A high-strength generator casing heat dissipation structure

Abstract

The present invention discloses a high-strength generator casing heat dissipation structure, which relates to the technical field of generators, including a casing, wherein a plurality of groups of sliding side columns are equally divided and arranged around the side surface of the inner wall of the casing, the outer side of the sliding side column is slidingly connected to a slotted ring shell, the inner side of the slotted ring shell is rotatably connected to an outer ring tooth, the bottom end of the outer ring tooth is fastened to an adjustment and positioning component, and a hot spot source heat dissipation component is installed at the bottom of the adjustment and positioning component; the hot spot source heat dissipation component includes a side frame, and the three bottom ends of the side frame are fastened to a sliding column rail frame. Through the cooperation of the hot spot source heat dissipation component, the adjustment and positioning component, the servo control motor, the small rotating tooth and the outer ring tooth, it can effectively adapt to heat sources in different positions, so that the heat dissipation path can be adjusted according to actual heat dissipation needs, the heat dissipation efficiency can be improved, and the heating of the generator casing can be effectively reduced, which will cause uneven expansion of internal components and mechanical stress, thereby reducing energy consumption and increasing the reliability and service life of the generator.

Description

Technical Field

[0001] The present invention relates to the technical field of generators, and in particular to a high-strength generator casing heat dissipation structure. Background Art

[0002] Turbogenerators use thermal energy to propel the turbine, rotating the shaft and driving the generator's rotor, which in turn generates electricity. This is crucial for achieving more efficient and cost-effective energy utilization. The turbine and turbine shaft are housed within a volute. To ensure a secure seal, heat from the generator's rotor is typically prevented from dissipating. Heat buildup in the rotor can cause bearing deformation and failure, as well as demagnetization of the rotor's permanent magnets, preventing the generator from functioning properly.

[0003] However, in the existing technology, during the operation of the generator casing, the excessively high temperature of the rotor structure will generate hot air flow, causing the generator casing to heat up. If the temperature cannot be effectively dissipated and regulated, it will cause uneven expansion of the internal components of the generator, causing mechanical stress and affecting the reliability and service life of the generator. Therefore, it is necessary to propose a high-strength generator casing heat dissipation structure. Summary of the Invention

[0004] The purpose of the present invention is to provide a high-strength generator casing heat dissipation structure to solve the problem proposed in the above background technology that during the operation of the generator casing, the excessively high temperature of the rotor structure will generate hot air flow, causing the generator casing to heat up. Furthermore, when the temperature cannot be effectively dissipated and regulated, it will cause uneven expansion of the internal components of the generator, causing mechanical stress and affecting the reliability and service life of the generator.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solution: a high-strength generator casing heat dissipation structure, comprising a casing, wherein a plurality of sets of sliding side columns are equally divided and arranged around the side surface of the inner wall of the casing, the outer portion of the sliding side columns is slidably connected to a slotted ring shell, the inner portion of the slotted ring shell is rotatably connected to an outer ring gear, the bottom end of the outer ring gear is fastened to an adjustment and positioning assembly, and a hot spot source heat dissipation assembly is installed at the bottom of the adjustment and positioning assembly;

[0006] The hot spot source heat dissipation component includes a side frame, the bottom three ends of the side frame are fastened to a sliding column rail frame, the outside of the sliding column rail frame is slidably connected to a sliding connection block, the center of the sliding column rail frame is rotatably connected to a screw rod through a bearing, the sliding connection block is located at the outside of the screw rod and is slidably connected, the side end of the sliding connection block is fastened to a connector, a pneumatic rod is installed on the side end of the connector, the bottom end of the pneumatic rod is fastened to a ball joint, the inside of the ball joint is fastened to a temperature positioning block through a ball joint rod, and the temperature positioning block is used to monitor the rotor structure inside the shell in real time through a built-in high-precision thermal stress detection sensor. The top of the screw rod passes through the side frame to install a servo control motor, the servo control motor is connected through the built-in timing controller signal, the bottom of the temperature positioning block is installed with a phase change contact guide column, the top of the phase change contact guide column is connected to a microchannel heat exchanger tube, the side of the microchannel heat exchanger tube is connected with a ceramic heat dissipation circulation tube, the top of the microchannel heat exchanger tube is installed with a micro coolant circulation pump, the top of the micro coolant circulation pump and the microchannel heat exchanger tube are installed with a heat pipe connector, the top of the heat pipe connector is connected with a heat pipe, and the top of the heat pipe is installed with a high thermal conductivity metal connector.

