Water Revitalization: Research, History, Concepts, and Sources
Last updated: March 30, 2026 • Estimated reading time: about 11 minutes
English Abstract
This page offers a structured overview of the main ideas, models, and reference points associated with water revitalization. It brings together cited research, disputed or non-consensus frameworks, and historical or conceptual influences, while clearly distinguishing between them. It also defines key terms such as structured water, EZ water, coherence domains, and Water-on-Water Induction.
These definitions clarify how the concepts are used in different contexts.. Where the field reaches the limits of current classical measurement, that boundary is stated openly and explicitly. The purpose of this page is not to claim a final scientific consensus, but to provide a precise, transparent, and well-organized knowledge base for serious readers who want to examine the subject carefully.
. It brings together cited research, disputed or non-consensus frameworks, and historical or conceptual influences, while clearly distinguishing between them. It also defines key terms such as structured water, EZ water, coherence domains, and Water-on-Water Induction, so readers can understand how these concepts are used in different contexts. Where the field reaches the limits of current classical measurement, that boundary is stated openly and explicitly. The purpose of this page is not to claim a final scientific consensus, but to provide a precise, transparent, and well-organized knowledge base for serious readers who want to examine the subject carefully.
For a direct explanation of how these concepts are applied in practice, see the MEYBRIAH Technology – Principle of Operation page.
For the broader context, positioning, and intent behind this work, see the About MEYBRIAH page.
For practical applications and implementation across personal, home, and professional environments, see the Products and Applications section.
For clarification of terminology and common questions, see the FAQ page.
For a transparent explanation of what is known, what is not measured, and how the field is approached, see the Transparency & Accuracy page.
Introduction
Water is one of the most studied substances in the world, and one of the most difficult to fully understand. Even within classical science, water is known as a substance with a long list of unusual properties: anomalous density behavior, including expansion upon freezing and maximum density around 4°C, unusually high surface tension, exceptional energy absorption capacity, and behavior that cannot always be predicted from simple molecular structure alone. This list of anomalies is well known and documented in the scientific literature, and has accompanied water research for decades.
Alongside established chemical and physical knowledge, there are research areas and lines of discussion that deal with additional aspects of water: spatial structure, internal order, coherence, water memory, and information transfer. Some of the phenomena in these areas have been observed and documented under laboratory conditions. Some rely on theoretical models that have not yet been fully confirmed. Some still lack an agreed language of measurement that would allow clear confirmation or refutation. This is an open field that is still undergoing investigation, debate, and mapping.
This page does not seek to settle those disputes. Its purpose is to map the field: its history, the main researchers who have shaped it and continue to shape it, the concepts it uses, the available measurement tools, and the boundaries that remain open. Each name, concept, and claim is presented with the level of authority that fits it: cited academic research, disputed academic research, or historical and conceptual influence.
How to Read This Page
Discussion of water revitalization moves between scientific research, theoretical models, pioneering observations, and practical applications.
For that reason, this page is built according to several principles that are important to understand in advance:
Distinction between layers of authority. Not every name mentioned here carries the same level of support. Some researchers published in peer-reviewed journals, some worked under laboratory conditions with disputed results, and some contributed mainly observations, ideas, or practical applications. Each name is classified accordingly.
Distinction between observation and interpretation. When a researcher demonstrates a phenomenon in the laboratory, that is an observation. When that researcher proposes an explanation for the phenomenon, that is an interpretation. Both matter, but they are not the same. This page maintains that distinction carefully.
Distinction between what can be measured and what still cannot. Some of the phenomena described in this field have been measured with recognized tools. Some have not. The absence of measurement is not a refutation, but it is not confirmation either. This page states that boundary explicitly.
Careful language. Expressions such as “according to this approach,” “the field describes,” and “according to the conceptual model” appear intentionally. They indicate that a claim belongs to the field’s own framework, not to established scientific consensus.
What the Field of Water Revitalization Is
The field of water revitalization revolves around one central question: can the properties of water be influenced by means that are not chemical, mechanical, or electrical?
Classical science describes water as H₂O molecules in liquid, solid, or gaseous states. Chemical composition, temperature, pressure, and mineral content are the familiar measurable parameters. Conventional water treatment systems, including filtration, disinfection, softening, and reverse osmosis, operate within that framework.
