Archive for the ‘Lyme’ Category

Volleyball Player ‘The Phoenix’ Rises From the Ashes of Lyme Disease

https://www.washingtonpost.com/sports/2021/03/26/after-years-battling-lyme-disease-this-volleyball-player-is-back-has-loudoun-county-undefeated/

After years battling Lyme disease, this volleyball player is back and has Loudoun County undefeated

March 26, 2021

For the past three years, Loudoun County’s volleyball team has had a tradition in which players assume call signs that represent their personality or story. Each player’s navy blue warmup shirt has that word scrawled on the back.

For senior Ella Solomon, Coach John Senchak chose the phoenix — a mythological bird known for ascending from its ashes. It is fitting, given Solomon’s journey from being bedridden with chronic Lyme disease to becoming a key contributor for the Captains.

“She’s our motivation to keep going because of what she’s been through,” senior teammate Alicia McCandless said.

Neither Solomon nor her parents recall a particular moment she started to feel sick or remember seeing a tick, which causes Lyme disease. But the symptoms certainly presented.

Solomon had nagging headaches daily for more than six years, prompting her parents to go to Johns Hopkins Children’s Center in Baltimore for answers. When Solomon received Lyme tests from doctors, the results were negative.

“The tests aren’t super accurate,” said her mother, Regina. “It may not be in your bloodwork at the moment, but it is still in your body.” (See link for article)

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**Comment**

Keep fighting – there is hope!

Lyme Disease & Biofilms: What You Need to Know

https://rawlsmd.com/health-articles/understanding-biofilm?

Lyme Disease + Biofilms: What You Need to Know

by Dr. Bill Rawls
Updated 3/30/21

If you’ve tried everything to get well to no avail, chances are you’re feeling frustrated, confused, and exhausted. After all, which stone could you possibly have left unturned? Many people blame their persistent symptoms of chronic Lyme disease on the slimy collections of microorganisms known as biofilms, as suggested in the recent review article in Frontiers in Neurology.

But are biofilms really what’s stopping you from getting better? Here, we’ll take a closer look at these micro-communities to understand what they are and how they contribute to certain chronic illnesses. Though biofilms are interesting, the role they actually play in chronic Lyme disease may be minor.

What Are Biofilms?

Biofilms are colonies of microbes. They chiefly contain bacteria, but biofilms can also include protozoa and fungi. Biofilms form anywhere there is moisture and a surface. In other words, everywhere — including many surfaces inside the human body. The ring inside your toilet bowl and plaque on your teeth are examples of biofilm.

Certain types of bacteria initiate biofilms that can attach to a moist surface with specialized adhesion structures called pili. Once adhered to the surface, bacteria stick together and produce a matrix of slime called extracellular polymeric substance (EPS). After the matrix has been established, other kinds of microbes can join, creating a structured community. To get a sense of how a biofilm operates, imagine a crowded dance floor with bodies squeezed together, forming a uniform mass, swaying to the rhythm of the music.

A polysaccharide shell on the biofilms’ surface protects the organisms inside from starvation, drying out, the immune system, and antibiotics. The surface can include minerals, such as calcium, and blood products, including fibrin. Safe inside the biofilm, microbes are free to mingle and exchange information. Communication between bacteria, called quorum sensing, is accomplished by signaling molecules. Once a community is formed, particular groups of microbes take on specialized roles of performing metabolic functions for the entire unit. For example, water channels develop within the biofilm for moving nutrients and signaling molecules. The biofilm grows by cell division and recruitment of new individuals.

Reasons Microbes Form Biofilms

  • Conserve nutrients and energy and avoid starvation
  • Bypass the host’s immune system
  • Avoid antibiotics
  • Join forces with other microbes and increase the chances of long-term survival

In essence, the biofilm becomes an organism unto itself. Biofilms are as ancient as any lifeform. They were likely the bridge between single-cell organisms and higher multi-cell organisms.

How Biofilms Work

Biofilms cause illness by damaging the surfaces to which they attach. Additionally, if a biofilm matures and becomes massive enough, it can cause obstructions in organs or impede the function of medical equipment such as stents or catheters. Once a biofilm reaches a certain size (maturation II stage), it disperses, allowing inhabitants to spread and colonize other surfaces. As a means of survival, bacteria in the body are always trying to form new biofilms, and the immune system is constantly working to break them down.

