For some physicians, the long-term use of the Marshall Protocol (MP) antibiotics inspires concern about bacterial resistance. However, the MP includes several measures to minimize, if not entirely eliminate, any chance that bacteria could become resistant to long-term use of antibiotics:
The evidence that the MP is not creating resistant communities of bacteria comes in low levels of co-infections such as Candida among the MP cohort as well as the unmistakable immunopathological reaction, which cannot be explained through any other way except as an indication of bacterial die-off.
According to the Marshall Pathogenesis, chronic inflammatory disease is caused by bacterial pathogens that proliferate by dysregulating the Vitamin D Receptor, a nuclear receptor which plays the key role in innate immune function. Though fastidious and difficult-to-culture, the bacteria which cause this disease process have proven themselves to be resistant to any number of antibacterial therapies. One need look no further than the plethora of antibacterial treatments that fail to cure chronic diseases. In fact, the Marshall Pathogenesis points to the use of these therapies, which appear not to address the ultimate cause of chronic disease, as being one of the principle reasons why rates of acute and chronic infection, especially treatment-resistant forms, have escalated in recent decades.
Drawing on a range of clinical and molecular evidence, the Marshall Protocol guidelines purposefully forbid use of those medications and dosing strategies that have proven to allow for the proliferation of chronic (and acute) pathogens. The medications used by the MP are used in a manner that will kill communities of bacteria that have not and cannot be killed by other antimicrobial therapies.
The Marshall Protocol uses rotating combinations of various broad-spectrum antibiotics effective against a variety of bacterial species. All but one of these antibiotics (Bactrim DS) are in the tetracycline family.
The MP's base antibiotic is minocycline. Minocycline is broad-spectrum, and has been safely used for decades in a variety of medical therapies.
Even though it has been in use for for over forty years, minocycline continues to be successfully used for a variety of conditions from acne to MRSA, a bacterium responsible for difficult-to-treat infections in humans. One 2008 study of antibiotic effectiveness against community-associated methicillin-resistant (CA-MRSA) and methicillin-sensitive Staphylococcus aureus (MRSA) found that minocycline killed 100% of the former and 97.1% of the latter.3
Minocycline has been deemed safe and effective (alone or as adjunctive therapy) in patients with mild to moderate rheumatoid arthritis or rheumatic diseases. 4 Tetracyclines have been used effectively in urogenital, gastrointestinal, and lower respiratory tract infections.5
For most individuals, minocycline is well-tolerated. Cunha writes that minocycline is the “antibiotic of choice” because of its “superior intracellular mechanism of activity and an excellent safety profile.”6 Minocycline binds to the 30S ribosomal subunit of a bacteria as well as the body's pregane X nuclear receptor (PXR), both actions having the potential to contribute to bacterial death.
The other MP antibiotics have similar safety profiles.
In the treatment of inflammatory diseases, immunosuppression, Labro writes, is “the basis for antibiotic action.”7 The Marshall Protocol guidelines take issue with the conclusion that antibiotics should be used to interfere with immune function.
Standard methods that use high dose and/or constant levels of antibiotics are unable to effectively eliminate the Th1 pathogens, including L-form and biofilm bacteria. The reason lies with the fact that aside from their ability to block bacterial ribosomes, bacteriostatic antibiotics also inhibit the immune system. This may be why a number of other antibacterial therapies generate short-term symptomatic remission but no long-term disease resolution.
One telling study looking at tetracycline's (the specific drug, not the family of drugs) “antibacterial” effects found that it temporarily reduced the appearance of acne, but without inhibiting the proliferation of Propionibacterium acnes, which has a role in causing acne.8
[There is a] lack of correlation between the drug dose regimen [for Propionibacterium acnes] and cutaneous bacterial counts.
Marie Labro 9
In order to take advantage of the MP antibiotics' antibacterial effects, MP patients take comparatively low doses of antibiotics – at well below the minimum inhibitory concentration. For example, the highest dose of minocycline used by MP patients is only 100 mg every other day, and often only a portion of azithromycin (Zithromax) is only taken every ten days. Some patients have reported on the Marshall Protocol Study Site that a single bottle of azithromycin lasts for a year or more. By way of comparison, when it is prescribed for acne, minocycline is taken 200-400mg daily.
Over the course of the treatment, patients find that as their sensitivity to the MP antibiotics drops, they are able to discontinue taking all antibiotics or take them only intermittently.
Varying combinations of antibiotics reduce the likelihood that a bacterium could develop resistance by subverting the use of a given antibiotic.
In practice, the antibiotics used by the Marshall Protocol actually have a somewhat ancillary role. The chief antibacterial is olmesartan (Benicar).
The VDR has been praised as an attractive target for modulating inflammation in autoimmune disease.
Vitamin D receptor (VDR) agonists are well known for their capacity to control calcium metabolism and to regulate growth and differentiation of many cell types. More recently, it has become clear that VDR agonists possess immunoregulatory properties and, in particular, pronounced pro-tolerogenic activities…. These mechanisms of action can explain some of the immunoregulatory properties of VDR agonists in the treatment of Th1-mediated autoimmune diseases, but may also represent a physiologic element in the VDR-mediated regulation of innate and adaptive immune responses.
