Archive for the ‘Treatment’ Category

Recap of the 20th Annual ILADS Conference

https://globallymealliance.org/highlights-from-ilads-2019/?

By Jennifer Crystal

A RECAP OF THE 20TH ANNUAL ILADS CONFERENCE

From November 1 to 3, I had the opportunity to attend the 20thannual International Lyme and Associated Diseases Society (ILADS) conference in Boston. Tick-borne disease can feel isolating for patients and caregivers, and for doctors who are trying to help them in areas where Lyme isnt historically endemic. However, the conference assured me that the Lyme community is not only thriving, but making great strides on behalf of its most important members: patients like you and me.

In the coming months, Ill be writing in-depth blog posts on specific topics covered at the conference. For now, I want to share my general takeaways:

NEW TREATMENT METHODS

Antibiotics have long been the standard course of treatment for Lyme and other tick-borne diseases (sometimes used in conjunction with other types of medications, including antimalarials for certain co-infections). We know unequivocally that antibiotics kill borrelia burgdorferi, the Lyme bacteria. In fact, Eva Sapi, Ph.D., Director of the Lyme Disease Program and Professor in the Biology and Environmental Science Department at the University of New Haven, showed images of Lyme spirochetes being treated with penicillin. First they wiggled, coiled, and fought the treatment, but eventually, they disappeared.

Despite the efficacy of antibiotics against Lyme, they have their limits, especially in patients with late-stage infections. Dr. Sapis research has demonstrated that Lyme bacteria can create biofilms (like a greasy buildup, similar to dental plaque) that form around the bacteria, acting as a barrier against antibiotics. Furthermore, some patients who receive antibiotic treatment still experience ongoing symptoms, or a relapse of symptoms, after finishing the standard antibiotic treatment protocol (known as Post Treatment Lyme Disease Syndrome). Therefore, researchers and doctors are exploring new methods of treatment. Leading Lyme expert Kenneth Liegner, M.D., a Board-certified internist with additional training in pathology and critical care medicine, said the solution is not denial but design of more effective and less costly treatments.”

Based on research (funded by Global Lyme Alliance) by Kim Lewis, Ph.D., Director of the Antimicrobial Discovery Center at Northeastern University, and on work by Stanford University researchers, some LLMDs are trying the antimicrobial drug Disulfiram.More commonly known as Antabuse, this medication is used to treat alcoholism and has proved highly effective against Lyme disease. It may possibly undermine biofilms, and it also seems to help treat babesia. Dr. Liegner has published his experience with three cases in which he used Disulfiram. He and other doctors are seeing great success with it, with some patients enjoying enduring remission (feeling well for at least six months after treatment). However, there can be serious side effects that should be discussed with your LLMD, and there are still a lot of unanswered questions about the drug. My sense from speaking with doctors is that there will probably be at least another year or two of research before we have definitive answers on this drug, but early news is promising.

An antibacterial drug that also got a lot of buzz at ILADS was Dapsone. Richard Horowitz, MD, author of Why Can’t I Get Better: Solving the Mystery of Lyme and Chronic Disease and its sequel, is studying the effects of antibiotics and Dapsone both in combination and alone. He and Phyllis Freeman, Ph.D., Associate Professor of Biology and Curriculum Coordinator of Biology in the Department of Life and Physical Sciences at Fisk University, have published results of these studies in the International Journal of General Medicine. For further information, read this GLA press release on drugs and drug combinations that show success in treating Lyme.

Another alternative to antibiotics that is being studied is phage treatment.Phages are viruses that infect bacteria. In his talk, Specific Phages as New Strategies for Diagnostics and Treatment,” Louis Teulieres, M.D., Ph.D., of the Department of Infection, Immunity, and Inflammation at the University of Leicester, said phages are used in molecular biology in many countries; one was found for borrelia in Sweden.

UP-AND-COMING DIAGNOSTIC METHODS

While its unlikely that well be able to treat Lyme by injecting a live virus into the body, phages may be useful as a diagnostic tool. If phages dont find bacteria, they die, so their ability to live is a good indicator of whether Lyme bacteria are present. Dr. Teulieres and his team are working on creating a phage-based diagnostic test.

