Proton catalysis heat conduction equipment with multi-pipeline heat conduction function

Abstract

The utility model discloses proton catalysis heat conduction equipment with a multi-pipeline heat conduction function, and particularly relates to the technical field of proton catalysis heat conduction equipment.The proton catalysis heat conduction equipment comprises a heat conduction pipe assembly and a condensation assembly, the condensation assembly is installed on the side face of the heat conduction pipe assembly, and the heat conduction pipe assembly comprises a water pump connecting hose, a first communicating pipe and a guide pipe assembly; a first communicating pipe is installed on the side face of the water pump connecting hose, a guide pipe assembly is installed on the side, away from the water pump connecting hose, of the first communicating pipe, and when the temperature of the surface of the proton catalysis equipment exceeds the optimal catalysis temperature, a thermistor in the control assembly can be decreased due to temperature rising and stopping; and when the reduced electric signal is amplified by the current amplifier to just enable the relay to close the circuit of the power supply assembly, the power supply assembly supplies power to a water outlet pump in the water storage assembly due to closing of the circuit, so that the water outlet pump pumps condensate water in the water storage pool.

Description

TECHNICAL FIELD

[0001] The utility model relates to proton catalysis heat conduction equipment technical field more specifically, the utility model relates to a kind of proton catalysis heat conduction equipment with multi-pipeline heat conduction function. BACKGROUND

[0002] Proton catalysis heat conduction equipment is applicable to the auxiliary equipment for cooling the equipment used in catalysis of proton type ionic liquid, when working, proton type ionic liquid needs to be controlled at the temperature of the best catalytic effect when catalyzing, so a heat conduction equipment is needed to assist, and proton catalysis heat conduction technology can cool the surface temperature of the equipment used in catalysis by heat conduction. Proton catalysis heat conduction equipment is mainly used in various fields using proton catalysis technology;

[0003] After searching, the existing publication number: CN108613576A, a kind of flexible bidirectional heat pipe belongs to heat pipe, to solve the technical problem for the common heat pipe needs to be driven by applying external force, cannot be opened according to the temperature difference change Heat conduction, the technical scheme for adopting is as follows: a kind of flexible bidirectional heat pipe, including hose, the both ends of hose are provided with a heat sealing plate, a plurality of evenly arranged heat unit bodies are provided in hose, heat unit body includes metal pipe, the both ends of metal pipe are provided with heat metal plate, the heat metal plate between two is provided with siphon block, siphon block is located in metal pipe, the sealed cavity formed by heat metal plate and metal pipe is filled with low-boiling point medium. A kind of flexible bidirectional heat pipe, including hose, the both ends of hose are provided with heat sealing plate, a plurality of interval arrangement metal partition are provided in hose, siphon block is provided between adjacent two metal partition;The sealed cavity formed by hose and metal partition is filled with low-boiling point medium. The inventor finds that the prior art has the following problems in the process of realizing the utility model:

[0004] The existing heat conduction equipment cannot accurately control the temperature of the device needing temperature control, which conducts the internal temperature by heat pipe or uses condensed liquid to vaporize, absorbs heat by liquid vaporization and absorbs the heat on the surface of the device, but cannot reasonably absorb part of the heat according to the needs of the device, and when the temperature of the device surface drops to the required temperature, the heat conduction device cannot stop heat conduction either.

[0005] Therefore, a kind of proton catalysis heat conduction equipment with multi-pipeline heat conduction function is proposed to solve the above problems. Utility model content

[0006] In order to overcome the above-mentioned defects of the prior art, the utility model provides a kind of proton catalysis heat conduction equipment with multi-pipeline heat conduction function to solve the problems raised in the above background art.

[0007] In order to achieve the above object, the utility model provides the following technical scheme: A proton catalytic heat conduction equipment with multi -pipeline heat conduction function, including heat pipe subassembly and condensing component, the side of heat pipe subassembly is installed with condensing component, and heat pipe subassembly contains water pump connecting hose, first communicating tube and guide tube subassembly, and the side of water pump connecting hose is installed with first communicating tube, and the side away from water pump connecting hose of first communicating tube is installed with guide tube subassembly, and condensing component contains control component, power component, water storage component and waste water treatment component, and the side of control component is placed with power component, and the side away from control component of power component is placed with water storage component, and the side away from control component of water storage component is placed with waste water treatment component.

[0008] Preferably, the guide tube subassembly includes an outer protective tube, a heat dissipation assembly, and a flange assembly, the inner wall of the outer protective tube is provided with the heat dissipation assembly, and the side of the outer protective tube is provided with the flange assembly.

