The resilience of biofilms
Many bacteria and yeasts create biofilms. Biofilms are protective encasements, complex structures composed of polysaccharides, proteins, and DNA, which microorganisms use to adhere to surfaces and protect themselves from antibiotics and the body’s immune system.
Biofilms can embed themselves in the GI tract, creating a persistent source of infection and inflammation.
The presence of metals like calcium, iron, and magnesium is crucial for biofilm formation.
This makes infections involving biofilms particularly challenging to treat, often leading to chronic conditions.
These biofilms can end up contributing to various gastrointestinal issues, such as bloating, irregular bowel movements, and even systemic health problems due to the toxins released by the trapped pathogens.
BFB – a tool designed to break through the biofilm matrix
BFB was designed to counteract the formation of biofilm – while promoting a balanced and thriving intestinal ecosystem.
BFB leverages both EDTA as well as specific enzymes to dismantle biofilms effectively.
- EDTA is a potent chelating agent that binds to the metals necessary for biofilm integrity. By sequestering these metals, EDTA disrupts the biofilm structure, making the microorganisms within more susceptible to eradication.
- The blend of enzymes in BFB goes a step further by targeting the various components of the biofilm matrix.
This blend includes polysaccharide-specific enzymes like glucoamylase, which breaks down complex carbohydrates, and chitosanase, which degrades chitosan—a key structural component in fungal cell walls. Cellulase and hemicellulase/pectinase complex work together to dismantle cellulose and pectin, two other critical polysaccharides in biofilms. Beta-glucanase further breaks down beta-glucans, another structural component in both bacterial and yeast biofilms.
BFB also includes protein and peptide-specific enzymes such as protease/peptidase complex and lysozyme. These enzymes degrade proteins and peptides that provide structural support and defense mechanisms within the biofilm. Serratia peptidase, an enteric-coated enzyme, is particularly notable for its ability to degrade biofilm proteins without being inactivated by stomach acid, ensuring it reaches the intestines where it is needed most.
Not just effective against biofilm
This synergistic combination not only disrupts the biofilm matrix but also helps degrade bacterial and yeast cell wall structures.
Once biofilms are broken down, the beneficial microbes in your gut are given a chance to flourish, restoring balance and promoting overall gut health.
Recommendations:
Take BFB away from meals. This timing maximizes enzyme activity, allowing them to work effectively without interference from dietary components.
This supplement is also free from common allergens such as milk, fish, shellfish, nuts, and soy, making it suitable for a wide range of individuals.
Did you know? The observed effects of the ingredients:
- EDTA (Ethylenediaminetetraacetic Acid): Binds to essential metals like calcium, iron, and magnesium, disrupting biofilm integrity and making the embedded microorganisms more vulnerable to treatment.
- Glucoamylase: Breaks down complex carbohydrates into simpler sugars, aiding in the degradation of polysaccharides within biofilms.
- Chitosanase: Specifically targets and breaks down chitosan, a key structural component in the cell walls of fungi.
- Cellulase: Degrades cellulose, a major component of the biofilm matrix, thereby weakening the biofilm structure.
- Hemicellulase/Pectinase Complex: Works synergistically to break down hemicellulose and pectin, both critical for the structural integrity of biofilms.
- Beta-Glucanase: Targets beta-glucans, another structural component in both bacterial and yeast biofilms, facilitating their breakdown.
- Protease/Peptidase Complex: Breaks down proteins and peptides within the biofilm, further destabilizing its structure.
- Lysozyme: An enzyme that degrades bacterial cell walls, enhancing the overall antimicrobial effect.
- Serratia Peptidase: A proteolytic enzyme that remains active in the intestines, specifically targeting and degrading biofilm proteins.