Archive for the ‘Treatment’ Category

LDN Reduced Pro-Inflammatory Cytokines in FM After Eight Weeks

https://www.ncbi.nlm.nih.gov/m/pubmed/28536359/

Reduced Pro-Inflammatory Cytokines after Eight Weeks of Low-Dose Naltrexone for Fibromyalgia.

Parkitny L, et al. Biomedicines. 2017.

Authors

Biomedicines. 2017 Apr 18;5(2). pii: E16. doi: 10.3390/biomedicines5020016.

Abstract

Fibromyalgia (FM) is a complex, multi-symptom condition that predominantly affects women. The majority of those affected are unlikely to gain significant symptomatic control from the few treatments that are approved for FM. In this 10-week, single-blind, crossover trial we tested the immune effects of eight weeks of oral administration of low-dose naltrexone (LDN). We enrolled eight women with an average age of 46 years, symptom severity of 62 out of 100, and symptom duration of 14 years. We found that LDN was associated with reduced plasma concentrations of interleukin (IL)-1β, IL-1Ra, IL-2, IL-4, IL-5, IL-6, IL-10, IL-12p40, IL-12p70, IL-15, IL-17A, IL-27, interferon (IFN)-α, transforming growth factor (TGF)-α, TGF-β, tumor necrosis factor (TNF)-α, and granulocyte-colony stimulating factor (G-CSF). We also found a 15% reduction of FM-associated pain and an 18% reduction in overall symptoms. The findings of this pilot trial suggest that LDN treatment in fibromyalgia is associated with a reduction of several key pro-inflammatory cytokines and symptoms. The potential role of LDN as an atypical anti-inflammatory medication should be explored further.

**This is important for everyone, but particularly Lyme/MSIDS patients who are either misdiagnosed with FM or have symptoms of it due to a pathogen infection.  Either way, it reduces cytokines and every chronically infected person could benefit from that.
I’m a big proponent and believer in LDN. It was certainly a game-changer for me.  For more information:  https://madisonarealymesupportgroup.com/2016/12/18/ldn/

 

Membrane Lipid Replacement for Lyme/MSIDS

http://www.sciencedirect.com/science/article/pii/S0005273617301293

Available online 18 April 2017  Garth L. Nicolsona, , , E-mail author,Michael E. Ash

Abstract

Membrane Lipid Replacement is the use of functional, oral supplements containing mixtures of cell membrane glycerolphospholipids, plus fructooligosaccharides (for protection against oxidative, bile acid and enzymatic damage) and antioxidants, in order to safely replace damaged, oxidized, membrane phospholipids and restore membrane, organelle, cellular and organ function. Defects in cellular and intracellular membranes are characteristic of all chronic medical conditions, including cancer, and normal processes, such as aging. Once the replacement glycerolphospholipids have been ingested, dispersed, complexed and transported, while being protected by fructooligosaccharides and several natural mechanisms, they can be inserted into cell membranes, lipoproteins, lipid globules, lipid droplets, liposomes and other carriers. They are conveyed by the lymphatics and blood circulation to cellular sites where they are endocytosed or incorporated into or transported by cell membranes. Inside cells the glycerolphospholipids can be transferred to various intracellular membranes by lipid globules, liposomes, membrane-membrane contact or by lipid carrier transfer. Eventually they arrive at their membrane destinations due to ‘bulk flow’ principles, and there they can stimulate the natural removal and replacement of damaged membrane lipids while undergoing further enzymatic alterations. Clinical trials have shown the benefits of Membrane Lipid Replacement in restoring mitochondrial function and reducing fatigue in aged subjects and chronically ill patients. Recently Membrane Lipid Replacement has been used to reduce pain and other symptoms as well as removing hydrophobic chemical contaminants, suggesting that there are additional new uses for this safe, natural medicine supplement. This article is part of a Special Issue entitled: Membrane Lipid Therapy: Drugs Targeting Biomembranes edited by Pablo Escríba-Ruíz.

