A smart temperature control device for cooling a camera

Abstract

This utility model relates to the field of synchronous condenser technology and discloses an intelligent temperature control device for cooling synchronous condensers. The device drives a circulating water pump to bring coolant into a circulating cooling pipe through a telescopic inlet pipe. Spiral baffles installed inside the circulating cooling pipe agitate the coolant and create turbulence, breaking the laminar boundary layer and improving heat absorption efficiency. Simultaneously, combined with a finned heat exchanger that fully contacts the air inside the arc-shaped shell, the coolant transfers cooling energy to the air through the pipe wall and fins, rapidly reducing the air temperature inside the cavity. The cooled air, driven by a fan, flows through vents to the outer surface of the synchronous condenser body, carrying away its operating heat through air convection, achieving indirect cooling. The cooled coolant, after absorbing heat, enters an external coolant tank through a telescopic return pipe and then returns to the circulating water pump to complete a closed-loop circulation. Furthermore, the control panel adjusts the water pump speed and fan power based on temperature sensor data to ensure the synchronous condenser temperature remains stable within a preset range.

Description

Technical Field

[0001] This utility model relates to the field of camera condenser technology, and in particular to an intelligent temperature control device for cooling camera condensers. Background Technology

[0002] Synchronous condensers are key devices in power systems used to dynamically regulate reactive power, mainly by changing the excitation current to absorb or output reactive power.

[0003] Chinese Patent Publication No. CN222531472U discloses a cooling device for a synchronous condenser, including a synchronous condenser body and a cooling mechanism on its outer side. This mechanism includes a rectangular movable base plate located at the bottom of the body, a circulating water pump fixed at the top and located at the rear of the body, and connecting pipes at both the pump's output and input ends, with a movable block connected to the outer end of each pipe. This device offers high cooling efficiency, employs a detachable cooling structure, is easy to operate, and its cylinder-type design allows for more accurate operation of the locking rod, providing convenience for users.

[0004] Regarding the above and existing related technologies, the inventors believe that the following defects often exist: the cooling devices of existing synchronous condensers mostly adopt the cooling method of direct contact between the cooling medium and the surface of the condenser, which poses a risk of leakage and short circuit. Furthermore, this direct contact can lead to local thermal stress concentration, causing over-cooling and ultimately affecting the performance and lifespan of the condenser. Utility Model Content

[0005] The technical problem to be solved by this utility model is that the existing technology has the disadvantage that the camera condenser is directly contacted by the cooling medium, resulting in excessive cooling and thus affecting the performance of the camera condenser. To this end, we propose an intelligent temperature control device for cooling the camera condenser.

[0006] To achieve the above objectives, this application adopts the following technical solution: a smart temperature control device for cooling a phase-converter, comprising: a phase-converter body, and a mounting plate disposed at the bottom of the phase-converter body, wherein a cooling component for cooling the phase-converter body is disposed around the upper surface of the mounting plate, and a control panel is disposed on one side of the mounting plate. The cooling assembly includes an arc-shaped housing hinged to the upper surface of a mounting plate, and a connecting block disposed on the upper surface of the mounting plate. The movable end of the arc-shaped housing is connected to the upper surface of the connecting block by an elastic snap-fit. A circulating water pump is disposed on the upper surface of the mounting plate. The output end of the circulating water pump is connected to a circulating cooling pipe through a telescopic inlet pipe. The output end of the circulating cooling pipe is connected to an external coolant tank through a telescopic return pipe. The output end of the external coolant tank is connected to the input end of the circulating water pump through a pipe. A cavity is provided inside the arc-shaped housing. The circulating cooling pipe is fixed to the inner wall of the cavity by a bracket. A finned heat exchanger is disposed on the outer surface of the circulating cooling pipe. Spiral baffles are disposed inside the circulating cooling pipe. A fan is fixedly installed on the outer surface of the arc-shaped housing. Both the circulating water pump and the fan are connected to the control panel for signal connection. A vent is provided at the bottom of the arc-shaped housing, located below the finned heat exchanger.

