H-1200: Dispozitiv pentru Inhalare Hidrogen Molecular

H2 is the most powerful antioxidant.

Molecular Hydrogen gas rapidly spreads to the lungs and the brain during inhalation. Only 10 minutes of hydrogen inhalation = 12 tons of hydrogen water intake. Molecular hydrogen works to balance the immune system by deoxidating excessive reactive oxygen species (ROS) - typically generated from stress and convert it into water.

Today, there are multiple clinical research studies being conducted in the United States as well as other countries on the effect of molecular hydrogen on multiple diseases including cancers, as well as over 155 different human and animal disease models. Currently, its effectiveness on the prevention and treatment of the lung damage caused from viral infections is being studied by many research groups.

Hydrogen Separation Technology

In our current industrial world, hydrogen has risen as a hot topic. Thus, the technology to separate hydrogen by converging it with a different element on earth has been drawn to attention.

The most common hydrogen separation technology includes “hydrogen as a byproduct”, “natural gas reformation”, “water electrolysis technology”, and other non-verified methods exists, such as separation using graphene. “Hydrogen byproduct method” separates hydrogen by inducing an electrochemical reaction by adding oxygen to hydrogen by-products generated from petrochemical complex. “Natural gas reformation” is a way to separate natural gas using high temperature and high pressure water vapor. More than half of hydrogen separation is performed through this method. It is the most cost effective method, yet high carbon dioxide emission is the downside of this method.

Hydrogen by-product and natural gas reformation are being used in the industrial field, but it is not appropriate for inhalation purposes.Water electrolysis technology that is appropriate for inhalation includes polyelectrolyte method and alkali electrolyte method. Polyelectrolyte method (also known as PEM Proton Exchange Membrane) is the safest way to produce hydrogen gas to be constantly inhaled at hospitals and home. As you need to separate using pure white gold and not adding any additives in sterile distilled water, the downside is that it is expensive. But it allows us to inhale hydrogen with purity of 99.9995%, and has been acknowledged as a technology with vast potential in the future.

On the other hand, the alkali electrolyte method is a relatively old method, and it provides hydrogen gas through a filter that filters contaminants and odor that occur from separated gases. This is because NaOH, (an electrolysis catalyst) or Calcium Hydroxide is added into the water. Calcium Hydroxide is caustic soda that performs electrolysis on industrial salts, and is known to be highly corrosive. (source: Doosan Encyclopedia).

High-tech polyelectrolyte (PEM) technology

For molecular hydrogen gas that is inhaled for health purpose, purity of the gas should be the No. 1 priority. Alkali electrolyte hydrogen separation devices used in industrial and experimental purposes is not appropriate for inhalation purposes. We must inhale hydrogen gas that is separated via Polyelectrolyte (PEM) technology when we are healing our health dysfunctions.

High-tech polyelectrolyte (PEM) technology produces hydrogen with the purity of 99.9995%.

Polyelectrolyte water electrolyte system (Proton Exchange Membrane PEM) Hydrogen production theory

This system uses white gold catalyst and PEM (Proton Exchange Membrane) technology to separate ionized water by its composition. PEM allows cation exchange between different sections as the membrane acts as a cell’s electrolyte. So that harmful liquid electrolytes such as sodium hydroxide and potassium become unnecessary.

Once D.C. Voltage is allowed into the device, the water is supplied through positive and negative poles or through an oxygen electrode. It is then oxidized into protons and oxygen, and the electrolytes are released. Protons (H+ ion) pass through the PEM and migrates through hydrogen electrodes, meets an electron at the opposite side of the circuit and is transformed into hydrogen gas.

The reaction is like the following:

Therefore, the major component is hydrogen, oxygen, and moisture.