Archive for the ‘research’ Category

Does Lyme Increase Your Cancer Risk?

https://rawlsmd.com/health-articles/real-talk-lyme-disease-cancer-does-borrelia-increase-your-cancer-risk

[Real Talk] Lyme Disease + Cancer: Does Borrelia Increase Your Cancer Risk?

by Dr. Bill Rawls
Posted 11/5/20

As to the question of, are microbes associated with cancer, the answer is a definitive, yes!

But what about the question, are all cancers associated with microbes? Here I’m referring to microscopic organisms including bacteria, viruses, protozoa, and fungi.

The answer? Well…maybe.

Here’s what the science is showing us thus far, including takeaways from a new study implicating borrelia — the microbe associated with Lyme disease — in breast cancer development, and how to empower yourself to reduce your risk.

The Science Linking Microbes + Cancer

Scientists first began proposing links between microbes and cancer back in the 1800s. In 1886, a researcher named Dr. Doyle isolated spherical bodies thought to be bacteria from a malignant tumor.

This was followed by a scientific paper published in 1907 by Dudgeon & Dunkley, which confirmed that the spherical bodies were a species of staphylococcus (a common skin flora that we all carry). Then, in 1911, a physician named Peyton Rouse, M.D. was able to demonstrate that a certain chicken sarcoma (tumors that occur in bones and soft tissue) was transmissible to other chickens. The transmissible agent was later found to be a virus.

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The earliest documentation of microbes associated with human cancer was in 1964 with the finding of Epstein-Barr virus (EBV) in a cancer of lymph nodes, called Burkitt’s lymphoma. Epstein-Barr virus is a common virus that most all of us get during childhood and that sometimes causes mononucleosis.

Since then, numerous cancers have been linked to microbes:

  • Helicobacter pylori (H. pylori) with cancer of the stomach
  • Salmonella typhi with gallbladder cancer
  • Chlamydia pneumoniae with lung cancer
  • Streptococcus bovis with colon cancer
  • A variety of species of mycoplasma with a variety of different cancers
  • Multiple bacteria with oral cancers

This is, of course, only a partial list. In all, 20% of cancers have been directly linked to various microbes. No doubt, the percentage will steadily grow.

My earliest professional association with the microbe-cancer link was some 30 years ago, when human papillomavirus (HPV) was associated with cervical cancer in women. It totally changed how we screen for cervical cancer.

Women often, however, develop a precancerous state associated with HPV called dysplasia, which in some people never progresses to cancer. It has me wondering if there might be other cofactors involved, such as other microbes.

Ones that would be high on my list include mycoplasmas and ureaplasmas, which are much more common in the genital tract than currently recognized. Studies have shown that these bacteria can facilitate the entry of viruses into cells — it gives evidence that microbes often work together.

The microbe-cancer connection hit close to home several years ago when my father developed lymphoma of the eye shortly after being diagnosed with a toxoplasma infection in that eye. Toxoplasma is a protozoa, a single-celled microbe one step more advanced than a bacteria. It’s commonly contracted from cats or eating undercooked meat.

If a person’s immune system is healthy, toxoplasma typically lives inside cells and stays dormant in tissues without causing any symptoms. Its favorite hideout is the brain. In immunocompromised individuals, it’s been linked to cognitive deficits, depression, and psychosis. Sure enough, I was able to find research that documented an association between toxoplasma and the specific type of lymphoma my father developed.

Ever since my dad’s experience, I’ve been closely following the connections. Before his untimely death due to complications of Lyme disease, Neil Spector, M.D., a friend and oncology researcher at Duke University, mentioned that he was consistently finding bartonella, a common bacteria defined as a Lyme disease coinfection, in a certain type of breast cancer.

In May of 2020, in a study published in the journal Science, researchers found a distinct “tumor microbiome” consisting of intracellular bacteria in each of 1,526 different tumor specimens. The specimens were taken from seven different cancer types including breast, lung, ovarian, pancreatic, melanoma, bone, and brain cancers.

Most recently, an internationally recognized expert on Lyme disease, Eva Sapi, Ph.D., found borrelia in breast cancer tissue. In 400 specimens of the breast cancer tissue she examined, borrelia was found in a high percentage. Her team also found that borrelia readily invaded breast cancer cells in the lab.

Does this mean that borrelia is the cause of breast cancer? Not hardly. It simply means that microbes in general play a key role in the process of cancer formation. That role is actually not difficult to define.

Microbes’ Role in Cancer Development

The cells that make up our bodies and the microbes that inhabit our bodies live at cross purposes. It’s the difference between the unrestricted growth of microbes versus the restricted growth of our cells.

Microbes like bacteria know only one purpose: Making more bacteria. As long as food is present, bacteria are compelled to keep dividing and growing with no boundaries — dividing continuously is the only way they can survive.

Borrelia infection in the blood. Borrelia bacteria cause borreliose, transmitted by ticks and by lice.

The reason microbes like bacteria must continually divide is to shed internal damage and refresh themselves. When a bacterial cell divides, it regenerates into two new cells — damage to internal parts and the cell’s genetic program is shed, and the new cells start afresh. As soon as those two cells mature, they must also divide.

Most bacteria divide every 2 to 12 hours. Some are especially fast movers: E. coli in the gut, for example, can divide every 20 minutes, which means after 7 hours, one bacterium can become 2.1 million, according to the Microbiology Society.

This pattern of unrestricted growth applies to viruses, protozoa, and yeast, as well as bacteria. As long as nutrients and no other restrictions are present, they will continue to grow unimpeded.

