The aeration oxygenator features a simple and lightweight design, with its greatest advantage being energy efficiency. Unlike impeller-type and paddle-wheel-type oxygenators, this model employs a unique flower-shaped spiral impeller paired with a distinctive float design, which enables the water output to jet upward, creating a boiling effect and generating surging waves in a specific area of the water body. This process significantly increases the contact between the water and air during the spraying phase, thereby enhancing the dissolved oxygen content in the water. As the water jets upward, it directly passes through the motor and gearbox, allowing both the motor and gearbox to be cooled by the water itself. As a result, the motor can operate for extended periods without overheating, eliminating the common issue of motor overheating due to prolonged operation, which typically leads to increased current draw and eventual burnout. It can operate effectively within a voltage range of 300V to 350V.

　　 Aeration and oxygenation machine Its design is simple and lightweight, and it's relatively large. Its advantage lies in energy efficiency. The oxygenation principle differs from that of impeller-type and water-wheel-type aerators. Featuring a unique flower-shaped spiral impeller paired with a distinctive float design, this aerator directs the output water upward in a vigorous spray, creating a boiling-like effect and generating surging waves within a specific area. This enhanced water-air contact during the spraying process significantly boosts the dissolved oxygen content in the water. As the water is sprayed upward, it directly passes through the motor and gearbox, allowing both the motor and gearbox to be cooled by the water itself. As a result, the motor can operate for extended periods without overheating, eliminating the common issue of increased current and motor burnout caused by prolonged operation and heat buildup. Moreover, this aerator can function normally even under ultra-low voltages ranging from 300V to 350V.

　　Aeration oxygenators have many advantages, but they also have some drawbacks—for instance, unlike impeller-type surface aerators, micro-pore aerators lack the strong water-mixing capability of paddle-wheel aerators, and their installation can be more cumbersome. Nevertheless, micro-pore aerators have gained widespread popularity among farmers due to their excellent performance in production. By combining the strengths of various aeration methods, if micro-pore aerators are used in conjunction with impeller-type, paddle-wheel, or spray-type aerators, they can complement each other’s advantages and achieve even better aeration results. Aeration machines come in various types, including paddle-wheel, impeller, and spray types. After years of practical testing, micro-pore aeration has proven to offer significant advantages over traditional aeration methods in terms of aeration efficiency and energy consumption.

　　The microporous aeration oxygenation machine, also known as microporous aeration oxygenation technology, is a new type of oxygenation technology that follows the traditional water-wheel, impeller, and spray-aeration methods. This device consists of three main components. A Roots blower is used to pressurize air into an air distribution pipe. The compressed air then flows through a plastic hose into the microporous aeration plate, where it is dispersed into the water in the form of tiny microbubbles. As these microbubbles rise from the bottom, a portion of the oxygen dissolves into the water while simultaneously inducing water flow. The resulting vertical convection and rotation of the water body facilitate the exchange between upper and lower layers, ensuring uniform oxygenation throughout the water column.

　　An aeration oxygenator is a machine commonly used in fisheries and aquaculture. Its primary function is to increase the oxygen content in water, ensuring that fish do not suffer from oxygen deficiency. At the same time, it inhibits the growth of anaerobic bacteria in the water, thereby preventing water quality deterioration and safeguarding the fish's living environment. Typically, an oxygenator uses its built-in air pump to force air into the water, thus boosting the oxygen level. This device operates by using a power source—such as an electric motor or diesel engine—to drive working components that rapidly deliver "oxygen" from the air into the aquaculture water body. Additionally, it helps eliminate harmful gases, promotes convective exchange within the water, improves water quality conditions, reduces feed conversion ratios, enhances pond activity and primary productivity, and consequently allows for higher stocking densities and increased feeding intensity for cultured species. This, in turn, accelerates growth, significantly boosts per-acre yields, and fully achieves the goal of increasing aquaculture income.