[0007] Preferably, the top of the high thermal conductivity metal connector is connected to a heat dissipation surface cooling pipe, a control solenoid valve is installed on the outside of the side end of the heat dissipation surface cooling pipe, the top of the control solenoid valve is connected to a heat dissipation guide end, an axial flow guide fan is installed inside the heat dissipation guide end, and the heat dissipation guide end is located in an external sliding connection of a group of sliding side columns.

[0008] Preferably, the adjustment and positioning assembly includes a dual-axis driven energy-saving motor, and the left and right output ends of the dual-axis driven energy-saving motor are connected to the main rotating wheels through a connecting key shaft, and a wheel belt is wrapped around the outside of the main rotating wheel. The side ends of the main rotating wheels are fastened to the connecting top frame through a rotating member.

[0009] Preferably, the connecting top frame and the side of the outer ring tooth are fastened together, and the other side end of the wheel band is fastened together with an inverted recess frame through a connecting piece from the side of the rotating wheel, and the top of the inverted recess frame is fastened together with a connecting slide column rod, and the top of the connecting slide column rod is located on the outside of a group of sliding side columns for sliding connection.

[0010] Preferably, the bottom wall surface of the wheel band is fastened with an edge connection reinforcement frame, the side end of the edge connection reinforcement frame is fastened with a microprocessor controller, the side end of the microprocessor controller is fastened with the side surface of the edge connection frame, and a plurality of groups of high-precision temperature detection sensors are installed at the bottom end of the edge connection reinforcement frame.

[0011] Preferably, a bottom slot frame is integrally formed at the bottom end of the shell, and an electric stepping guide rod is installed inside the bottom slot frame.

[0012] Preferably, the side end of the electric stepping guide rod is tightly connected to the bottom ring shell surface of the slotted ring shell, and the slotted ring shell is fine-tuned and slidably connected inside the bottom slot frame by the drive of the electric stepping guide rod.

[0013] Preferably, an aerogel ring is sleeved on the outer side of the shell, and the outer side end of the aerogel ring is connected to the supporting shell.

[0014] Preferably, a high heat sink group is embedded in the top and left and right ends of the carrying shell, heat dissipation and dustproof valve hole ends are set at the top and left and right ends of the carrying shell, and heat dissipation axial fans are installed inside the top and left and right ends of the carrying shell, and the heat dissipation and dustproof valve hole ends and the heat dissipation guide ends are connected through a heat dissipation pipeline.

[0015] Preferably, the bottom of the outer ring tooth is meshedly connected with a small rotating tooth, the side end of the small rotating tooth is connected to a servo control motor, the external frame of the servo control motor is connected with a motor hoop, the side end of the motor hoop is fastened to the side end surface of the slotted ring shell, and the small rotating tooth is located inside the ring shell at the bottom of the slotted ring shell and is rotatably connected.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] 1. In the present invention, with the cooperation of the hot spot source heat dissipation component, the high-precision thermal stress detection sensor built into the temperature positioning block is used to monitor the thermal stress changes of the rotor structure inside the shell, so that the data is transmitted to the microprocessor controller for processing, so that the microprocessor controller controls the start of the brushless servo motor according to the temperature data, thereby facilitating the brushless servo motor to drive the screw rod to rotate, and uses the screw rod to drive the connecting part to move through the sliding connection block, so that the connecting part adjusts the position of the temperature positioning block through the pneumatic air rod and the ball joint part, which is convenient for adjusting the position of the temperature positioning block, and can directly and synchronously drive the position of the phase change contact guide column, and the above-mentioned operation, wherein the operation of the brushless servo motor and the screw rod can be controlled according to the signal of the timing controller, so that the three groups of brushless servo motors form a separate control operation, thereby enabling the position of the temperature positioning block and the phase change contact guide column to be multi-dimensionally adjusted according to the position of the heat source inside the shell. The heat generated by the heat source is then conducted to the microchannel heat exchanger tube through the phase change contact guide column, so that the liquid inside the microchannel heat exchanger tube evaporates at the heat absorption end and condenses at the heat release end to release heat, thereby achieving efficient heat transfer. The heat is transferred to the heat pipe through the heat pipe connector, so that the heat pipe further transfers the heat to the heat dissipation surface cooling pipe through the high thermal conductivity metal connector. After that, the coolant in the heat dissipation surface cooling pipe adjusts the flow rate through the control solenoid valve, so that the coolant flows through the heat dissipation guide end, and then the air flow is enhanced through the built-in axial flow guide fan, so that the dissipated air flow is output from the heat dissipation pipeline to the heat dissipation dustproof valve hole end for discharge, so as to effectively adapt to heat sources in different positions, so that the heat dissipation path can be adjusted according to actual heat dissipation needs, the heat dissipation efficiency can be improved, the heat of the generator casing can be effectively reduced, and the internal components can be heated unevenly, causing mechanical stress problems, thereby increasing the reliability and service life of the generator.