The article also noted that while glycerolphospholipid absorption in the upper intestines was over 90%, after a large meal, and transported into the blood within 6 hours, dietary MLR polyunsaturated phospholipids are oxidized and degraded during storage, ingestion, digestion, and absorption and need to be protected from acid degradation in the gut and bile salts and hydrolysis from the pancreas and gut microflora in the small intestines.  The researchers found an answer to this problem by complexing MLR phospholipids with specific fructooligosaccharides (Inulins), which protect from oxidation and high temps, acidity, and phospholipases and bile salts.

Plants such as legumes or cabbage are good sources for MLR supplementation but in order to get a daily dose of 1.8 g of membrane phospholipids you’d have to have an intake of 15 kg of beans!

The most convenient, efficient, safe and cost effective method of membrane phospholipid administration in humans has been the use of daily oral lecithin supplements [1]; [2]; [3] ;  [6]. Most oral lecithin supplements are rather crude soy, egg yolk or marine preparations that lack oxidation, bile and phosphatase protection. In addition, most of these oral supplements have not been carefully analyzed for phospholipid composition, and in particular for lipid degradation products. However, there are oral MLR phospholipid supplements, such as NTFactor® and NTFactor Lipids®, that fulfill the requirements for efficacy, oxidation and degradation protection, safety and convenience [1]; [2] ;  [3]. The NTFactor® lipid supplements, and their use in clinical studies, will be discussed in more detail in 8, 9, 10 ;  11. NTFactor®, which also contains probiotic bacteria, growth media and other ingredients, and NTFactor Lipids®, without these additives, come in several oral forms, but almost all contain from 1–2 g of phospholipids per dose [1]; [2] ;  [3]. The recommended optimal daily oral dose of NTFactor Lipids® for most clinical conditions has been estimated at 2–4 g per day, and more recently at least 4 g per day, whereas its anti-aging use has been proposed at 2 g per day [2]. Some updates in these recommendations will be discussed in Section 12.

A table in the article shows uses for MLR supplements such as fatigue, infections, autoimmune, and chemical detox and revised dose levels.  These are issues nearly every Lyme/MSIDS patient has.  The dosages for these issues are upwards of 4g/day, showing the intensive mitochrondrial damage these issues cause in the body.

Due to intense detoxification efforts by the liver, many Lyme/MSIDS patients have high liver titers.  The good news is that patients with advanced liver cirrhosis were given oral MLR phospholipids and after just 3 months had normal blood results for liver function.  They are also safe to use during pregnancy and have in fact been used in high risk pregnancies with success.

**The authors are part-time consultants to Nutritional Therapeutics, Inc. and Allergy Research Group, Inc.

 

 

LDA President Pat Smith on Contagion Live


Patricia Smith, President of the Lyme disease Association, discusses Lyme disease has spread throughout the United States in the past decade. Part 1

Lyme Disease: What Makes Diagnosis & Treatment Difficult? Part 2

How Have Tick-Borne Diseases Grown in the United States? Part 3

What Do I Need to Know About Lyme Transmission Time? Part 4

Are Patients Facing Difficulties in Accessing Treatment for Lyme? Part 5

Why is May Lyme Disease Awareness Month? Part 6

How Does Government Acknowledgement of Lyme Affect Patient Care? Part 7

The Current State of Lyme Disease Prevention. Part 8

Lyme Disease Legislation May Advance Patient-Centered Research. Part 9

Medicine is Behind the Times When it Comes to Treating Lyme

http://www.contagionlive.com/news/is-the-medical-community-behind-the-times-when-it-comes-to-treating-lyme

MAY 24, 2017 | PAT SMITH

Is the Medical Community Behind the Times When It Comes to Treating Lyme?