In contrast, our cells are team players. They work in close synchrony with other cells within organ and tissue systems to enable the body to function as a whole.

We have about 200 different cell types, each with a different job. Muscle cells contract muscles. Brain cells transmit signals. Thyroid cells secrete thyroid hormones. Cells in the digestive system make enzymes to digest food. Every cell in the body is working for the good of all the other cells in the body — it’s definitely a one-for-all and all-for-one kind of arrangement.

As team players, our cells must work within the confines of an organ or tissue system. To be functional, organ or tissue systems can only accommodate a set number of cells (aka team players).

Though our cells can divide, they only divide to replace worn out or damaged cells. If the growth of cells became unrestricted like bacteria, the tissue or organ would quickly be destroyed. If that sounds a lot like cancer, you’re right on track.

Why Intracellular Microbes Are the Biggest Concern

Though most of the microbes that inhabit the body are confined to the gut or skin, microbes are constantly trying to get inside tissues of your body. The carbohydrates, fats, and proteins that make up your cells offer a treasure trove of nutrients that microbes can use to survive. Once inside your tissues, your cells offer an exceptionally good food source.

It was through my own experience with Lyme disease that I became acquainted with microbes that specialize in invading and living inside cells of a host. It’s a common strategy that microbes have been honing for billions of years.

By infecting and pirating organic molecules and resources from larger cells (the ultimate dine-in experience), these microbes can survive without having to work very hard. Living inside another cell offers the microbes food and protection from the immune system, other bacteria, and antibiotics.

blue microbes

The infected cell might be weakened, but might not die — at least initially. It’s an easy-living strategy used by many bacteria, some protozoa, yeast, and all viruses. Collectively, they are known as intracellular microbes or stealth microbes.

Borrelia burgdorferi is an intracellular microbe. All the Lyme disease coinfections, including bartonella, are intracellular. Toxoplasma is an intracellular protozoa. In fact, all the microbes that have been associated with cancer are intracellular.

There are many, many intracellular microbes. In my research I was able to identify more than 100 different species of intracellular microbes that could potentially be associated with chronic illness in humans — and that may be just scratching the surface.

The stealth microbe-cancer connection was taken a step further by a study published in 2018 in the journal, Cancer Cell International. The study was significant because researchers were able to experimentally induce cancer formation in eukaryotic cells (cells like ours) with intracellular bacteria.

For the experiment, they used a species of algae. They started by placing the algae cells in the dark, which weakened the cells. Then they exposed the weakened algae cells to an intracellular bacteria common to that species of algae.

In every case, when the bacteria invaded the weakened cells, the cells took on the unrestricted growth common to bacteria and turned to cancer. They were also able to demonstrate that the bacteria had inserted a segment of DNA into the cell’s genome that turned on unrestricted growth in the host cell.

How to Use This Information to Reduce Your Cancer Risk

The good news is that all of these findings bring us one step closer to understanding cancer. And if you understand something, you can do something about it! Knowing that intracellular microbes are a significant part of the problem brings us closer to a cancer solution.

A top priority is keeping the cells of your body healthy — weak cells are targets for microbes. Maintaining cell health puts less stress on the immune system. When the immune system isn’t overtaxed, it can better do its job of keeping the microbes that inhabit the body in check.

What can you do to keep your cells in top condition?

  • Provide optimal nourishment for your cells with a diet weighted heavily toward fresh vegetables and other fresh food sources.
  • Minimize your exposure to toxic substances. Toxins can only enter your body in what you eat or drink, the air you breathe, and what goes on your skin. Filtered water, organic food, purified indoor air, and smart choices for skin products go a long way to protect your cells.
  • Stress disrupts hormones and prevents cells from working together to stay healthy. Though you can’t eliminate all stress in your life, you can find ways to live around it. Make your world small, and focus only on the things that impact your wellbeing directly.
  • Cells depend on continual flow of water, nutrients, oxygen, and waste removal to stay healthy. Staying physically active increases blood flow, which flushes debris collected around cells and promotes optimal flow.

In the battle to keep your cells healthy, herbs are your best ally. The protective phytochemicals found in herbs suppress intracellular microbes, reduce cellular stress by protecting cells, and balance communication systems in the body so that all cells work together. Many herbs, if not most of them, have documented anti-cancer properties.

It’s a bit unnerving when you think about the fact that we all harbor microbes inside our cells that have the potential to affect our cells adversely. It’s important to note, however, that it’s stressed cells that are vulnerable.

Also key is that a healthy immune system is constantly on the job of taking out cells that have been infected with microbes or that have taken on the unrestricted growth associated with cancer. As such, your best defense against any type of cancer is a healthy immune system. Not stressing your cells is also a good practice.

immune rhodiola reishi cordyceps ashwagandha japanese knotweed cats claw

Keeping your cells and your immune system healthy is a matter of maintaining good health habits. That includes eating a fresh and mostly whole foods diet, minimizing the toxins in your environment, keeping stress down, and staying active.

Beyond good health habits, herbs have extensive value for keeping your immune system healthy. Herbs suppress intracellular microbes, reduce cellular stress by protecting cells, and balance communication systems in the body so that all cells work together.

When all the cells in the body are functioning properly and working together in harmony, good health happens — and cancer risk is low!

Dr. Rawls is a physician who overcame Lyme disease through natural herbal therapy. You can learn more about Lyme disease in Dr. Rawls’ new best selling book, Unlocking Lyme.
You can also learn about Dr. Rawls’ personal journey in overcoming Lyme disease and fibromyalgia in his popular blog post, My Chronic Lyme Journey.