The following graphic illustrates the 5 stages of biofilm development:
circle map with arrows connecting five circles. 1. Initial attachment 2. Irreversible attachment 3. Maturation I 4. Maturation II 5. Dispersion

Common Biofilm Diseases

Typical biofilm diseases occur where there are surfaces and moisture present for the biofilm to form. Examples of biofilm diseases include:

  • Bacterial vaginosis: Associated with biofilm in the vaginal wall.
  • Chronic urinary tract infections: Biofilm on the bladder wall is a contributing factor.
  • Middle-ear infections: Biofilms are linked to chronic middle-ear infections.
  • Heart valve infections: Microbes may attach and form biofilms on heart valves or tissues surrounding the heart.
  • Chronic vertigo: Caused by calcium deposits in the inner ear and may be a form of biofilm.
  • Dental plaque and gingivitis: Classic examples of biofilm found in the mouth.
  • Chronic sinusitis and chronic bronchitis: Associated with biofilm in sinuses and bronchial tubes.
  • Arterial plaque buildup: Responsible for heart attacks and stroke, arterial plaques have many characteristics of biofilm and are often found to harbor bacteria.
  • Hospital infections: Indwelling devices such as catheters are associated with biofilms.

Biofilms readily occur in the intestinal tract. In fact, the formation of biofilms in the colon and appendix is quite normal and supported by the immune system.

Is There a Link Between Lyme Disease and Biofilms?

There has been a lot of talk on Lyme forums about Lyme disease being a biofilm disease. This idea stems primarily from a study done in a lab showing Borrelia, the bacteria associated with Lyme disease, could participate in forming a biofilm.

No doubt, Borrelia can form a biofilm inside a test tube. Forming and participating in biofilm is a natural trait for almost any bacteria. Indeed, if you can’t join in on a biofilm, you’re not much of a bacteria. But most of the symptoms associated with chronic Lyme disease aren’t consistent with biofilm diseases. Biofilms cause localized symptoms primarily by damaging the surface they adhere to. Symptoms of chronic Lyme disease are systemic.

White blood cells, red blood cells, and in blood stream, borrelia disrupting immune system communication.

The symptoms of chronic Lyme disease and persistence against antibiotics are best explained by the fact that Borrelia is an intracellular bacteria. When the Borrelia spirochetes enter the bloodstream, they hitch a ride inside white blood cells and travel to tissues throughout the body, including the brain. Once they arrive at targeted tissue sites — heart, brain, joints, muscles — they emerge and infect other cells. Inside the cell, they can lose their wall and become an l-form bacteria. This, and being shielded inside the cell, provide protection from antibiotics and immune system functions.

The bacteria cannibalize the cell to generate new microbes and then emerge to infect other cells.

Symptoms of chronic Lyme disease are caused not only by bacterial activity invading cells, but also by the immune system’s efforts to eliminate cells that have been infected with bacteria.

The concentrations of cells that have been infected with bacteria, compared to normal cells, is not great. Considering the bacteria are a hundred times smaller than our cells, even millions of bacteria spread out among the trillions of cells in the body isn’t a high concentration of bacteria — tissues are only lightly peppered with infected cells. To take out infected cells nestled among normal cells, the immune system targets the abnormal cells with antibodies, but in the process, there is collateral damage to normal cells. In other words, autoimmunity. Research suggests that the autoimmune phenomenon may be a significant driver of symptoms of chronic Lyme disease.

In addition, bacteria manipulating the immune system to generate cytokines and inflammation may be another contributing factor to Lyme disease symptoms. Inflammation breaks down tissues and allows the bacteria to access vital nutrients from our cells.

The fact that chronic Lyme symptoms are most consistent with Borrelia existing as an intracellular bacteria suggests that this is the primary reason as to why Borrelia is persistent in the body. Participation in biofilm and being able to form an antibiotic resistant cyst form likely also contribute to antibiotic resistance, but these may not be primary factors.

Biofilms may be most relevant to intestinal symptoms that usually accompany Lyme disease and skin diseases like Morgellons that’s sometimes associated with the tick-borne infection. Calcium deposits in the inner ear causing dizziness may also be related to biofilm.

