk by giving a few patient examples, explaining what blood tests showed, what the hormone disbalance was, and which treatment options were helpful.

How Stress Affects Our Hormone System

How Stress Affects Our Hormone System

Conclusion

Dr. Andrew Heyman gave a talk at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended. He talked about how stress affects our hormone system. Symptoms from stress can stem from different causes including hormone disbalances. Conventional medicine would simply treat the symptoms. However, this will not be successful with stress-induced hormone disbalances, because it does not treat the causes. Causal treatment of the hormone disbalance will restore the person’s wellbeing and the symptoms will disappear at the same time. Anti-aging medicine and integrative medicine are attempting to follow this approach.

Mar
18
2017

What’s new about testosterone?

Dr. Gary Huber recently gave a lecture on what’s new about testosterone. His talk was presented at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended. It was entitled “Evolution of Testosterone – Dispelling Myths & Charting a Future”.

History of testosterone

There are some notable historic landmarks with respect to the discovery of testosterone.

1869: Dr. Charles Brown-Sequard suggested that the “feebleness of older men” was due to a lack of testosterone. He injected himself with testicular extracts from dogs and guinea pigs.

1912: The Danish physician Dr. Thorkild Rovsing transplanted the testicles of a young soldier killed in battle into an old man with gangrene. The gangrenous wound healed completely.

1918: Dr. Leo Stanley sampled fresh testicles from executed prisoners at the San Quentin Prison and transplanted them to prison inmates. Some regained their sexual potency.

1930’s: Professor Adolf Butenandt collected 25,000 liters of urine from willing policemen. He was able to isolate a breakdown product of testosterone, androsterone. Eventually he isolated both progesterone and testosterone. He received the Nobel prize for his work with sex hormones in 1939.

Historical detours and misguided opinions about testosterone

1935: Because natural hormones cannot be patented, Big Pharma came up with the idea of modifying testosterone by adding a methyl group at the 17-alpha position of testosterone.

This allowed the new substance, 17 alpha-methyltestosterone to be swallowed as a pill. But the liver changed 17 alpha-methyl-testosterone into 17 alpha-methyl-estradiol, a strong estrogenic compound. This was not well metabolized. Shortly after introduction into patients it became evident that 17 alpha-methyl-testosterone caused liver cancers. This “testosterone equivalent” was used for 50 years until the FDA outlawed it because I caused liver cancer. It also caused suspicion among physicians about any testosterone replacement, even the bioidentical hormones that are safe.

Prostate cancer myths

Prostate cancer myth

Conventional medicine teaches (and I have believed this for many years) that testosterone would be the cause for prostate cancer. This was based on old observations by Dr. Huggins, a Canadian born surgeon who practiced in Chicago, that orchiectomy improved the survival of advanced prostate cancer patients a bit. Dr. Lee pointed out that Dr. Huggins neglected to realize that testicles make both testosterone and small amounts of estrogen. When an orchiectomy was done (because of the belief that testosterone production was the culprit) inadvertently the real cause of prostate cancer (an estrogen surplus) was also removed, thus improving the survival of these patients somewhat. Nowadays we have more sophisticated testing methods. Dr. Abraham Morgentaler (Ref. 1) has compiled a lot of evidence about the importance of testosterone in men. He proved, based on a lot of more modern references, that it is not testosterone that is the cause of prostate cancer. We know now that estrogen dominance is responsible for prostate cancer and that this develops as stated above because of the low testosterone and low progesterone during the male menopause (also called “andropause”).

It is important, when testosterone deficiency is present in an aging man, to replace the missing testosterone with bioidentical testosterone.

The old method of hormone depletion therapy in advanced prostate cancer cases is still practiced today, but has been proven wrong by Dr. Morgentaler and other researchers.

10% absorption rule myth

For years there has been a persistent myth that only 10% of testosterone would be absorbed through the skin. This was never proven, and newer studies could demonstrate that about 90% of testosterone gets absorbed through the skin.

Misleading science created myths

Unfortunately three key medical journals, JAMA, NEJM and PLOS ONE have published misleading studies. The content did not discuss physiology, mechanism of actions, appropriate dosing or true science. But their conclusions were that testosterone therapy was associated with heart attacks and strokes. There was an outcry about this particular study in the medical community reflected in the demand to retract this misleading article.

Unfortunately there were more similar false “studies” where controls were wrong or unequal groups were compared that should not have been compared. It is reminiscent of previous effort of the tobacco industry wanting to cover up that cigarette smoke causes lung cancer.

Here we have the problem that testosterone cures so many conditions for which the Pharma industry has many patented medicines that control the symptoms. But testosterone can actually treat the cause of the illness, testosterone deficiency, which leads to a cure of many other symptoms.

For a long time physicians were confused. But younger physicians are replacing the older generation and they treat testosterone deficiency with bioidentical testosterone in the proper dose.

Clinical observations about a lack of testosterone

There is evidence that men have lower testosterone as they age and this has worsened when we compare data from early 2000 to the 1980’s and 1990’s.

As this paper shows, men investigated in the 1980’s were still having higher testosterone levels in older age. But in the 1990’s and more so in 2004 these values have declined even more. This fact coincides also with other studies, showing decreased sperm health and increased infertility. The reason for this is also a lack of testosterone!

Causation of low testosterone

Dr. Huber pointed out that many studies have pointed to a variety of causes for low testosterone levels in men.

  • BPA, toxins and pesticides that occupy testosterone receptors and interfere with the hypothalamus/pituitary hormone function that stimulates the Leydig cells to produce testosterone.
  • The more stress men are under, the less testosterone production there is. Sleep deprivation below 5 hours per night leads to a significant lower testosterone production. Most testosterone is produced during the sleep in the early morning hours.
  • Weight gain and sugar overconsumption poison the testosterone producing Leydig cells.
  • Poly-pharmacy. Many drugs lower testosterone production: statins, diuretics, metformin, spironolactone, opiates, antidepressants, verapamil, alcohol, chemotherapy for cancer, antihistamines, ketoconazole, beta blockers, H2 blockers, finasteride, estrogens and alpha methyldopa.

Many references were provided that support these data. In one paper it was noted that the risk of a heart attack climbs to 4 times the risk of normal, when the man sleeps less than 6 hours per night. As sleep hours lower, the risk for metabolic syndrome increases by 42% and this leads to heart attacks. Testosterone replacement can reverse this risk as it a lack of testosterone production that caused the risk.

Link of low testosterone to cardiovascular disease

The literature is overwhelming that low testosterone has adverse effects on the cardiovascular system. To be more specific, the metabolic syndrome, heart disease (and strokes), diabetes and high blood pressure have their root in low testosterone.

Metabolic syndrome

Inflammation is mediated by cytokines such as IL-6. Dr. Huber mentioned one study where healthy men received IL-6. This promptly suppressed testosterone levels. He said that there are many cytokines that work in concert to suppress testosterone. One useful clinical test for inflammation is the C-reactive protein, which indicates whether or not inflammation is present in a person. Metabolic syndrome is common in obese patients. In a study CRP was found to be significantly associated with obesity. When CRP is high, testosterone levels are low. When the CRP level is high, there is a risk of getting the first heart attack.

On the other hand, when men with high inflammatory markers from low testosterone levels were replaced with testosterone, the tumor necrosis factor was reduced by 50%, IL1b by 37%, triglycerides by 11% and total cholesterol by 6%.

In the Moscow study a group of obese men with low testosterone levels were treated with testosterone injections. There was an impressive reduction of insulin (17%), CRP (35%) weight reduction of 4% and TNF-a reduction of 31% within 16 weeks.

Heart disease (and strokes)

Hardening of the arteries (medically called atherosclerosis) is due to chronic inflammation. A new heart attack/stroke specific biomarker has been developed. It is a ratio of oxidized LDL, divided by HDL. This has an odds ratio of 13.92 compared to a control without a risk for a heart attack or stroke.

Administration of testosterone hormone led to dilatation of coronary arteries. The Rotterdam study showed that low testosterone levels were associated with high risk for heart attacks and strokes, but that treatment with testosterone removed this risk. Testosterone increases AMP kinase for energy production in heart muscle cells, but also dilates coronary arteries for more blood supply to the heart.

Diabetes

Among men with diabetes 20-64% have low testosterone levels. In another study men with higher testosterone levels had a 42% lower diabetes risk. Testosterone levels are inversely related to body mass index and insulin resistance. Men with diabetes have lower testosterone levels than men who were not diabetic and were weight-matched. Most diabetics have high CRP values.

High blood pressure

Experience with androgen deprivation therapy for prostate cancer has shown that blood pressure gets elevated due to testosterone deficiency. Testosterone increases LDH, the protective subunit of cholesterol, and decreases LDL cholesterol and triglycerides. Testosterone also lowers inflammatory markers and reverses clotting factors making blood thinner. All of this leads to a widening of the arteries and lowering of blood pressure.

Treatment options for low testosterone

It is important to support the hypothalamic /pituitary/adrenal gland axis and remove other causes, such as stress and lack of sleep. Younger men can be stimulated in the pituitary gland through Clomiphene. Men older than 60 likely have true secondary hypogonadism and need testosterone replacement. Topical testosterone creams are available commercially or from compounding pharmacies. Injectable testosterone preparations that can be metabolized by the body are available. One such preparation is Delatestryl. A small dose (like 50 mg) is self-injected subcutaneously twice per week, which keeps the testosterone level stable. The last resort, if the creams or injections don’t work, is the use of testosterone pellets that a physician can implant under the skin.

What’s new about testosterone?

What’s new about testosterone?

Conclusion

At a recent Anti-Aging conference in Las Vegas that I attended, Dr. Huber gave an overview of testosterone. There has been an objective reduction of testosterone levels in men since the 1980’s due to pollutants in our environment. Testosterone plays a key role for heart and brain function. It affects sex drive, fertility and potency. But it also prevents diabetes, high blood pressure and weight gain. On top of that it prevents prostate cancer and likely many other cancers. The key with low testosterone is to replace it to high normal levels. Blood levels should be measured every two months, when replacement has been instituted, in order to ensure adequate levels.