[0018] 2. In the present invention, by using a high-precision temperature detection sensor to detect the temperature near the heat source inside the shell in cooperation with the adjustment and positioning component, the microprocessor controller controls the working state of the dual-axis drive energy-saving motor according to the temperature data, and uses the dual-axis drive energy-saving motor to drive the main rotating wheel to rotate, and then the main rotating wheel transmits power to the slave rotating wheel through the wheel belt. When the wheel belt rotates, it drives the side connection reinforcement frame and the microprocessor controller to move, thereby making the hot spot source heat dissipation component synchronously adjusted, and further intelligently adjusts the position of the hot spot source heat dissipation component according to actual heat dissipation needs to improve heat dissipation efficiency.

[0019] 3. In the present invention, through the cooperation of the servo control motor, the small rotating gear and the outer ring gear, the microprocessor controller can control the servo control motor according to the temperature data, so that the servo control motor drives the small rotating gear to rotate, and the small rotating gear engages with the outer ring gear, thereby driving the outer ring gear and the fastened adjustment and positioning components and the hot spot source heat dissipation components to form a circular operation around the structure inside the shell, effectively improving the heat dissipation effect, reducing energy consumption, and extending the service life of the generator. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the main structure of a high-strength generator housing heat dissipation structure of the present invention;

[0021] Figure 2 This is a schematic side view of a high-strength generator housing heat dissipation structure according to the present invention;

[0022] Figure 3 This is a schematic diagram of the internal cross-sectional structure of the main body of a high-strength generator casing heat dissipation structure of the present invention;

[0023] Figure 4 This is a schematic diagram of the installation position structure of the adjustment and positioning assembly in a high-strength generator housing heat dissipation structure of the present invention;

[0024] Figure 5 The present invention is a high-strength generator shell heat dissipation structure Figure 4 A schematic diagram of the enlarged structure at point A;

[0025] Figure 6 This is a schematic diagram of the installation position structure of the outer ring gear in a high-strength generator housing heat dissipation structure of the present invention;

[0026] Figure 7 This is a structural schematic diagram of an adjustment and positioning assembly in a high-strength generator housing heat dissipation structure of the present invention;

[0027] Figure 8 This is a structural schematic diagram of a hot spot source heat dissipation component in a high-strength generator housing heat dissipation structure of the present invention;

[0028] Figure 9 This is a partial structural schematic diagram of a hot spot source heat dissipation component in a high-strength generator housing heat dissipation structure of the present invention;

[0029] Figure 10 The present invention is a high-strength generator shell heat dissipation structure Figure 9 Schematic diagram of the enlarged structure at point B.