The field of water revitalization asks a different question. It examines the possibility that water has additional properties, structural, energetic, or informational, that are not yet fully measured by standard tools. Different researchers have used different terms to describe those properties: structured water, living water, fourth phase, coherence domains, water memory.
An important distinction is needed here: these terms do not necessarily describe the same phenomenon. They emerged from different research traditions, different periods, and different tools. Some are based on laboratory observations published in peer-reviewed journals. Some are based on theoretical models that have not yet been experimentally confirmed. Some rely mainly on practical observation.
What unites them is the question itself: whether there is something in water beyond what is measured today, and whether it can be influenced.
What Water Revitalization Is Not
Water revitalization is not filtration. It does not remove particles or contaminants.
Water revitalization is not chemical treatment. It does not add substances to the water.
Water revitalization is not disinfection. It does not replace required treatment of drinking water quality where such treatment is necessary.
Water revitalization is not a medical claim. The field is positioned in the world of Wellness, not medicine.
These distinctions are essential. Any confusion between them leads to a false presentation of the field.
What Can Be Measured Today, and What Still Cannot
The field of water revitalization faces an inherent gap between observation and measurement tools. Some of the phenomena described in the field have been observed and measured with recognized scientific tools. Some have not.
What Has Been Measured
Exclusion Zone, or EZ water. Professor Gerald Pollack and researchers in his laboratory at the University of Washington demonstrated that near hydrophilic surfaces, a layer of water forms with characteristics that differ from bulk water, including particle exclusion and charge differences. The EZ phenomenon has also been observed by additional research groups. The broader interpretation of that phenomenon, namely whether it indicates a “fourth phase” of water, remains disputed.
Freezing crystallization patterns. Several researchers have examined the patterns of ice crystals in water from different sources. The images are documented. Their interpretation, namely whether they indicate a stable “structure” or “memory,” remains disputed.
Anomalous properties of water. Professor Martin Chaplin documented dozens of anomalous properties of water that are not expected from simple molecular behavior.
What Still Cannot Be Measured with Classical Tools
The transfer of information from water to water without direct contact. This is a central principle in the field of water revitalization. Several researchers have described it, but there is currently no agreed and established measurement method that can confirm or refute it unequivocally.
Long-term water memory. The question of whether water can retain structural or energetic information over time has been studied since the 1980s. To this day, there is no agreed measurement method that establishes or rules out the phenomenon.
The effect of water structure on biological systems. Some researchers describe a relationship between water structure and biological processes. Some observations are documented. The mechanism has not yet been fully clarified.
What This Gap Means
The absence of measurement is not a refutation. But it is not confirmation either.
The field of water revitalization stands at a point where there are observations, theoretical models, and practical applications, but standard measurement tools still do not cover everything the field describes.
That does not mean the descriptions are wrong.
It means they require careful language, distinction between layers, and avoidance of presenting them as scientific certainty.
MEYBRIAH adopts that approach: to present what can be presented, to mark what remains conceptual, and not to claim more than is supported.
Historical Timeline: The Roots of the Field
The 1930s to the 1950s
Viktor Schauberger is one of the earliest and most influential figures in the modern discussion of water, natural flow, and vortex movement. His work did not emerge from institutional academic research, but from practical observation of water movement in nature, forestry, and flow dynamics. His historical contribution lies in placing the idea that water has a quality related to the way it moves, not only to its chemical composition.
The 1960s
Theodor Schwenk deepened the study of flow patterns, movement forms, and water quality through his work and his book Sensitive Chaos. Here the discussion received a more systematic formulation: not only what is in water, but how water organizes itself in motion, and which recurring patterns appear in it and throughout nature.
The 1980s
The 1980s saw a prominent wave of practical applications in the field of water revitalization.
Johann Grander developed the approach that became known as water revitalisation. The company that bears his name presents him as the person who discovered the process of water revitalization and gave the method its name.
During the same period, Roland Plocher developed ROLAND PLOCHER® integral-technik. According to the company’s own materials, the technology was developed in 1980, followed by years of research and application development in water, agriculture, and the environment.
1988
The year 1988 is an important turning point, because it brought forward two very different lines of discussion about water.
