NanoVi® - Research at the interface of biophysics and health

Why the focus on proteins is paramount

Proteins are the essential building blocks of life. They carry out virtually all cellular processes.

For these proteins to function, they must fold into specific three-dimensional (3D) shapes.

Proteins are often called the “machines of life” because they are essential molecular machines that perform almost all functions in cells. They act as motors, signaling molecules, pumps, transporters, enzymes, and structural components that keep living organisms alive—from muscle movement to DNA replication. Their function depends on their precise shape and movement. They build structures, catalyze reactions, transport substances like oxygen (hemoglobin), fight infections, and even build other protein machines like ribosomes, creating the complex network that controls every organism.

What proteins do:

Movement: Motor proteins make muscles contract, while other proteins power the flagella for cell movement.

Transport & Storage: They transport nutrients (like oxygen) and store vital substances; Membrane proteins pump ions and nutrients into and out of cells.

Mitochondrial machinery: Small proteins assemble the electron transport chain in the mitochondria, thus controlling energy production and the response to cellular needs.

Structure: Proteins form the framework for cells and tissues (e.g., collagen).

Catalysis (enzymes): They accelerate vital chemical reactions, break down food, and create new molecules.

Signaling: They function as hormones and receptors to transmit messages between cells.

Defense: Antibodies (proteins) bind to invaders such as bacteria and neutralize them.

Information processing: Ribosomes, which are made of proteins, produce other proteins according to genetic instructions.

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NanoVi® increases cell activity by supporting the important, fundamental process of protein folding.

Water is the most abundant molecule in the body; it surrounds and fills all cells, which contain up to thousands of proteins. An estimated 900,000 differently structured proteins—including enzymes, hormones, antibodies, and more—control virtually all cellular functions. To form a protein, a chain of amino acids must be folded into a three-dimensional structure in a process called protein folding. This fundamental process enables all vital, protein-dependent biological processes. With our patented NanoVi technology, we can specifically support this essential process.

The problem: damage caused by oxidative stress

Cell damage to proteins caused by free radicals hinders:
• DNA repair
• Mitochondrial repair
• Many metabolic processes
• Countless cellular activities
• Cell division

All cellular activity requires energy. When a cell obtains energy from oxygen and glucose, free radicals are always produced. Some of these free radicals are in an excited, high-energy state and release this electromagnetic energy into the surrounding water. Regardless of whether they are excited or not, free radicals inevitably cause oxidative stress, damaging all cell components.
This triggers a vicious cycle: the more active a cell is, the more free radicals it produces, and the greater the damage it sustains. Proteins are particularly vulnerable. Damage from oxidative stress leads to the unfolding of their complex 3D structures. Once unfolded, proteins lose their ability to perform vital functions and cell repair. This includes repairs to DNA and mitochondria for energy production. As oxidative damage increases, cell activity decreases. Over time, this cumulative damage contributes to aging processes, diseases, and both physical and mental decline.

Understanding water at the molecular level

By reducing protein damage, cells regain their full repair and regeneration capacity. Restored proteins repair damage caused by oxidative stress, increase mitochondrial ATP production, improve detoxification, and enhance the utilization of oxygen, nutrients, and other ingested substances. Ultimately, restored proteins improve the functions of all cellular processes.

The role of water in protein folding

In cell biology, the properties of water—energy absorption, the formation of coherent domains, and surface order—are fundamental to protein folding. The process begins with the release of specific, absorbable electromagnetic energy by excited free radicals. This energy is absorbed by the surrounding water molecules and forms coherent domains, creating a thin layer of more highly ordered water molecules on the surface of unfolded proteins.

Subsequently, the crucial entropy exchange for protein folding takes place. Unfolded proteins exist in a disordered state (high entropy). To fold into a more ordered protein, the unfolded protein must transition to an ordered state (low entropy). The water relinquishes its order, the proteins gain order, fold, and become structured and functional.

The solution: NanoVi® cell regeneration technology

The patented NanoVi® technology emits water-absorbing electromagnetic energies—including those released by free radicals—to generate and deliver coherent domains. These domains require closely spaced water molecules for delivery. The NanoVi® device uses a humidified airflow to deliver these domains to the mucous membranes, from where they disperse throughout the body’s water.

Coherent water domains are essential for the formation of exclusion zones (EZs) on the surface of proteins, which are crucial for protein folding. Therefore, NanoVi® is also referred to as a protein folding support technology.

NanoVi® is manufactured in the USA, is approved as a medical device in several countries, and has met the required independent clinical trials and quality management standards.

The benefits of NanoVi applications: Support for protein folding

In the device, various electromagnetic energies are emitted into a humidified air stream, including those emitted by free radicals (and thus bioidentical). The water molecules in this air stream absorb these energies, which then leads to the formation of coherent domains.

When the humidified air stream comes into contact with the mucous membranes of the nose and mouth, the coherent domains are transferred to the body’s own water network and spread further into the cells. This transfer increases the order of the water molecules on the cell surfaces and thus supports protein folding in order to maintain vital protein structures and functions.

Effects and benefits of restored protein functions

By reducing protein damage, cells regain their full repair and regeneration capacity. Restored proteins repair damage caused by oxidative stress, increase mitochondrial ATP production, improve detoxification, and enhance the utilization of oxygen, nutrients, and other ingested substances. Ultimately, restored proteins improve the functions of all cellular processes.

NanoVi for increased performance

Increases physical and mental performance, shortens recovery time, increases endurance, and strengthens resilience.

NanoVi for health and regeneration

Increases physical and mental performance, shortens recovery time, increases endurance, and strengthens resilience.

NanoVi against aging and longevity

Increases physical and mental performance, shortens recovery time, increases endurance, and strengthens resilience.