Other researchers are working on biology-based diagnostic tools. James Collins, Ph.D., of the Institute for Medical Engineering at the Massachusetts Institute of Technology, who is associated with the Broad Institute, also of MIT, Harvard and The Wyss Institute, is looking at using human cells as programmable technology. His company Sherlock Biosciences is teaming with Sabeti Labs to create a paper-based diagnostic tool that can be used in a doctors office. This type of detection was used in diagnosing the Zika virus, and scientists are now looking at applying it to tick-borne diseases. While the project is still 12-18 months from initial clinical trials, its exciting to know that possibilities for better diagnostics are on the horizon.

COLLABORATION, WITH TANGIBLE RESULTS

As described in “The Lyme Wars” (New Yorker, 1 July 2013) the Lyme community is polarized, and even within each camp, there hasnt always been harmony or good communication. In her talk,One Health: Forming Collaborations that Transcend Disciplinary Boundaries,” Cheryl Stroud, D.V.M, Ph.D. said doctors and researchers can sometimes get stuck inside their respective professional silos”. They do important work side by side but dont have the opportunity to see or discuss what the other is doing despite proximity in the field. She encouraged conference attendees to step out of [their] silos and see the big picture.” This is the mission of the One Health Commission, which Dr. Stroud chairs.

The Centers for Disease Control and Prevention defines One Health as … a collaborative, multisectoral, and transdisciplinary approach—working at the local, regional, national, and global levels—with the goal of achieving optimal health outcomes recognizing the interconnection between people, animals, plants, and their shared environment.” As a veterinarian who sees a lot of tick-borne disease, Dr. Stroud feels she has important information to share with our Lyme doctors, and vice-versa. She encouraged LLMDs to broaden their intake questionnaires to include animal exposure (a patients dog may have been carrying a tick, or the patient may have bartonella henselae, also known as cat scratch fever).

This big-picture collaboration is something Kristen Honey, Ph.D., P.M.P. is working on as Vice-Chair of the Department of Health and Human Services (HHS) Tick-Borne Disease Working Group, established by the United States Congress in 2016. Through her role with HHS, Dr. Honey co-founded Lyme Innovation, whose mission is to solve the critical prevention, diagnostic, treatment, and rehabilitation challenges in the Lyme disease field.” Dr. Honey stressed the importance of putting patients at the center of this problem solving, stating that the lived experience of a patient or caregiver is equally as valuable as an MD with credentials. When we put the patient at the center, we get better outcomes.”

In December 2018, HHS’s Chief Technology Officer hosted the first-ever Lyme Innovation Roundtable, bringing together 80 Lyme leaders including patients, clinicians, researchers, caregivers, and policymakers. In the last year, Lyme Innovation has focused on creating patient-powered technology and innovation, including the Lyme Symptom Tracker app, co-created with Trial X and Global Lyme Alliance. Lyme Innovation helped bring the TICK (Ticks: Identify, Control and Knockout ) Act to the U.S. Congress. Recently renamed the Kay Hagan TICK Act bill in honor of Senator Kay Hagan (D-NC), who passed away in late October from complications of the tick-borne Powassan virus, the bill seeks to improve research, prevention, diagnostics, and treatment for tick-borne diseases, and includes a request for $100M for tick research. Just as the ILADS conference concluded, the Senate Health Committee voted unanimously to advance this legislation; it nows moves to the full Senate.

Moving forward, Dr. Honey notes the importance of collaboration between industry, non-profits, academia, patients, and patient advocates. I feel confident she will continue to lead the charge on bringing people together to effect positive change. She ended her talk by saying, I look forward to co-creating solutions with you,” and later offered a smaller session, Together, Transforming Lyme Anecdotes into Data and Action,” where she opened up a dialogue with attendees, asking what they most needed from the government (answers included funding and a standardized reporting protocol). Dr. Honey seems committed to creating innovation and finding funding that will help patients get and stay well.