In that same year, Jacques Benveniste and colleagues published a paper in Nature that opened the broad modern discussion about “water memory.” At the same time, Emilio Del Giudice and Giuliano Preparata published a theoretical paper in Physical Review Letters on coherent dynamics in water, which later became one of the central anchors of the discussion on coherence domains.
The 1990s and 2000s
During this period, the field split more clearly into several paths:
One path continued to develop theoretical models of coherence, structure, and order in water.
A second path focused on applications, practical observations, and revitalization methods.
A third path searched for new ways to measure the phenomena the field describes.
This is the stage at which the field no longer appears as a single idea, but as a multidirectional field.
2000 Onward
At the beginning of the 21st century, two additional directions became especially prominent.
Gerald Pollack and his laboratory at the University of Washington developed the research on EZ water and reintroduced the question of the internal structure of water near hydrophilic surfaces.
At the same time, Luc Montagnier published work in 2009 on electromagnetic signals in aqueous solutions derived from DNA sequences, bringing the questions of information, memory, and signals in water back into discussion in a new way. Here too, this remained a disputed line of research.
What This Timeline Means
The field did not emerge from one product, one name, or one tradition. It developed gradually through observations in nature, pioneering work, theoretical models, laboratory experiments, and practical applications. That is exactly why, even today, it still includes history, research, controversy, and an ongoing attempt to map phenomena that are not yet fully settled.
Researchers and Key Figures
This section does not attempt to include every name that has operated in the field. It concentrates on anchor figures that make it possible to see the map of the field through three layers of authority: cited academic research, disputed academic research, and historical or conceptual influence.
Layer A: Cited Academic Research and Active Research Directions
Professor Gerald Pollack
Professor of bioengineering at the University of Washington, identified more than anyone with research on Exclusion Zone Water, or EZ water. His work became a central reference point in the discussion of water near hydrophilic surfaces. The EZ phenomenon itself has also been observed by additional research groups, but its broader interpretation as a “fourth phase” of water remains disputed.
Professor Emilio Del Giudice
An Italian theoretical physicist associated with INFN, and one of the central figures in connecting condensed matter physics, coherence, and collective processes in water and living matter. His work contributed to the theoretical framework from which much of the later discussion of coherence domains developed.
Professor Giuliano Preparata
An Italian theoretical physicist who worked alongside Del Giudice and co-authored the 1988 paper in Physical Review Letters. His main contribution to the discussion on water lies in establishing a theoretical basis for collective coherence in aqueous systems, a basis that influenced later researchers and models.
Professor Martin Chaplin
A British researcher associated with one of the most comprehensive literary and scientific maps of water research. His contribution is not one large claim, but a systematic mapping of water structure, water states, and anomalous properties. That makes him especially important for a page like this, because he represents the meeting point between established scientific literature and the open questions the field continues to ask.
Layer B: Disputed Academic Research or Research Not Fully Reproduced
Professor Jacques Benveniste
A French immunologist who published, with colleagues, a paper in Nature in 1988 that ignited the modern discussion of “water memory.” His historical importance in the field is very large, because he turned the subject from a marginal discussion into an international question. At the same time, the claims associated with his work remained highly disputed and did not become scientific consensus.
Professor Luc Montagnier
A French virologist and Nobel Prize laureate who published, in 2009, work on electromagnetic signals in aqueous solutions derived from DNA sequences. His contribution to the field lies in reopening questions about signals, information, and high dilutions in water. However, this line of research remains disputed and has not been accepted as established scientific understanding.
Professor Vladimir Voeikov
A Russian biologist from Lomonosov Moscow State University who studied the role of water, reactive oxygen species, photons, and oxidative processes in living systems. His contribution lies in connecting water, oxidation processes, and non-equilibrium models. His work is cited within discussions of living water, but it is not part of broad scientific consensus.
Layer C: Historical and Conceptual Influence
Viktor Schauberger
An Austrian forester and observer. His central contribution to the field is the idea that the way water moves and organizes itself in nature has significance beyond its chemical composition. His work has influenced researchers, engineers, and application developers for decades.
Theodor Schwenk
A German flow researcher and natural thinker associated with the book Sensitive Chaos. His work connected movement patterns in water and air with wider patterns in nature, and gave the discussion of water a more systematic formulation: not only what water contains, but how movement, form, and flow relate to quality.