References  Ref.1 Abraham Morgentaler, MD “Testosterone for Life – Recharge your vitality, sex drive, muscle mass and overall health”, McGraw-Hill, 2008

Mar
11
2017

Obesity And Diabetes Can Cause Cancer

Dr. Nalini Chilkov gave a talk about how obesity and diabetes can cause cancer. The original title was “Integrative Cancer Care, Increased Rates of Cancer and Cancer Mortality Associated with Obesity and Insulin Resistance, Nutraceutical and Botanical Interventions”. Her talk was presented at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended.

In the following I will present a brief summary of her lecture.

Obesity is a major risk factor for cancer

Obesity causes 14% of all cancer deaths in men and 20% of cancer deaths in women.  This link explains this in more detail. The following 15 cancers were linked to obesity in terms of causation. They are: colon cancer, gastric cancer, gallbladder cancer, ovarian cancer, breast cancer, liver cancer, uterine cancer, endometrial cancer, rectal cancer, pancreatic cancer, cervical cancer, non-Hodgkin’s lymphoma, renal cancer, multiple myeloma and esophageal cancer.

The American Society of Clinical Oncology reported about a meta-analysis involving 82 studies. This involved more than 200,000 women with breast cancer. Premenopausal and postmenopausal women were compared who were obese or normal weight. Premenopausal, obese breast cancer women had a 75% increase in mortality compared to the normal weight breast cancer group. With postmenopausal, obese breast cancer women there was a 34% increase of mortality compared to the normal weight group.

With obese prostate cancer patients there is a similar observation. Obese patients have a more aggressive prostate cancer on the Gleason score and the cancer is in a more advanced stage at the time of diagnosis.

Diabetes increases mortality from cancer

Obesity is a common risk factor for both cancer and diabetes. But diabetes by itself is also increasing mortality of several cancers. In a consensus report details of the relationship between cancer and diabetes have been discussed in detail. The following cancers have been identified to have an increased risk of diabetes: pancreatic, gastric, esophageal, colorectal, liver, gallbladder, breast, ovarian, endometrial, cervical, urinary bladder, renal, multiple myeloma and non-Hodgkin’s lymphoma.

A meta-analysis suggests that cancer patients who are diabetic have a 1.41-fold increased risk of dying compared to those cancer patients who have normal blood sugars. Dr. Chilkov explained in detail what the various mechanism are that account for the faster cancer growth in obese and diabetic patients. High insulin levels is one of the risk factors, so is IGF-1, an insulin-like growth factor. The aromatase enzyme in fatty tissue turns male type hormones into estrogen, which also can stimulate cancer growth.

Carbohydrate restriction diet to prevent obesity

Low carb diets like the Mediterranean diet, the ketogenic diet and the Atkins diet will drop blood insulin and lactate levels. Cancer size and cancer growth are related to insulin and lactate levels. A low carb diet can reduce insulin-mediated uptake of sugar into cancer cells.

Research has shown that cancer metabolism slows down when a 10%-20% carb/high protein diet is consumed by the patient. This reduces the amount of sugar that is taken up by cancer cells. It also reduces insulin, so there is less cancer growth. A ketogenic diet is a more strict way to restrict carbohydrates. Intermittent fasting is also a useful method to reduce carbohydrate intake.

Here is an interesting study that illustrates the power of intermittent fasting. The study involved 2413 patients with early breast cancer who were followed for 7 years. Those breast cancer patients, who consistently did not eat anything between dinner and breakfast for 13 hours or more, had a 36% lower risk of having a cancer recurrence. There was also a 21% lower risk of dying from breast cancer when fasting was done for 13 hours or more overnight.

Supplements to prevent obesity, diabetes and cancer

A low carb diet and in some cases even a ketogenic diet is beneficial as a baseline. A regular exercise program is also useful for general fitness building and cardiovascular strengthening. In addition Dr. Chilkov recommended the following supplements.

  1. To reduce inflammation in the body, Dr. Chilkov recommended taking 2000 to 6000 mg of omega-3 fatty acids per day (molecularly distilled fish oil).
  2. Berberine 500 to 1000 mg three times daily. Dr. Chilkov said that Berberine has anti-cancer properties, improves insulin sensitivity and reduces absorption of sugars in the intestinal tract.
  3. Curcumin inhibits cancer cell division, invasion and metastatic spread through interaction with multiple cell signaling proteins. Several researchers showed that curcumin could lower blood sugar levels by stimulating insulin production from beta cells in the pancreas. Triglycerides, leptins and inflammation in fat cells are also lowered by curcumin. Insulin sensitivity increases through the action of curcumin. Dr. Chilkov recommended 300 mg/day of curcumin for 3 months.
  4. Resveratrol, the bioflavonoid from red wine is a powerful anti-inflammatory. This antioxidant has several other effects, which make it challenging to measure each effect by itself. This group of investigators managed to simultaneously measure these effects. They found that resveratrol lowered the C-reactive protein by 26% and tumor necrosis factor-alpha by 19.8%. Resveratrol also decreased fasting blood sugar and insulin; in addition it reduced hemoglobin A1C and insulin resistance. The recommended daily dose of resveratrol is 1000 to 5000 mg.
  5. Green tea catechins (EGCG) help to normalize the glucose and insulin metabolism. The dosage recommended was 1-3 grams per day.
  6. Reishi mushroom (Ganoderma lucidum) contain polysaccharides with antidiabetic and antiobesity effects. They make gut bacteria produce three types of short-chain fatty acids that control body weight and insulin sensitivity.
Obesity And Diabetes Can Cause Cancer

Obesity And Diabetes Can Cause Cancer

Conclusion

Obesity is a risk factor not only for diabetes, but also for cancer. Chronically elevated blood sugars, increased fasting insulin levels and increased IGF1 levels can cause cancer. In addition they can stimulate tumor growth and increase cancer mortality. It is for this reason that the health care provider should screen all diabetics for cancer. In her talk Dr. Nalini Chilkov gave clear guidelines what supplements will be beneficial to reduce the risk of obesity and diabetes as well as cancer. Start with a healthy, balanced diet. Add an exercise program. Then consider some of the above-mentioned supplements to reduce your risk for cancer, diabetes and obesity.

Mar
04
2017

Weight Loss Surgery Is Unnecessary

Dr. Flavio A. Cadegiani gave a talk saying that weight loss surgery is unnecessary. Dr. Cadegiani is the director of a weight loss clinic called Corpometria Institute in Brasilia, Brazil. He is board certified in endocrinology and metabolism and in internal medicine. His talk was presented at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended.

Here are the main topics that he presented.

Weight measurements are wrong when based on the BMI

Dr. Cadegiani stated that we do not understand obesity, because we look at it from the wrong angle. Current dietary approaches have failed. But obesity research is still proceeding in the wrong way. If all else fails, weight loss surgery is finally suggested as a last resort. But this is wrong.

The problem with body mass index (BMI) is that an athletic body type may be called “obese”, because the BMI exceeds 30.0. However in a very muscular person the reason for the elevated BMI is an increased muscles mass, not fat. Body composition scales reveal that, but a simple weight measurement does not.

Dr. Cadegiani recommended measuring waist circumference with <94 cm (37 inches) for men and <88 cm (34.65 inches) for women being normal.

10 reasons why we are misled by the BMI

  1. The inventor of the BMI was a mathematician. It was explicitly stated that the BMI would not predict the level of fatness of an individual. The other factors are bone mass and muscle mass.
  2. Because the BMI ignores the waist size, it is scientifically invalid.
  3. There are physiological reasons why it is wrong: there is no allowance made for the relative proportion of the bone, muscle and fat content.
  4. The BMI gets the logic wrong: the CDC site claims that the BMI “is a reliable indicator of body fatness for people”. This is simply not true!
  5. The BMI is based on bad mathematics: the formula assumes low muscle mass and high fat content.
  6. The BMI is lying by scientific authority: Dr. Cadegiani said it has an “air of scientific authority, but it is mathematical snake oil.”
  7. The BMI suggests that there are distinct categories of underweight, ideal, overweight and obese. It assumes sharp boundaries that hinge on a decimal place. All of this is nonsense.
  8. Cynical people could suspect that medical insurance companies lobby for the continued use of the BMI as it keeps their profits high. Sometimes insurance companies charge higher fees for people with an elevated BMI.
  9. Doctors can contribute to the continued use of the BMI, if they don’t feel the need to use another way of assessing their obese patients.
  10. It is embarrassing that we still base the assessment of obesity on a 200-year-old mathematical formula when more reliable measures are known.

Bariatric surgery done too easily

Dr. Cadegiani noted that publications on bariatric surgery (=weight loss surgery)

underreport surgical complications and deaths. The bariatric industry is rich, and 90% of the booths during obesity conferences belong to bariatric-related companies. Long-term follow-up studies are lacking. Those who do follow-ups report an increase of pancreatic tumors after 10 years following bariatric surgery.

Long-term follow-ups also describe a 70% increase of psychiatric disorders including depression and alcoholism. Those who had bariatric surgery experience a 200% increase in suicides.

Overcoming weight centered approach

Here is how to avoid the weight-centered approach that would lead the clinician to wrong conclusions.

There are four factors being taken into account:

  1. Metabolic blood markers are included in the assessment
  2. Body composition scales are used and incorporated in the assessment
  3. The patient participates by measuring waist circumference and body weight
  4. Clinical signs and symptoms are incorporated

Classic metabolic markers are liver enzymes and hormone levels like testosterone, Thyroid (T3) LH and IGF-1. The lipid metabolism is monitored through apoB and triglyceride levels. Inflammation is monitored through uric acid levels, ferritin and C-reactive protein (CRP). An oral glucose tolerance test and fasting insulin level can predict diabetes 5 to 10 years before it will occur clinically. Other metabolic markers are homocysteine and metalloproteinases. Insulin resistance can be measured with newer tests.