Overall, I left the conference feeling incredibly hopeful. I first attended an ILADS conference in 2012, and I am so pleased with the progress that has been made in the interim. As Dr. Horowitz said, 

Researchers out there doing work on biofilms and persisters allow clinicians like me to make advances. Were very close to a durable answer.”


jennifer crystal_2Jennifer Crystal is a writer and educator in Boston. Her memoir about her medical journey is forthcoming. Contact her at lymewarriorjennifercrystal@gmail.com

 

 

 

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**Comment**

Please learn about Disulfiram before considering it. This $40 drug caused me to go into psychosis and probably cost me $20K overall:  https://madisonarealymesupportgroup.com/2019/10/14/november-2019-lyme-support-meeting-oct-meeting-canceled-due-to-reaction-to-disulfiram/

https://madisonarealymesupportgroup.com/2019/10/15/disulfiram-psychosis-update/

https://madisonarealymesupportgroup.com/2019/10/27/disulfiram-psychosis-update-2/

 

 

 

Serendipitous Treatment of Tularemia in Pregnancy

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6804751/

Serendipitous Treatment of Tularemia in Pregnancy

Published online 2019 Sep 24. doi: 10.1093/ofid/ofz413

Abstract

We present a young pregnant woman who developed ulceroglandular tularaemia following a bite wound from a kitten. She grew Francisella tularensis from the ulcer. While awaiting bacterial culture results and serology for Bartonella, she was treated with azithromycin, with resolution of fever and axillary tenderness. Treatment recommendations for tularemia are either gentamicin or doxycycline, both of which can be perilous to the fetus. A Centers for Disease Control and Prevention report on the macrolide susceptibility of North American isolates of this organism has been underappreciated. The unanticipated result from this patient may give another potential option for treatment of tularemia in pregnancy.

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Please know ticks transmit Tularemia:  https://madisonarealymesupportgroup.com/2019/02/18/tularemia-in-minnesotan-ticks/

https://madisonarealymesupportgroup.com/2016/10/25/of-rabbits-and-men/

It also kills: https://madisonarealymesupportgroup.com/2018/09/28/after-tularemia-death-experts-stress-education/

Now, Dr. Brown said an increasing number of cases of tularemia that were transmitted by a tick bite are being seen. Tularemia is transmitted by dog ticks, which also can transmit Rocky Mountain spotted fever. Lyme disease, babesiosis and erlichiosis, which are transmitted by tiny deer ticks, also occur on the Vineyard.

And with the relatively recent spread on the Island of lone star ticks, a new species, Dr. Brown said there is added concern about the potential for more disease transmission.

Antibiotic Resistance: Researchers Have Directly Proven That Bacteria Can Change Shape Inside Humans To Avoid Antibiotics

https://theconversation.com/antibiotic-resistance-researchers-have-directly-proven-that-bacteria-can-change-shape-inside-humans-to-avoid-antibiotics-124296

Antibiotic resistance: researchers have directly proven that bacteria can change shape inside humans to avoid antibiotics

Researchers have evidence of another method that bacteria use to avoid antibiotics. Sirirat/Shutterstock

Widespread antibiotic use is largely to blame for the emergence of antibiotic resistant bacteria, which is currently one of the biggest threats to global health. Not only does antibiotic resistance already cause an estimated 700,000 deaths a year, it’s also made numerous infections, including pneumonia, tuberculosis, and gonorrhoea, harder to treat. Without knowing how to stop bacteria from developing antibiotic resistance, it’s predicted that preventable diseases could cause 10m deaths a year by 2050.

Some of the ways that bacteria become resistant to antibiotics is through changes in the bacteria’s genome. For example, bacteria can pump the antibiotics out, or they can break the antibiotics down. They can also stop growing and divide, which makes them difficult to spot for the immune system.

However, our research has focused on another little known method that bacteria use to become antibiotic resistant. We have directly shown that bacteria can “change shape” in the human body to avoid being targeted by antibiotics – a process that requires no genetic changes for the bacteria to continue growing.