Johann Grander
An Austrian pioneer in the field of practical water revitalisation applications. The company that bears his name presents him as the person who discovered the process of water revitalization and gave the method its name. In the context of the field as a whole, his importance lies in marking the transition from ideas and observations to a clear applied and commercial language.
Roland Plocher
A German pioneer who developed ROLAND PLOCHER® integral-technik. According to PLOCHER materials, the technology itself was developed in 1980, and the German company based in Meersburg was later established in 1992. His importance in the field lies in establishing another applied line, based on the transfer of information to carrier materials and indirect influence on water, environment, and biological processes.
Alexander Gurwitsch
A Russian biologist associated with early research on mitogenetic radiation and non-chemical interactions between living systems. His importance to the field does not lie in direct work on water revitalization, but in the fact that his work became one of the historical sources for later discussion of weak radiation, biophotons, and distant influence, topics that later shaped part of the discussion around water and information.
Dr. Masaru Emoto
A Japanese author associated with visual documentation of ice crystals in water from different sources and conditions. His work had a major influence on the public discussion of water, intention, and structure, but his methods and conclusions remained highly disputed and are not part of scientific consensus.
Why This Division Matters
Not every name here operates in the same framework, and not every contribution belongs to the same kind of support. Some figures contributed cited academic research. Some opened research lines that remained disputed. Some influenced the field mainly through observations, ideas, and applications. That distinction is a condition for reading the field accurately.
Currents, Controversies, and the Limits of Agreement
The field of water revitalization includes several layers of knowledge that do not operate within the same framework and are not examined with the same tools. Some of it relies on cited academic research, some on research lines that remained disputed, and some on pioneering observations, practical applications, and historical influence. These layers are not identical, but they do not cancel each other out. Together they form the wider field within which thinking about water, structure, order, coherence, and information developed.
The fact that the field has not converged into broad agreement does not result from a single cause. In some cases, the issue is a measurement gap. In others, it comes from differences between disciplines such as physics, biology, water engineering, and applied observation. In some cases, it also comes from institutional structures of research, funding, and recognition that do not always favor questions that sit between disciplines or outside established research frameworks. For that reason, the controversy in this field is not only about results, but also about language, method, and the boundaries of what counts as acceptable knowledge.
This page does not seek to decide between the different currents. Its purpose is to map them in a precise, transparent, and readable way. The distinction between established research, open research, theoretical model, and historical influence is a condition for understanding the field. Only through that distinction can the field be read without reducing it unnecessarily, and without assigning it a certainty it does not have.
Glossary of Terms
Structured Water
A term used to describe water that is attributed with internal order or spatial organization beyond the simple description of bulk water. It is not a uniform scientific term with one agreed definition, but rather an umbrella label for several approaches, observations, and models. In some discussions it refers to momentary and dynamic structure, and in others to a more ordered state with functional significance.
Living Water
A broad historical and cultural term used to describe water perceived as natural, flowing, fresh, and of high quality. It is generally not a laboratory term, but a term that describes quality of experience, natural origin, movement, freshness, or a sense of vitality. On this page it appears as a term of discourse, not as a rigid scientific definition.
Water Revitalization
A term describing approaches, processes, or systems that seek to influence water quality without limiting the question to chemical composition alone. In this field, “revitalization” usually refers to an attributed change in order, structure, coherence, or internal quality of water. The term is not identical to filtration, disinfection, softening, or chemical treatment.
Water Memory
A term describing the possibility that water retains a trace, signature, or information of a substance, field, process, or previous contact, even when current chemical composition does not fully explain it. This is one of the most disputed concepts in the field. Its historical importance is significant, but its scientific status remains open.
Coherence Domains
A theoretical term associated mainly with the work of Emilio Del Giudice and Giuliano Preparata. It describes regions in which water molecules act together in a collective and coordinated way, rather than behaving only as a random collection. It is a theoretical model with influence in the discussion, but not a framework accepted in broad scientific consensus.
EZ Water
Short for Exclusion Zone Water. This term is associated with Gerald Pollack’s research and describes a layer of water formed near hydrophilic surfaces, to which properties different from bulk water are attributed, such as particle exclusion and charge differences. The phenomenon itself has been documented, but its broader interpretation remains disputed.