REFERENCES
1. Dudgeon LS, Dunkley EV. The Micrococcus neoformans: Its Cultural Characters and Pathogenicity and the Results of the Estimation of the Opsonic and Agglutinative Properties of the Serum of Patients Suffering from Malignant Disease on this Organism and on the Staphylococcus Albus. J Hyg (Lond). 1907;7(1):13-21. doi:10.1017/s002217240003309x
2. Rous P. A SARCOMA OF THE FOWL TRANSMISSIBLE BY AN AGENT SEPARABLE FROM THE TUMOR CELLS. J Exp Med. 1911;13(4):397-411. doi:10.1084/jem.13.4.397
3. Rowe M, Fitzsimmons L, Bell AI. Epstein-Barr virus and Burkitt lymphoma. Chin J Cancer. 2014;33(12):609-619. doi:10.5732/cjc.014.10190
4. Nejman D, Livyatan I, Fuks G, et al. The human tumor microbiome is composed of tumor type-specific intracellular bacteria. Science. 2020;368(6494):973‐980. doi:10.1126/science.aay9189
5. Dong, Q., Xing, X. Cancer cells arise from bacteria. Cancer Cell Int 18, 205 (2018).
6. Faden AA. The potential role of microbes in oncogenesis with particular emphasis on oral cancer. Saudi Med J. 2016;37(6):607-612. doi:10.15537/Smj.2016.6.14048
7. Hieken TJ, Chen J, Hoskin TL, Walther-Antonio M, Johnson S, Ramaker S, Xiao J, Radisky DC, Knutson KL, Kalari KR, Yao JZ, Baddour LM, Chia N, Degnim AC. The Microbiome of Aseptically Collected Human Breast Tissue in Benign and Malignant Disease. Sci Rep. 2016 Aug 3;6:30751. doi: 10.1038/srep30751. PMID: 27485780; PMCID: PMC4971513.
8. Meng S, Chen B, Yang J, Wang J, Zhu D, Meng Q, Zhang L. Study of Microbiomes in Aseptically Collected Samples of Human Breast Tissue Using Needle Biopsy and the Potential Role of in situ Tissue Microbiomes for Promoting Malignancy. Front Oncol. 2018 Aug 17;8:318. doi: 10.3389/fonc.2018.00318. PMID: 30175072; PMCID: PMC6107834.
9. Chmiel R, University of New Haven Professor Makes Great Strides in Lyme Disease, Cancer Research, Sept 15 2020, Office of Marketing and Communications, University of New Haven.
https://www.newhaven.edu/news/blog/2020/eva-sapi-research.php
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For more:

Another Chinese Lab Leak. This Time It’s Brucella….

https://academic.oup.com/cid/article-abstract/75/10/1845/6604450#

The Lanzhou Brucella Leak: The Largest Laboratory Accident in the History of Infectious Diseases?

Clinical Infectious Diseases, Volume 75, Issue 10, 15 November 2022, Pages 1845–1847, https://doi.org/10.1093/cid/ciac463
Published:
08 June 2022

Abstract

An inadequacy in sanitizing processes in a biopharmaceutical plant in Lanzhou, China, during July and August 2019, led to the aerosolization of Brucellathat was subsequently spread through wind to nearby settlements and academic institutes, resulting in >10 000 human brucellosis cases, as of November 2020. The leak, possibly the largest laboratory accident in the history of infectious diseases, underlines the particular characteristics of Brucella that have made the pathogen a historical entity in biodefense research and a major cause of laboratory-associated infections. It further underlines the need for enhanced vigilance and strict regulatory interventions in similar facilities.

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**Comment**

Oh goody, the fun just never ends.

Brucella should sound familiar to Lyme/MSIDS patients because it’s a cousin to Bartonella, and like most coinfections has many strains that can cause human disease. It is considered an “eternal” microbe due to the fact its DNA persists for years after clinical cure.  Further, in patients that relapse, no statistically significant difference was found in their bacterial load vs asymptomatic patients, indicating yet another stealth pathogen virtually impossible to find or eradicate.

Brucella has infected prosthetic joints, the heart, liver, spleen, intracellularly, and virtually every organ in the body.  It can cause arthritis, swelling of the testicle and scrotum, heart issue, neurological symptoms, chronic fatigue, and depression.

And of course, it garners attention for being a biowarfare agent. 

Like so many other pathogens in the Lyme/MSIDS army, it requires prolonged, combined treatment that often fails resulting in relapse.

Routes of infection include eating or drinking infected meat or dairy products, inhalation, and through skin wounds or mucus membranes. However, it’s been found in eggs, larvae, engorged females, and in other ticks:

The presence of DNA from several Brucella species were detected in ticks using real-time PCR assay. Histopathological examination showed ticks cause significant damage to skin and hides by inducing degenration of the epidermal layer from basal layer, collagen degeneration with a focal area of necrosis, adjacent subdermal abscess and infiltration of neutrophils. Control of ticks should be given consideration to reduce the severity of hide damage and concomitant losses in the domestic leather industry. Ticks are known as a vector of numerous pathogens; efforts are underway to educate farmers about financial loss of skin and hide due to tick infestation and preventive control measures.

I realize that just finding something doesn’t mean it can be transmitted.  This would be an excellent thing to study, but won’t be.  Researchers are chasing the golden egg of “climate change,” so we may never completely know if a tick bite could transmit this, but it’s highly probable.