Dealing with Biofilms

Though Lyme disease is not a standard biofilm disease per se, there’s nothing wrong with supporting the body’s ability to deal with biofilms during any illness. A healthy immune system is the best way to slow the formation of biofilm in the body. The immune system is always breaking down new biofilms that start to form — it’s part of the everyday struggle of life.

The following are my preferred herbs and supplements to supports the body’s efforts to break down biofilms:

zoomed in pineapple skin

1. Proteases

Proteases are enzymes that break down proteins. It is thought that proteases may be beneficial for breaking down the outer coating of a biofilm, especially in the gut. Common natural proteases that are available in supplement form include bromelain (from pineapple), nattokinase, and serrapeptidase. Proteases also break down immune complexes in the blood and reduce inflammation.

cell diagram of N-Acetyl Cysteine (NAC)

2. N-Acetyl Cysteine (NAC)

A potent antioxidant and anti-inflammatory, n-acetyl cysteine (NAC)is known to break up mucus and may also play a role in dissolving biofilms. It also protects nerve tissue and liver function.

three overlapping image circles. cats claw, japanese knotweed, and chinese skullcap

3. Antimicrobial Herbs

The best way to overcome chronic Lyme disease, including the possibility of biofilm formation, is persistent use of herbs with antimicrobial properties. The herbal advantage is that herbs suppress pathogens without disrupting normal flora and therefore can be used for prolonged periods of time (years) without adverse side effects. Herbs also protect cells from free radical damage and other stressors, modulate immune system functions, reduce inflammation, and erode away at biofilms. Common herbs with documented activity against Borrelia include Japanese knotweed, cat’s claw, and Chinese skullcap.

The Bottom Line

Ultimately, the idea that patients must aggressively hammer away at biofilms with harsh drugs and treatments to see improvements in symptoms may not be a sustainable or beneficial approach for most people. Blasting biofilms with strong chemicals and potent antibiotics has the potential to backfire because it can disrupt the balance of normal flora in the body and inadvertently suppress immune system functions.

In contrast, by supporting a healthy immune system with herbal therapy and a few select supplements, you can etch away at biofilms that may be present, while addressing other more significant underlying causes of your symptomsuntil they’re gone without setting yourself back for days or weeks at a time.

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. Supi et al, Characterization of Biofilm Formation by Borrelia burgdorferi, In Vitro, PLOS-one, Oct 24, 2012
2. Karatan E, Watnick P, Signals, Regulatory Networks, and Materials That Build and Break Bacterial Biofilms, Microbiology and Molecular Biology Reviews, June 2009, Vol 73 (2), P. 310-347
3. Lennox J, Biofilm Development, Biofilms: The Hypertextbook, Web, May 2011
4. Costerton, Stewart, Greenburg, Bacterial Biofilms: A Common Cause of Persistent Infections, Science, May 1999, Vol 284 (5418) p. 1318-1322
5. Sapi, MacDonald, Biofilms of Borrelia burgdorferi in chronic cutaneous borreliosis, Am J Clin Pathol, 2008, 129, p. 988-989
6. Hoyle, Costerton, Bacterial resistance to antibiotics: the role of biofilms, Prog Drug Res, 1991, 37, p. 91-105
7. Kurti, Munderloh, Ashstrand, Colony formation and morphology in Borrelia burgdorferi, J Clin Microbiol, 1987, 25, p. 2054-2058
8. Figure copyright 2006 Keith Kasnot, MA, CMI, FAMI
9. Image source: http://nutritionreview.org/2014/08/gingivitis-gum-health/
10. Di Domenico EG, Cavallo I, Bordignon V, et al. The Emerging Role of Microbial Biofilm in Lyme Neuroborreliosis. Front Neurol. 2018;9:1048. Published 2018 Dec 3. doi: 10.3389/fneur.2018.01048
11. Datar A, Kaur N, Patel S, Luecke D, Sapi E. In Vitro Effectiveness of Samento and Banderol Herbal Extracts on the Different Morphological Forms of Borrelia Burgdorferi. Townsend Letter, the Examiner of Alternative Medicine. July 27, 2010.
12. Rudenko N, Golovchenko M, Kybicova K, Vancova M. Metamorphoses of Lyme disease spirochetes: phenomenon of Borrelia persisters. Parasit Vectors. 2019;12(1):237. Published 2019 May 16. doi: 10.1186/s13071-019-3495-7
13. Markova ND. L-form bacteria cohabitants in human blood: significance for health and diseases. Discov Med. 2017 May;23(128):305-313. PMID: 28715646.
14. Rivera OJ, Nookala V. Lyme Carditis. 2020 Oct 3. In: StatPearls [Internet]. Treasure Island (FL): StatPearls Publishing; 2020 Jan–. PMID: 31536195.
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**Comment**
Patients often struggle with whether they should go after biofilms or not.  I had this same struggle myself and still do not have a definitive answer.  I know patients who didn’t notice a thing after treating biofilms and others who had great progress.  Herein lies the challenge: what works for one, doesn’t work for another.  We are a conundrum to treat for sure.
I’ve taken everything mentioned in Dr. Rawl’s article for various reasons throughout my journey.  The ones I’ve stuck with are NAC and proteases as both supplements do a myriad of things simultaneously.
I’ll never forget Master Herbalist Stephen Buhner’s advice in the need to find a sophisticated treatment that does many things simultaneously.  I believe he’s absolutely correct.  This saves time and money.
For more on NAC:

For more on Systemic Enzymes (proteases):

New Lyme Disease Test Distinguishes Between Early and Late-Stage Disease

ihttps://medicalxpress.com/news/2021-04-lyme-disease-distinguishes-early-late-stage

New Lyme disease test distinguishes between early and late-stage disease

April 7, 2021

Lyme disease

For those who live in an area blighted by ticks, the threat of Lyme disease can cast a shadow over the joy of spring and summer. These blood-sucking arachnids can transmit bacteria into the bloodstream of their unsuspecting host, causing the disease. Early treatment is essential, but current tests are not usually sensitive enough to detect the disease in early-stage patients. A recent study in open-access journal Frontiers in Microbiology reveals a new test for Lyme disease, which is the first to reliably distinguish between early- and late-stage patients. The test detects a genetic sequence left by a virus that resides in Lyme-causing bacteria, and can detect just one bacterial cell in a small blood sample.

As the most common tick-borne infection, Lyme affects nearly 500,000 people in the U.S. every year. Symptoms include fever, fatigue, joint pain, and a distinctive ‘bullseye’ rash, but if left untreated, the disease can cause paralysis and even death. As such, is important, but difficult.

“Early diagnosis of Lyme disease is absolutely vital in reducing suffering, because early Lyme can be treated, but late Lyme is very difficult to treat,” explained Dr. Jinyu Shan of the University of Leicester, lead author on the study. “Current tests cannot typically detect the low numbers of bacteria in early-stage patient blood samples. Our goal was to design a highly sensitive to help doctors to identify Lyme disease as early as possible.” (See link for article)

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Study here: https://madisonarealymesupportgroup.com/2021/03/31/targeting-multicopy-prophage-genes-for-the-increased-detection-of-borrelia-burgdorferi-sensu-lato-the-causative-agents-of-lyme-disease-in-blood/

Evidently the test is unique in that it is based on prophages that have a genetic sequence inserted into the bacteria by a virus which can escape the bacteria, and is more likely to be picked up in the blood due to having multiple copies within cells.

They found the test is sensitive and can detect one bacterial cell in .3 mL of blood.  Infected patients have between 1-100 bacterial cells per mL of blood.

The test is the first to distinguish between healthy, early-stage, and late-stage samples.


I must admit that the debacle with PCR testing for COVID has made me extremely skeptical and wary.  I hope that this isn’t too good to be true.  Time will tell.