Virtually all bacteria are surrounded by a structure called the cell wall. The wall is like a thick jacket which protects against environmental stresses and prevents the cell from bursting. It gives bacteria a regular shape (for example, a rod or a sphere), and helps them divide efficiently.

Human cells don’t possess a cell wall (or “jacket”). Because of this, it’s easy for the human immune system to recognise bacteria as an enemy because its cell wall is noticeably different. And, because the cell wall exists in bacteria but not in humans, it’s an excellent target for some of our best and most commonly used antibiotics, such as penicillin. In other words, antibiotics targeting the wall can kill bacteria without harming us.

However, bacteria can occasionally survive without their cell wall. If the surrounding conditions are able to protect the bacteria from bursting, they can turn into so-called “L-forms”, which are bacteria that don’t have a cell wall. These bacteria were discovered in 1935 by Emmy Klieneberger-Nobel, who named them after the Lister Institute where she was working at the time.

In a lab, we often use sugar to create a suitably protective environment. In the human body, this change in form is typically triggered by antibiotics that target the bacteria’s cell wall, or certain immune moleculessuch as lysozyme, a molecule that’s present in our tears which helps protect us from bacterial infections.

Bacteria without a cell wall often become fragile and lose their regular shape. However, they also become partially invisible to our immune system, and completely resistant to all types of antibiotics that specifically target the cell wall.

Scientists long suspected that L-form switching might contribute to recurrent infections by helping bacteria hide from the immune system and resist the antibiotics. However, it was difficult to find evidence for this theory due to the elusive nature of L-forms and lack of appropriate methods to detect them.

Watching bacteria change shape

Our study, published in Nature Communications, looked specifically at bacterial species associated with recurrent urinary tracts infections (UTIs). It found that many different bacterial species – including E. coli and Enterococcus – can indeed survive as L-forms in the human body. This is something that has never been directly proven before. We were able to detect these sneaky bacteria using fluorescent probes that recognise bacterial DNA.

We tested urine samples from elderly patients with recurrent UTIs by growing them in a petri dish high in sugars. Not only did this environment help protect bacteria from bursting, it also isolated the L-form bacteria that were present in these samples. In a separate experiment, we were able to see the whole process take place in living zebrafish embryos in the presence of antibiotics.

After the antibiotic was removed, the bacteria transformed back from L-forms to their regular form with cell walls. (Credit to Newcastle University, UK)

Importantly, our study shows that antibiotics need to be tested in conditions more reflective of the human body. The ones that are currently used in the medical laboratory don’t provide enough protection for delicate L-forms to survive.

Before we can fully understand how important L-form switching is compared to other forms of antibiotic resistance, further research using more patients will be needed. It will also be important to investigate what role L-forms may play in other recurrent infections, such as sepsis or pulmonary infections.

Until now, research into L-forms has been a controversial field, but our hope is that these findings will motivate more research into L-forms in disease situations. Our hope is that these findings will help find a way to clear these sneaky bacteria from our body. Combining cell wall active antibiotics with ones that would kill L-forms might be one solution of fighting antibiotic resistant infections.

Our battle with bacteria is ongoing. As we come up with new strategies to fight them, they come up with ways to fight back. Our study highlights yet another way that bacteria adapt that we’ll need to take into account in our continuing battle with infectious disease.

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**Comment**

Dr. Lida Mattman wrote an important book on cell wall deficient forms which are thought to play a role in the resistance of the Lyme disease bacterium to antibiotics:  https://madisonarealymesupportgroup.com/2019/05/24/microbiology-professor-im-convinced-lyme-disease-is-transmittable-from-person-to-person/

Mattman and her colleague, Dr. Joanne Whitaker, a victim of Lyme disease since childhood, developed a direct test for Bb and were the first to identify the cell wall deficient form of the spirochete.  Interestingly, the CDC has made 2-tier blood serology testing for Lyme a literal mandate, purposely avoiding direct detection:  https://madisonarealymesupportgroup.com/2018/04/03/cdc-deliberately-avoids-direct-detection-testing-methods-for-ld/