[0030] In the figure: 1, shell; 2, bottom slot frame; 3, electric stepping guide rod; 4, sliding side column; 5, aerogel ring; 6, bearing shell; 7, heat dissipation dustproof valve hole end; 8, high heat sink group; 9, adjustment and positioning assembly; 91, dual-axis drive energy-saving motor; 92, main rotating wheel; 93, connecting top frame; 94, wheel belt; 95, microprocessor controller; 96, side connection reinforcement frame; 10, slotted ring shell; 11, outer ring gear; 12, heat dissipation axial flow fan; 13, servo control motor; 14, motor hoop frame; 15, hot spot source heat dissipation assembly; 150, side frame; 151, sliding Column rail frame; 152. Screw rod; 153. Sliding connection block; 154. Connecting piece; 155. Pneumatic air rod; 156. Ball joint; 157. Temperature positioning block; 158. Brushless servo motor; 159. Phase change contact guide pin; 1590. Microchannel heat exchanger tube; 1591. Heat pipe; 1592. High thermal conductivity metal connector; 1593. Heat dissipation surface cooling tube; 1594. Control solenoid valve; 1595. Heat dissipation guide end; 1596. Ceramic heat dissipation circulation tube; 1597. Micro coolant circulation pump; 1598. Heat pipe connector; 16. Small gear. DETAILED DESCRIPTION

[0031] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention without making any creative efforts shall fall within the scope of protection of the present invention.

[0032] Reference Figure 1 - Figure 10As shown: A high-strength generator housing heat dissipation structure includes a housing 1, the inner wall side surface of the housing 1 is equally divided and surrounded by a plurality of sliding side columns 4, the outer side of the sliding side columns 4 is slidably connected to a slotted ring shell 10, the inner side of the slotted ring shell 10 is rotatably connected to an outer ring gear 11, the bottom end of the outer ring gear 11 is fastened to an adjustment and positioning component 9, and a hot spot source heat dissipation component 15 is installed at the bottom of the adjustment and positioning component 9; the hot spot source heat dissipation component 15 includes a side frame 150, and the bottom three of the side frame 150 are connected to the outer ring gear 11. The ends are fastened to the slide rail frame 151, the outer sliding connection of the slide rail frame 151 is connected to the sliding connection block 153, the center of the slide rail frame 151 is rotatably connected to the screw rod 152 through the bearing, the sliding connection block 153 is located on the outer sliding connection of the screw rod 152, the side end of the sliding connection block 153 is fastened to the connecting piece 154, the side end of the connecting piece 154 is installed with a pneumatic rod 155, the bottom end of the pneumatic rod 155 is fastened to the ball joint 156, the inner end of the ball joint 156 is connected to the ball joint 156. The top of the screw rod 152 passes through the side frame 150 to install a brushless servo motor 158. The brushless servo motor 158 is connected through the built-in timing controller signal. The bottom of the temperature positioning block 157 is installed with a phase change contact guide post 159. The top of the phase change contact guide post 159 is connected to the microchannel thermal Exchanger tube 1590, the side of the microchannel heat exchanger tube 1590 is connected to a ceramic heat dissipation circulation tube 1596, a micro coolant circulation pump 1597 is installed on the top of the microchannel heat exchanger tube 1590, a heat pipe connector 1598 is installed on the top of the micro coolant circulation pump 1597 and the microchannel heat exchanger tube 1590, the top of the heat pipe connector 1598 is connected to a heat pipe 1591, and a high thermal conductivity metal connector 1592 is installed on the top of the heat pipe 1591.

