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1. Feasibility of producing green hydrogen peroxide from green hydrogen — The raw material for this process is green hydrogen, which is hydrogen produced by electrolyzing water using renewable energy sources, and it has advantages such as zero carbon emissions. Using green hydrogen as a raw material to produce green hydrogen peroxide ensures a clean source of raw materials, in line with the principles of sustainable development. — In terms of technical foundations, traditional hydrogen peroxide production relies on processes such as the anthraquinone method, which provides certain technical insights for the production of green hydrogen peroxide using green hydrogen. On this basis, further research and development can be carried out to explore the production processes and technical approaches for producing green hydrogen peroxide. — As awareness of environmental protection and sustainable development continues to grow, there is an increasing demand for green and environmentally friendly chemical products, reflecting the potential in market demand. As a potential green oxidant, green hydrogen peroxide holds promise for replacing traditional hydrogen peroxide or other chemical oxidants in various fields such as papermaking, textiles, food, and electronics, offering considerable market prospects. 2. Reasons for not using green hydrogen peroxide – Technical maturity and process stability. The current mainstream method for producing hydrogen peroxide is the anthraquinone process. Although this process features a high degree of automation and is suitable for large-scale production, it requires high temperatures and pressures as well as the use of hydrogen and oxygen, which leads to high energy consumption and safety issues. Some emerging technologies for hydrogen peroxide production have achieved certain results in laboratory or small-scale settings, but they still face numerous challenges in large-scale industrial production. — Safety risks ① Inherent risks of peroxidation reactions: The oxidizing agents involved in peroxidation reactions include strong oxidizing substances such as oxygen, hydrogen peroxide, and sodium peroxide. The mixing of oxidizers with reducing substances can create explosive mixtures. Some oxidizers, such as hydrogen peroxide and sodium peroxide, undergo vigorous decomposition reactions when exposed to high temperatures, which can easily lead to fires and explosions. ②Risks associated with the properties of hydrogen peroxide: Although hydrogen peroxide is not flammable on its own, it can react with combustible materials to release large amounts of heat and oxygen, thereby causing fires and explosions. It decomposes easily in alkaline solutions, and it can also decompose when exposed to strong light, especially short-wavelength radiation. When heated above 100°C, it begins to decompose rapidly; contact with many inorganic compounds or impurities causes it to decompose quickly and lead to an explosion, and the decomposition is accelerated in the presence of metal ions such as iron ions. — Difficulty in storage and transportation: Hydrogen peroxide requires strict storage conditions. Hydrogen peroxide has strong oxidizing and corrosive properties, and it decomposes easily; therefore, high requirements are placed on the material of storage and transportation containers as well as their sealing quality. Traditional hydrogen peroxide storage and transportation require special materials and equipment, and green hydrogen peroxide faces the same issues. Moreover, due to its relatively small scale of production, it is difficult to utilize existing large-scale storage and transportation infrastructure like that available for green methanol and green ammonia, which results in higher storage and transportation costs. Security risks. Hydrogen peroxide poses certain safety risks during storage and transportation, such as leaks and explosions. — Market competition and industrial foundation: The current market has an ample supply. Currently, the traditional hydrogen peroxide production process is able to meet most of the market demand, with relatively low production costs. Under these circumstances, green hydrogen peroxide, as an emerging product, faces fierce competition from traditional hydrogen peroxide in the market. — Limitations in application areas and market scale: Although hydrogen peroxide is used in various fields, its application areas and market scale are relatively smaller compared to chemical products such as green methanol and green ammonia. In some key application areas such as papermaking and textiles, the use of traditional hydrogen peroxide is already well-established, leaving limited room for market growth. Furthermore, even though green hydrogen peroxide has certain environmental advantages, it faces many challenges in replacing traditional hydrogen peroxide. Some industries have strict requirements regarding the quality and performance of hydrogen peroxide; green hydrogen peroxide must meet or exceed the standards of conventional hydrogen peroxide in these aspects in order to be widely used. At the same time, changing users’ usage habits and market perceptions also requires time and effort.