Application of Platinum-plated Titanium Electrode in Electrolysis Production of Hydrogen-rich Water

The principle of electrolysis to produce hydrogen-rich water is the process of using the principle of electrolysis to electrolyze water molecules into hydrogen and oxygen. Electrolysis to produce hydrogen-rich water products was popular in Japan, South Korea and other countries in the early years. The series of products include hydrogen-rich cups, hydrogen-rich water machines, hydrogen ventilators, beauty instruments, etc. In China, there are also many merchants who make such products. The hydrogen-rich water series products at the beginning are generally products that do not separate hydrogen and oxygen, and the hydrogen content is relatively low. Many companies use ruthenium and iridium mixed oxide-coated electrodes. Later, with the research and application of DSA insoluble anode materials, titanium platinum-plated anodes are more and more used in the electrolysis of hydrogen-rich water due to their good electrocatalytic activity. Some manufacturers have begun to make hydrogen-rich water cups for titanium-platinized electrodes. , and the key to the quality and quality of the hydrogen-rich cup is the core component-titanium electrode.

So, what role does the titanium electrode play in the hydrogen-rich water cup?

Hydrogen-rich water cups use titanium platinum-plated electrodes. Taking the more hydrogen-rich water cups on the market in recent years as an example, they are platinum-plated on titanium substrates, use electrolysis, and use SPE technology to separate hydrogen and oxygen, which requires electrolysis. Water enters the anode chamber of the electrolyzer, and immediately decomposes into 4 positively charged H and 2 -2 valence oxygen after the electricity is turned on, and the decomposed negative oxygen ions release electrons at the anode to form oxygen, which is discharged from the anode. Carry some of the water into the sink. Hydrogen protons, in the form of hydrated ions, pass through the ion membrane under the action of the electric field force, reach the cathode to absorb electrons to form hydrogen gas, discharge from the cathode chamber, and enter the water to generate hydrogen-rich water.

The use of titanium-based platinum-plated electrodes can overcome the passivation of the titanium electrode surface to form an oxide layer, overcome the problem of slowing down the reaction speed of traditional electrodes with the increase of electrolysis time, and stabilize the hydrogen production content. It is an ideal electrode material in terms of current technology.