[0033] according to Figure 8 and Figure 9As shown, the top of the high thermal conductivity metal connector 1592 is connected to the heat dissipation surface cooling pipe 1593, and the side end of the heat dissipation surface cooling pipe 1593 is externally installed with a control solenoid valve 1594. The top of the control solenoid valve 1594 is connected to a heat dissipation guide end 1595, and an axial flow guide fan is installed inside the heat dissipation guide end 1595. The heat dissipation guide end 1595 is located at the external sliding connection of a group of sliding side columns 4. The high thermal conductivity metal connector 1592 is used to connect the heat pipe 1591 and the heat dissipation surface cooling pipe 1593. The heat dissipation surface cooling pipe 1593 is used to further dissipate heat. The control solenoid valve 1594 is used to control the flow of coolant in the heat dissipation surface cooling pipe 1593. The heat dissipation guide end 1595 is used to guide the flow direction of the coolant and is installed with an axial flow guide fan. The axial flow guide fan is used to strengthen the air flow so that the hot air is discharged from the heat dissipation pipeline and the heat dissipation dustproof valve hole end 7, thereby improving the heat dissipation. Efficiency, the sliding side column 4 is used to support the heat dissipation guide end 1595 and allow it to slide to adjust its position, that is, the heat generated by the heat source inside the shell 1 is transferred to the microchannel heat exchanger tube 1590 through the phase change contact guide column 159, and then the liquid inside the microchannel heat exchanger tube 1590 evaporates at the heat absorption end and condenses at the heat release end to release heat, thereby achieving efficient heat transfer, and transferring the heat to the heat pipe 1591 through the heat pipe connector 1598, so that the heat pipe 1591 further transfers the heat to the heat dissipation surface cooling pipe 1593 through the high thermal conductivity metal connector 1592, and then the coolant in the heat dissipation surface cooling pipe 1593 adjusts the flow rate through the control solenoid valve 1594, so that the coolant flows through the heat dissipation guide end 1595, and then the air flow is enhanced through the built-in axial flow guide fan, so that the dissipated air flow is output from the heat dissipation pipeline to the heat dissipation dustproof valve hole end 7 for discharge, thereby improving the heat dissipation efficiency.

[0034] according to Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 、 Figure 6 and Figure 7 As shown, the adjustment and positioning component 9 includes a dual-axis driven energy-saving motor 91, and the left and right output ends of the dual-axis driven energy-saving motor 91 are connected to the main rotating wheel 92 through a connecting key shaft. A belt 94 is wrapped around the outside of the main rotating wheel 92, and the side end of the main rotating wheel 92 is fastened to the connecting top frame 93 through a rotating member. A high-precision temperature detection sensor is used to detect the temperature near the heat source inside the shell 1, so that the microprocessor controller 95 controls the working state of the dual-axis driven energy-saving motor 91 according to the temperature data, and uses the dual-axis driven energy-saving motor 91 to drive the main rotating wheel 92 to rotate, so that the main rotating wheel 92 transmits power to the slave rotating wheel through the belt 94.

[0035] according to Figure 7As shown, the side of the connecting top frame 93 and the outer ring tooth 11 are tightly connected, and the other side end of the wheel belt 94 is tightly connected to the inverted recess frame through a connecting piece from the side of the rotating wheel. The top of the inverted recess frame is tightly connected to the connecting slide column rod, and the top of the connecting slide column rod is located at the outside of a group of sliding side columns 4 for sliding connection. Through the cooperation of the inverted recess frame and the connecting slide column rod, it is easy to ensure the stability of the dual-axis drive energy-saving motor 91, the main rotating wheel 92 and the wheel belt 94 during operation.

[0036] according to Figure 7 As shown, the bottom wall surface of the wheel belt 94 is fastened with an edge connection reinforcement frame 96, the side end of the edge connection reinforcement frame 96 is fastened with a microprocessor controller 95, the side end of the microprocessor controller 95 is fastened to the side surface of the edge connection frame 150, and a plurality of groups of high-precision temperature detection sensors are installed at the bottom end of the edge connection reinforcement frame 96. When the wheel belt 94 rotates, the edge connection reinforcement frame 96 and the microprocessor controller 95 are driven to move, thereby making the hot spot source heat dissipation component 15 synchronously adjusted.

[0037] according to Figure 1 and Figure 2 As shown, the bottom end of the shell 1 is integrally formed with a bottom slot frame 2, and an electric stepping guide rod 3 is installed inside the bottom slot frame 2. With the cooperation of the electric stepping guide rod 3, the slotted ring shell 10, the outer ring gear 11, the adjustment positioning component 9, the hot spot source heat dissipation component 15, the small rotating gear 16 and the servo control motor 13 can be driven to slide fine-tuned inside the bottom slot frame 2, and the adjustment of the adjustment positioning component 9 can form sliding outside a group of sliding side columns 4 with the cooperation of the connecting slide column rod.

[0038] according to Figure 1 As shown, the side end of the electric stepping guide rod 3 is tightly connected to the bottom ring shell surface of the slotted ring shell 10, and the slotted ring shell 10 is fine-tuned and slidably connected inside the bottom slot frame 2 by the drive of the electric stepping guide rod 3. The setting of the slotted ring shell 10 facilitates the meshing rotation of the small rotating teeth 16 and the outer ring teeth 11.