Oxidized LDLc is the only marker that is linked to diabetic retinopathy. Another marker, resistin is an independent marker for obesity-related cancer, cardiovascular disease and overall mortality. A triglyceride-waist circumference index has been found to be the best predictor for future development of diabetes.

Body composition analysis

The patient measures his/her own waist circumference and body weight on body composition scales. This gives additional information about fat and muscle composition. Dr. Cadegiani’s team likes to understand what is really going on in terms of what triggers fat excess.

Questions are: what is the level of emotional overeating? How much anxiety is there in the patient’s life that leads to overeating? What is the social and cultural environment? What were previous weight loss attempts? And what is the family history in term of excessive weight?

Other important factors are to check for binge eating disorders or night eating syndrome. In addition any patient planning to go for weight loss therapy should be checked for depression, mood disorders and suicide potential.

Otherwise body composition scales by electrical bioimpedance were found to be very useful in assessing fat and muscle percentage as well as visceral fat percentage.

Aggressive clinical approach improves metabolism

Dr. Cadegiani and his group have published their own research paper in February 2017 showing that an aggressive clinical approach can prevent the need for bariatric surgery.  This publication describes that in a group of 43 subjects who were thought to be bariatric surgery candidates only 3 patients (7%) went on to have the procedure done. 93% of the subjects were able to shed pounds with the method offered and avoided bariatric surgery.

They documented that clinical parameters and blood tests all improved on their program. The researchers focused on triggers that caused obesity in their patients. The measured markers were oxidized LDL cholesterol, triglycerides, the liver enzymes ALT and μGT, fasting glucose, Hemoglobin A1C, uric acid and CRP. All of these parameters improved with the modification in food intake. 81.2% of the weight loss was from the reduction of fat mass. 46.5% of patients had a normal waist circumference measurement at the end of the trial. They also achieved normal body fat and visceral fat percentages. As already stated 93% of all the patients in this trial avoided weight loss surgery, called bariatric surgery.

Dr. Cadegiani suggested that obesity should be approached with a scientifically based and responsible method. This will change the way we manage obesity.

Weight Loss Surgery Is Unnecessary

Weight Loss Surgery Is Unnecessary

Conclusion

Attention to detail of the patient with weight problems will allow the patient to reduce fat percentage. Waist measurements should be regularly performed as well as body composition scales measurements. This way the physician can follow the fat and muscle percentages. Key to success is to reduce the refined carb contents of food intake (sugar and starchy foods) and have a calorie deficit diet. Exercise is also an important component. An aggressive clinical approach to obesity can improve the clinical outcome and can prevent bariatric surgery.

Feb
25
2017

Heart Health Improves With Hormone Replacement

Dr. Pamela Smith gave a lecture in December 2016 showing that heart health improves with hormone replacement. Her talk was part of the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9 to Dec. 11, 2016) in Las Vegas, which I attended. The title of the talk was: “Heart health: The Importance of Hormonal Balance for Men and Women”. Her keynote lecture contained 255 slides. I am only presenting a factual summary of the pertinent points here.

1. Estrogen

Observations regarding risk of heart attacks

  1. Women have a lower risk of heart attacks before menopause compared to men of the same age.
  2. Heart attack rates go up significantly after menopause.
  3. Estrogen replacement therapy may reduce the risk of heart attacks by 50% for postmenopausal women.

Lipid profile after menopause

There is an elevation of LDL cholesterol, total cholesterol and triglycerides as well as lower HDL cholesterol levels. All of this causes a higher risk of heart attacks for postmenopausal women. Estrogen replacement therapy increases the large VLDL particles, decreases LDL levels and raises HDL-2. These changes are thought to be responsible for helping reduce heart attack rates in postmenopausal women who do estrogen replacement therapy (ERT).

Difference between oral and transdermal estrogen replacement

When estrogen is taken by mouth, it is metabolically changed in the liver. This reduces the protective effect on the cardiovascular system. In contrast, transdermal estrogen (from commercial estrogen patches or from bioidentical estrogen creams) has a higher cardioprotective effect. The liver does not metabolize transdermal estrogen. Dr. Smith explained in great detail using many slides how estrogen prevents heart attacks. Details about this would be too technical for this review. Apart from lipid lowering effects there are protective effects to the lining of the arteries. In addition there are metabolic processes in heart cells and mitochondria that benefit from estrogens. The end result is that postmenopausal women who replace estrogen will outlive men by about 10 years. Stay away from Premarin, which is not human estrogen, but is derived from pregnant mares. Also the tablet form is metabolized by the liver, which loses a lot of the beneficial effects that you get from transdermal estrogen. 

How can you document the beneficial effects of estrogen replacement?

  1. Carotid intima measurements in postmenopausal women on ERT show a consistent reduction in thickness compared to controls.
  2. The physical and emotional stress response is reduced compared to postmenopausal women without ERT.
  3. Hormone replacement therapy in postmenopausal women reduces blood pressure. Measurements showed this effect to be due to a reduction of angiotensin converting enzyme (ACE) by 20%. This is the equivalent of treating a woman with an ACE inhibitor without the side effects of these pills.
  4. Coronary calcification scores were lower in postmenopausal women on ERT than a control group without ERT. These calcification scores correlate with the risk for heart attacks.
  5. Oral estrogen replacement leads to proinflammatory metabolites from the liver metabolism of estrogen. This is not found in the blood of women using transdermal estrogen. The anti-inflammatory effect of transdermal estrogen is another mechanism that prevents heart attacks.
  6. Postmenopausal women on ERT had no increased risk of heart attacks or venous thromboembolism (clots in veins). Menopausal women without ERT have a risk of 40% of dying from a heart attack. Their risk of developing breast cancer is 5.5%, the risk of dying from breast cancer is about 1%. Oral estrogen use was associated with venous thromboembolism.
  7. Estrogen has antiarrhythmic effects stabilizing the heart rhythm. Dr. Smith said that in the future intravenous estrogen might be used to prevent serious arrhythmias following heart attacks.

Estrogen levels in males

Males require a small amount of estrogens to maintain their memory, for bone maturation and regulation of bone resorption. But they also need small amounts of estrogen for their normal lipid metabolism.

However, if the estrogen levels are too high as is the case in an obese, elderly man, there is an increased risk of heart disease. Factors that lead to increased estrogen levels in an older man are: increased aromatase activity in fatty tissue, overuse of alcohol and a change in liver metabolism, zinc deficiency, ingestion of estrogen-containing foods and environmental estrogens (also called xenoestrogens).

2. Progesterone

Progesterone is significantly different from the progestin medroxyprogesterone (MPA). MPA was the oral progestin that was responsible for heart attacks and blood clots in the Women’s Health Initiative. MPA increases smooth muscle cell proliferation. This in turn causes hardening of the coronary arteries. In contrast, progesterone inhibits smooth muscle cell proliferation, which prevents heart attacks. Progesterone also lowers blood pressure and elevates HDL cholesterol, but MPA does not.

Progesterone in males

In a small study Depo-Provera was given to males for 17 days. Blood tests showed a lowering of triglycerides, LDL cholesterol and Apo A-1.

3. Testosterone

Testosterone replacement in women

Testosterone in women does not only increase their sex drive, but also relaxes the coronary arteries in women who were testosterone deficient. This allows more blood flow to the heart. In postmenopausal women testosterone replacement lowered lipoprotein (a) levels up to 65%. The physician will only replace testosterone in women who have either enough of their own estrogen production or else have been replaced first with bioidentical estrogen. Otherwise testosterone alone can cause heart attacks in women.

Elevated testosterone in women with PCOS

Women with polycystic ovary syndrome (PCOS) can have increased testosterone levels when they go through premenopause or menopause.

Women with PCOS are at a higher risk to develop diabetes, heart disease and high blood pressure. 50% of women with PCOS have insulin resistance. 70% of women with PCOS in the US have lipid abnormalities in their blood.

Elevated testosterone levels in the blood can lower the protective HDL cholesterol and increase homocysteine levels. Both can cause heart attacks.

Women with PCOS have a 4-fold risk of developing high blood pressure.

Testosterone replacement in males

A 2010 study showed that low testosterone levels in males were predictive of higher mortality due to heart attacks and cancer. Low testosterone is also associated with high blood pressure, heart failure and increased risk of cardiovascular deaths. There was a higher incidence of deaths from heart attacks when testosterone levels were low compared to men with normal testosterone levels.

Low testosterone is also associated with the development of diabetes and metabolic syndrome, which can cause heart attacks.

It is important that men with low testosterone get testosterone replacement therapy.

DHT (Dihydrotestosterone)

DHT is much more potent than testosterone. Conversion of testosterone leads to DHT via the enzyme 5-alpha-reductase. While testosterone can be aromatized into estrogen, DHT cannot. Some men have elevated levels of DHT. This leads to a risk of heart attacks, prostate enlargement and hair loss of the scalp.

Andropause treatment

Only about 5% of men in andropause with low testosterone levels receive testosterone replacement in the US. Part of this is explained by rumors that testosterone may cause prostate cancer or liver cancer. The patient or the physician may be reluctant to treat with testosterone. Bioidentical testosterone has been shown to not cause any harm. It is safe to use testosterone cream transdermally. It does not cause prostate cancer or benign prostatic hypertrophy.

An increase of 6-nmol/L-serum testosterone was associated with a 19% drop in all-cause mortality.

Testosterone helps build up new blood vessels after a heart attack. Testosterone replacement increases coronary blood flow in patients with coronary artery disease. Another effect of testosterone is the decrease of inflammation. Inflammation is an important component of cardiovascular disease.

Testosterone replacement improves exercise capacity, insulin resistance and muscle performance (including the heart muscle).

Apart from the beneficial effect of testosterone on the heart it is also beneficial for the brain. Testosterone treatment prevents Alzheimer’s disease in older men by preventing beta amyloid precursor protein production.