Signs and symptoms look exactly like other tick-borne illnesses.  Treatment is often the combination of doxycycline and rifampin for a minimum of 6-8 weeks.

Some Scientists Now Say Alzheimer’s is an Autoimmune Disease But Ignore the Root Cause to Market New Drugs & One Doctor’s Program to Reverse Cognitive Decline

https://www.theepochtimes.com/health/is-the-commonly-accepted-cause-of-alzheimers-wrong-expert-its-an-autoimmune-disease

Scientists Say Alzheimer’s Is an Autoimmune Disease, Not Result of Amyloid Plaque

Nov 16 2022

Not long ago, some Canadian scientists clearly put forward a different explanation for the cause of Alzheimer’s disease—they suggested that Alzheimer’s may be an autoimmune disease.

Alzheimer’s May Be an Autoimmune Disease

According to statistics from the World Health Organization (WHO), there are about 50 million dementia patients in the world, with 10 million new cases every year; it means that about one person is diagnosed every three seconds.

Over the years, the “amyloid hypothesis” has been widely accepted among various theories of the cause of Alzheimer’s disease, but it has also been controversial as some phenomena in patients with Alzheimer’s do not fit the hypothesis. For example, people with amyloid plaques in their brains may not have Alzheimer’s. Besides, there are still many uncertainties about the clinical benefit of drugs targeting the elimination of amyloid beta.

Recently, Canadian scientists published a post saying that the amyloid beta found in the brains of Alzheimer’s patients is actually a substance released by the body’s immune response. They further speculate that Alzheimer’s is an autoimmune disease centered on the brain.  (See link for article)

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**Comment**

Lyme/MSIDS patients should already be familiar with this refrain because it’s exactly what they say causes chronic/persistent Lyme disease – that old, wonky immune system strikes again.

The problem with this is it completely bypasses the root cause that can be treated, thereby helping that wonky immune system and perhaps even preventing the wonkiness from happening. In my opinion, which has plenty of research to back it up, infections are to blame for both diseases which means all the immune modulating drugs on the planet are not going to fix it. Don’t get me wrong, immunomodulators have their place and can really help with symptoms, but again, won’t deal with the root issue: infections.

You would think researchers would learn from past mistakes, but alas, the same drivers of error (money and power) are still at play.

Rather than researching diseases for true answers to alleviate patient misery, diseases are studied as potential income earners with Big Pharma to create the next hot drug or lucrative “vaccine.”  The same tune continues to be played on the same harp.

So rather than deal with the root of these diseases (infections) in which cheap, already existing antimicrobials can be repurposed, scientists carefully craft it to “autoimmune” diseases where sexier, more expensive, new drugs can be created – of which they will patent and profit from.  Sound familiar?

While I’m glad they finally quit blaming amyloid beta as the culprit, they are still far from real answers that will help real people.

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https://media.mercola.com/ImageServer/Public/2022/November/PDF/recode-protocol-pdf.pdf

Case Study Reveals How Cognitive Decline Can Be Reversed

Analysis by Dr. Joseph Mercola
Nov. 20, 2022

STORY AT-A-GLANCE

  • A case report of 100 patients diagnosed with cognitive decline using the ReCODE protocol showed both subjective and objective improvements in all participants
  • The ReCODE protocol, which involves identifying the drivers of cognitive decline (such as pathogens, toxins and metabolic changes), then targeting those in a personalized program that includes dietary and lifestyle changes, allows your brain to create and maintain synapses again, thereby treating the root of the problem
  • A hallmark of neurodegenerative diseases such as Alzheimer’s is that proteins are aggregated and are typically misfolded
  • By inducing ketosis, improving insulin sensitivity and supporting the mitochondria, you can often regain the ability to refold or proteolyze misfolded proteins
  • Electromagnetic field exposures, such as that from cellphones and Wi-Fi, may play an important role in Alzheimer’s, as it triggers high amounts of oxidative stress and damage to proteins and DNA

Alzheimer’s disease, which is the most common form of dementia, eventually leads to the inability to carry out even the most basic of bodily functions, such as swallowing or walking. It is ultimately fatal, as conventional treatment options are few and universally ineffective.

Like autism among children, Alzheimer’s among seniors has reached epidemic proportions, with no slowdown in sight. On the contrary, evidence suggests the trend is worsening. In 2022, Alzheimer’s affects more than 6 million Americans,1 and 1 in 3 seniors dies with dementia or other demention. By 2050, Alzheimer’s diagnoses are projected to reach 13.8 million.2,3

While the U.S. Centers for Disease Control and Prevention lists the disease as the seventh leading cause of death in the U.S.,4,5 statistics published in the journal Neurology in 2014 revealed Alzheimer’s is vastly underreported on death certificates. In reality, the disease likely killed 503,400 American seniors in 2010,6 making it the third leading cause of death, right behind heart disease and cancer.7

The good news is that contrary to conventional claims, there are ways to prevent and even treat this tragic disease — not by drugs, but by diet and other lifestyle changes.

Dr. Dale Bredesen, professor of molecular and medical pharmacology at the University of California, Los Angeles School of Medicine, and author of “The End of Alzheimer’s: The First Program to Prevent and Reverse Cognitive Decline,” has identified a number of molecular mechanisms at work in Alzheimer’s, and created a novel program called ReCODE to treat and reverse it.8

100-Patient Case Report Sheds Light on Treatment Options

One of Bredesen’s publications is a case report9,10 of 100 patients using the ReCODE protocol. He had previously published three case reports, each involving just 10 patients. This fourth case report contains 100 patients treated at 15 different clinics across the U.S., all of which have documented pre- and post-cognitive testing.