[0009] Preferably, the control component includes a relay, a current amplifier, a first battery, and a thermistor, the side of the relay is provided with the current amplifier, the side away from the relay of the current amplifier is provided with the first battery, and the side away from the relay of the first battery is provided with the thermistor.

[0010] Preferably, the power component includes a second battery, a placement box, and a protection assembly, the inner wall of the placement box is provided with the second battery, and the side of the second battery is provided with the protection assembly.

[0011] Preferably, the water storage component includes a water outlet pump, a second communicating tube, and a water storage pool, the side of the water outlet pump is provided with the second communicating tube, and the side away from the water outlet pump of the second communicating tube is provided with the water storage pool.

[0012] Preferably, the waste water treatment component includes a third communicating tube, a waste water connecting hose, and a waste water pool, the side of the third communicating tube is provided with the waste water connecting hose, and the side away from the third communicating tube of the waste water connecting hose is provided with the waste water pool.

[0013] Preferably, the heat dissipation assembly includes a heat conduction contact plate, a heat conduction metal tube, and a heat conduction sheet, the side of the heat conduction contact plate is provided with the heat conduction metal tube, and the side away from the heat conduction contact plate of the heat conduction metal tube is provided with the heat conduction sheet.

[0014] Preferably, the protection assembly includes a protection box, a protection wire, and a connecting hole, the inner wall of the protection box is provided with the protection wire, and the side end surface of the protection box is provided with the connecting hole.

[0015] Preferably, the flange assembly comprises a first flange plate, a second flange plate and a sealing sleeve, and the second flange plate is arranged on the side of the first flange plate, and the sealing sleeve is arranged on the outer diameter surface of the first flange plate.

[0016] The technical effects and advantages of the present application are as follows:

[0017] 1. Compared with the prior art, the proton catalytic heat conduction equipment with multi-pipe heat conduction function increases the area of contact with air by installing heat conduction fins on the heat dissipation assembly, and the heat inside the heat dissipation assembly is dissipated faster. The heat conduction contact plate is in contact with the surface of the proton catalytic equipment to conduct heat. The heat is transferred from the proton catalytic equipment to the heat conduction contact plate, and then transferred to the heat conduction fins through the heat conduction metal pipe. The heat conduction fins are in direct contact with air and release heat. The alloy used in the heat dissipation assembly is brass with good heat conduction performance.

[0018] 2. Compared with the prior art, the proton catalytic heat conduction equipment with multi-pipe heat conduction function uses a condensation assembly to regulate the temperature of the proton catalytic equipment. When the temperature on the surface of the proton catalytic equipment exceeds the optimal catalytic temperature, the thermistor in the control assembly will increase in resistance due to the increase in temperature, and the reduced electrical signal will be amplified by the current amplifier to just close the circuit of the power supply assembly. When the circuit is closed, the power supply assembly will supply power to the water outlet pump in the water storage assembly, causing the water outlet pump to extract condensed water from the water storage tank and flow into the heat dissipation assembly through the pipe, thereby increasing the efficiency of heat dissipation of the heat dissipation assembly and quickly controlling the temperature of the proton catalytic equipment within a suitable range. When the temperature inside the proton catalytic equipment decreases, the thermistor installed on its surface will increase in resistance due to the decrease in temperature, causing the relay to open the short circuit of the power supply assembly and preventing the condensed liquid from entering the heat dissipation assembly, thereby reducing the heat conduction rate of the heat conduction equipment and repeatedly controlling the temperature of the proton catalytic equipment.

[0019] 3. Compared with the prior art, the proton catalytic heat conduction equipment with multi-pipe heat conduction function uses multiple pipes fixed to the outer surface of the proton catalytic equipment to increase the contact area between the pipes and the proton catalytic equipment, thereby improving the efficiency of heat conduction of the proton catalytic heat conduction equipment. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is a whole three-dimensional structure schematic view of the proton catalytic heat conduction equipment with multi-pipe heat conduction function.

[0021] Figure 2 It is a condensation assembly structure schematic view of the proton catalytic heat conduction equipment with multi-pipe heat conduction function.

[0022] Figure 3 This is a schematic diagram of the power supply component structure of a proton catalytic heat conduction device with multi-channel heat conduction function according to the present invention.

[0023] Figure 4 This is a schematic diagram of the conduit assembly structure of a proton catalytic heat conduction device with multi-channel heat conduction function according to the present invention.

[0024] Figure 5 This is a schematic diagram of the flange assembly structure of a proton catalytic heat conduction device with multi-pipe heat conduction function according to the present invention.