4. DHEA

Dehydroepiandrosterone (DHEA) is a hormone produced in the adrenal glands. It is a precursor for male and female sex hormones, but has actions on its own. It supports muscle strength. Postmenopausal women had a higher mortality from heart disease when their DHEA blood levels were low.

Similar studies in men showed the same results. Congestive heart failure patients of both sexes had more severe disease the lower the DHEA levels were. Other studies have used DHEA supplementation in heart patients, congestive heart failure patients and patients with diabetes to show that clinical symptoms improved.

5. Melatonin

Low levels of melatonin have been demonstrated in patients with heart disease. Melatonin inhibits platelet aggregation and suppresses nighttime sympathetic activity (epinephrine and norepinephrine). Sympathetic activity damages the lining of coronary arteries. Melatonin reduces hypoxia in patients with ischemic stroke or ischemic heart disease. Lower nocturnal melatonin levels are associated with higher adverse effects following a heart attack. Among these are recurrent heart attacks, congestive heart failure or death. Melatonin widens blood vessels, is a free radical scavenger and inhibits oxidation of LDL cholesterol. Melatonin reduces inflammation following a heart attack. This can be measured using the C-reactive protein.

In patients who had angioplasties done for blocked coronary arteries intravenous melatonin decreased CRP, reduced tissue damage, decreased various irregular heart beat patterns and allowed damaged heart tissue to recover.

6. Thyroid hormones

It has been known for more than 100 years that dysfunction of the thyroid leads to heart disease. Hypothyroidism can cause heart attacks, hardening of the coronary arteries and congestive heart failure. Lesser-known connections to hypothyroidism are congestive heart failure, depression, fibromyalgia, ankylosing spondylitis and insulin resistance. Some cases of attention deficit hyperactivity disorder (ADHD) with low thyroid levels may successfully respond to thyroid replacement.

Thyroid hormones improve lipids in the blood, improve arterial stiffness and improve cardiac remodeling following a heart attack. Thyroid hormones help with the repair of the injured heart muscle. They also work directly on the heart muscle helping it to contract more efficiently. Lower thyroid stimulating hormone (TSH) values and higher T3 and T4 thyroid hormone levels lead to improved insulin sensitivity, higher HDL values (= protective cholesterol) and overall better functioning of the lining of the arteries.

Dr. Smith said that thyroid replacement should achieve that

  • TSH is below 2.0, but above the lower limit of normal
  • Free T3 should be dead center of normal or slightly above
  • Free T4 should be dead center of normal or slightly above

Most patients with hypothyroidism require replacement of both T3 and T4 (like with the use of Armour thyroid pills).

7. Cortisol

Cortisol is the only human hormone that increases with age. All other hormones drop off to lower values with age. The adrenal glands manufacture cortisol. With stress cortisol is rising, but when stress is over, it is supposed to come down to normal levels. Many people today are constantly overstressed, so their adrenal glands are often chronically over stimulated. This can lead to a lack of progesterone. It also causes a lack of functional thyroid hormones as they get bound and are less active. When women have decreased estradiol in menopause there is a decline in norepinephrine production, production of serotonin, dopamine and acetylcholine. Women with this experience depression, lack of drive and slower thought processes.

Heart Health Improves With Hormone Replacement

Heart Health Improves With Hormone Replacement

Conclusion

Seven major hormones have been reviewed here that all have a bearing on the risk of developing a heart attack. It is important that these hormones are balanced, so they can work with each other. Hormones can be compared to a team that works together and is responsible for our health. If one or several of the team players are ineffective, our health will suffer. For this reason hormone replacement is crucial. Hormones have effects on mitochondria of the heart muscles cells. They stabilize the heart rhythm as in the case of estradiol. But they can also strengthen the heart muscle directly through DHEA and estrogens in women and DHEA and testosterone in men. Thyroid hormones are another supportive force for the heart and can even be used therapeutically in chronic heart failure patients. When people age, many hormones are produced less, but blood tests will show this. Replacing hormones that are missing can add years of active life.

Taking care of the symphony of hormones means you are taking care of your most important organ, the heart!

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Feb
18
2017

Weight Gain In Menopause

Dr. Tasneem Bhatia, also known as Dr. Taz gave a lecture about weight gain in menopause. This was part of the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended. The full title of the talk was “Hormone Balance and Weight Control in Menopausal Women”. Dr. Taz practices integrative medicine at CentreSpring MD, Atlanta. GA.

A few statistics about menopause

Weight gain in menopause is common. There are 50 million women who suffer from this in the US. Globally 300 million women have this problem. The average weight gain is between 5 and 50 pounds. There may be a small percentage of women where a genetic component comes in, and where all the females in the ancestry had a weight problem after menopause. But we do not know for certain what is genetic and what is due to hormone deficiency. It is only in the last few decades that doctors have determined how important hormone deficiencies are in menopause.

It has been determined that 10 million women who are over 40-years-old need treatment in long-term care facilities.

We will see below that when this knowledge is incorporated into a treatment schedule, the weight problem can normalize. In this case 2/3 of the cost of caring for postmenopausal women with obesity and diabetes can be reduced.

Pathophysiological changes in menopause

There are three intertwining aspects that drive weight gain in menopause. There is an altered metabolic rate, and less calories are burnt, which makes you gain weight when you eat the same amount of calories. Secondly there is a significant decline of three key hormones, estrogens, progesterone and thyroid hormones in menopause. Third, as the weight rises and the other mentioned hormones are missing, it is harder for the pancreas to keep up with insulin production and insulin resistance is developing. I will explain this further below.

1. Decreased energy expenditure

With the lack of the ovarian hormones there is a slowing of the resting metabolic rate. There is also decreased energy expenditure from reduced fat oxidation. Overall there is less need to consume the same amount of calories as before. But the hormonal changes trigger hunger and cravings.

2. Ovarian aging

With ovarian aging there is less estrogen production in the ovaries. This leads to less ovulation in the premenopausal period. A lack of ovulations creates a lack of progesterone production. When there are anovulatory cycles, there is no progesterone producing corpus luteum reducing progesterone production further. When estrogen and progesterone are missing, this is a stress on the thyroid gland that is trying to partially compensate for the lack of the ovarian hormones. Eventually though thyroid hormone production is reduced and hypothyroidism sets in. This is very hard on the adrenal glands that produce cortisol. For some time the adrenal glands can compensate for missing thyroid hormones with cortisol overproduction. But in time adrenal gland fatigue develops.

3. Insulin resistance

Insulin resistance can lead to diabetes, which becomes a real menace together with the metabolic changes of obesity.

Health risks of weight gain

Dr. Taz pointed out that there are very specific risks associated with the metabolic changes around menopause. There is an increased risk for heart attacks and strokes as LDL cholesterol and triglycerides are elevated and arteries get calcified from circulating calcium that was leaked out from the bones into the blood stream.

Osteoporosis is common in menopause; the brittle bones lead to an increased risk of fractures in the hips, wrists and vertebral bodies.

There is also increased risk of cancer in postmenopausal women, particularly breast cancer and colon cancer. The higher the weight, the more risky it is for these women to get one of these cancers.

Alzheimer’s disease and cognitive decline is also very common in menopause. This may be directly related to a lack of estrogen and progesterone, but may also have to do with overconsumption of sugar and starchy foods.

Hormone changes in menopause

Hormone changes in menopause can be complex. It is not only a lack of estrogens and progesterone that are the problem. All hormones work together. When there is weakness in one area (in the ovaries with menopause), those hormones that are acting in the same way or in opposition to ovarian hormones will be affected. In this way it is understandable that the thyroid gland can develop a weakness (hypothyroidism) or why the adrenal glands are over stimulated first, but will eventually suffer with adrenal fatigue in future. In a similar way the pancreas produces too much insulin, partially because weight gain stimulates this. Typically the physician finds the fasting insulin level elevated with menopausal obesity. But as insulin levels are too high, the body’s insulin receptors get lazy and do not respond fully to insulin anymore. This is called insulin resistance. In time insulin resistance can lead to diabetes.

1. Lack of estrogen

A lack of estrogen in menopause is likely the single most important reason for weight gain in menopause.  As estrogen secretion declines, visceral obesity increases. There is also impaired insulin regulation. With obesity there is an additional risk of developing diabetes.

2. Progesterone

Progesterone is the other female hormone that is reduced with menopause. Bioidentical progesterone cream can prevent osteoporosis and hot flashes in menopause. Bioidentical progesterone replacement can also help a menopausal woman to sleep better. In menopause the production of progesterone goes down by 75% while estrogen production drops down by 35%.

3. Hypothyroidism

Hypothyroidism (with elevated TSH blood tests) is commonly found in menopausal women. This is known to be associated with weight gain. As a result it is important to check for hypothyroidism in menopausal women. It is important to check for micronutrients like iodine, selenium and iron and if they are low, supplementation may be necessary. Some women develop an inflammatory thyroiditis, called Hashimoto’s disease. This can be confirmed with a thyroid nuclear scan. The reason this is important to recognize is that after several years when it burns itself out, hypothyroidism develops often, which requires thyroid hormone replacement.

4. Cortisol response

The cortisol response to stress is suboptimal due to the decreased progesterone levels in menopause. Adequate amounts of progesterone are needed to synthesize cortisol. But in a group of menopausal women following a significant stressful event cortisol production was much higher than in non-stressed women.

5. Other hormones

Other hormones like leptins and melatonin are also contributing to weight gain in menopause. In rat experiments where ovariectomies (mimicking menopause) were performed, there was a clear relationship between low estrogen levels and weight gain; higher estradiol doses inhibited leptin expression resulting in weight normalization.

Leptin and melatonin are influencing insulin regulation. This can in time lead to diabetes in connection with weight gain. It is at this point when a woman’s body shape can turn from a healthier pear shape to an unhealthy apple shape. The extra visceral (abdominal) fat is very active metabolically and causes inflammation in the body. These changes can lead to high blood pressure, heart attacks, strokes and digestive dysfunction.