Not only did all show improvement in symptoms, some of them also showed improvement in their quantitative electroencephalographs (EEGs). Others who underwent magnetic resonance imaging (MRI) with volumetrics also showed objective improvement.

“By all the criteria, these people showed improvement, subjective and objective,” Bredesen says. This is no small thing, as there is no conventional treatment that can reverse Alzheimer’s. There have been many drug trials to date, but all have failed to reverse the disease. As noted by Bredesen:

“There are a couple of medications, Aricept, Namenda … but these have a very, very modest impact. The most important thing is their improvement is not sustained. They don’t change the outcome of the disease. You get a little bump in improvement, then you go right back to declining.

The most important part of the [ReCODE] protocol … is that the improvement is sustained. You’re actually going after the root cause of what is causing the cognitive decline. That’s a big difference.”

Alzheimer’s Is a Protective Response to Inflammation

If one were to summarize Bredesen’s approach in one sentence, it would be “to improve the ratio between synaptoblastic and synaptoclastic activity, which is the brain’s ability to create new synapses versus destroying them.” In other words, the treatment allows your brain to create and maintain synapses again. Bredesen explains:

“The molecular biology of this disease shows that what we call Alzheimer’s disease is actually a protective response. It’s essentially a scorched-earth retreat.

You’re pulling back and saying, ‘We’re not going to let this insult kill us, so we’re going to scorch the earth so it (whether it’s bacteria or something else) cannot take advantage … of what’s there.’ You’re literally downsizing [your synapses]. As long as those insults are going on, you will be downsized.”

Beta-amyloid is a protein that is highly correlated with Alzheimer’s. However, all attempts at removing it have failed to improve the condition. Clearly, beta-amyloid in and of itself is not the primary cause, so simply getting rid of it is not the answer.

In Bredesen’s paper, he discusses the role of beta-amyloid as an antimicrobial peptide (AMP). Importantly, AMPs are critically important for host immunity. They target organisms such as bacteria, mycobacteria, viruses, fungi and protozoa. He explains:

“Here is the trick. It turns out amyloid beta is really part of the innate immune system. Its antimicrobial effect was first discovered and published by professor Robert Moir and professor Rudy Tanzi at Harvard.

This thing actually has, again, a protective response. Not only is it an AMP, but it also binds some toxins. For example, mercury, other divalent metals like iron and things like that. [Amyloid beta] has multiple effects. It is part of your response to insult.

When you take that into account, you realize it’s fine to remove amyloid, but please don’t do it before you remove all the insults. We’ve seen numerous people now who have had the amyloid reduced and gotten worse because the ongoing insults are still there.”

In 2019, the drug company Biogen halted its Phase II clinical trial for aducanumab, a drug designed to remove beta-amyloid, and this is the typical story for these kinds of drugs. And then a major trial of yet another approach to amyloid removal, the BACE inhibitor CNP520, was halted because the drug was associated with increased cognitive decline and brain atrophy.11

The Protein Refolding Process Is Impaired in Alzheimer’s

About one-third of the proteins your body makes on any given day are misfolded. Thankfully, your body has a mechanism by which those misfolded proteins are refolded. Heat-shock proteins play a central role in this process, and if the misfolding is too severe, the heat-shock proteins help remove them altogether.

In fact, heat-shock proteins are a corollary of autophagy, the process by which your body cleans out damaged organelles. This relates to Alzheimer’s, because the refolding process is one of several factors that need to work in order for your brain to function. As noted by Bredesen:

“In all of these different neurodegenerative diseases, whether you’re talking about Alzheimer’s, Huntington’s, Lou Gehrig’s disease, Parkinson’s disease or Lewy body, they all feature proteins that are aggregated and that are typically misfolded. They are not degraded appropriately.

You lose not only the ability to fold but the ability to degrade these proteins. That is a critical piece. In fact, just recently, an article came out on a common neurodegenerative condition, newly described, which is called LATE, which is limbic-predominant, age-related TDP-43 encephalopathy.

In other words, this is a little bit like Alzheimer’s … [LATE] features TDP-43, which is a protein that is involved in numerous things, including protein folding … We lose that [protein-folding] ability as we start to downsize [synapses], as you don’t have an appropriate energy, you don’t have the appropriate trophic support.

You don’t have the appropriate hormonal and nutritional support … When we target ketosis, when we target insulin sensitivity, when we target mitochondrial support, that typically allows you to generate the appropriate ability to refold misfolded proteins …

You can induce the heat-shock response … by doing this combination of sauna and then [going] into the cold and then back to the sauna and then back to the cold …

You are recurrently activating this critical response [by doing that]. There’s no question it is going to be important, especially in ALS, but likely in all of the neurodegenerative conditions.”

The Link Between Protein Folding and Cell Death

As noted by Bredesen, there are three kinds of autophagy: macro-autophagy, micro-autophagy and chaperone-mediated autophagy. Each offers a slightly different way to repair, remove or recycle damaged organelles within the cell.

Specific proteins, for example, can be targeted for chaperone-mediated autophagy. Bredesen recounts findings of research he did to ascertain the linkage between protein folding and programmed cell death (apoptosis, where the entire cell is killed off and removed):

“If you fail to reform these [misfolded proteins], you literally activate an entire system that initially stops producing more protein. It’s basically saying, ‘We’re not keeping up with this. We’re going to shut this down.’ It attempts to refold. Then it attempts to destroy the proteins if it can’t refold them.