[0025] The attached figures are labeled as follows: 1. Heat pipe assembly; 2. Condensation assembly; 3. Water pump connecting hose; 4. First connecting pipe; 5. Conduit assembly; 6. Control assembly; 7. Power supply assembly; 8. Water storage assembly; 9. Wastewater treatment assembly; 10. Outer protective pipe; 11. Heat dissipation assembly; 12. Flange assembly; 13. Relay; 14. Current amplifier; 15. First battery; 16. Thermistor; 17. Second battery; 18. Placement box; 19. Protection assembly; 20. Water pump; 21. Second connecting pipe; 22. Water storage tank; 23. Third connecting pipe; 24. Wastewater connecting hose; 25. Wastewater tank; 26. Thermal contact plate; 27. Thermal metal pipe; 28. Thermal plate; 29. ​​Protection box; 30. Protective wire; 31. Connection hole; 32. First flange; 33. Second flange; 34. Sealing sleeve. Detailed Implementation

[0026] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model. Example

[0027] As attached Figures 1 to 5 The device shown is a proton catalytic heat conduction device with multi-pipe heat conduction function, including a heat conduction pipe assembly 1 and a condensation assembly 2. The condensation assembly 2 is installed on the side of the heat conduction pipe assembly 1. The heat conduction pipe assembly 1 includes a water pump connecting hose 3, a first connecting pipe 4 and a conduit assembly 5. The first connecting pipe 4 is installed on the side of the water pump connecting hose 3, and the conduit assembly 5 is installed on the side of the first connecting pipe 4 away from the water pump connecting hose 3. The condensation assembly 2 includes a control assembly 6, a power supply assembly 7, a water storage assembly 8 and a wastewater treatment assembly 9. The power supply assembly 7 is placed on the side of the control assembly 6. The water storage assembly 8 is placed on the side of the power supply assembly 7 away from the control assembly 6. The wastewater treatment assembly 9 is placed on the side of the water storage assembly 8 away from the control assembly 6.

[0028] Wherein: when the heat pipe assembly 1 can conduct heat out of the proton catalytic device, thereby reducing the temperature of the proton catalytic heat conduction device, the condensing assembly 2 can cool the proton catalytic device through the condensed water when the heat pipe assembly 1 cannot conduct heat out of the proton catalytic heat conduction device in time, the side of the heat pipe assembly 1 is provided with the condensing assembly 2, the heat pipe assembly 1 comprises a water pump connecting hose 3, a first communication pipe 4 and a pipe assembly 5, the first communication pipe 4 is installed on the side of the water pump connecting hose 3, the water pump connecting hose 3 connects the water pump 20 and the first communication pipe 4, the first communication pipe 4 connects the pipe assembly 5 and the water pump 20, the side of the first communication pipe 4 away from the water pump connecting hose 3 is provided with the pipe assembly 5, the first communication pipe 4 and the pipe assembly 5 are connected by threads, the water pump connecting hose 3 and the first communication pipe 4 are connected by threads, the condensing assembly 2 comprises a control assembly 6, a power supply assembly 7, a water storage assembly 8 and a waste water treatment assembly 9, the control assembly 6 can control the supply of condensed water in the condensing assembly 2 spontaneously through the temperature of the surface of the proton catalytic device, the power supply assembly 7 provides power for the condensed water supply of the water storage assembly 8, the water storage assembly 8 can store condensed water and provide condensed water for the heat pipe assembly 1 under the control of the control assembly 6, the waste water treatment assembly 9 can collect used condensed water and uniformly treat it, the side of the control assembly 6 is provided with the power supply assembly 7, the side of the power supply assembly 7 away from the control assembly 6 is provided with the water storage assembly 8, the side of the water storage assembly 8 away from the control assembly 6 is provided with the waste water treatment assembly 9, when the proton catalytic device operates, the heat pipe assembly 1 in the heat conduction device conducts the temperature of the proton catalytic device, thereby reducing the temperature of the surface of the proton catalytic device, when the temperature of the proton catalytic device is too high, the heat pipe assembly 1 cannot conduct the heat on the surface of the proton catalytic device in time, thereby starting spontaneously, so that the condensed water continuously passes through the pipeline of the proton catalytic heat conduction device, quickly taking away the heat on the surface thereof, when the temperature of the surface of the proton catalytic device reduces to a certain extent, the condensing assembly 2 will automatically cut off the supply of condensed water, thereby repeatedly controlling the temperature of the proton catalytic device. Embodiment

[0029] On the basis of embodiment 1, the scheme in embodiment 1 is further refined and introduced in combination with the specific working mode as follows: Figures 1 to 5 as shown in the following description:

[0030] The condensing assembly 2 comprises a control assembly 6, a power supply assembly 7, a water storage assembly 8 and a waste water treatment assembly 9. The control assembly 6 can automatically control the supply of condensing water in the condensing assembly 2 according to the temperature of the surface of the proton catalytic device. The power supply assembly 7 provides power for the condensing water supply of the water storage assembly 8. The water storage assembly 8 can store condensing water and provide condensing water for the heat pipe assembly 1 under the control of the control assembly 6. The waste water treatment assembly 9 can collect and uniformly treat the used condensing water. The power supply assembly 7 is placed on the side of the control assembly 6. The water storage assembly 8 is placed on the side of the power supply assembly 7 away from the control assembly 6. The waste water treatment assembly 9 is placed on the side of the water storage assembly 8 away from the control assembly 6.

