Negative oxygen ion generation material containing germanium rare earth

Abstract

The invention provides a negative oxygen ion generating material containing rare earth germanium, which comprises the following raw material components by weight: 55-80 parts of germanium, 8-12 parts of iron, 1-3 parts of neodymium oxide, and 0.1-1 parts of praseodymium oxide 1-2 parts of cerium oxide, 0.2-0.3 parts of yttrium oxide, 1.5-2.5 parts of promethium oxide, and 1-2 parts of holmium oxide. The germanium-containing rare earth negative ion generating material itself can radiate high-energy shock waves. The high-energy waves have strong penetrating energy. Through physical actions, they can act on human cells, promote the metabolic functions of human cells, and enhance lymphatic energy. Circulation, promote human blood circulation.

Description

technical field [0001] The invention belongs to the technical field of materials, and in particular relates to a negative oxygen ion generating material containing rare earth germanium. Background technique [0002] In the 21st century, a new requirement is put forward for materials, which is beneficial to the environment and health. Life science has clarified that the root cause of disease and aging is oxidation, and substances that prevent oxidation are reducing agents. For life sciences, antioxidant substances are healthy materials. Acidic substances such as food, meat, sugar and food additives that are indispensable to human beings are actually sometimes harmful oxides. Excessive fatigue is also the cause of oxidation. Positive ions accelerate the oxidation reaction, and polluted air contains a large number of positive ions. So people feel very uncomfortable, and it is negative ions that make people feel comfortable and beneficial to health. [0003] Negative oxygen i...

AI Technical Summary

Problems solved by technology

At present, the common negative ion materials are made by directly adding negative ion generating materials into ceramics to make negative ion ceramic materials. Because the commonly used negative ion generating materials such as tourmaline and opal are scarce in origin, they are expensive

This greatly limits the large-scale application of negative ion generating materials such as tourmaline