Mattman, an expert on spirochetes and the cell wall deficient form, isolated living Borrelia spirochetes in mosquitoes, fleas, mites, semen, urine, blood, plasma and Cerebral Spinal Fluid. She discovered that this bacteria is dangerous because it can survive and spread without cell wall (L shape). Because L-forms do not possess cell wall, they are resistant to antibiotics that act upon the cell wall.  https://madisonarealymesupportgroup.com/2019/04/02/transmission-of-lyme-disease-lida-mattman-phd/

Dr. Horowitz is having success with two mycobacterium drugs: https://madisonarealymesupportgroup.com/2016/10/09/mycobacterium-drugs-for-ld/

And of course the latest find is disulfiram/Antabuse: https://madisonarealymesupportgroup.com/2019/06/03/disulfiram-in-the-treatment-of-lyme-babesiosis-3-case-reports/

https://madisonarealymesupportgroup.com/2019/07/14/disulfiram-breakthrough-drug-for-lyme-other-tick-borne-diseases/

Just beware that disulfiram toxicity has caused some patients to have psychosis: https://madisonarealymesupportgroup.com/2019/10/15/disulfiram-psychosis-update/

Regarding antibiotic resistance, I would make a case that using antibiotics in agriculture is really the problem: https://www.nhs.uk/news/medication/antibiotic-use-in-farm-animals-threatens-human-health/

What does the report say?

The report made a range of observations:

  • The evidence suggests the amount of antimicrobials used in food production internationally is at least the same as that in humans, and in some places is higher. For example, in the US more than 70% of antibiotics that are medically important for humans are used in animals.

  • This form of antimicrobial usage is likely to rise because of the economic growth, increasing wealth and food consumption in the emerging world.

  • When properly used, antibiotics are essential for treating infections in animals, but excessive and inappropriate use of the drugs is a problem.

  • A considerable amount of antibiotics are used in healthy animals to prevent infection or speed up their growth. This is particularly the case in intensive farming, where animals are kept in confined conditions.

  • Some suggest that stopping the use of antibiotics for growth promotion would be significant, particularly in lower-income settings, and would be unjustified without clearer evidence of the extent of the threat to human health.

  • In a literature review of published peer-reviewed research articles carried out as part of the report, only 5% of the 139 academic papers identified argued there was not a link between antibiotic consumption in animals and resistance in humans, while 72% found evidence of a link. The report’s authors suggest this supports a link and provides enough justification for policy makers to aim to reduce the global use of antibiotics in food production to a more appropriate level.

  • Some last-resort antibiotics for humans are being used extensively in animals, and there are no replacements currently on the way. This was illustrated by a recent study from China, which identified a gene responsible for colistin resistance in bacteria from livestock, also covered by Behind the Headlines.

  • There is concern over the potential for pollution from antimicrobial manufacture – for example, if untreated waste products containing high levels of end-products or active ingredients are discharged into water courses.

 

Study Showing Mitochondrial Disease Symptoms Hastened by Lyme Infection & Possibly Worsened by Treatment (Patient Had Genetic POLG Mutation)

https://www.ncbi.nlm.nih.gov/pubmed/31655921

Neurogenetics. 2019 Oct 26. doi: 10.1007/s10048-019-00593-2. [Epub ahead of print]

Infectious stress triggers a POLG-related mitochondrial disease.

Abstract

A 3-year-old girl presented with severe epilepsy in the context of Borrelia infection. After ceftriaxone/lidocaine administration, she showed secondarily generalized focal crises that led to neurological and motor sequelae. Genetic studies identified in the patient two heterozygous POLG mutations (c.2591A>G; p.Asn864Ser and c.3649G>C; p.Ala1217Pro). Through analysis of POLG activity in cultured fibroblasts, we confirmed that the mutations altered the mtDNA turnover. Moreover, patient fibroblasts were more sensitive than controls in the presence of a mitochondrial replication-affecting drug, the antiretroviral azidothymidine. To test if ceftriaxone treatment could worsen the deleterious effect of the patient mutations, toxicity assays were performed. Cell toxicity, without direct effect on mitochondrial respiratory function, was detected at different antibiotic concentrations.