[0031] As a preferred embodiment, the pipe assembly 5 comprises an outer protective pipe 10, a heat dissipation assembly 11 and a flange assembly 12. The outer protective pipe 10 can protect the heat dissipation assembly 11. The flange assembly 12 flange connects the pipe assembly 5 and the first communication pipe 4. The inner wall of the outer protective pipe 10 is installed with the heat dissipation assembly 11. The outer wall of the heat dissipation assembly 11 is bonded with the outer protective pipe 10. The flange assembly 12 is installed on the side of the outer protective pipe 10.

[0032] As a preferred embodiment, the control assembly 6 comprises a relay 13, a current amplifier 14, a first battery 15 and a thermistor 16. The relay 13 can control the circuit in the heat conduction device. When the electric signal in the control assembly 6 reaches a certain intensity, it will control the circuit in the power supply assembly 7 to close, so that the condensing assembly 2 provides condensed water for the heat pipe assembly 1. When the temperature of the proton catalyst decreases, the resistance of the thermistor 16 increases, so that the relay 13 disconnects the circuit of the power supply assembly 7, and the condensing assembly 2 stops supplying condensed water to the heat pipe assembly 1. The model of the relay 13 is JZX-102M. The current amplifier 14 can amplify the electric signal in the circuit, so that the relay 13 can identify the electric signal in the circuit of the control assembly 6, and control the current of the power supply assembly 7 to close or disconnect. The model of the current amplifier 14 is LM358. The first battery 15 provides power for the control assembly 6. The thermistor 16 is installed on the external surface of the proton catalytic device to detect the temperature change of the proton catalytic device. When the temperature of the surface of the proton catalytic device changes, the thermistor 16 also changes. The current amplifier 14 is placed on the side of the relay 13. The first battery 15 is placed on the side of the current amplifier 14 away from the relay 13. The thermistor 16 is placed on the side of the first battery 15 away from the relay 13. The control assembly 6 constitutes a closed-loop temperature feedback regulation system. The thermistor 16 acts as a temperature sensor and is closely attached to the surface of the proton catalytic device to monitor its temperature in real time. The resistance of the thermistor 16 decreases as the temperature rises. The first battery 15 provides stable power for the entire control circuit. The current amplifier 14 continuously collects the resistance change signal of the thermistor 16 and converts it into an electric signal corresponding to the temperature for amplification. The relay 13 has a preset action threshold. When the surface temperature of the proton catalytic device exceeds the preset optimal catalytic temperature, the amplified signal output by the current amplifier 14 reaches or exceeds the threshold, driving the relay 13 to act and closing the switch contacts controlled by it, thereby connecting the power supply circuit of the power supply assembly 7 to the water pump 20 in the water storage assembly 8. Conversely, when the temperature drops below the preset value, the electric signal weakens, the relay 13 resets and disconnects, cutting off the power supply of the water pump 20. By adjusting the amplification factor of the current amplifier 14 and the action threshold of the relay 13, the temperature point of the system can be accurately set and controlled, realizing precise temperature control of the proton catalytic device.

[0033] As a preferred embodiment, the power supply assembly 7 comprises a second battery 17, a placing box 18 and a protection assembly 19, the second battery 17 provides power supply for the power supply assembly 7, the placing box 18 provides a placing space for the second battery 17, when the current in the power supply assembly 7 is too large, the protection wire 9 in the protection assembly 19 will cause its internal temperature to be greater than the melting point due to the excessive current, so that the protection wire 9 is burned off and the circuit is automatically disconnected, preventing the device from self-ignition, the second battery 17 is placed on the inner wall of the placing box 18, and the protection assembly 19 is placed on the side of the second battery 17.