[0039] according to Figure 1 and Figure 2 As shown, an aerogel ring 5 is provided on the outer side of the shell 1, and the outer side end of the aerogel ring 5 is connected to the supporting shell 6. With the cooperation of the aerogel ring 5, it is convenient to avoid heat transfer to the supporting shell 6 and reduce the heat accumulation of the supporting shell 6.

[0040] according to Figure 1 - Figure 3As shown, a high heat sink group 8 is embedded in the top and left and right ends of the carrying shell 6, a heat dissipation dustproof valve hole end 7 is set at the top and left and right ends of the carrying shell 6, and a heat dissipation axial flow fan 12 is installed inside the top and left and right ends of the carrying shell 6. The heat dissipation dustproof valve hole end 7 and the heat dissipation guide end 1595 are connected through a heat dissipation pipeline. With the cooperation of the heat dissipation axial flow fan 12, it is convenient to pass the internal hot air flow through the high heat sink group 8 to increase the heat dissipation area.

[0041] according to Figure 5 As shown, the bottom of the outer ring tooth 11 is meshedly connected with a small rotating tooth 16, and the side end of the small rotating tooth 16 is connected to a servo control motor 13. The external frame of the servo control motor 13 is connected with a motor bracket 14, and the side end of the motor bracket 14 is fastened to the side end surface of the slotted ring shell 10. The small rotating tooth 16 is located inside the ring shell of the bottom of the slotted ring shell 10 and is rotatably connected, so that the microprocessor controller 95 can control the servo control motor 13 according to the temperature data, so that the servo control motor 13 drives the small rotating tooth 16 to rotate, and the small rotating tooth 16 is meshed with the outer ring tooth 11, thereby driving the outer ring tooth 11 and the fastened adjustment and positioning component 9 and the hot spot source heat dissipation component 15 to form a circular operation around the structure inside the shell 1, effectively improving the heat dissipation effect.

[0042] The wiring diagram of the high-precision thermal stress detection sensor, high-precision temperature detection sensor, electric stepping guide rod 3, dual-axis drive energy-saving motor 91, microprocessor controller 95, servo control motor 13, micro coolant circulation pump 1597 and timing controller in the present invention is common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use. Therefore, the control method and wiring layout of the high-precision thermal stress detection sensor, high-precision temperature detection sensor, electric stepping guide rod 3, dual-axis drive energy-saving motor 91, microprocessor controller 95, servo control motor 13, micro coolant circulation pump 1597 and timing controller will no longer be explained in detail.

