一种数据中心二次侧环网管路系统
By adopting a combined structure of a shell, heat exchange fins, and kinetic energy compensation components in the data center cooling system, the problems of low heat exchange efficiency and uneven flow in existing cooling systems are solved, achieving efficient and stable cooling effects, which are suitable for high-density data centers.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- JIANGSU PETRO HOSE & PIPING SYST CO LTD
- Filing Date
- 2025-08-11
- Publication Date
- 2026-07-17
AI Technical Summary
Existing secondary cooling systems for data centers suffer from low heat exchange efficiency, uneven flow distribution, and poor structural compactness, making them unable to meet the cooling needs of high-density data centers.
The system adopts a combined structure of a shell tank, heat exchange finned tubes, and kinetic energy compensation components. By alternately arranging finned bodies and finned tube bodies to form composite finned tubes, and combining the kinetic energy compensation of centrifugal impellers and axial flow impellers, it achieves uniform dispersion and stable output of fluid, thereby improving heat exchange efficiency and fluid control capability.
It significantly improves heat exchange efficiency and fluid flow uniformity, solves the problems of uneven flow and heat exchange dead zones, adapts to the cooling needs of high heat load data centers, and improves the stability and reliability of the system.
Smart Images

Figure CN224521439U_ABST
Abstract
Claims
1. A data center secondary side ring bus duct system, comprising: include: The system comprises a shell (100), heat exchange fins (200), and a kinetic energy compensation assembly (300) fixed inside the shell (100). The shell (100) has a pipe inlet (101) and a pipe outlet (102) at its two ends. A baffle plate (110) is fixedly installed inside the shell (100) at the ends of the pipe inlet (101) and the pipe outlet (102). A heat exchange cavity (106) is formed between the two baffle plates (110) inside the shell (100), and a flow divider cavity (105) is formed on the opposite sides of the two baffle plates (110). A refrigerant inlet (103) and a refrigerant outlet (104) are provided on the surface of the shell (100) and communicate with the two flow dividers (105), respectively. The heat exchange fins (200) are numerous and evenly distributed circumferentially between the two baffle plates. Between the partition plates (110), the heat exchange finned tube (200) includes alternating finned bodies (210) and finned tube bodies (220). The two ends of the finned tube body (220) pass through the two partition plates (110) respectively and are connected to the inner side of the two flow distribution chambers (105). The kinetic energy compensation component (300) includes a motor base (310), a centrifugal impeller (320) and an axial flow impeller (330). The two ends of the motor base (310) are provided with guide cones (311) facing the pipeline inlet (101) and the pipeline outlet (102). The two output ends of the motor base (310) are connected to the centrifugal impeller (320) and the axial flow impeller (330) respectively, and the centrifugal impeller (320) and the axial flow impeller (330) face the inner side of the pipeline inlet (101) and the pipeline outlet (102) respectively.
2. The data center secondary side ring bus duct system of claim 1, wherein, The finned body (210) and the finned tube body (220) are connected alternately in sequence and extend radially along the sealing plate (110) in a planar spiral direction. A number of heat exchange finned tubes (200) are evenly distributed in the circumference. A gap is provided between adjacent heat exchange finned tubes (200) for the dispersion of fluid inside the ring network pipeline.
3. The data center secondary side ring bus duct system of claim 1, wherein, The two ends of the finned body (210) are fixedly connected to the two side sealing plates (110), and a plurality of heat exchange fins (200) are fixedly connected to the outer periphery of the motor base (310) to support the kinetic energy compensation component (300) located on the axis of the outer shell (100).
4. The data center secondary side ring bus duct system of claim 1, wherein, The motor mount (310) is a bidirectional output motor structure, and the inner side of the guide cone (311) is provided with a bearing ring sleeved on the surface of the dual output shaft of the motor mount (310).
5. The data center secondary-side ring network piping system according to claim 1, characterized in that, The centrifugal impeller (320) has blades on its surface to centrifugally disperse the liquid flow entering through the pipeline inlet (101), and the axial flow impeller (330) is used for axial output of the liquid flow inside the pipeline outlet (102).
6. The data center secondary side ring bus duct system of claim 1, wherein, The refrigerant inlet (103) and the refrigerant outlet (104) are tangentially connected to the diversion chambers (105) on both sides inside the outer shell (100) for connecting the circulating cooling water circuit.
7. The data center secondary side ring bus duct system of claim 1, wherein, The pipeline inlet (101), pipeline outlet (102), centrifugal impeller (320) and axial flow impeller (330) are all located on the axis of the shell (100). The pipeline inlet (101) and pipeline outlet (102) are provided with flange rings at their ends for connecting with the ring network pipeline.