Treatment of weight gain in menopause: food, hormones and lifestyle

How do you treat a complex problem like weight gain in menopause? It is no surprise that this will require a number of treatment modalities in combination.

1. Diet

It is important to start on an anti-inflammatory diet like the Mediterranean diet. Any extra sugar should be cut out as surplus carbohydrates lead to fat deposits and higher blood lipids. Dr. Taz suggested a 1200-calorie diet. Reduce salt intake. Eat more food during the day until 4 PM, nothing to eat after 8 PM. Increase plant-based foods, lower or eliminate trans fats. Increase foods rich in probiotics (bifidobacteria) like kefir, yogurt and kombucha.

2. Exercise 

Do some exercise in a gym where you combine a treadmill for 30 minutes with 25 minutes of weight machines for strength training. Aim for doing this 5 times per week. But it would be more beneficial doing it every day. Have additional activity bursts on and off during the day. Exercise has been shown to increase HDL cholesterol, which protects from heart attacks and strokes.

3. Stress management

Supplements like adaptogens help the adrenal gland to better cope with stress. These are available through your health food store. Meditation, yoga, self-hypnosis will all help to refocus and protect you from stress. B-complex vitamins and vitamin C strengthen your immune system and give you more energy. Building and maintaining community is another factor in reducing stress.

4. Establishing healthy sleep

Many postmenopausal women have poor sleep habits, partially from hot flashes (due to estrogen deficiency), partially from melatonin deficiency and also from progesterone deficiency. In the next section I will describe how to normalize these hormones. But in addition you need to educate yourself to go to bed between 10 PM and 11 PM every night and to sleep 7 to 8 hours. If you go to bed later, you will disturb your diurnal hormone rhythm and this will interfere with a normal sleep pattern. There is an age-related reduction of melatonin production in the pineal gland. This is why many postmenopausal women are deficient in melatonin. You may need 3 mg of melatonin at bedtime. If you wake up in the middle of the night you could take another 3 mg of melatonin. You may experience a few nightmares as a side effect; otherwise melatonin is very well tolerated.

5. Bioidentical hormone replacement

The complex hormone deficiencies described above are responsible for the many symptoms of menopausal women including weight gain. It is important to work with a knowledgeable health care provider who knows how to prescribe bioidentical hormones. Typically blood tests and possible saliva hormone tests are done before replacement. This establishes which hormones have to be replaced. Typically bioidentical progesterone is replaced first. Secondly, estrogen is added as Bi-Est cream, if blood levels indicate that it is low. If thyroid is required because of a high TSH level (meaning hypothyroidism) supplementation with Armour or a similar balanced T3/T4 combination is started. If fasting insulin levels are high, the doctor may want to start metformin as this is known to normalize insulin resistance. Blood tests have to be repeated from time to time to ensure adequate hormone levels.

6. Supplements

Every woman treated will likely require different supplements. But magnesium is one mineral that is often missing in the diet. 250 mg of magnesium twice a day will be enough for most women and men to balance internal metabolic reactions. Magnesium is a co-factor to many enzyme systems. Vitamin K2 (200 micrograms daily) and vitamin D3 (around 4000 to 5000 IU per day) in combination are important to prevent osteoporosis. Apart from these there are many options to take other supplements. Ask your healthcare provider what you should take.

Weight Gain In Menopause

Weight Gain In Menopause

Conclusion

This was a fast review of what Dr. Taz explained in a talk about weight gain in menopause. There are complex hormone changes that need to be addressed. A well-balanced diet like the Mediterranean diet needs to be followed. Stress management skills need to be learnt. A regular exercise routine needs to be followed. Healthy sleep patterns have to be reestablished. And missing hormones need to be replaced not in synthetic forms, which are toxic to the body, but in the bioidentical forms. Postmenopausal women will feel better when this comprehensive treatment program is in place; and in time they will feel normal again.

Feb
11
2017

Genetic Switches To Treat Obesity And Diabetes

Dr. Michael Nova gave a talk recently about the role of genetic switches to treat obesity and diabetes. The talk was given as part of the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas that I attended. The full title of the talk was “Nutritional Genetics and Epigenetics in Diabetes and Obesity Management”. Dr. Michael Nova is the Chief Innovation Officer at Pathway Genomics, San Diego, CA 92121.

Twin studies are a powerful tool to show that longevity is both genetically caused as well as environmentally.

These types of studies have shown that a long life (longevity) has been caused by about 20% from genetics. 80% was contributed by a healthy lifestyle. There are powerful epigenetic factors that can slow down aging and that can interfere with the inflammatory process that causes heart disease, obesity and diabetes. There are specific inflammatory markers done with blood tests that detect inflammation. One of the first inflammatory markers detected was the C-reactive protein.

What diseases are caused from inflammation?

Dr. Nova showed a slide depicting MS and Alzheimer’s disease in the head. In the heart area atherosclerosis was shown to cause heart attacks and strokes. Next diabetes, lupus, obesity and irritable bowel disease were depicted. Finally there is arthritis that interferes with joint movements. All of these conditions have inflammation at the core, which leads to worsening of the conditions, if the inflammation is not stopped through nutritional or medical means.

Age-related diseases also due to inflammation

Inflammation is not only confined to these conditions. Research has shown that the following age-related diseases belong into the inflammatory category. These are: osteoporosis, depression, diabetes, cancer, neurodegenerative diseases (Parkinson’s disease, Alzheimer’s), asthma, central obesity, metabolic syndrome and cardiovascular disease. In these diseases the C-reactive protein is often up, so is the fasting insulin level. The rest of the talk concentrated on how various changes in food intake and supplements could lead to epigenetic changes that improve the patients’ conditions.

Human genetics are complicated

The speaker mentioned how complex the human genetics are, and he showed a number of slides that are too complicated to discuss here. There are unstable genes, which can become important in the development of illnesses, particularly when you don’t exercise and you eat a Standard North American diet. There are genes involved that cause diabetes, but they need environmental triggering to get expressed. Dr. Nova showed one slide that listed two genetic variants, which when activated by inflammation rendered the person positive for diabetes or heart disease. If inflammation is vigorously treated with a Mediterranean diet and Metformin, the hemoglobin A1C will decrease to less than 6.0% and diabetes will disappear.

Obesity and genetic factors

Obesity has a 40% to 60% hereditary rate. The fat mass and obesity-associated gene, FTO gene for short is the reason some people gain weight. When this gene is not present the person has no problem maintaining a normal weight. The FTO gene is located on chromosome 16. There are other genes with complicated names that can also increase weight.

It is important that there are many factors that work together in developing obesity. Dr. Nova called this the “epigenetic modulation”. He explained further that there are at least 12 factors working together that can reduce obesity. These are:

  1. Diet
  2. Diurnal/seasonal correlations
  3. Smoking and other toxic chemicals
  4. Street drug use
  5. Disease exposure
  6. Financial status
  7. Exercise status
  8. Microbiome healthy?
  9. Therapeutic drugs
  10. Alternative medicine
  11. Social interactions
  12. Psychological state

Low carbohydrate diets and the ketogenic diet are helping to reduce weight. Financial stress leads to more cortisol production, which leads to weight gain. An unhealthy bacteria composition in your gut causes you to gain weight, while a good composition of bacteria helps you lose weight. Overcoming depression with cognitive therapy can help reduce your weight. Those are just a few examples in more detail from the list of 12 factors.

Extensive research has shown that genetic factors and environmental factors interact to lead to epigenetic marks or imprinting. These epigenetic factors have an influence on gene expression, but they don’t change the underlying DNA sequencing.

There are still gaps of knowledge how obesity develops, what percentage is due to genetic factors and how much is due to other factors including diets.

Diabetes and genetic factors

Major metabolic processes in our body cells like phosphorylation, acetylation and methylation can be influenced by nutrition. This allows epigenetic mechanism of actions to interfere with the expression of inherited health problems like diabetes and other diseases. This has the potential to improve quality of life.

Useful supplements

Dr. Nora showed a slide with a number of useful supplements.

  • EGCG is the effective component of green tea. It supports the viability of the beta-islets of the pancreas that produce insulin. It leads to more secretion of insulin.
  • Naringin and Hesperidin decrease high blood sugar levels.
  • Anthocyanin decreases high blood sugar levels.
  • Quercetin increases cell proliferation in the liver and the pancreas.
  • Vitamin D3 reduces diabetes incidence and inflammation of the insulin-producing cells.
  • Biotin in combination with chromium increases insulin secretion and lowers blood sugars.
  • Vitamin B2, also known as riboflavin has anti-inflammatory effects.
  • Alpha-lipoic acid protects against diabetes by reducing blood sugar levels.

There are several genes involved in the development of type 2 diabetes, one of them is the FTO gene that is also involved in the development of obesity. But Dr. Nora projected a slide that showed 14 other genes that can be involved in the development of diabetes. I have elected to not get into all of those details.

What Dr. Nora concluded is the fact that nutrition could play a vital role in preventing these genes from being expressed. He talked about silencing genes, which good nutrition and supplements can do.

Silencing diabetes genes

A Mediterranean diet can stabilize the metabolism and fight inflammation. Zinc and magnesium are important cofactors in enzymes necessary to prevent diabetes. Vitamin D3 and omega-3 intake are helping to control inflammation and preserve beta cells in the pancreas in diabetes patients.

Nutritional genetic modifiers are

Foods that methylate DNA and silence genes are: citrus (hesperidin), apples (phloretin) and tomatoes (lycopene). The following foods do both DNA methylation and histone modifications: turmeric (curcumin), cinnamon (coumaric acid), green tea (EGCG), soybean (genistein), coffee (caffeic acid) and broccoli (isothiocyanates). These three foods only do histone modifications: garlic (allyl mercaptan), grapes, (resveratrol) and cashew nuts (anacardic acid).

Functional foods with regard to obesity and diabetes

Here are a few food items and their effects on your health.