[0007] Preferably, the circulating cooling pipe includes a main pipe disposed on the inner wall of the arc-shaped shell, and arc-shaped branch pipes disposed on the outer surface of the main pipe. Six sets of arc-shaped branch pipes are arranged in parallel. The outer surfaces of the six sets of arc-shaped branch pipes are all connected to the finned heat exchanger, and a thermally conductive silicone layer is disposed between the outer surfaces of the six sets of arc-shaped branch pipes and the finned heat exchanger.

[0008] Preferably, each set of arc-shaped branch pipes is equipped with a temperature sensor on its outer surface, and each set of temperature sensors is connected to the control panel via signal.

[0009] Preferably, the elastic buckle includes a locking block fixedly installed on the movable end of the arc-shaped housing, and a locking groove opened on the connecting block. The locking block and the locking groove are fitted together, and a compression spring is provided between them.

[0010] Preferably, the bottom of the mounting plate is provided with a support column.

[0011] Preferably, the outer surface of the fan is provided with an air guide shroud, the inner wall of the air guide shroud is provided with a flow guide groove, and the outlet of the flow guide groove faces the finned heat exchanger.

[0012] Preferably, a handle is provided on the outer surface of the arc-shaped housing. A smart temperature control device for cooling a condenser camera includes: a condenser camera body, and a mounting plate disposed at the bottom of the condenser camera body. A cooling assembly for cooling the condenser camera body is disposed around the upper surface of the mounting plate, and a control panel is disposed on one side of the mounting plate. The technical effects and advantages of this utility model are as follows: In this invention, the device drives the circulating water pump to drive the coolant into the circulating cooling pipe through the telescopic inlet pipe. Because the circulating cooling pipe is equipped with spiral baffles, it can agitate the coolant and create turbulence, thereby breaking the laminar boundary layer and allowing the coolant to fully contact the pipe wall, improving the efficiency of heat absorption. Simultaneously, the finned heat exchanger on the outer surface of the circulating cooling pipe fully contacts the air inside the arc-shaped shell. The coolant transfers cooling energy to the air through the pipe wall and fins, rapidly reducing the air temperature inside the cavity. The cooled air flows to the vent under the action of the fan, then flows over the outer surface of the condenser body, carrying away the heat generated by the condenser's operation through air convection, achieving indirect cooling. The cooled coolant, after absorbing heat, enters the external coolant tank through the telescopic return pipe. After being processed by the coolant tank, it returns to the circulating water pump through a pipeline, completing a closed-loop circulation. Furthermore, the control panel receives real-time temperature data from the temperature sensor to adjust the speed of the circulating water pump and the power of the fan, thereby stabilizing the temperature of the condenser body within a preset range. Attached Figure Description

[0013] The disclosure of this utility model is illustrated with reference to the accompanying drawings. It should be understood that the drawings are for illustrative purposes only and are not intended to limit the scope of protection of this utility model. In the drawings, the same reference numerals are used to refer to the same parts: Figure 1 This is a schematic diagram of the overall structure of the present invention. Figure 1 ; Figure 2 This is a schematic diagram of the overall structure of the present invention. Figure 2 ; Figure 3 This is a partial structural schematic diagram of the present invention; Figure 4 This is a schematic diagram of the cooling component structure of this utility model.

[0014] Legend: 1. Camera body; 2. Mounting plate; 21. Support column; 3. Cooling assembly; 31. Arc-shaped shell; 311. Cavity; 312. Locking block; 32. Connecting block; 321. Slot; 33. Circulating water pump; 34. Telescopic liquid inlet pipe; 35. Circulating cooling pipe; 351. Main pipe; 352. Arc-shaped branch pipe; 36. Finned heat exchanger; 37. Fan; 38. Vent; 4. Control panel; 5. Handle. Detailed Implementation

[0015] It is readily understood that, based on the technical solution of this utility model, those skilled in the art can propose various interchangeable structural methods and implementations without altering the essential spirit of this utility model. Therefore, the following detailed embodiments and accompanying drawings are merely illustrative descriptions of the technical solution of this utility model and should not be considered as the entirety of this utility model or as limitations or restrictions on the technical solution of this utility model.

[0016] Reference Figure 1 As shown, this utility model provides a technical solution: a smart temperature control device for cooling a condenser camera, comprising: a condenser camera body 1, and a mounting plate 2 disposed at the bottom of the condenser camera body 1. A cooling component 3 for cooling the condenser camera body 1 is disposed around the upper surface of the mounting plate 2. The cooling component 3 is connected to an external coolant tank for replenishing and circulating coolant. A control panel 4 is disposed on one side of the mounting plate 2.