[0043] The method of use and working principle of this device are as follows: first, a high-precision temperature detection sensor is used to detect the temperature near the heat source inside the shell 1, so that the microprocessor controller 95 controls the working state of the dual-axis drive energy-saving motor 91 according to the temperature data, and uses the dual-axis drive energy-saving motor 91 to drive the main rotating wheel 92 to rotate, so that the main rotating wheel 92 transmits power to the slave rotating wheel through the wheel belt 94. When the wheel belt 94 rotates, it drives the side connection reinforcement frame 96 and the microprocessor controller 95 to move, so that the hot spot source heat dissipation component 15 is adjusted synchronously, and then the high-precision thermal stress detection sensor built into the temperature positioning block 157 is used to monitor the thermal stress changes of the rotor structure inside the shell 1, so that the data is transmitted to the microprocessor controller 95 for processing, so that the microprocessor controller 95 controls the brushless servo motor 158 to start according to the temperature data, thereby facilitating the brushless servo motor 158 to drive the screw rod 152 to rotate, and utilizing the screw rod 152 to drive the connector 154 to move through the sliding connection block 153, so that the connector 154 adjusts the position of the temperature positioning block 157 through the pneumatic air rod 155 and the ball joint 156, facilitating the position adjustment of the temperature positioning block 157, and can directly and synchronously drive the position of the phase change contact guide pin 159, and the above operation, wherein the operation of the brushless servo motor 158 and the screw rod 152 can be controlled according to the signal of the timing controller, so that the three groups of brushless servo motors 158 form a separate control operation, thereby enabling the positions of the temperature positioning block 157 and the phase change contact guide pin 159 to be adjusted according to the housing 1 The position of the internal heat source is adjusted in multiple dimensions, and then the heat generated by the heat source is transferred to the microchannel heat exchanger tube 1590 through the phase change contact guide column 159, so that the liquid inside the microchannel heat exchanger tube 1590 evaporates at the heat absorption end and condenses at the heat release end to release heat, thereby achieving efficient heat transfer. The heat is then transferred to the heat pipe 1591 through the heat pipe connector 1598, so that the heat pipe 1591 further transfers the heat to the heat dissipation surface cooling pipe 1593 through the high thermal conductivity metal connector 1592. After that, the coolant in the heat dissipation surface cooling pipe 1593 adjusts the flow rate through the control solenoid valve 1594, so that the coolant flows through the heat dissipation guide end 1595, and then the air flow is enhanced through the built-in axial flow guide fan, so that the heat dissipated air flow is discharged from the heat dissipation pipe. The output is discharged to the heat dissipation dustproof valve hole end 7, which improves the heat dissipation efficiency. Secondly, the microprocessor controller 95 can control the servo control motor 13 according to the temperature data, so that the servo control motor 13 drives the small rotating gear 16 to rotate, and the small rotating gear 16 is engaged with the outer ring gear 11, thereby driving the outer ring gear 11 and the fastened adjustment positioning component 9 and the hot spot source heat dissipation component 15 to form a circle around the structure inside the shell 1, effectively improving the heat dissipation effect, and can drive the slotted ring shell 10, the outer ring gear 11, the adjustment positioning component 9, the hot spot source heat dissipation component 15, the small rotating gear 16 and the servo control motor 13 to slide fine-tune inside the bottom slot frame 2 under the cooperation of the electric stepping guide rod 3, and the adjustment of the adjustment positioning component 9 can be carried out under the cooperation of the connecting slide column rod.Located outside a set of sliding side columns 4, the sliding is formed. With the cooperation of the aerogel ring 5, it is convenient to prevent heat from being transferred to the load-bearing shell 6, reducing the accumulation of heat in the load-bearing shell 6. With the cooperation of the heat dissipation axial flow fan 12, it is convenient to pass the internal hot air flow through the high heat dissipation fin group 8 to increase the heat dissipation area.

[0044] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A high-strength generator housing heat dissipation structure, characterized by: The invention comprises a shell (1), wherein a plurality of sliding side columns (4) are equally divided and arranged around the side surface of the inner wall of the shell (1), the sliding side columns (4) are externally slidably connected to a slotted ring shell (10), the internal of the slotted ring shell (10) is rotatably connected to an outer ring gear (11), the bottom end of the outer ring gear (11) is fastened to an adjustment and positioning assembly (9), and a hot spot source heat dissipation assembly (15) is installed at the bottom of the adjustment and positioning assembly (9); The hot spot source heat dissipation assembly (15) comprises a side frame (150), the bottom three ends of the side frame (150) are all fastened to a slide rail frame (151), the outside of the slide rail frame (151) is slidably connected to a slide connection block (153), the center of the slide rail frame (151) is rotatably connected to a screw rod (152) through a bearing, the slide connection block (153) is located on the outside of the screw rod (152) and is slidably connected, and the slide connection block (153) is The side end is fastened with a connector (154), and a pneumatic rod (155) is installed on the side end of the connector (154). The bottom end of the pneumatic rod (155) is fastened with a ball joint (156). The interior of the ball joint (156) is fastened with a temperature positioning block (157) through the ball joint rod. The temperature positioning block (157) is used to monitor the rotor structure inside the housing (1) in real time through a built-in high-precision thermal stress detection sensor. The top of the screw rod (152) passes through the side frame (150) to install a brushless servo motor (158). The brushless servo motor (158) is connected through a built-in timing controller signal. The bottom of the temperature positioning block (157) is installed with a phase change contact guide column (159). The top of the phase change contact guide column (159) is connected to a microchannel heat exchanger tube (1590). The side of the microchannel heat exchanger tube (1590) is connected to a ceramic heat dissipation circulation system. Tube (1596), a micro coolant circulation pump (1597) is installed on the top of the micro channel heat exchanger tube (1590), a heat pipe connector (1598) is installed on the top of the micro coolant circulation pump (1597) and the micro channel heat exchanger tube (1590), the top of the heat pipe connector (1598) is connected to the heat pipe (1591), and a high thermal conductivity metal connector (1592) is installed on the top of the heat pipe (1591).