  • The lignans of flaxseed lower LDL cholesterol and total cholesterol.
  • The catechins of green tea prevent obesity, but also obesity-induced type 2 diabetes.
  • Saponins of fenugreek lower lipid peroxidation and increase the antioxidant level.
  • Soy proteins contain phytoestrogen, genistein and daidzein; this lowers cholesterol levels in the blood, prevents lipid peroxidation and has antioxidant activity.
  • Banaba leaves extract contains corosolic acid and ellagitannins. These substances are able to lower glucose levels in the blood. It also has an anti-obesity effect.
  • Grapes and related products contain anthocyanin, flavan-3-ols and flavonols. They have blood pressure lowering qualities, lower blood fat levels and prevent hardening of the arteries.
  • Dark chocolate contains flavanols that are the main type of flavonoid found in it. Flavanols decrease blood pressure and make platelets in the blood less sticky. This prevents heart attacks and strokes. In addition LDL cholesterol is decreased.
  • Red wine, berries, pears, and apples: proanthocyanidins are the active polyphenols that make all of these fruit valuable. The antioxidant effects of proanthocyanidins prevent LDL to get oxidized, which in turn slows down hardening of the arteries. It reduces the inflammation associated with narrowing of blood vessels and normalizes the lining of arteries.
  • Onions contain two active ingredients, allyl propyl disulfide (which makes you cry when you cut onions) and S-methyl-cysteine sulfoxide. These substances have anti-diabetic effects and lower blood fatty substances.
  • Turmeric contains curcumin, which possesses antidiabetic properties.
  • Fruit and vegetables contain fiber, which lowers blood sugars and hemoglobin A1C.
  • Stevia from the stevia plant reduces blood sugars following a meal in patients with type 2 diabetes.

In summary, all these substances are examples of triggering epigenetic mechanisms to interfere with the expression of negative inherited health problems.

Genetic Switches To Treat Obesity And Diabetes

Genetic Switches To Treat Obesity And Diabetes

Conclusion

This was a whirlwind review of how genetic and epigenetic traits can be overcome by a healthy diet, by supplements, fruit and vegetables, exercise and other healthy lifestyles. After reading about this huge line-up of substances that can contribute to your health, you may feel slightly overwhelmed. Are you going to get all these wonderful items from the health food store and live on a bunch of supplements? Of course this is not the fact! Some herbals can be extremely helpful to combat inflammation, such as curcumin. But the most essential fact remains very simple: to cut down sugar and too many starchy foods, as they will trigger suppressed genes to cause diabetes, obesity, heart attacks and strokes. We need to inform ourselves and stay vigilant to the fact how toxic processed foods are, and we have to cut them out in order to stay healthy. We can become much more resilient to health challenges than we may have thought possible.

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Feb
04
2017

Benefits Of The Ketogenic Diet

Dr. Jeff Volek, PhD, RD gave a talk that clarified the benefits of the ketogenic diet. He is a professor at the Department of Human Sciences at The Ohio State University, Columbus, OH, and teaches in the Kinesiology Program. His lecture was part of the 24th Annual World Conference on Anti-Aging Medicine in Las Vegas, Dec. 9 to 11, 2016.

There were 58 slides, some of them very detailed. I will summarize as best as I can what the presentation was all about.

History of diets

Dr. Volek stated that there were unintended consequences when the low fat/ high carb diet was introduced in the 1970’s and 1980’s. Ancel Keys, a physiologist had proposed in his diet heart hypothesis that saturated fat was the culprit that caused heart attacks.

As a result all major health agencies recommended the low fat/high carb diet. Obesity, diabetes, heart attacks, and strokes were the consequences. Another offshoot later from this was the statin craze where everybody was put on statins as high cholesterol was symptomatically treated. Nothing changed the diabetes and obesity wave and heart attacks and strokes continued to kill the affected persons. Among performance athletes the hypothesis was formed that carb loading would increase muscle performance. Researchers showed evidence that carb loading would improve performance. But athletes were dissatisfied with prediabetes and metabolic problems. Both the average consumer as well as the performance athlete noted that they felt better on a low carb/high fat diet. This is what the ketogenic diet is all about.

Diet heart hypothesis

With the diet heart hypothesis the saturated fat was removed from the diet and replaced by vegetable oils rich in linoleic acid. Dr. Volek explained that blood tests and other investigations were done on people who ingested the low saturated fat/high carb diet. The question was whether this would reduce heart attack rates and deaths by lowering serum cholesterol.

The Minnesota Coronary Experiment was a double blind study, which answered this question.

Cholesterol was reduced in the experimental group. But there was no reduction of heart attacks or strokes compared to a control group. Of concern was the large amount of refined carbohydrate content with the low fat diet. This essentially was responsible for the obesity and diabetes wave. The excess sugar turned into fat deposits and to insulin resistance, which caused diabetes. The low saturated fat/high carb diet of the 1960’s to 1990’s did not reduce heart attacks and strokes. To the contrary: the obesity/type 2 diabetes wave it had caused increased mortality from strokes and heart attacks further.

Laboratory tests on low fat/high carb diet versus the ketogenic diet

Forget hypotheses for a moment. Let us review what the different diets do in terms of lab tests. In a study where 40 overweight people with metabolic syndrome were put on a low fat diet or a low carb/ketogenic diet, the following blood test results were found. There were 20 patients in each group.

  1. Low fat/high carb diet

Triglycerides in the blood went down by 20%, saturated fatty acids by 22%. LDL (the bad cholesterol) rose by 4%. Insulin levels went down by 17% and leptin levels also down by 17%. Glucose levels were down by 1%.

  1. Low carb/ketogenic diet

Triglycerides went down by 52%, saturated fatty acids by 57%. LDL (the bad cholesterol) went down by 18%. Insulin levels went down by 49% and leptin levels by 42%. Glucose levels were down by 11%.

In this group of 20 subjects for each group the body mass index went down by 5% for the low fat diet and by 10% for the ketogenic diet after 3 months. The abdominal fat went down in that time by 12% for the low fat diet and by 20% for the ketogenic diet. The conclusion from these laboratory results and from the body measurements is that the low fat diet is showing some results of weight loss, but the ketogenic diet has superior results. The same is true for the blood tests. Only the ketogenic diet showed reduction of 7 key anti-inflammatory markers. In contrast, the low fat diet did not trigger the production of a single anti-inflammatory marker.

Anti-inflammatory benefits of the ketogenic diet

A 2008 study showed that several anti-inflammatory markers were greatly reduced from the ketogenic diet while a low fat diet did not show such a reduction.

As this 2009 study showed the LDL particles were getting bigger under the influence of a ketogenic diet, but they were getting smaller with a low fat diet.

Large LDL particles are also called pattern A particles, while small LDL particles are also called pattern B particles.

As this link shows there is good evidence that small LDL particles oxidize easier and are more atherogenic (causing hardening of the arteries). This means they lead to hardening of the arteries easier translating into heart attacks and strokes down the road. It is one thing that a ketogenic diet leads to larger LDL particles, which are more resistant to oxygenation. But it is another good thing that this diet is also anti-inflammatory. Overall this means that a ketogenic diet is counteracting the development of heart attacks and strokes.

Are saturated fatty acids in the diet causing heart attacks or strokes?

Dr. Volek discussed several large studies that have investigated this question. One of these studies discussed was a metaanalysis from 2010. Like all the other studies it showed that saturated fatty acids do not cause heart attacks and strokes. This is the secret behind the Inuit and the Eskimo diet. It is a high fat and meat diet. Lots of seafood is consumed as well, which provides omega-3 fatty acids.

Dr. Volek pointed out that if you replace a certain percentage, let’s say 5% of saturated fatty acids with carbohydrates, this would cause 7% more heart attacks. He showed literature evidence to back this up. What causes increased heart attacks and strokes is more refined carbs in your diet (sugar and starchy foods!).

Do saturated fatty acids in your blood increase the risk for disease?

Dr. Volek showed several slides with references to various publications. Elevated saturated fatty acids in the blood cause a higher risk of getting a heart attack, heart failure, metabolic syndrome and diabetes. But this does not happen with a ketogenic diet. The values of the saturated fatty acids in the blood are 4% lower when a ketogenic diet is started. With a low carb diet the calories derived from carbs are 12%. In comparison a low fat diet has 56% of carbs. Protein content in the low fat diet is 20%, in the ketogenic diet 28%. Saturated fat content in the low fat diet is 24%, in the ketogenic diet it is 59%. Let’s assume that both diets are kept at 1500 Cal. per day. Then the saturated fat content for the low fat diet is 12 grams and the carbohydrate content is 208 grams. For the ketogenic diet these values are as follows: 36 grams of saturated fat and 45 grams of carbohydrates. Despite a threefold higher saturated fatty acid intake the circulating level of saturated fatty acids in the blood were decreased by 4%.

You are what you eat, but go easy on carbs

Dr. Volek pointed out that what makes you healthy or sick is how many carbs you include in your diet. If you follow a ketogenic diet with only 12% carbs you are much better off than when you follow a diet like the low fat diet with 56% of carbs. The higher the carb percentage in your food, the higher the production of saturated fatty acids in your system and the higher the storage of saturated fatty acids in your body fat. Conversely, the lower the carb percentage in your food is the higher the oxidation of saturated fatty acids will be. In other words the saturated fatty acids disappear from your blood. Also, with a ketogenic diet the storage of saturated fatty acids is lower in your body fat. With a low fat diet your insulin resistance increases, while with a ketogenic diet insulin resistance decreases. The difference in calories in these two diets (56% derived from carbs in a low fat diet versus 12% derived from carbs in a ketogenic diet) explains why the obesity/type 2 diabetes wave has developed and why heart attacks and strokes still top the mortality figures today.