Then ultimately, if it cannot … keep up … it literally activates programmed cell death through specific caspases … This is something where you want to intervene upstream; understand why this is happening. And then if you’re unable to keep up with this, now, at least increase your heat-shock proteins so that you can refold. In this case, you prevent the induction of programmed cell death.”

Unfortunately, a vast majority of people do not have well-functioning autophagy, for the simple reason that they’re insulin-resistant. If you’re insulin-resistant, you cannot increase your adenosine 5′ monophosphate-activated protein kinase (AMPK) level, which prevents the inhibition of mammalian target of rapamycin (mTOR), and mTOR inhibition is one of the primary drivers of autophagy.

The Case for Cyclical Fasting

While autophagy is clearly of critical importance, you don’t want to be in continuous autophagy. You also need to cycle through the rebuilding phase. One of the ways in which you can control this is through cyclical fasting. Bredesen typically recommends an intermittent fasting approach.

“You want to use appropriate fasting and an appropriate diet to activate this autophagy,” Bredesen says. “We recommend … 12 to 14 hours [of fasting] if you are apolipoprotein E4-negative (ApoE4-negative) … If you are ApoE4-positive, you’d want to go longer — 14 to 16 hours. There’s nothing wrong with doing a longer fast …

The reason we suggest longer for the ApoE4-positives [is because] if you are ApoE4-positive, you are better at absorbing fat. It tends to take longer to enter autophagy …

Typically, we recommend it about once a week. But again, a longer fast once a month is a good idea. It depends a lot on your body mass index (BMI). What we found is people who have higher BMIs respond better to this fasting early on. They’re able to generate the ketones.

If you lose both the carbohydrates and the ketones, you end up [feeling] completely out of energy … We are very careful when people are down below 20 on their BMI, especially the ones 18 or below. We want to be very careful to make sure to cycle them [in and out of ketosis] once or twice a week …

These are the ones where, often, exogenous ketones can be very helpful early on … Measure your ketones. It’s simple to do. We want to get you into, ultimately, the 1.5 to 4.0 millimolar [range for] betahydroxybutyrate. That is the goal.”

Test Your Ketones

So, to recap, while dementia patients with excess weight tend to respond favorably to cyclical fasting, at least initially, underweight patients may experience cognitive decline, as they’re simply too underweight to produce ketones in response to the fasting. For those who are underweight, Bredesen recommends using a ketone supplement such as medium-chain triglycerides (MCT) oil.

If that doesn’t bring you into the desired ketone level (1.5 to 4.0 mmol), or if it’s adversely affecting your low-density lipoprotein (LDL) particle number, he might recommend exogenous ketones — either ketone esters or salts. “We’d like to look at your LDL particle number and use that to titrate, to make sure that your LDL particle number is not too high,” he says.

To test your ketones, I recommend KetoCoachX.12 It’s one of the least expensive testing devices on the market right now. Another good one is KetoMojo. KetoCoach, however, is less expensive, the strips are individually packed and the device is about half as thick as KetoMojo’s, making it easier to travel with.

Energy Demands Are Not Met in Neurodegenerative Diseases

Nutritional ketosis, in which your body produces endogenous ketones (water-soluble fats), is important for all neurodegenerative diseases, but it’s not a complete cure-all. Bredesen explains:

“What we’ve come to realize from the research over the years is that neurodegenerative diseases, whether Alzheimer’s … macular degeneration … Lewy body, Parkinson’s or ALS, they all have one thing in common. They are related to specific subdomains of the nervous system.

Each of these has a unique requirement for nutrients, hormones, trophic factors, et cetera … In each case, there is a mismatch between the supply and the demand. For most of your life, you’re keeping up with that demand. With all of these diseases, you have a repeated or a chronic mismatch between the support and the requirement.

In Parkinson’s disease, it’s quite clear. You can create Parkinson’s disease simply by inhibiting mitochondrial Complex I. That specific subdomain of motor modulation, which is what Parkinson’s is all about, is the thing that is the most sensitive to reductions in mitochondrial Complex I support.

Therefore, when people have this, you need to bring the supply back in line with the demand. A critical way to do that is to supply the appropriate ketosis — the appropriate energy.

Now, if the person is continuing to be exposed to whatever chemicals are inhibiting Complex I — and it’s typically … mold-related biotoxins or organic toxins such as paraquat or glyphosate — as long as these are ongoing, you’re going to get very temporary relief.

The goal here is both to get rid of what is inhibiting Complex I and to flood the system, to help the system by giving appropriate support for the energetics … With Alzheimer’s, we’re really talking about a mismatch in trophic support. You’ve got this ongoing need as you’re making neuroplasticity.”

Why Late-Night Eating Is Ill Advised

Although I am not ApoE4-positive, I prefer fasting for 16 hours a day, essentially narrowing my eating window to just four to six hours. I also make sure to eat my last meal three to six hours before bedtime. One of the reasons for this advice is because avoiding late-night eating will increase your nicotinamide adenine dinucleotide (NAD+) levels, which are important for a variety of bodily functions.

Importantly, it will also reduce nicotinamide adenine dinucleotide phosphate (NADPH), which is essentially the true cellular battery of your cell and has the reductive potential to recharge your antioxidants. The largest consumer of NADPH is the creation of fatty acids.

If you’re eating close to bedtime, then you’re not going to be able to use the NADPH to burn those calories as energy. Instead, they must be stored some way. To store them, you have to create fat, so you’re basically radically lowering your NADPH levels when you eat late at night because they are being consumed to store your extra calories by creating fat.

