Water quality as the key to health

Introduction: A pioneer of water research

Professor Louis-Claude Vincent (1906-1988) was a French hydrologist and hydraulic engineer who pioneered decades of research into water quality and its impact on human health. Today, his findings form the basis for a deeper understanding of the relationship between water quality and health.

The groundbreaking 12-year study

Over a period of 12 years, Professor Vincent systematically examined the drinking waters of all French cities and compared them with the health statistics of the respective regions. The results of this comprehensive study were clear and revolutionary:

Key findings:

• In places with very hard, mineralized drinking water, the number of cardiovascular diseases was significantly higher than in places with soft, low mineralized water
• Chlorinated drinking water led to a particularly high cancer rate
• The tendency to cancer and cardiovascular diseases was significantly higher in regions with hard, calcareous and salty water

Bioelectronic Terrain Analysis (BETA)

From his research results, Vincent developed the “Bioelectronic Terrain Analysis” – a revolutionary diagnostic system that uses three key parameters to assess water quality and the biological terrain:

1. the pH value

Water that is very low in minerals usually has a slightly acidic pH value. Professor Vincent saw the main benefits in the fact that drinking slightly acidic water stimulates kidney function and thus the kidneys’ excretory capacity.

Optimal range: pH 6.2 to 6.8

2. the electrical resistance (R-value)

The electrical resistance, measured in ohms, is an exact indicator of the purity of water. The fewer dissolved solids (carbonates, sulphates, chlorides) the water contains, the higher its electrical resistance.

Optimum range: Over 6,000 Ohm (corresponds to less than 165 µS conductivity)

According to Professor Vincent, the optimum electrical conductivity of water is below 130 µS, whereby the following classification applies:

• 0-89 µS: Very good detoxifying/detoxifying effect
• 90-129 µS: Good detoxifying/detoxifying effect
• 130-199 µS: Still satisfactory
• From 200 µS: No more positive effect

3. the redox potential (rH2 value)

The redox potential indicates the degree of oxidation or reduction of a liquid. The rH2 value is a measure of the number of electrons in a liquid.

Optimal range: rH2 22 to 28

Water that is in the slightly reduced range has the ability to neutralize oxygen radicals, so it has an antioxidant effect.

The scientific justification

Professor Vincent’s approach was based on the realization that the real importance of water lies in its electromagnetic properties, as a solvent and for the elimination of kidney waste products.

Why low-mineral water is ideal:

1. Better cell absorption: according to Professor Vincent, water with a high electrical resistance is more easily absorbed by the body
2. Promotes detoxification: High-resistance water is more easily absorbed by the cell than water with low electrical resistance
3. Disease prevention: Since the development of cell diseases can be derived from a chronic undersupply of pure water to the cell, high-resistance water is considered an excellent prevention against cancer

Relevance for reverse osmosis and water structuring

Professor Vincent’s findings provide a scientific basis for modern water treatment technologies:

Reverse osmosis meets Vincent’s criteria:

• Removal of dissolved solids → high electrical resistance
• Reduction of conductivity to below 130 µS
• Creation of a neutral to slightly acidic pH value

Water structuring as a supplement: Structuring can further optimize the bioelectronic properties of already purified water and increase its bioavailability.

Practical application today

Vincent’s parameters provide a clear orientation for optimal drinking water:

• pH value: 6.2 – 6.8
• Conductivity: Below 130 µS
• TDS value: Below 65 ppm
• Redox potential: rH2 22-28

Source situation and scientific classification

Important note on sources: Professor Vincent’s original epidemiological studies from the 1950s-60s were never published in international peer-reviewed journals – a common problem with pioneering work at the time. His findings are based on his 12 years of practical work as an engineering consultant for over 300 French municipalities.

Available primary sources:

• “Traité de bio-électronique” (1979)
• “Bio-Électronique Vincent – Évolution de 1952 à 1986” (1979)
• “Aperçu sur la bio-électronique” (1954)
• Bibliography with 72 references on bioelectronics

Modern scientific validation: Although Vincent’s specific bioelectronics method is scientifically controversial, his basic observations have been partially confirmed:

• Epidemiological studies confirm correlations between water hardness and cardiovascular disease
• The link between chlorination and increased cancer risk is documented
• The importance of water purity for cell function is generally recognized today
• A study published in PubMed in 1987 examined Vincent’s method for analyzing body fluids

Conclusion: A legacy for water quality

With his systematic investigations, Professor Louis-Claude Vincent laid the foundation for our current understanding of the importance of water quality. His three parameters – pH value, electrical resistance and redox potential – still provide valuable orientation for the assessment of drinking water today.

For users of reverse osmosis devices and water structuring technologies, Vincent’s findings provide a scientific rationale for the importance of pure, energetically high-quality water. The combination of Vincent’s parameters and modern treatment technologies makes it possible to produce water of optimum quality for health and well-being.

Bibliography and further sources

Primary literature by Louis-Claude Vincent:

• Vincent, L.C. (1979): Traité de bio-électronique, Éditions Stec
• Vincent, L.C. (1979): Bio-Électronique Vincent – Évolution de 1952 à 1986, Éditions Stec
• Vincent, L.C. (1954): Aperçu sur la bio-électronique, Pacomhy
• Vincent, L.C. (1969): Le Paradis perdu de Mu, Éditions de la Source

Secondary literature:

• Elmau, H.: Bioelectronics according to Vincent. Acid-base, water and electrolyte balance in theory and practice , Publisher Pro Medicina
• Morell, F. (1988): Water-Nutrition-Bioelectronics according to the Vincent Method, Erfahrungsheilkunde Volume 37, Haug-Verlag
• La bioélectronique de Louis Claude Vincent (1996): Recueil de divers auteurs sur les études faites en 1960

Scientific references:

• “The bioelectronic factors of human body fluids and intravenous replacement solutions” (PubMed, 1987) – Study on the application of Vincent’s measurement methods
• Fougerousse, A.: La Bio-électronique de L.C. Vincent – Université de Strasbourg
• Complete bibliography with 72 references in: “La Bioelectronique De Louis Claude Vincent” (70 pages)

Modern research:

• Epidemiological studies on water hardness and cardiovascular disease
• WHO studies on chlorination and health risks
• Current research on water quality and cell function

Transparency note: While Vincent’s observations on water quality provided important input, his bioelectronics method is not fully scientifically validated. However, the practical parameters for water quality have proven to be a useful guide