 Lyme disease has been recognized in the United States for more than 40 years, with about 400,000 new cases occurring in 2015, according to the Centers for Disease Control and Prevention (CDC). Nineteen tick-borne diseases now affect Americans, and one tick bite can cause more than one disease. A recent CDC study uncovered that ticks that cause Lyme disease are found in 50% of continental US counties.1 In addition, according to the results of a large Johns Hopkins University study, as many as 36% to 63% of patients with Lyme disease go on to develop chronic symptoms (posttreatment Lyme disease).2
Major problems surrounding Lyme disease today include reliance upon dogma, promoting beliefs people are expected to accept without questioning or doubting, and the use of selective science by many in the medical community, the Lyme “experts,” who often blame the patient, the internet, and treating doctors with divergent opinions for their own lack of successful patient outcomes. They continue to approach Lyme with a “cookbook” approach. Patients are told the symptoms are “in their head,” that they need to stop reading the internet, or parents of patients are accused of Munchhausen by proxy syndrome (ie, making their children sick). These experts neither want to understand why their approach does not work, nor do they want to take the necessary time to understand the disease by researching and reading all the science, not just that which supports their unsuccessful treatment approach. Steeped in dogma, they ignore the fact that Lyme is meant to be a clinical diagnosis using testing as an adjunct.Lyme clinical practice guidelines (CPGs) (eg, Infectious Diseases Society of America [IDSA] guidelines) often used by these physicians to treat Lyme are outdated and not posted on the National Guidelines Clearinghouse (NGC) These guidelines are most often used to deny treatment to patients with chronic disease, and so their current absence from the NGC is beneficial to patients who may need long-term antibiotic therapy and have been denied this through use of these guidelines. The only Lyme CPGs available on the NGC are those adhering to newly revised National Academy of Medicine, formerly Institute of Medicine, standards for guidelines− the International Lyme and Associated Diseases Society (ILADS) Lyme Guidelines,3 which address the usefulness of antibiotic prophylaxis for tick bites, the effectiveness of erythema migrans (EM) treatment, and antibiotics’ role in retreatment of persistent Lyme disease symptoms.

Many physicians solely rely on the two-tiered indirect Lyme tests recommended by the CDC and the outdated guidelines. These recommendations include a positive/equivocal enzyme-linked immunosorbent assay (ELISA) followed by western blot (WB), and the tests that are US Food and Drug Administration (FDA)-cleared (substantially equivalent to a predicate test),4 yet not necessarily approved. To date, the FDA has not been able to provide Lyme Disease Association, Inc., with any information on any FDA-approved test for Lyme, including the original predicate test.  According to research in BMJ,5 the two-tiered system, although very specific for Lyme disease (99%)—yielding few false-positives—has a uniformly low sensitivity (56%), missing 88 of 200 patients with Lyme. The current archaic Lyme tests remain unreliable decades later. By comparison, AIDS tests have a sensitivity of 99.5%, missing only one of 200 infected patients.

Additionally, there is no test for active Lyme disease infection, and test interpretation, especially the use of specific bands in the WB (IgM 2/3; IgG 5/10), developed at the 1994 CDC/Association of State and Territorial Public Health Laboratory Directors Dearborn meeting,6 is problematic. Some doctors and researchers believe those bands were selected only to protect the then-in-development Lyme disease vaccine (subsequently licensed and withdrawn over 4 years). Furthermore, the Lyme ELISA used for screening may not react with serum antibodies if at least a month has not elapsed between the tick bite and the test. If antibodies do develop, research in the Journal of the American Medical Association7 has shown that the antigen and the antibody produced by the patient can form a complex. Current commercial tests can only test for a free antibody, not an antibody in a complex, so patients can remain undiagnosed despite having produced antibodies.

Perhaps most noteworthy is that FDA-cleared commercial serological tests are based on one strain of Borrelia burgdorferi bacteria in contrast, for example, to a 2-strain Lyme test developed by one independent Clinical Laboratory Improvement Amendments-approved lab.  The recent discovery by Mayo Clinic/CDC of the Borrelia mayonii species in the Midwest, which can also cause Lyme, and the acknowledgement that Borrelia miyamotoi, a spirochete closely related to the relapsing fever bacteria and more distantly related to the Lyme bacteria, causes a Lyme-like disease in the United States, means Ixodes scapularis ticks transmit all three of those bacteria, further clouding the diagnostic picture.