Tick-borne Diseases & Coinfection: Current Considerations

https://www.sciencedirect.com/science/article/abs/pii/S1877959X20304775

Tick-borne diseases and co-infection: Current considerations

Abstract

Over recent years, a multitude of pathogens have been reported to be tick-borne. Given this, it is unsurprising that these might co-exist within the same tick, however our understanding of the interactions of these agents both within the tick and vertebrate host remains poorly defined. Despite the rich diversity of ticks, relatively few regularly feed on humans, 12 belonging to argasid and 20 ixodid species, and literature on co-infection is only available for a few of these species. The interplay of various pathogen combinations upon the vertebrate host and tick vector represents a current knowledge gap. The impact of co-infection in humans further extends into diagnostic challenges arising when multiple pathogens are encountered and we have little current data upon which to make therapeutic recommendations for those with multiple infections. Despite these short-comings, there is now increasing recognition of co-infections and current research efforts are providing valuable insights into dynamics of pathogen interactions whether they facilitate or antagonise each other. Much of this existing data is focussed upon simultaneous infection, however the consequences of sequential infection also need to be addressed. To this end, it is timely to review current understanding and highlight those areas still to address.

Excessive Thirst & Lyme Disease

https://globallymealliance.org/excessive-thirst-and-lyme-disease/

by Jennifer Crystal

One of my earliest symptoms of tick-borne illness was excessive thirst. It was also one of the most prolonged, because it was so readily brushed off.

A few weeks after I developed a blotchy red rash on my right forearm while working at a summer camp in Maine, I had a low blood sugar reaction. At the time, neither the camp nurse nor I thought to link the two events; it would be another eight years before I’d learn that both were the result of a tick bite that caused Lyme disease, babesiosis, ehrlichiosis and possibly bartonella. That first low blood sugar reaction was followed by many others that summer. Along with them came increased thirst.

I was tested for diabetes, which I did not have. When my symptoms did not fit into the most obvious box—low blood sugar and thirst are commons signs of diabetes—doctors did not look for other root causes. No one looked into possibilities like thyroid or adrenal imbalances. I was simply told to keep little snacks on hand, and to not drink so much water.

“But I’m so thirsty,” I told doctors. “I don’t drink excessive amounts of water because I think I should. I drink it because I have to.” At times I was drinking upwards of twenty glasses of water a day and still craving more. If I drank any less, I got headaches and felt even more lethargic than I otherwise did with the flu-like fatigue that had developed after that summer. Despite the fluid intake, my urine was often concentrated.

“Find something else to wet your mouth,” one doctor told me. “Try hard candies.” My mouth wasn’t dry; my body needed fluid, but no health professional seemed interested in finding out why.

To combat the continued hypoglycemia, I consumed a lot of sugar—not understanding that the subsequent spike in blood sugar would trigger another drop, creating a vicious cycle—which caused me to be even thirstier. But even when I eventually stabilized my blood sugar (link: https://globallymealliance.org/stabilizing-blood-sugar-hypoglycemia-lyme-babesia/) by following a lower glycemic diet, eating smaller meals throughout the day, and balancing carbohydrates with protein, my excessive thirst persisted. By then my hypoglycemia and on-and-off flu were part of a long list of growing symptoms, including migraine headaches, systemic hives, difficulty concentrating and other neurological impairments. Doctors treated each of them individually and topically—or told me they were all in my head.

My water bottle became my security blanket. Friends teased me for carrying it everywhere, joking that I couldn’t even make a trip to the mailbox without it.

When a Lyme Literate Medical Doctor (LLMD) finally put all of my symptoms together and discovered their root cause, he also found that my adrenals were shot and my thyroid was low. The excessive thirst finally had an explanation.

Once I started antibiotic treatment, I did still get very thirsty—both because of the infections I was fighting and the medications causing dry mouth—but over time, my need for water decreased.

I still drink more than most people and never leave my water bottle at home. I also balance out regular water with electrolyte-infused water, to make sure that my sodium and potassium levels stay regulated. Reduced infection and increased thyroid and adrenal function have helped my body, and my extreme thirst, to normalize over time.

Thirst can be a sign of any number of issues. Whatever the root cause, it means that something is off in the body. When your body gives you that kind of signal, don’t let doctors brush you off. No one knows your body better than you do. Listen to your symptoms, voice them to your practitioners, and don’t give up until you find an answer.

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jennifer crystal_2

Opinions expressed by contributors are their own.

Jennifer Crystal is a writer and educator in Boston. Her memoir about her medical journey is forthcoming. Contact her at lymewarriorjennifercrystal@gmail.com.