Bredesen’s protocol includes this strategy as well. He calls his approach “KetoFlex 12/3,” because it generates mild ketosis and is flexible diet-wise. It can be done whether you’re a vegetarian or not. The 12/3 stands for a 12-hour minimum fast each day, and eating the last meal three hours before bedtime.

Certain supplements, including berberine, resveratrol, curcumin, quercetin and fisetin also boost autophagy, and can be used in addition to the nutritional timing. Bredesen explains:

“Sirtuin-1 (SIRT1) was identified as a critical molecule, both for longevity and has been studied extensively for its effects on longevity, but also for its effects on Alzheimer’s disease …

ApoE4 actually enters the nucleus and downregulates the production of this critical molecule, so you can see one of its many effects on Alzheimer’s disease. Well, when SIRT1 is made, it is actually made in an autoinhibitory fashion. It’s just like having a gun in a holster. It’s not active … NAD activates the SIRT1.

So does resveratrol. This is why people take resveratrol [or] nicotinamide riboside. These are both activating this program, which is moving you from … more of a pro-inflammatory approach to a longevity approach — a change in your metabolic pattern. That includes activating things like autophagy and also having an anti-Alzheimer’s and a pro-longevity effect …

[Q]uercetin also has an interesting impact on senescent cells … I think that that’s going to turn out to be an important way to impact a number of age-related conditions, including neurodegeneration.”

The drawback, and the reason you cannot rely on supplements alone, is that the bioabsorption of these polyphenols, like quercetin for example, is quite low. Oftentimes, you cannot absorb enough to get the full benefits.

Limit Electromagnetic Field Exposures

There’s also convincing evidence showing electromagnetic field exposures (EMFs) such as that from cellphones and Wi-Fi play an important role. Bredesen agrees, and recommends his patients limit such exposures. In summary, EMFs activate your voltage-gated calcium channels, allowing the release of excess nitric oxide and superoxide in the cell, resulting in the creation of peroxynitrite.

Peroxynitrite causes similar damage to your DNA as ionizing radiation. It also damages your stem cells, mitochondria, proteins and cell membranes. Poly-ADP ribose polymerase helps repair DNA damage by extracting an adenosine diphosphate (ADP) molecule from NAD. Approximately 100 to 150 NAD are required to repair a single DNA break.

While this process works quite well, problems arise when continuous DNA damage requiring continuous PARP activation occurs, as this ends up decimating your NAD+ level. Bredesen adds:

“This is a critical area. The big problem we’ve had with this so far is that we can measure your NF-κB activation; we can measure your status of hormones, nutrients, magnesium, on and on and on. Typically, with our approach, we measure 150 different variables.

There is no simple way to measure the effect of EMF on a given person’s nervous system. I look forward to the day when we can do a test and say, ‘Aha. This person has 27.2 on their effects on their voltage-gated calcium channels because of EMFs.’ Because then we’ll really be able to alter that.

For now, the best we can say is — just as we go after biotoxins and chemotoxins — [EMF] is a physical toxin. The best we can say is, ‘Minimize that to the extent you can.’ You can certainly measure the exposure. We just don’t have a good way yet to measure its effect on your brain.”

More Information

There’s no decline in sight for Alzheimer’s, at least in the foreseeable future, so it would behoove most people to just assume you’re headed for it and take action now, regardless of your age, to prevent it. When it comes to Alzheimer’s, prevention is surely far easier than trying to treat it once it has set in. As noted by Bredesen:

“This is all about prevention and early reversal. Those are the people where we see virtually 100% response. This is why I think there needs to be a global effort to decrease the burden of dementia. We’re just now starting a clinical trial. We’ve been trying to get institutional review board (IRB) approval for years …

It has finally been approved, so we’re starting a trial with Dr. Ann Hathaway, Dr. Deborah Gordon and Dr. Kat Toups, who are all seeing patients. We’re very excited to see what the trial will show with this approach. Because certainly, anecdotally, we’re hearing it all the time.

As you mentioned, we just published a paper a few months ago on 100 patients who showed documented improvement … I’m convinced we could, today, if everyone got an appropriate prevention, make this a very rare disease.”

Bredesen’s case report13 is open access, so you can download and read the full study. His book, “The End of Alzheimer’s: The First Program to Prevent and Reverse Cognitive Decline,” also provides the details, and would be a valuable reference in anyone’s health library.

You can also learn more about Bredesen and his work by following him on Facebook, Twitter or visit his website, drbredesen.com. Last but not least, read his book, “The First Survivors of Alzheimer’s: How Patients Recovered Life and Hope in Their Own Words,” which features first-person accounts from patients diagnosed with Alzheimer’s who beat the odds and improved.

– Sources and References

Researchers Discover Balsam Fir Needles Kills Ticks

https://www.globallymealliance.org/news/balsam-fir-needles-can-kill-ticks-that-cause-lyme-disease-dalhousie-researcher

New study concludes oil in balsam fir needles is effective in preventing ticks from surviving winter

Written by CBC News. Photo credit @Amal El Nabbout

When Nova Scotia scientist Shelley Adamo noticed ticks avoid balsam fir trees, her professional instincts kicked in.

Adamo, a professor in the department of psychology and neuroscience at Dalhousie University in Halifax, said she noticed ticks often didn’t survive winter on her South Shore property which has thick stands of balsam fir trees.