L. Adorini, from paper “Intervention in autoimmunity: the potential of vitamin D receptor agonists” 10
Olmesartan's action as VDR agonist makes it a critical component of the Marshall Protocol. This is evident in patients taking MP antibiotics who do not experience immunopathology until they take olmesartan. For this reason, olmesartan meets the definition of an antibacterial.
To us, olmesartan is not a “medication.” It is a method of turning-on your body’s Vitamin D Receptor. This is a key part of the immune system, and transcribes over 1,000 genes which affect body processes from calcium homeostasis to cancer metastasis.
Trevor Marshall, PhD
The ribosome blockades initiated by the Marshall Protocol antibiotics weaken the Th1 pathogens but are unable to actually kill the pathogens. For this reasons, patients on the MP take olmesartan, which activates the innate immune response. In this respect, olmesartan is distinct from other ARBs such as telmisartan, which has been shown to be a strong VDR antagonist.11 Molecular modeling has revealed that olmesartan binds and activates the Vitamin D Receptor among others. This action is validated by in silico data.12
Because the VDR itself is in constant motion and it is affected by the forces on the VDR from adjacent molecules, olmesartan has an ability to stay in that binding pocket for only a few hours before it is either ejected, or the VDR itself is pulled apart by outside forces.
Olmesartan docks into several different cellular receptors to provide a variety of actions. Thus far, these actions appear to be beneficial.
Other ARBs also bind the same nuclear receptors as olmesartan but fail to activate them at the correct level.
I feel there are simply no adverse reactions or negative side effects that I need to worry about while taking the Marshall Protocol medications. It is an extremely safe approach. Personally, I believe overtreating this condition is preferable than undertreating as the side effects of both antibiotics and Benicar are so minimal compared to the risk of recurrence.
Greg Blaney, M.D.
Although the cohort of MP patients is high-risk with a number of co-morbidities, very few, if any, patients have reported additional co-infections such as Candida or acute bladder infections. As patients report in their online progress reports, these infections invariably resolve after being on the MP antibiotics for several years.
Aside from long-term symptom resolution, the primary indication of treatment efficacy is the presence of the immunopathological reaction. Immunopathology is a temporary increase in disease signs and symptoms experienced by Marshall Protocol patients and is due to the destruction of bacteria and human cells infected by bacteria.
The generation of the immunopathological response among the MP cohort, which includes patients with dozens of different inflammatory diseases, is near universal. Many patients experience elevated immunopathology while taking only a fraction of a dose of antibiotics – for example 25mg of azithromycin (Zithromax) which is 1/10 of the dose the drug is normally prescribed – or even on olmesartan alone.
The conclusion that the immunopathological reaction is due to bacterial die-off is a valid one. No other explanation successfully accounts for how olmesartan, a drug which has only one documented side effect – causing dizziness in 3% of patients taking the drug vs. 1% in placebo – could generate this response.
That the MP is able to generate sustained immunopathology and therefore bacterial die-off where other therapeutic interventions have not strongly suggests that the treatment is not fostering the growth of resistant bacterial communities.
The tetracycline family of antibiotics have been used as early as 2,000 years ago. A 2010 study found large doses of tetracycline embedded in the bones of ancient African mummies.13 Ancient Nubians probably got it through beer, and just about everyone appears to have drunk it consistently throughout their lifetimes, beginning early in childhood.
Antibiotics, Acne, and Staphylococcus aureus Colonization Matthew Fanelli, MD; Eli Kupperman, BA; Ebbing Lautenbach, MD, MPH; Paul H. Edelstein, MD; David J. Margolis, MD, PhD
Arch Dermatol. Published online April 11, 2011. doi:10.1001/archdermatol.2011.67
Objectives To determine the frequency of Staphylococcus aureus colonization among patients with acne and to compare the susceptibility patterns between the patients who are using antibiotics and those who are not using antibiotics.
Design Survey (cross-sectional) study of patients treated for acne.
Setting Dermatology outpatient office practice
Participants The study included 83 patients who were undergoing treatment and evaluation for acne.
Main Outcome Measure Colonization of the nose or throat with S aureus.
Results A total of 36 of the 83 participants (43%) were colonized with S aureus. Two of the 36 patients (6%) had methicillin-resistant S aureus; 20 (56%) had S aureus solely in their throat; 9 (25%) had S aureus solely in their nose; and 7 (19%) had S aureus in both their nose and their throat. When patients with acne who were antibiotic users were compared with nonusers, the prevalence odds ratio for the colonization of S aureus was 0.16 (95% confidence interval [CI], 0.08-1.37) after 1 to 2 months of exposure and increased to 0.52 (95% CI, 0.12-2.17) after 2 months of exposure (P = .31). Many of the S aureus isolates were resistant to treatment with clindamycin and erythromycin (40% and 44%, respectively), particularly the nasal isolates. Very few showed resistance rates (<10%) to treatment with tetracycline antibiotics.
Conclusion Unlike current dogma about the long-term use of antimicrobial agents, the prolonged use of tetracycline antibiotics commonly used to treat acne lowered the prevalence of colonization by S aureus and did not increase resistance to the tetracycline antibiotics.