There has been considerable research over the past several years supporting the existence of chronic Lyme, including the discovery at Northeastern University that persister cells are formed by B. burgdorferi.8 These cells go dormant when treated with antibiotics, but can grow again after treatment stops. Persisters are found in other diseases as well. Work at Johns Hopkins has also been done on persisters: research in Emerging Microbes & Infections,9 “…identified 165 agents approved for use in other disease conditions that had more activity than doxycycline and amoxicillin against B. burgdorferi persisters. The top 27 drug candidates from the 165 hits were confirmed to have higher persister activity than the current frontline antibiotics.” Additionally, work on biofilms in Lyme, by researchers from the University of New Haven, and published in European Journal of Microbiology & Immunology,10 demonstrated for the first time “…the presence of Borrelia biofilm in human infected skin tissue.”

The results of several animal studies have shown that the Lyme spirochete survives antibiotic treatment for Lyme disease, including a University of California mouse study,11 a Tulane monkey study,12 a Cornell dog study,13 and a National Institutes of Health human xenodiagnosis study.14

As new research continues to unlock persistence mechanisms used by B. burgdorferi, the medical community needs to avail itself of those scientific findings by attending continuing medical education conferences and grand rounds and partaking in preceptorships that foster divergent views. The medical community needs to support further research on why some individuals remain sick. It is imperative that healthcare professionals learn how to change that outcome rather than relying on outdated methodologies that have not benefited patient health.

**Patricia Smith (Pat), President of the Lyme Disease Association, Inc., graduated from Monmouth University. She has been involved with Lyme disease issues for 33 years and is a Member of the Columbia Lyme & Tick-Borne Diseases Research Center Advisory Committee, the Congressionally Directed Medical Research Programmatic Panel on Tick-Borne Diseases, and the Environmental Protection Agency Pesticide Environmental Stewardship Program. She has twice testified before US House Subcommittees on Lyme and is former Chair of the NJ Governor’s Lyme Disease Advisory Council. She has published on and been interviewed for broadcast, electronic, and print media on Lyme and tick-borne diseases.  
**Comment**
If you find a doctor willing to be properly trained, please give them this link:  https://madisonarealymesupportgroup.com/2017/06/20/help-doctors-get-educated-on-lyme-and-tick-borne-illness/

Early-onset Lyme Carditis Concurrent Disseminated Erythema Migrans

https://www.ncbi.nlm.nih.gov/pubmed/28533930

Am J Cardiovasc Dis. 2017 Apr 15;7(2):53-56. eCollection 2017.

Early-onset Lyme carditis with concurrent disseminated erythema migrans.

Patel KP, Farjo PD, Juskowich JJ, Hama Amin A, Mills JD.

Abstract

BACKGROUND:
Lyme disease is an infection that is estimated to affect over 300,000 people in the United States annually. Typically, it presents with erythema migrans (EM), an annular rash at the site of tick attachment, within 3 to 30 days of inoculation. Untreated patients may progress to early disseminated disease. A further complication, Lyme carditis is rare but may occur several weeks later. It commonly manifests as a variable atrioventricular (AV) conduction block, with a high-grade AV block occurring in only 1% of untreated patients. This case demonstrates an unusually early presentation of Lyme carditis with complete heart block.

CASE PRESENTATION:
A 21-year-old male was transferred from an outside emergency department (ED) for possible pacemaker placement due to symptomatic third-degree AV block. Four days earlier the patient presented to the outside ED with fever, chills, and unrecognized EM on his right neck. He was discharged with antipyretics, but no antibiotic therapy. On the day of transfer, he returned with persistent fevers, EM now on his trunk and upper extremities, lightheadedness, and substernal chest pressure. An electrocardiogram revealed the third-degree AV block leading to transfer. Upon arrival, the patient was promptly diagnosed with Lyme carditis. Pacemaker implantation was deferred, and intravenous (IV) ceftriaxone was initiated. Within 48 hours his third-degree AV block improved to a first-degree block. By this time, his EM had also resolved. He was discharged with oral doxycycline and a 30-day event monitor, which ultimately showed persistent first-degree AV block.

CONCLUSIONS:
This case reinforces a unique presentation of Lyme carditis. Disseminated EM and Lyme carditis may present concurrently within 2 weeks of tick attachment. Early recognition and treatment is important for preventing progression to disseminated infection. Lyme-associated AV block will reverse within 48 to 72 hours of initiating IV antibiotic therapy and will not require pacemaker implantation. Lyme carditis should be considered in patients without heart disease who present with any degree of AV block.