Adamo said she had a “realistic hunch” that she should study the effects of balsam fir trees on Ixodes scapularis, the blacklegged tick that is a vector for Lyme disease. First discovered in Lyme, Conn., in the 1970s Lyme disease is now a common tick-borne disease that can cause fever, joint pain, rash and other longer-lasting effects.

The results of a three-year study into how balsam fir needles could help control tick populations was published on July 29 in Scientific Reports. Adamo spoke to Emma Smith of CBC Radio’s Mainstreet NS about what she discovered.

What did you do to determine that these balsam fir needles could could kill blacklegged ticks? 

We tested them by collecting ticks and then we would put them in incubators and give them like a winter kind of experience.

We put them in tubes and then we put the balsam fir in with them and they died.

Then we tried it outdoors as well. So we worked with people at the Harrison Lewis Centre who were very good to us. They’re down in the Port Joli area between Liverpool and Shelburne, a real hotspot for Lyme.

We collected the ticks locally so we weren’t adding ticks at least, and we put them in their own little tubes so they couldn’t get out. But it was mesh so that snow and rain could fall in.

We put them in the tubes with balsam fir and put them out in December and collected them in March and we looked to see who lived and who died.

Some ticks got a little layer of oak and maple leaves, which is what they like. And some of them got a layer of of balsam fir. The ones that got to live with the balsam fir needles died. Pretty much all of them.

This could be a natural-product way to try to reduce the load of these potentially Lyme carrying ticks.

When you collected those tubes in the spring, the ones that had the maple and oak leaves, were those tick still alive?

They don’t all live. But surprisingly for ticks that evolved much further south, they actually can survive fairly well in in our Nova Scotian winters.

We vary quite a bit from year to year but our survival in the maple and oak was sometimes 60 per cent, sometimes 80 per cent, whereas the survival in the balsam fir was basically zero.

To read the full story from CBC News, click here.

To read GLA’s blogs, click here.

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For more:

Gallic Acid for Lyme Study

https://www.mdpi.com/1422-0067/23/19/10987

Inhibition of Borrelia Burgdorferi-Induced TLR2-NFκB Canonical Signaling by Gallic Acid through Targeting the CD14+ Adaptor Protein and p65 Molecule

Department of Infectious Diseases, Dr. Rath Research Institute, San Jose, CA 95138, USA
*Authors to whom correspondence should be addressed.
Academic Editor: Natália Cruz-Martins
Int. J. Mol. Sci. 2022, 23(19), 10987; https://doi.org/10.3390/ijms231910987
Received: 29 August 2022 / Revised: 12 September 2022 / Accepted: 14 September 2022 / Published: 20 September 2022
(This article belongs to the Special Issue Molecular Mechanisms of Anti-inflammatory Phytochemicals 2.0)
The cases of Lyme disease caused by Borrelia burgdorferi infection have been increasing throughout Northern America and Europe. This pathogen, if not treated in a timely manner with antibiotics, can cause persisting and debilitating health outcomes. In the search for novel agents against B. burgdorferi, we investigated a phenolic compound—gallic acid—for its anti-Borrelia and anti-inflammatory effects. Our results showed its biocidal effect starting from 100 μg/mL against active spirochetes, persisters/round-shaped bodies, and biofilm like aggregates of B. burgdorferi sensu stricto. Activation of macrophages by live B. burgdorferi also resulted in a robust NFκB-dependent proinflammatory responses seen in increased production of cytokines. Using human CD14+ macrophages in vitro, we showed that CD14+ adaptor and phosphorylated p65 molecule are impeded at nonbiocidal and noncytotoxic concentrations of gallic acid, resulting in the inhibition of both expression and secretion of cytokines IL1β, IL6, and TNFα. Our findings demonstrate efficacy of gallic acid against B. burgdorferi and provide potential mechanistic insight into its TLR2/CD14+-NFκB mediated mode of action. Further studies on the potential of gallic acid as a safe and effective compound against Borrelia-caused infection are warranted. View Full-Text
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**Comment**
Gallic acid is an antioxidant and phenolic compound found in many foods including:
  • numerous fruits (strawberries, grapes, bananas, blueberries, apples, mangos, pomegranates, mulberries, guavas, blackcurrants, and avocados)
  • nuts: walnuts, cashews, hazelnuts
  • red wine
  • green tea

It’s been known that it may help modulate the immune system and act as a natural defense against microbial infections including foodborne pathogens like Campylobacter, Escherichia coli, Listeria monocytogenes, and Staphylococcus aureus, and pseudomonas, as well as a bacteria found in your mouth called Streptococcus mutans.  It also appears to be anti-inflammatory, anti-cancer, reduce oxidative stress and fat storage in the obese by improving insulin signaling, and neuroprotective.   Source

This recent study showed that Quercus infectoria gall (Aleppo Oak) and its active constituent, gallic acid, showed remarkable activity against vaginal pathogens: Candida spp., Gardnerella vaginalis, Escherichia coli, Staphylococcus aureus, Streptococcus agalactiae, Trichomonas vaginalis and Lactobacillus acidophilus.  

The study mentions: The antimicrobial and anti-trichomonas activity of extract was more than gallic acid. It seems that ethanolic extract of Quercus infectoria gall could inhibit the growth of vaginal pathogens.

Regarding this specific small tree, galls form on young branches when gall wasps sting the tree and deposit their larvae causing a chemical reaction with resulting hard balls (galls) to be formed.  These galls contain the highest naturally occurring level of tannin, as well as a number of other compounds including about 2-4% of gallic and ellagic acid.  Once again showing the marvels of nature in producing things that help human health.