The Fourth Phase of Water
A term used to describe a broader interpretation of EZ research, according to which water has an additional form of organization alongside solid, liquid, and gas. The term is especially associated with Pollack, but it is not accepted as an agreed definition in classical science. On this page it is presented as an important term in the discussion, not as a settled fact.
Vortex Dynamics
A term describing the relationship between motion, rotation, spiral flow, and water organization. It appears in works, observations, and methods associated with Schauberger, Schwenk, and others. In the field of water revitalization, vortex dynamics is sometimes understood not only as a flow phenomenon, but also as having significance for water quality.
Water-on-Water Influence
A term describing the indirect influence of one water system on another without direct contact between them. It is a central discussion principle across different water revitalization fields. On this page it appears as a broad field term. MEYBRIAH’s specific wording for this principle, Water-on-Water Induction, is detailed on MEYBRIAH’s technology pages.
Information Water
A term used by MEYBRIAH to describe water that serves as an internal reference core within its revitalization systems. It is a branded and operational term used by MEYBRIAH, not a general term accepted throughout the literature of the field. Within the MEYBRIAH framework, its role is to describe the reference water from which the operating principle of the revitalization core is derived. Closely related concepts also appear in other manufacturers in the field, including GRANDER and EWO, but each approach defines its internal medium and mechanism of influence differently.
Central Questions the Field Asks
Do water properties extend beyond chemical formula alone?
This is one of the most basic questions in the field. Chemistry describes the water molecule and the dynamic bonds between molecules very well, but some researchers and approaches in the field ask whether there are additional levels of organization, temporary or more stable, that carry functional significance.
Can water retain information?
This question stands at the heart of much of the controversy. Some propose that water can retain a signature of a substance, field, process, or previous contact. Others argue that there is currently no agreed basis that allows this to be established. For that reason, this is not only a question of outcome, but also of measurement method, definition, and interpretive framework.
Can water be influenced without direct contact?
The field of water revitalization returns repeatedly to the possibility of indirect influence, without adding material to the water and without direct contact. Different approaches describe that possibility in terms of induction, resonance, information, coherence, or field. To this day, no agreed measurement framework settles that question conclusively.
What is the difference between water revitalization and water filtration?
Filtration deals with the removal of particles, contaminants, off-tastes, chlorine, metals, or other substances. Water revitalization, as described in this field, does not focus on removal, but on an attributed change in water quality, order, structure, or coherence. For that reason, these are two different categories, even when in practice they may appear side by side.
Do movement, flow, and vortex action affect only flow shape, or also water quality?
This is a question that returns throughout the history of the field. In some approaches, movement is not only a mechanical parameter, but also a component connected to internal order, vitality, or water organization. That is why sources, natural flow, vortex movement, and motion patterns remain important in the discussion of living water and water revitalization.
Why does the field remain controversial?
Because it sits between several worlds and several measurement methods, the controversy is not only about results, but also about language, method, and the boundaries of what counts as acceptable knowledge.
What MEYBRIAH Adopts from the Field, and What It Does Not
MEYBRIAH operates within a broad field of research, observation, ideas, and applications related to water revitalization. It adopts the distinction according to which water is not understood only as a chemical substance, but also as a carrier of order, internal organization, and quality that changes according to context, movement, source, and environmental conditions.
MEYBRIAH adopts from the field the principle of indirect influence on water without direct contact, without the addition of substances, and without chemical or electrical action. It also adopts the importance the field places on the distinction between treating water at the level of composition and addressing water at the level of order, organization, and attributed quality.
MEYBRIAH does not adopt every claim, every explanation, or every figure that has appeared throughout the history of the field. It does not present every theoretical model as if it were scientific consensus, and it does not claim that every disputed research line has become established fact. It also does not present its activity as medicine, as a substitute for required drinking water treatment, or as a filtration system.
For that reason, the absence of direct measurement or broad agreement does not necessarily indicate lack of validity, but rather a gap between the questions the field raises and the tools currently available. From that position, MEYBRIAH chooses to present its technology within a Wellness framing, in careful language, and without claiming more than it intends to claim.