[0017] Reference Figures 1-4As shown, in this embodiment: the cooling assembly 3 includes an arc-shaped housing 31 hinged to the upper surface of the mounting plate 2, and a connecting block 32 disposed on the upper surface of the mounting plate 2. The movable end of the arc-shaped housing 31 is connected to the upper surface of the connecting block 32 by an elastic snap-fit. A circulating water pump 33 is disposed on the upper surface of the mounting plate 2. The output end of the circulating water pump 33 is connected to a circulating cooling pipe 35 through a telescopic inlet pipe 34. The output end of the circulating cooling pipe 35 is connected to an external coolant tank through a telescopic return pipe. The output end of the external coolant tank is connected to the input end of the circulating water pump 33 through a pipe. The body 31 has an internal cavity 311. A circulating cooling pipe 35 is fixed to the inner wall of the cavity 311 via a bracket. A finned heat exchanger 36 is installed on the outer surface of the circulating cooling pipe 35. Spiral baffles are installed inside the circulating cooling pipe 35. A fan 37 is fixedly installed on the outer surface of the arc-shaped shell 31. Both the circulating water pump 33 and the fan 37 are connected to the control panel 4. A vent 38 is located at the bottom of the arc-shaped shell 31, below the finned heat exchanger 36. Starting the circulating water pump 33 drives the coolant through the telescopic inlet pipe 34 into the circulating cooling pipe 35. Due to the circulating cooling... The tube 35 is equipped with spiral baffles, which agitate the coolant and create turbulence, breaking the laminar boundary layer and ensuring full contact between the coolant and the tube wall of the circulating cooling tube 35, thus improving the efficiency of heat absorption. Simultaneously, because the finned heat exchanger 36 on the outer surface of the circulating cooling tube 35 is in full contact with the air inside the arc-shaped shell 31, the coolant transfers cooling energy to the air through the tube wall of the circulating cooling tube 35 and the finned heat exchanger 36, rapidly reducing the air temperature inside the cavity 311. The cooled air, under the action of the fan 37, flows towards the vent 38 and then across the outer surface of the condenser body 1. This method of carrying away the heat generated by the operation of the synchronous condenser body 1 through air convection can achieve indirect cooling. Finally, the coolant after absorbing heat enters the external coolant tank through the telescopic return pipe. After being processed by the coolant tank, it returns to the circulating water pump 33 through the pipeline to complete the closed-loop circulation. In addition, the control panel 4 receives real-time temperature data fed back by the temperature sensor, and then controls the coolant flow rate by adjusting the speed of the circulating water pump 33 to change the cooling output. It can also control the air flow rate by adjusting the power of the fan 37 to adjust the heat exchange efficiency, thereby stabilizing the temperature of the synchronous condenser body 1 within the preset range.

[0018] The circulating cooling pipe 35 includes a main pipe 351 disposed on the inner wall of the arc-shaped shell 31, and arc-shaped branch pipes 352 disposed on the outer surface of the main pipe 351. Six sets of arc-shaped branch pipes 352 are arranged in parallel. The outer surfaces of all six sets of arc-shaped branch pipes 352 are connected to the finned heat exchanger 36, and a thermally conductive silicone layer is disposed between the outer surfaces of the six sets of arc-shaped branch pipes 352 and the finned heat exchanger 36. The main pipe 351 of the circulating cooling pipe 35 distributes the coolant to the six sets of parallel arc-shaped branch pipes 352. Because the arc-shaped branch pipes 352 are tightly fitted to the finned heat exchanger 36 through the thermally conductive silicone layer, the cooling capacity of the coolant can be efficiently transferred to the fins. Simultaneously, from... Figure 4 It can be seen that the six sets of arc-shaped branch pipes 352 are distributed along the inner wall of the arc-shaped shell 31. Therefore, combined with the finned heat exchanger 36, the temperature of each area can be made uniform, and the heat exchange efficiency with the air can be improved.