The clinical outcome, together with the different in vitro sensitivity to ceftriaxone among patient and control cells, suggested that the mitochondrial disease symptoms were hastened by the infection and were possibly worsened by the pharmacological treatment.

This study underscores the benefit of early genetic diagnosis of the patients with mitochondrial diseases, since they may be a target group of patients especially vulnerable to environmental factors.

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**Comment**

Great work hailing from Spain demonstrating that some patients have a genetic predisposition setting them up for treatment failure. This is not a “21 days of doxycycline” treatment and the sooner mainstream medicine wakes up from its coma the better!  Until it does, patients will not improve.

I found I had a genetic predisposition which caused disulfiram psychosis:  https://madisonarealymesupportgroup.com/2019/10/15/disulfiram-psychosis-update/

https://madisonarealymesupportgroup.com/2019/10/27/disulfiram-psychosis-update-2/

Reports are coming in that I’m not alone.  For research regarding this:

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5290718/

Abstract

Disulfiram is the commonly prescribed drug for the treatment of alcohol dependence. It’s major metabolite (diethyldithiocarbamate) is an inhibitor of dopamine-betahydroxylase, an enzyme that catalyzes the metabolism of dopamine to norepinephrine resulting in psychosis. We recommend that disulfiram should be used at the lowest effective dose, possibly 250 mg daily and caution should be taken while prescribing disulfiram for patients with personal and familial antecedents of psychosis.…..Disulfiram-related psychiatric complications are reported to be more prevalent in eastern countries,3) which suggests that genetic factors may play a role in disulfiram induced psychosis.
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In this paper, a hypothesis of vulnerability to disulfiram psychosis is proposed, based on the current lines of evidence for the biological mechanisms involved in the psychoses.

Disulfiram Is a DA Agonist

Disulfiram is an inhibitor of dopamine-beta- hydroxylase (DBH), an enzyme that catalyzes the metabolism of DA to norepinephrine (NE).3 By inhibiting the metabolic pathway from DA to NE in the central nervous system, disulfiram results in an increase of DA concentrations. Therefore, disulfiram is a DA agonist, and is likely to exacerbate preexisting or latent psychosis, similar to amphetamine, methylphenidate and L-dopa.

DA and Affective Psychosis

Increased brain DA is highly correlated with psychomotor activity in animals, and L-dopa has been shown to produce episodes of hypo mania and mania in most patients with bipolar affective psychosis.4 It is possible, therefore, that disulfiram can uncover a preexisting or latent hypomania or mania.

 

Tick-Borne Infection Revealing Human HIV Positivity in Young Adult

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6804791/

Tick- borne infection revealing human immunodeficiency virus (HIV) positivity in a young adult

Abstract

Purpose

To describe a patient whose retinal findings suggestive of tick-borne disease but evaluations led to early diagnosis and treatment of human immunodeficiency virus (HIV) infection.

Observation

A young patient presented with bilateral uveitis, branch retinal artery occlusion and retinal findings suggestive of infective/inflammatory etiology. Laboratory evaluations revealed that the patient was positive for co-infection with Rickettsia conorii and Bartonella henselae. On further investigation, the patient tested positive for HIV infection. The patient was treated with doxycycline as well as highly active anti-retroviral therapy (HAART) to control both opportunistic infections as well as HIV infection.

Conclusion and Importance

Patients with HIV infection are at risk for multiple, simultaneous opportunistic co-infections, including those with tick-borne diseases.

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**Comment**

A great example of how infections can drive viruses. Mainstream medicine is still hopelessly in the dark on the seriousness of tick borne infections and the polymicrobial nature of them:  https://madisonarealymesupportgroup.com/2018/10/30/study-shows-lyme-msids-patients-infected-with-many-pathogens-and-explains-why-we-are-so-sick/