Connecting This Field Back to MEYBRIAH
MEYBRIAH does not present itself as the only source in this field, but as one participant within it that formulates a clear position of its own. MEYBRIAH’s technology pages, transparency pages, FAQ pages, and product pages focus on MEYBRIAH’s specific application within a broader field of research, controversy, observation, and historical influence. For that reason, this page should be read as a field page, while MEYBRIAH’s other pages should be read as application pages for technology and products.
Sources and Further Reading
Primary Sources
Davenas, E. et al.
Human basophil degranulation triggered by very dilute antiserum against IgE. Nature (1988).
This is the most important historical primary source for any mention of Jacques Benveniste and the beginning of the modern discussion of water memory.
Del Giudice, E., Preparata, G., Vitiello, G.
Water as a Free Electric Dipole Laser. Physical Review Letters (1988).
This is the most important foundational theoretical source for the coherence axis in water and for coherence domains.
Chai, B. et al.
Effect of Radiant Energy on Near-Surface Water. Langmuir / PMC full text (2009).
This is an important primary source for EZ research associated with Pollack’s group, with an experimental description of exclusion zones near hydrophilic surfaces.
Montagnier, L. et al.
Electromagnetic Signals Are Produced by Aqueous Nanostructures Derived from Bacterial DNA Sequences. Interdisciplinary Sciences (2009).
This is the main primary source for Montagnier’s line of research on electromagnetic signals in aqueous solutions.
Voeikov, V.
Reactive oxygen species, water, photons and life. Rivista di Biologia (2010).
This is a relevant primary source for the line connecting water, oxidative processes, photons, and living systems.
Reviews and Background Sources
Chaplin, M.
Structure and Properties of Water in its Various States. Encyclopedia of Water: Science, Technology, and Society (2019).
This is one of the most accurate and stable background sources for broad scientific framing of water, water structure, and anomalous properties.
Chaplin, M.
Water Structure and Science.
This is an especially important background resource because it gathers literature, anomalies, water structure, and key terms in a form that is highly useful both for human readers and for LLM retrieval.
Kontogeorgis, G. M. et al.
Water structure, properties and some applications: A review. Results in Chemistry (2022).
This is a modern and broad review that connects water properties, structural questions, and discussion of disputed phenomena such as EZ.
Pollack, Gerald H.
The Fourth Phase of Water: Beyond Solid, Liquid, and Vapor. Ebner & Sons (2013).
This is a foundational book for understanding Pollack’s line of thought. It is not a peer-reviewed paper, so it belongs in background and explanation rather than in the category of primary academic sources.
Schwenk, Theodor.
Sensitive Chaos: The Creation of Flowing Forms in Water and Air.
This is an important background source for understanding Theodor Schwenk and the observational and formal line of flow, movement, and water quality.
PKS / Schauberger Family Trust archive on Viktor Schauberger
This is a more appropriate background source than secondary summaries, because it presents the archive and primary materials connected to Schauberger.
Criticism, Controversy, and Limits of Interpretation
Maddox, J., Randi, J., Stewart, W.
High-dilution experiments a delusion. Nature (1988).
This is the central historical criticism of the Benveniste episode, and it should be included whenever Nature 1988 is mentioned.
Teixeira, J.
Can water possibly have a memory? A sceptical view. Homeopathy (2007).
This is a short, clear, and very important source for the criticism category, because it represents a direct scientific skeptical position toward the idea of water memory.
Elton, D. C. et al.
Exclusion Zone Phenomena in Water: A Critical Review of Experimental Findings and Theories. International Journal of Molecular Sciences (2020).
This is the most important critical source for the section on EZ water, because it recognizes the experimental phenomenon while examining alternative explanations and interpretive limits.
Volodyaev, I. et al.
Revisiting the mitogenetic effect of ultra-weak photon emission. Frontiers in Physiology (2015).
This is an excellent source for the category of historical interpretive limits, especially if Gurwitsch and biophotons remain on the page. It places the field within a long history of controversy and non-chemical interaction research.
Chaplin, M. F.
The Memory of Water: an overview. Homeopathy (2007).
This is an important boundary source, because it is neither pure rejection nor full confirmation. It is an intermediate review that presents possible explanatory mechanisms and the main points of controversy.