一种高效散热型叶轮式永磁增氧机

By using high thermal conductivity materials and a cooling fan design in the impeller aerator, combined with an automatic control system, the problem of insufficient heat dissipation in the impeller aerator has been solved, extending the equipment's lifespan and improving operational stability and efficiency.

CN224504407UActive Publication Date: 2026-07-17FOSHAN LUODE TRANSMISSION EQUIP CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
FOSHAN LUODE TRANSMISSION EQUIP CO LTD
Filing Date
2025-08-20
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing impeller aerators have insufficient heat dissipation performance when operating under high load, which leads to motor overheating and affects equipment lifespan and operational reliability.

Method used

The support and fixing shells are made of aluminum alloy with high thermal conductivity. Combined with the cooling fan and the heat dissipation grooves of the protective shell, a forced convection heat dissipation channel is formed. The motor load is reduced by a two-stage variable speed gear set design. Automatic heat dissipation control is achieved by equipping a temperature detector and a PLC control module.

Benefits of technology

It achieves efficient heat dissipation, extends equipment lifespan, improves operational stability and efficiency, and reduces energy consumption.

✦ Generated by Eureka AI based on patent content.

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Abstract

本实用新型涉及永磁增氧机技术领域,尤其涉及一种高效散热型叶轮式永磁增氧机。本实用新型提供了这样一种高效散热型叶轮式永磁增氧机,包括有永磁电机、防护壳、叶轮、支撑壳、浮力组件、固定壳、散热风扇、滤网、检测组件和传动组件,永磁电机底部连接有防护壳,永磁电机输出轴贯穿防护壳内部。装置通过多重散热设计实现高效降温。散热风扇与防护壳的散热槽、固定壳的通风孔形成强制对流散热通道,可快速带走永磁电机及传动组件运行产生的热量;同时,检测组件能实时监测温度,自动控制散热风扇启停,既保证散热效果,又避免能源浪费,有效解决了传统增氧机因过热导致运行不稳定的问题,延长了设备使用寿命。
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Claims

1. A high-efficiency heat-dissipation type impeller type permanent magnet oxygen increasing machine, characterized in that, The device includes a permanent magnet motor (1), a protective shell (2), an impeller (7), a support shell (8), a buoyancy component (9), a fixed shell (12), a cooling fan (13), a filter screen (14), a detection component, and a transmission component. The permanent magnet motor (1) is connected to the protective shell (2) at its bottom. The output shaft of the permanent magnet motor (1) passes through the interior of the protective shell (2) and is connected to the transmission component. The impeller (7) is installed at the lower part of the protective shell (2) through the transmission component. The permanent magnet motor (1) is connected to the support shell (8) at its exterior. The buoyancy component (9) is installed on the lower outer side of the support shell (8). The fixed shell (12) is installed at the lower part of the permanent magnet motor (1) on the outer side of the protective shell (2). Multiple cooling fans (13) are installed at intervals along the circumference inside the fixed shell (12). A heat dissipation groove is opened on the exterior of the protective shell (2). Two ventilation holes are opened on the top of the fixed shell (12), and a filter screen (14) is connected inside the holes.

2. The high-efficiency heat-dissipation type impeller type permanent magnet oxygen increasing machine according to claim 1, characterized in that, The support shell (8) and the fixed shell (12) are integrally cast from aluminum alloy material with high thermal conductivity.

3. The high-efficiency heat-dissipation type impeller type permanent magnet oxygen increasing machine according to claim 2, characterized in that, The cooling fan (13) and the heat dissipation slot of the protective shell (2) are precisely aligned.

4. The high-efficiency heat-dissipation type impeller type permanent magnet oxygen concentrator according to claim 3, characterized in that, The buoyancy components in the buoyancy assembly (9) are blow-molded from high-density polyethylene (HDPE); the buoyancy assembly (9) is fixedly connected to the lower outer side of the support shell (8) by U-bolts, and a rubber gasket is provided at the connection.

5. The high-efficiency heat-dissipation type impeller type permanent magnet oxygen concentrator according to claim 4, characterized in that, The detection component includes a temperature detector (10) and a PLC control module (11). The PLC control module (11) is installed on the top of the support shell (8), and the temperature detector (10) is installed on the top inside the support shell (8). The signal output terminal of the temperature detector (10) is electrically connected to the signal input terminal of the PLC control module (11). The control terminals of the permanent magnet motor (1) and the cooling fan (13) are both electrically connected to the execution output terminal of the PLC control module (11) through relays.

6. The high-efficiency heat-dissipation type impeller type permanent magnet oxygen concentrator according to claim 5, characterized in that, The transmission assembly includes a first rotating shaft (3), a first speed-changing gear set (4), a second rotating shaft (5), and a second speed-changing gear set (6). The first rotating shaft (3) is rotatably connected inside the protective shell (2). The first speed-changing gear set (4) is provided between the end of the output shaft of the permanent magnet motor (1) and the first rotating shaft (3). The second rotating shaft (5) is rotatably connected to the center of the lower part of the protective shell (2). The bottom end of the second rotating shaft (5) is connected to the center of the impeller (7) to transmit torque. The top end of the second rotating shaft (5) is connected to the first rotating shaft (3). A second gear set (6) is provided. Both the first gear set (4) and the second gear set (6) consist of a large gear and a small gear. The large gear in the first gear set (4) is connected to the first rotating shaft (3), and the small gear is connected to the end of the output shaft of the permanent magnet motor (1). The two achieve external meshing transmission. The large gear in the second gear set (6) is connected to the top of the second rotating shaft (5), and the small gear is connected to the lower end of the first rotating shaft (3). The large gear and the small gear in this set also mesh with each other.