Endurance athletes win medals on a ketogenic diet

Dr. Volek shared a few cases of world-class athletes that are on a ketogenic diet. They did well for themselves winning medals. Tim Olsen won the Western States 100-mile endurance run from Squaw Valley to Auburn, CA in 2012. Zach Bitter was the 100-mile track record holder in 2015. Mike Morton won the American 24-hour distance running record for 172 miles. Two Tour De France bicyclists made first and second place, Chris Froome (first place) and Romain Bardet (second place).

Sports teams also have been successful on a ketogenic diet: the Columbus Crew soccer team; New Zealand national rugby union team, commonly called the All Blacks; the Los Angeles Lakers basketball team are all on ketogenic diets.

Dr. Volek also pointed out that the ketogenic diet has even been tested for the military. A ketogenic diet restores metabolic health, gives the soldiers more endurance, more stress resistance and decreased fatigue.

Benefits Of The Ketogenic Diet

Benefits Of The Ketogenic Diet

Conclusion

A ketogenic diet is on the one end of the carb spectrum with only 10 to 12% of calories derived from carbs. At the other end is the low fat/high carb diet that caused the obesity/diabetes wave. The Mediterranean diet is in the center. The more you are able to cut down the carb percentage in your diet by cutting out sugar and starchy foods, the more your metabolism gets stabilized and this can be measured with blood tests. The ketogenic diet makes you lose weight down to your ideal weight and makes you gain more muscle strength and physical endurance. Sophisticated blood tests have shown that inflammatory markers go down on a ketogenic diet and factors that lead to hardening of arteries also go down. The end result on the ketogenic diet is that the rate of heart attacks and strokes goes down, something which was the original goal of Ancel Keys. It did not work, but it promoted a wave of diabetes and heart disease! Ironically adding saturated fat and other healthy fats while cutting down carbs will achieve disease prevention. This is the opposite of what Ancel Keys had recommended to do and what the processed food industry has mimicked. The ketogenic diet lowers mortality by cutting down heart attacks and strokes. With this knowledge it will finally be possible to get people on a path to better health.

More information about ketogenic diet: https://www.dietdoctor.com/low-carb/keto

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Jan
28
2017

Cardiovascular Disease And Inflammation

Dr. Mark Houston talked about cardiovascular disease and inflammation – “the evil twins”. He presented this lecture at the 24th Annual World Congress on Anti-Aging Medicine (Dec. 9-11, 2016) in Las Vegas. Dr. Houston is an associate clinical professor of medicine at the Vanderbilt University Medical School in Nashville, TN 37232.

New thinking about cardiovascular disease and inflammation

Dr. Houston pointed out that the old thinking about cardiovascular disease has to be replaced with the new thinking. Here are a number of points regarding the new thinking.

  1. Coronary heart disease and congestive heart failure are diseases of inflammation. They are also coupled with oxidative stress, vascular immune dysfunction and dysfunction of the mitochondria.
  2. In the past it was difficult to reduce these cardiovascular diseases. With the new thinking there are now new treatment approaches that help cure cardiovascular disease.
  3. The development of heart disease has a long history. Endothelial dysfunction predates coronary artery disease by many years. This is followed by vascular smooth muscle dysfunction. Inflammation develops and structural changes occur in the small and larger blood vessels with atheromatous deposits (plaques) and final occlusion, at which point you get a heart attack.

Canadian physician Sir William Osler has already stated more than 100 years ago “A man is as old as his blood vessels”.

The old thesis was that cholesterol would lead to deposits that close coronary blood vessels and cause heart attacks. Dr. Houston called this the “cholesterol-centric “ approach. The truth is that with conventional blood tests you are missing 50% of all the high-risk patients that are going to develop heart attacks. They are missing the ones that have chronic inflammation, but normal cholesterol levels.

What was not known in the past was that oxidative stress associated with normal aging can lead to chronic low-grade inflammation. This oxidative stress leads to mitochondrial DNA changes. Associated with it are biochemical changes that cause chronic inflammation, which in turn will affect the lining of the arteries. There is a metabolic change described in the literature as metabolic syndrome, which leads to high blood pressure, hardening of the arteries and eventually heart attacks and strokes. The key today is to include in screening tests all parameters that will predict who is at risk to develop a heart attack or not.

Blood tests to screen for cardiovascular disease and inflammation

Blood tests and health history should be checked for dyslipidemia, high blood pressure (hypertension), hyperglycemia, smoking, diabetes, homocysteinemia, obesity etc. Also, patients with high GGTP (gamma-glutamyl transferase) levels in the blood are more at risk to develop diabetes. This in turn leads to inflammation of the arterial wall and heart attacks. There are 25 top risk factors that are associated with all causes for heart attacks.

Briefly, apart from the 7 factors already mentioned above the physician wants to check for high uric acid levels (hyperuricemia), kidney disease, high clotting factors (fibrinogen levels), elevated iron levels, trans fatty acid levels, omega-3 fatty acid levels and omega-6 to omega-3 ratio, low dietary potassium and magnesium intake with high sodium intake, increased high sensitivity C reactive protein level (hs CRP measuring inflammation). The list to test for cardiovascular disease risk continues with blood tests for vascular immune dysfunction and increased oxidative stress, lack of sleep, lack of exercise, subclinical low thyroid levels, hormonal imbalances for both genders, chronic infections, low vitamin D and K levels, high heavy metals and environmental pollutants.

The speaker stated that he includes a hormone profile and vitamin D levels. He does biochemical tests to check for mitochondrial defects. Micronutrients are also checked as cardiovascular patients often have many nutritional deficiencies. Inflammation is monitored through testing the levels of C-reactive protein (CRP).

In order to assess the risk of a patient Dr. Cohen, a cardiologist has developed the Rasmussen score, which is more accurate than the Framingham score.

The following tests are performed on the patient: computerized arterial pulse waveform analysis (medical imaging), blood pressure at rest and following exercise and left ventricular wall of the heart by echocardiography. Further tests include urine test for microalbuminuria, B-type natriuretic peptide (BNP, a measure of congestive heart failure), retinal score based on fundoscopy, intima-media thickness (IMT, measured by ultrasound on the carotid artery) and electrocardiogram recording (EKG).

Here is what the Rasmussen score means:

  • Disease score 0 to 2: likely no heart attack in the next 6 years
  • Disease score 3 to 5: 5% likely cardiovascular events in the next 6 years
  • Disease score > 6: 15% likely cardiovascular events in the next 6 years

Non-intervention tests to measure cardiovascular health

1. The ENDOPAT test

With this test the brachial artery is occluded with a blood pressure cuff for 5 minutes. Endothelial dysfunction is measured as increased signal amplitude. A pre- and post occlusion index is calculated based on flow-mediated dilatation. The values are interpreted as follows: an index of 1.67 has a sensitivity of 82% and specificity of 77% to predict coronary endothelial dysfunction correctly. It also correlates to a future risk for coronary heart disease, congestive heart disease and high blood pressure.

2. The VC Profile

This test measures the elasticity of the arteries. There is a C1 index that measures the elasticity of the medium and smaller vessels and the C1 index, which measures elasticity of the larger arteries and the aorta. The smaller the numbers are, the less elastic the arterial walls.

3.The Corus CAD score

This is a genetically based blood test. The score can be between 0 and 40. If the score is 40, there is a risk of 68% that there is a major blockage in one or more coronary arteries.

4. Coronary artery calcification

The CAC score correlates very well with major event like a heart attack. There is a risk of between 6- and 35-fold depending how high the CAC score is. The key is not to wait until you have calcification in your coronary arteries, but work on prevention.

Treatment of cardiovascular disease and inflammation

When heart disease is treated the doctor needs to address all of the underlying problems. It starts with good nutrition like a DASH diet or the Mediterranean diet.

Next anti-inflammatory and other supplements are added: curcumin 500 mg to 1000 mg twice a day, pomegranate juice ¼ cup twice per day, chelated magnesium 500 mg twice per day, aged garlic 1200 mg once daily, taurine 3 grams twice per day, CoQ-10 300 mg twice per day and D-ribose 5 grams three times per day. This type of supplementation helps for chest pain associated with angina. On top of this metabolic cardiology program the regular cardiac medicines are also used.

Additional supplements used in the metabolic cardiology program may be resveratrol 500 mg twice per day, quercetin 500 mg twice per day, omega-3 fatty acid 5 grams per day, vitamin K2 (MK 7) 100-500 micrograms per day and MK4 1000 micrograms per day. In addition he gives 1000 mg of vitamin C twice per day. This program helps in plaque stabilization and reversal and reduction of coronary artery calcification.

Case study showing the effect of metabolic cardiology program

Here is a case study of a heart patient that was treated by Dr. Houston. He was a white male, first treated for congestive heart failure as a result of a heart attack in June 2005. Initially his ejection fraction was 15-20%. His medications were: digoxin 0.25 mg once daily, metoprolol 50 mg twice per day, ramipril 10 mg twice per day, spironolactone 25 mg twice per day and torsemide 20 mg once daily. These medications were kept in place, but the metabolic cardiology program was applied in addition. Here are the results of his ejection fraction (EF) values after he was started on the metabolic program:

  • Initial measurement: EF15-20%. Marked shortness of breath on exertion.
  • 3 months: EF 20-25%. He reported improved symptoms.
  • 6 months: EF 25-30%. He said that he had now minimal symptoms.
  • 12 months: EF 40%. He had no more symptoms.
  • 24 months: EF 50%. He reported: “I feel normal and great”.
  • 5 years: EF 55%. He said” I feel the best in years”.

A normal value for an ejection fraction is 55% to 70%.

Cardiovascular Disease And Inflammation

Cardiovascular Disease And Inflammation

Conclusion

Testing for heart disease risk has become a lot more sophisticated than in the past, and the tests have opened up a window to early intervention. Metabolic cardiology is a new faculty of cardiology that assists in the reversal and stabilization of heart disease. It will help high blood pressure patients and stabilizes diabetes, which would otherwise have deleterious effects on heart disease. Metabolic cardiology improves angina patients. It also prevents restenosis of stented coronary arteries. As shown in one clinical example reduced ejection fractions with congestive heart failure will improve. This was achieved solely through the metabolic cardiology program.

