Water is one of the most studied substances on Earth—and still one of the least understood. Beyond its visible purity lies a deeper complexity: molecular behavior shaped by movement, mineral interaction, surface contact, and subtle environmental forces. At Natural Action, we approach water science with refined curiosity and disciplined restraint. We honor credible research, explore emerging discoveries, and document observable results—without exaggeration or assumption. This page is an invitation into the evolving world of structured and revitalized water research, where modern inquiry meets nature’s intelligence, and where the future of water wellness is being quietly written.
At Natural Action, science is not a marketing tool—it is a discipline we approach with reverence. Water remains one of the most studied yet least understood substances on Earth. As research continues to evolve, so too does our commitment to exploring its deeper complexity with both intellectual rigor and refined restraint.The field of structured and revitalized water research is expanding. Advances in molecular imaging, surface chemistry, and biophysics have revealed that water behaves differently near biological interfaces than once believed. In particular, laboratory investigations into Exclusion Zone (EZ) water suggest that water adjacent to hydrophilic surfaces can form structured layers with distinct electrical charge and physical properties. These findings invite a reconsideration of water’s role in biological systems—while reminding us that exploration is ongoing and conclusions must be drawn carefully.We honor this research without overstating it. Structured water is not a declaration—it is a developing field of inquiry. Our role is to engage thoughtfully, test responsibly, and present findings with clarity and integrity.
Natural Action Research Archives and Citations
Among the most compelling developments in modern water science is the study of Exclusion Zone (EZ) water, pioneered by Professor Gerald Pollack and his research team at the University of Washington. Laboratory investigations suggest that water adjacent to hydrophilic surfaces may form structured layers with distinct electrical charge and physical properties—behavior that differs from bulk water as traditionally understood. This body of work invites a more nuanced view of water’s molecular organization, particularly within biological environments where surface interaction is constant. While research in this field continues to evolve, EZ water studies represent one of the more rigorous and widely discussed explorations into structured molecular behavior. For Natural Action, this research reflects a forward-thinking alignment with credible scientific inquiry—an acknowledgment that water’s architecture may be more sophisticated than once assumed. It is an area of study that embodies both innovation and intellectual discipline.
Water is not only shaped by what it contains, but by the forces it encounters. Among the most compelling areas of modern inquiry is the study of how magnetic fields influence water behavior, particularly in relation to mineral interaction, flow dynamics, and scale formation. This is the science behind our MagnaRay. While the science continues to evolve, peer-reviewed research has explored how controlled magnetic exposure can affect crystallization processes, ion behavior, and the way minerals precipitate in water systems.
Several published studies suggest that magnetic conditioning may influence the formation of calcium carbonate crystals—shifting mineral precipitation away from hard, adhesive scale and toward structures that are less likely to bond to surfaces. This research holds particular relevance for whole-home water environments, where mineral scaling can compromise plumbing efficiency, reduce appliance lifespan, and diminish the overall quality of water use.
At Natural Action, we view magnetic influence not as a claim of transformation, but as a sophisticated field of investigation—one rooted in physics, material science, and applied engineering. This body of research supports the concept that water can respond to subtle energetic forces in measurable ways, offering a credible foundation for modern water conditioning systems designed to enhance performance without chemicals or additives.
Beyond molecular theory lies practical performance. A significant body of peer-reviewed research has examined how magnetic fields and flow conditions influence calcium carbonate precipitation and mineral scale formation—an area directly relevant to residential and commercial water systems.
These studies explore how magnetic exposure may alter crystal morphology, potentially reducing hard scale adhesion within pipes and appliances. Investigations published in journals such as Water Research and Desalination provide a foundation for understanding how mineral behavior can be influenced under controlled conditions.
For Natural Action, this category of research strengthens our engineering credibility for our MagnaRay. It supports our focus on anti-scale performance and mineral management—delivering tangible, system-level benefits while maintaining the elegance expected of a luxury whole-home solution.
Water is the primary medium of life—comprising the majority of the human body and serving as the foundation for circulation, temperature regulation, cellular communication, and metabolic balance. In clinical and nutritional science, hydration is recognized not simply as fluid intake, but as a dynamic physiological process involving absorption, distribution, and intracellular equilibrium.
Extensive research in human hydration science has explored how water supports cognitive performance, cardiovascular efficiency, thermo regulation, and overall vitality. Studies published in journals such as Nutrition Reviews and the European Journal of Clinical Nutrition reinforce a fundamental truth: optimal hydration is essential to maintaining homeostasis across every biological system.
Within this broader context, emerging research into water structure and interfacial behavior has prompted deeper questions about how water interacts at the cellular level. While the study of structured or organized water within biological environments remains an evolving field, investigations into exclusion zone (EZ) water and intracellular fluid dynamics suggest that water’s behavior near membranes and proteins may be more complex than once assumed.
At Natural Action, we approach this category of research with clarity and discipline. We do not present hydration science as a claim of cure or medical outcome. Rather, we recognize that the quality and behavior of water deserve thoughtful consideration within the larger framework of human wellness.
True refinement begins with understanding—honoring both established hydration science and the ongoing exploration into water’s deeper physiological relationships.
One visual dimension of structured water research lies in crystallography. Through controlled freeze-crystal imaging, researchers have documented variations in ice crystal formation that reflect differences in molecular organization.
Our Crystal Analysis Reports, conducted using the Natural Action Portable Unit, examine changes in freeze patterns before and after exposure to our technology. These visual comparisons, from Veda Austin, offer a compelling perspective on structural shifts within water—providing observable data while acknowledging the broader scientific context in which such imagery must be interpreted.
Crystallography does not claim to define health outcomes. Rather, it serves as a visual instrument—revealing patterns of symmetry, coherence, and organization that contribute to the broader conversation surrounding structured water.
Across agricultural, animal, and hydration research, investigators have explored how magnetically influenced or dynamically structured water may interact with living systems.
Published studies have examined:
Preliminary findings in certain models suggest that structured or magnetically influenced water may support improved hydration dynamics and plant vitality. However, outcomes vary by methodology, environment, and system design—reinforcing the need for careful evaluation and continued study.
We present this body of research not as definitive medical claims, but as part of an expanding scientific landscape that invites deeper investigation.
The concept of revitalized water also draws inspiration from the work of Viktor Schauberger, who observed that water in nature moves in spirals, vortices, and implosive flow patterns. Modern explorations into dynamic flow forms investigate how movement itself may influence water behavior.
All Natural Action units incorporate vortex motion within their flow-form architecture, alongside carefully selected materials such as shungite and ancient quartz. These design elements are inspired by nature’s geometry—intended to support coherent flow patterns that mirror water’s movement in rivers and springs.
Dynamic flow is not mysticism—it is hydrodynamics. And the study of how motion influences fluid structure remains an active and evolving area of research.
For those who value depth, evidence, and intellectual clarity, we offer our Natural Action Research Archive—a curated reference library of scientific literature, peer-reviewed studies, and foundational publications related to structured water, exclusion zone (EZ) water, mineral crystallization, magnetic influence, and biological water research.
This archive is not presented as marketing—it is presented as a resource. A refined collection for researchers, wellness professionals, engineers, and discerning individuals who wish to explore the scientific landscape behind modern water structuring technologies.
Within this archive, you will find selected works spanning:
We believe true luxury is transparency—offering not only a product, but the knowledge that inspires it.
Download the Natural Action Research Archive (PDF)