[0019] Each set of arc-shaped branch pipes 352 is equipped with a temperature sensor on its outer surface. Each set of temperature sensors is connected to the control panel 4. The temperature of the outer surface of each set of arc-shaped branch pipes 352 can be detected by each temperature sensor, thereby reflecting the heat dissipation effect of the corresponding area of ​​the camera body 1 and transmitting the data to the control panel 4. The control panel 4 adjusts the coolant flow rate or the fan speed of the fan 37 according to the temperature difference. In addition, if you want to adjust the flow rate of each set of arc-shaped branch pipes 352 more precisely, you can add a flow regulating solenoid valve at the branch point of each set of arc-shaped branch pipes 352 and the main pipe 351, and it is connected to the control panel 4.

[0020] The elastic buckle includes a locking block 312 fixedly installed on the movable end of the arc-shaped housing 31, and a locking groove 321 opened on the connecting block 32. The locking block 312 and the locking groove 321 are fitted together, and a compression spring is provided between them. When the locking block 312 at the movable end of the arc-shaped housing 31 is inserted into the locking groove 321 of the connecting block 32, the compression spring is compressed and generates a preload force, so that the locking block 312 and the locking groove 321 are tightly fitted together, thus fixing the position of the arc-shaped housing 31. When disassembling, the opposite force can be applied to disassemble it.

[0021] The bottom of the mounting plate 2 is equipped with a support column 21, which raises the entire device. This facilitates the connection of the circulating cooling pipe 35 and the circulating water pump 33 to the external coolant tank, and also allows for... Figure 2 As can be seen, a dustproof plate is installed inside the mounting plate 2, which further promotes the heat dissipation of the camera body 1.

[0022] The outer surface of the fan 37 is provided with an air guide shroud, and the inner wall of the air guide shroud is provided with a flow guide groove. The outlet of the flow guide groove faces the finned heat exchanger 36. The air guide shroud and the flow guide groove can guide the airflow to the finned heat exchanger 36, thereby improving the cooling efficiency.

[0023] A handle 5 is provided on the outer surface of the arc-shaped housing 31. The handle 5 provides a point of force for the operator to pull the arc-shaped housing 31.

[0024] Working principle: When the camera body 1 needs to be cooled, the user pulls the arc-shaped housing 31 by the handle 5, so that the locking block 312 at the movable end of the arc-shaped housing 31 is inserted into the slot 321 of the connecting block 32, and the compression spring is compressed and generates a pre-tightening force, so that the locking block 312 and the slot 321 are tightly fitted, thus fixing the position of the arc-shaped housing 31. When disassembling, the opposite force can be applied to disassemble it. Next, the circulating water pump 33 is started to drive the coolant into the circulating cooling pipe 35 through the telescopic inlet pipe 34. Because the circulating cooling pipe 35 is equipped with spiral baffles, it can agitate the coolant and create turbulence, thereby breaking the laminar boundary layer and ensuring full contact between the coolant and the pipe wall of the circulating cooling pipe 35, improving the efficiency of heat absorption. Simultaneously, because the main pipe 351 of the circulating cooling pipe 35 branches the coolant into six sets of parallel arc-shaped branch pipes 352, and because the arc-shaped branch pipes 352 are tightly fitted to the finned heat exchanger 36 through a thermally conductive silicone layer, it ensures that the cooling capacity of the coolant is efficiently transferred to the fins. Meanwhile, from... Figure 4 As can be seen, the six sets of arc-shaped branch pipes 352 are distributed along the inner wall of the arc-shaped shell 31. Therefore, combined with the finned heat exchanger 36, the temperature of each area can be made uniform, improving the heat exchange efficiency with the air. Furthermore, the temperature sensor of each set can detect the outer surface temperature of each set of arc-shaped branch pipes 352, thus reflecting the heat dissipation effect of the corresponding area of ​​the condenser body 1 and transmitting the data to the control panel 4. The control panel 4 adjusts the coolant flow rate or the fan speed 37 according to the temperature difference. Additionally, if more precise adjustment of the flow rate of each set of arc-shaped branch pipes 352 is desired, a flow regulating solenoid valve can be added at the branch point between each set of arc-shaped branch pipes 352 and the main pipe 351. The board 4 is connected to the signal, thus quickly reducing the air temperature inside cavity 311. The cooled air, guided by fan 37 and the air guide shroud and guide channel, flows towards vent 38 and then over the outer surface of the synchronous condenser body 1. This method of carrying away the heat generated by the synchronous condenser body 1 through air convection achieves indirect cooling. Finally, the cooled liquid, after absorbing heat, enters the external coolant tank through the telescopic return pipe. After being processed by the coolant tank, it returns to the circulating water pump 33 through a pipeline, completing a closed-loop circulation. Furthermore, the entire device is raised by the support column 21, which not only facilitates the connection of the circulating cooling pipe 35 and the circulating water pump 33 to the external coolant tank, but also... Figure 2 As can be seen, a dustproof plate is installed inside the mounting plate 2, which further promotes heat dissipation of the synchronous condenser body 1. In addition, the control panel 4 receives real-time temperature data from the temperature sensor, and then controls the coolant flow rate by adjusting the speed of the circulating water pump 33 to change the cooling output. It can also control the airflow speed by adjusting the power of the fan 37 to adjust the heat exchange efficiency, thereby stabilizing the temperature of the synchronous condenser body 1 within a preset range.

