Modern biology and gastroenterology, with scientific data, demonstrate that microorganisms entering our bodies through drinking water destroy the intestinal epithelial tissue, which is the most critical link in the nutritional chain, and block mineral absorption.
Water and nutrients entering our bodies do not directly enter the bloodstream. After leaving the stomach, the contents pass into the small intestine, where they must pass through a microscopic filter made of single-layered cells, called epithelial tissue.
The surface of the epithelial tissue is covered with finger-like projections called microvilli, which significantly increase the absorption area.
Under normal circumstances, minerals such as iron, calcium, and magnesium in food and water are rapidly absorbed into the bloodstream via special ion channels in these epithelial cells. However, scientific studies show that chronic exposure to low-quality and pathogen-containing water impairs this mechanism in three different ways:
1. Chronic Inflammation in the Intestines
Environmental Enteric Dysfunction, as referred to in scientific literature, is a chronic inflammation that occurs in the intestines due to continuous exposure to microorganisms from water and food.
As emphasized in scientific studies, when pathogenic bacteria reach the intestine, the immune system enters a constant state of defense. This chronic inflammation causes the microvilli responsible for absorption to flatten and atrophy.
The intestine, with its reduced absorptive surface area, expels valuable micronutrients such as calcium, magnesium, and zinc from water and food without absorbing them.
2. Physical Obstruction in the Intestine
Opportunistic bacteria, which thrive in unsterilized water or in poorly maintained filters of conventional purification devices, adhere to the intestinal mucosa and form colonies.
Scientific research indicates that these pathogens, which colonize the intestinal flora, produce a thick, slimy polymer layer, known as biofilm, to protect themselves. This biofilm layer covers and obstructs the intestinal epithelium like a physical shield.
Minerals in water and food cannot penetrate this artificial barrier and enter the cells, leading to malabsorption.
3. Cessation of Intestinal Permeability
Intestinal epithelial cells are connected to each other by protein bridges called tight junctions.
Toxins secreted by pathogenic microorganisms present in water cause these junctions to break, leading to "Leaky Gut" syndrome.
Published scientific studies have proven that the disruption of these junctions abolishes selective permeability in the intestine and stops cellular mineral transport.
In conclusion, it is a scientific fact that drinking water must be microbiologically sterile for vital elements in water and food to pass through the epithelial barrier in the intestines.
Sterilisa Water meets this scientific requirement, proving it to international standards with its accredited reports, thanks to its 8-layer special filter and patented Pulsed Light Technology:
– Sterilisa Water disinfects water by simultaneously breaking down the structures of viruses, bacteria, and all other microorganisms as the water flows. This protects the intestinal epithelium from inflammation, biofilm blockages, and cellular stress.
– Sterilisa Water, with its selective purification principle, does not affect valuable minerals such as calcium and magnesium in the water. Thanks to Pulsed Light Technology, it ensures maximum bioavailability and absorption of these ions from the healthy epithelial tissue.
Sterilisa Water is not just purified; it is designed in accordance with the foundations of modern and healthy living, respecting the intestinal barrier, fully nourishing cells, and preserving the biological budget.
● Crane, R. J., Jones, K. D., & Berkley, J. A. (2015). Environmental enteric dysfunction: an overview. Food and Nutrition Bulletin, 36(1), S76-S87.
● Fasano, A. (2012). Zonulin, regulation of tight junctions, and autoimmune diseases. Annals of the New York Academy of Sciences, 1258(1), 25–33.
● Macfarlane, S., & Dillon, J. F. (2007). Microbial biofilms in the human gastrointestinal tract. Journal of Applied Microbiology, 102(5), 1187–1196.
