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Why Preserving Minerals in Drinking Water is a Clinical Imperative

Why Preserving Minerals in Drinking Water is a Clinical Imperative

Modern agricultural practices and environmental factors are causing radical changes in the cellular structure of fruits and vegetables, which form the basis of human nutrition. This condition, defined in medical and nutritional literature as hidden hunger or micronutrient deficiency, refers to the impoverishment of foods in terms of essential minerals and vitamins, despite appearing satisfying in terms of calories and volume.

Agricultural lands worldwide are experiencing severe losses in organic matter due to intensive chemical fertilizer use and monoculture farming. Furthermore, high pH levels in soils prevent the absorption of vital minerals such as calcium, magnesium, and zinc by plant roots, leading to a problem called mineral lock-up.

However, rapid growth strategies implemented in industrial agriculture have led to a phenomenon known in the literature as the dilution effect. While the water and carbohydrate content increases in rapidly growing plants, the time available for them to draw micronutrients from the soil decreases. As a result, statistically significant reductions in calcium and magnesium levels are observed in leafy green vegetables and fruits today compared to decades ago.

Graph: Depletion of Ca and Mg Minerals in Foods Over Years (1940-2020)

Graph explanation: Taking 1940 as a reference, representing the natural capacity before industrial agriculture exhausted the soil; over an eighty-year period, the calcium content in agricultural products was halved (52% loss), and there was a significant and critical 12% decrease in magnesium levels. This profound mineral depletion in foods proves that not eliminating calcium and magnesium ions naturally present in drinking water during purification and preserving them with Sterilisa Water is a vital clinical necessity.

This mineral loss in foods has made it necessary to redefine the biological role of drinking water. Tap and source waters, with their calcium and magnesium ions, are a critical supplementary source that meets a portion of the body's daily mineral needs. However, purification systems commonly used in the effort to access clean water, such as reverse osmosis, while removing pathogens and physicochemical pollutants from water, completely demineralize the water, turning it into a biologically inadequate liquid.

The World Health Organization reports that consuming water completely devoid of minerals can lead to negative effects on bone health, the cardiovascular system, and cellular mineral balance. Depriving a metabolism that does not receive sufficient micronutrients from food of natural minerals from water places a significant metabolic burden on the body's biological budget. The body is forced to draw deficient calcium and magnesium from its bone stores to maintain blood pH balance and enzyme reactions.

The modern scientific approach to water safety aims to remove water as a biological threat while preserving its cellular nutritional value. At this point, Sterilisa Water eliminates traditional demineralization problems by working on the principle of selective purification.

The 8-layer purification technology and Pulsed Light Technology, which form the basis of the system, do not interfere with the natural structure of the water and the highly bioavailable ionic minerals dissolved within it. The Sterilisa Water system removes pollutants from the water and disinfects the water by inactivating pathogens such as viruses and bacteria that pose a risk of waterborne transmission.

As a result, Sterilisa Water eliminates microbiological and physicochemical threats in water while preserving its natural mineral profile. This ensures that individuals do not experience additional mineral loss during this period of combating hidden hunger, and critical elements for cellular functions are safely transferred to the body's repair mechanisms.

References:

·         Jenkins, A., Murthy, D., & Rangan, A. (2024). Monitoring the mineral content of plant foods in food composition databases. Dietetics3(3), 235-248.

·         Mayer, A. M. B., Trenchard, L., & Rayns, F. (2022). Historical changes in the mineral content of fruit and vegetables in the UK from 1940 to 2019: A concern for human nutrition and agriculture. International Journal of Food Sciences and Nutrition73(3), 315-326.

·         World Health Organization (WHO). (2005). Nutrients in Drinking Water. Water, Sanitation and Health Protection of the Human Environment.

 

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