As usual, prevention is more powerful than conventional treatment later. To give your cardiac health a good start, don’t forget to cut out sugar, exercise regularly and follow a sensible diet.

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Jan
21
2017

Effects Of Metformin On The Gut Microbiome

Matthew Andry, MD talked about the effects of metformin on the gut microbiome. This talk was delivered at the 24th Annual World Congress on Anti-Aging Medicine. The congress took place from Dec. 9 to Dec. 11, 2016 in Las Vegas. A lot of the sessions that I attended dealt with the gut flora and how it affects our health. This talk belongs to the theme of what a healthy gut microbiome can do for us.

History of metformin

Dr. Andry is a clinical associate professor of the Indiana School Of Medicine.

He pointed out that metformin has been used for a long time for type 2 diabetes, particularly, if fasting insulin levels are high. Metformin is a biguanide, which was isolated from French lilac (also known as Goats Rue). In the middle ages this herb was used to treat “thirst and urination”. In retrospect we recognize these as symptoms of diabetes. Chemists were able to synthesize the active ingredient in this herb in the 1920’s. Since then it is known as metformin. Dr. Jean Stern was able to show in the 1950’s in clinical studies that Glucophage, the brand name of metformin was able to reduce blood sugar without raising insulin levels. Between 1977 and 1997 metformin enjoyed wide spread acceptance for treating diabetics. Several clinical investigators demonstrated that diabetic patients on metformin lived longer and had less heart attacks than patients who were treated otherwise.

Metformin is the first-line drug in the treatment of type 2 diabetes in children and adults. It is one of the most widely prescribed drugs throughout the world with 120 million prescriptions per year.

Off-label use of metformin

There are many other clinical conditions for which metformin have been found to be beneficial. Polycystic ovary syndrome (PCOS), obesity, prediabetes, metabolic syndrome and nonalcoholic steatohepatitis are a few examples of off-label use of metformin. Metformin is also used as an anti-aging agent as it was found to elongate telomeres, which helps people to live longer. Metformin has been identified as a possible cancer prevention agent. In prostate cancer it was found to have an effect against prostate cancer stem cells. Without these cells prostate cancer does not recur after surgical removal.

Action of metformin

Metformin increases the action of an enzyme, AMPK, which leads to lipid oxidation and breakdown of fatty tissue (catabolism). In the liver the metabolic pathway of making sugar from fatty acids, called gluconeogenesis is inhibited. Metformin causes increased uptake of sugar into skeletal muscle tissue. This is the reason for the previously mentioned stabilization of blood sugar. Metformin has two beneficial effects on the liver. First it stabilizes insulin sensitivity. This means that a given amount of insulin has a larger effect on the liver. Secondly metformin decreases the toxic effect of fatty acids on the liver tissue. In other words metformin has a healing effect on non-alcoholic steatohepatitis, a precursor to fatty liver and liver cirrhosis. Metformin also has an effect on the appetite center in the brain. It helps many obese and overweight people, but not all to lose weight. The mechanism for that effect is in the hypothalamus, where the appetite center is located. The neuropeptide Y gene expression in the hypothalamus is inhibited by metformin leading to reduced appetite.

Finally, metformin also normalizes the gut flora. This last point was the main focus of Dr. Andry’s talk.

Metformin and the gut

An animal experiment on mice showed in a study published in 2014 that metformin was stimulating the growth of a beneficial gut bacterium, Akkermansia. This is a mucin-degrading bacterium. But it also affects the metabolism of the host. The authors found that metformin increased the mucin-producing goblet cells.

Akkermansia muciniphila bacteria were fed to one group of mice. This group was on a high fat diet, but not on metformin. The mice showed control of their blood sugars, as did the metformin group. In other words manipulation of the gut flora composition could achieve control of the diabetic metabolism. The authors concluded that pharmacological manipulation of the gut microbiota using metformin in favor of Akkermansia might be a potential treatment for type 2 diabetes.

Effect of metformin on the gut flora

Akkermansia muciniphila bacteria comprise 3%-5% of the gut flora. It does not form spores and is strictly anaerobe, in other words oxygen destroys it. This is the reason why it is difficult to take it as a supplement. It is mostly growing in the mucous of the epithelium layer of the gut. The highest number of Akkermansia bacteria is found in the colon, lesser amounts in the small intestine of all mammalian species including the human race.

Here are the effects of metformin on Akkermansia:

  • Metformin increases the Akkermansia bacteria count both in a Petri dish as well as in the gut of experimental mice. This suggests that metformin acts like a growth factor for Akkermansia.
  • Metformin increased the count of Akkermansia bacteria by 18-fold up to a maximum of 12.44% (up from the normal 3-5%) of all of the gut bacteria.
  • Researchers observed that the mucin layer of the lining of the gut in metformin treated mice was thicker. This suggests that the thickness of the mucin layer plays a role in increasing the Akkermansia count.

Effect of the gut on the body’s metabolism

Other researchers have investigated how a high fat diet can change the composition of the gut bacteria, which in turn are altering the body’s metabolism. Essentially a shift in the bowel flora can increase the gut’s permeability. This is called leaky gut syndrome. It leads to absorption of lipopolysaccharides (LPS) from bad bacteria in the gut. The end result is endotoxemia in the blood. This causes systemic inflammation in the body. Insulin resistance and obesity develop and this can be followed by type 2 diabetes. It is interesting to note that the effects of a high fat diet that led to these changes can be reversed by increasing Akkermansia bacteria in the gut or by treating with metformin.

An interesting mouse experiment showed that the changes that take place in the gut bacteria with cold exposure could be transferred to germ-free mice with no gut flora. This changed their metabolism proving that gut bacteria have profound influences on the metabolism. The fact that the gut bacteria have a profound influence on the metabolism is not only true for animals, but also for humans.

Akkermansia Facts

Here are a few facts about the Akkermansia bacteria.

  • The amounts of Akkermansia bacteria in the gut are inversely related to how fat we are. This is measured by the body mass index (BMI). Fat people have less Akkermansia in their guts.
  • A high fat diet lowers the amount of Akkermansia in the gut
  • Systemic inflammation is present with low Akkermansia counts
  • A high fat diet causes gut permeability (leaky gut syndrome).
  • Low levels of Akkermansia causes worsened severity of appendicitis and inflammatory bowel disease.
  • Low levels of Akkermansia causes fat storage (both in subcutaneous fat and visceral fat).
  • Low levels of Akkermansia cause insulin resistance (associated with diabetes) and high blood sugars.
  • Increased Akkermansia counts increase brown fat’s ability to burn calories, which leads to weight loss. Decreased Akkermansia counts lead to fat storage (weight gain).
  • Increased Akkermansia improves gut-barrier integrity
  • Increased Akkermansia reduces visceral and total body fat
  • Increased Akkermansia reduces synthesis of sugar in the liver (gluconeogenesis)

We have 10 times more bacteria in the gut than we have cells in our body. The Akkermansia percentage of the gut flora can be decreased from antibiotics or food that contains traces of antibiotics. If there is a lack of Akkermansia species, there is more gut permeability, causing LPS increase and causing increase of inflammation in the body. This translates into high blood pressure, heart attacks, strokes, and degenerative neurological diseases like Parkinson’s disease, Alzheimer’s disease or MS. But it can also cause inflammatory bowel disease and autoimmune diseases.

What increases Akkermansia?

We can increase Akkermansia bacteria in the gut by eating Oligofructose-enriched prebiotics. Oligofructose belongs into the inulin type soluble fibers. It is found in a variety of vegetables and plants. This includes onions, garlic, chicory, bananas, Jerusalem artichokes, navy beans and wheat. But wheat can be problematic. Clearfield wheat is the modern wheat variety which is now grown worldwide. It is much richer in gluten and can cause problems with gut permeability.

Eating lots of vegetables and fruit will give you enough of oligofructose to maintain a healthy percentage of Akkermansia in your gut bacteria.

Metformin as pointed out earlier can be used as pharmacotherapy. But it must be stressed that the use of metformin for dysmetabolic syndrome is off-label. There are real side effects of metformin. Lactic acidosis with an unusual tiredness, dizziness and severe drowsiness can develop. Also chills, muscle pain, blue/cold skin and fast/difficult breathing has been described. Slow/irregular heartbeat, vomiting, or diarrhea, stomach pains with nausea are also listed under side effects.

Effects Of Metformin On The Gut Microbiome

Effects Of Metformin On The Gut Microbiome

Conclusion

Our gut bacteria are important for us, more so than you may be aware of. An anaerobe bacterium, Akkermansia makes up 3%-5% of the gut flora. This bacterium lives in the mucous layer of the lining of the gut and ensures that the gut wall is tight. When these bacteria are lacking (due to consumption of junk foods) the gut wall becomes leaky, which is why this condition is called “leaky gut syndrome”. Irritating toxic substances can now leak into the blood stream and lipopolysaccharides are among them. This causes inflammation in the gut wall, but can go over into the blood vessels and the rest of the body including the brain. High blood pressure, obesity, diabetes, heart attacks, strokes, and degenerative neurological diseases like Parkinson’s disease, Alzheimer’s disease or MS can develop from the inflammation. But it may also cause inflammatory bowel disease and autoimmune diseases.

Eating lots of vegetables and fruit will give you enough of oligofructose to maintain a healthy percentage of Akkermansia in your gut bacteria. In particular, onions, garlic, chicory, bananas, Jerusalem artichokes and navy beans provide lots of oligofructose to support Akkermansia in your gut bacteria.

As pointed out earlier metformin can be used as pharmacotherapy of dysmetabolic syndrome. But it must be stressed that the use of metformin is off-label. It is also important to remember, that with effects there are side effects of metformin.

It may be news to you, how close the health of the gut is connected to our overall health. With the knowledge that food can be your medicine, choose your foods wisely. Add some or all of the above named foods that help you support beneficial gut bacteria, and take care of your health!

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