2. The high-strength generator housing heat dissipation structure according to claim 1, characterized in that: The top of the high thermal conductivity metal connector (1592) is connected to a heat dissipation surface cooling pipe (1593), a control solenoid valve (1594) is installed on the outside of the side end of the heat dissipation surface cooling pipe (1593), the top of the control solenoid valve (1594) is connected to a heat dissipation guide end (1595), an axial flow guide fan is installed inside the heat dissipation guide end (1595), and the heat dissipation guide end (1595) is located in an external sliding connection of a group of sliding side columns (4).

3. The high-strength generator housing heat dissipation structure according to claim 1, characterized in that: The adjustment and positioning assembly (9) comprises a dual-axis driven energy-saving motor (91), the left and right output ends of the dual-axis driven energy-saving motor (91) are both connected to a main rotating wheel (92) via a connecting key shaft, a wheel belt (94) is wound around the outside of the main rotating wheel (92), and the side ends of the main rotating wheel (92) are fastened to a connecting top frame (93) via a rotating member.

4. The high-strength generator casing heat dissipation structure according to claim 3, characterized in that: The connecting top frame (93) and the side of the outer ring gear (11) are tightly connected, and the other side end of the wheel belt (94) is tightly connected to the inverted recess frame through a connecting piece from the side of the rotating wheel. The top of the inverted recess frame is tightly connected to the connecting slide column rod, and the top of the connecting slide column rod is located on the outside of a group of sliding side columns (4) for sliding connection.

5. The high-strength generator casing heat dissipation structure according to claim 3, characterized in that: The bottom wall surface of the wheel belt (94) is fastened with a side connection reinforcement frame (96), the side end of the side connection reinforcement frame (96) is fastened with a microprocessor controller (95), the side end of the microprocessor controller (95) is fastened with the side surface of the side connection frame (150), and the bottom end of the side connection reinforcement frame (96) is installed with multiple groups of high-precision temperature detection sensors.

6. The high-strength generator casing heat dissipation structure according to claim 1, characterized in that: A bottom slot frame (2) is integrally formed at the bottom end of the housing (1), and an electric stepping guide rod (3) is installed inside the bottom slot frame (2).

7. The high-strength generator casing heat dissipation structure according to claim 6, characterized in that: The side end of the electric stepping guide rod (3) is tightly connected to the bottom ring shell surface of the slotted ring shell (10), and the slotted ring shell (10) is finely adjusted and slidably connected inside the bottom slot frame (2) through the drive of the electric stepping guide rod (3).

8. The high-strength generator casing heat dissipation structure according to claim 1, characterized in that: An aerogel ring (5) is sleeved on the outer side of the shell (1), and the outer side end of the aerogel ring (5) is connected to the supporting shell (6).

9. The high-strength generator casing heat dissipation structure according to claim 8, characterized in that: A high heat sink group (8) is embedded in the top and left and right ends of the bearing shell (6), heat dissipation dustproof valve hole ends (7) are provided at both ends of the top of the bearing shell (6), and heat dissipation axial flow fans (12) are installed inside the top and left and right ends of the bearing shell (6), and the heat dissipation dustproof valve hole end (7) and the heat dissipation guide end (1595) are connected through a heat dissipation pipeline.

10. The high-strength generator casing heat dissipation structure according to claim 1, characterized in that: The bottom of the outer ring gear (11) is meshedly connected with a small rotating tooth (16), the side end of the small rotating tooth (16) is connected to a servo control motor (13), the external frame of the servo control motor (13) is connected with a motor hoop (14), the side end of the motor hoop (14) is tightly connected to the side end surface of the slotted ring shell (10), and the small rotating tooth (16) is located inside the ring shell at the bottom of the slotted ring shell (10) and is rotatably connected.

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