[0025] The technical scope of this utility model is not limited to the content described above. Those skilled in the art can make various modifications and variations to the above embodiments without departing from the technical concept of this utility model, and all such modifications and variations should fall within the protection scope of this utility model.

Claims

1. A smart temperature control device for cooling a camera, characterized in that: It includes a camera module body and a mounting plate disposed at the bottom of the camera module body. A cooling assembly for cooling the camera module body is disposed around the upper surface of the mounting plate, and a control panel is disposed on one side of the mounting plate. The cooling assembly includes an arc-shaped housing hinged to the upper surface of a mounting plate, and a connecting block disposed on the upper surface of the mounting plate. The movable end of the arc-shaped housing is connected to the upper surface of the connecting block by an elastic snap-fit. A circulating water pump is disposed on the upper surface of the mounting plate. The output end of the circulating water pump is connected to a circulating cooling pipe through a telescopic inlet pipe. The output end of the circulating cooling pipe is connected to an external coolant tank through a telescopic return pipe. The output end of the external coolant tank is connected to the input end of the circulating water pump through a pipe. A cavity is provided inside the arc-shaped housing. The circulating cooling pipe is fixed to the inner wall of the cavity by a bracket. A finned heat exchanger is disposed on the outer surface of the circulating cooling pipe. Spiral baffles are disposed inside the circulating cooling pipe. A fan is fixedly installed on the outer surface of the arc-shaped housing. Both the circulating water pump and the fan are connected to a control panel for signal connection. A vent is provided at the bottom of the arc-shaped housing, and the vent is located below the finned heat exchanger.

2. The intelligent temperature control device for cooling a synchronous condenser according to claim 1, characterized in that: The circulating cooling pipe includes a main pipe disposed on the inner wall of the arc-shaped shell, and arc-shaped branch pipes disposed on the outer surface of the main pipe. Six sets of arc-shaped branch pipes are arranged in parallel. The outer surfaces of the six sets of arc-shaped branch pipes are all connected to the finned heat exchanger, and a thermally conductive silicone layer is disposed between the outer surfaces of the six sets of arc-shaped branch pipes and the finned heat exchanger.

3. The intelligent temperature control device for cooling a synchronous condenser according to claim 2, characterized in that: Each set of arc-shaped branch pipes is equipped with a temperature sensor on its outer surface, and each set of temperature sensors is connected to the control panel via signal.

4. The intelligent temperature control device for cooling a synchronous condenser according to claim 1, characterized in that: The elastic buckle includes a locking block fixedly installed on the movable end of the arc-shaped housing, and a locking groove opened on the connecting block. The locking block and the locking groove are fitted together, and a compression spring is provided between them.

5. The intelligent temperature control device for cooling a synchronous condenser according to claim 1, characterized in that: The mounting plate is provided with a support column at its bottom.

6. The intelligent temperature control device for cooling a synchronous condenser according to claim 1, characterized in that: The outer surface of the fan is provided with an air guide shroud, and the inner wall of the air guide shroud is provided with a flow guide groove, the outlet of the flow guide groove facing the finned heat exchanger.

7. The intelligent temperature control device for cooling a synchronous condenser according to claim 1, characterized in that: A handle is provided on the outer surface of the arc-shaped shell.

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