[0034] As a preferred embodiment, the water storage assembly 8 comprises a water outlet pump 20, a second communication pipe 21 and a water storage pool 22, the water outlet pump 20 transports the condensed water in the water storage pool 22 to the heat conducting pipe assembly 1, the second communication pipe 21 connects the water outlet pump 20 and the water storage pool 22, the second communication pipe 21 is installed on the side of the water outlet pump 20, the water outlet pump 20 and the second communication pipe 21 are connected by threads, the second communication pipe 21 and the water storage pool 22 are connected by threads, and the water storage pool 22 is installed on the side of the second communication pipe 21 away from the water outlet pump 20.

[0035] As a preferred embodiment, the waste water treatment assembly 9 comprises a third communication pipe 23, a waste water connecting hose 24 and a waste water pool 25, the waste water treatment assembly 9 can collect and treat the used condensed water, the third communication pipe 23 connects the waste water connecting hose 24 and the heat conducting pipe assembly 1, the waste water connecting hose 24 is installed on the side of the third communication pipe 23, the waste water pool 25 is installed on the side of the waste water connecting hose 24 away from the third communication pipe 23, the third communication pipe 23 and the waste water connecting hose 24 are connected by threads, and the waste water connecting hose 24 and the waste water pool 25 are connected by threads.

[0036] As a preferred embodiment, the heat dissipation assembly 11 comprises a heat conducting contact plate 26, a heat conducting metal pipe 27 and a heat conducting sheet 28, the heat conducting contact plate 26 conducts the heat on the surface of the proton catalytic device, the heat conducting metal pipe 27 can make the condensed water quickly cool down, and the heat conducting sheet 28 can increase the area of contact with air to make the heat dissipate faster, the heat conducting metal pipe 27 is installed on the side of the heat conducting contact plate 26 by welding, and the heat conducting sheet 28 is installed on the side of the heat conducting metal pipe 27 away from the heat conducting contact plate 26 by welding.

[0037] As a preferred implementation, the protection assembly 19 comprises a protection box 29, a protection wire 30 and a connecting hole 31, the protection box 29 provides a placement space for the storage of the protection wire 30, the connecting hole 31 connects the protection wire 30 and the external lead wire, the protection wire 30 can be automatically disconnected when the current is too large due to excessive temperature, the protection wire 30 is placed on the inner wall of the protection box 29, the connecting hole 31 is opened on the side end face of the protection box 29, the protection assembly 19 constitutes the overcurrent protection device of the system, the protection wire 30 is connected in series in the output main loop of the second battery 17, when the circuit occurs abnormal conditions such as short circuit or overload, the current abnormally increases and exceeds the rated fusing current of the protection wire 30, the protection wire 30 will be rapidly fused due to self-heating, thereby automatically cutting off the entire power supply circuit, effectively preventing the equipment from being damaged or causing safety accidents due to excessive current.

[0038] As a preferred implementation, the flange assembly 12 comprises a first flange plate 32, a second flange plate 33 and a sealing sleeve 34, the sealing sleeve 34 can increase the sealing property of the flange assembly 12, the first flange plate 32 and the second flange plate 33 are fixed by bolts, the second flange plate 33 is placed on the side face of the first flange plate 32, and the sealing sleeve 34 is placed on the outer diameter surface of the first flange plate 32.

[0039] As a preferred implementation, the control assembly 6 and the power supply assembly 7 are connected through a lead wire, and the power supply assembly 7 and the water storage assembly 8 are connected through a lead wire, when the control assembly 6 is closed, the control assembly 6, the power supply assembly 7 and the water storage assembly 8 form a closed circuit, so that the water storage assembly 8 continuously delivers condensed water to the heat conduction pipeline.

[0040] The utility model discloses a heat conduction pipe assembly 1 can conduct heat to the inside of proton catalytic equipment, thereby reducing the temperature of proton catalytic heat conduction equipment, and the condensing assembly 2 can carry out the cooling to proton catalytic equipment through the condensing water when heat of proton catalytic heat conduction equipment cannot be conducted out in time by heat conduction pipe assembly 1, and the condensing assembly 2 includes control assembly 6, power component 7, water storage assembly 8 and waste water treatment assembly 9, and control assembly 6 can control the supply of condensing water in condensing assembly 2 spontaneously through the temperature of proton catalytic equipment surface, and control assembly 6 includes relay 13, current amplifier 14, first battery 15 and thermistor 16, and relay 13 can control the circuit in heat conduction equipment, and when the electric signal in control assembly 6 reaches certain intensity, it will control the circuit in power component 7 to close, makes condensing assembly 2 provide condensing water for heat conduction pipe assembly 1, and when the temperature of proton catalytic device reduces, the resistance of thermistor 16 rises, thereby making relay 13 disconnect the circuit of power component 7, makes condensing assembly 2 cut off the delivery of condensing water to heat conduction pipe assembly 1, and the model number of relay 13 is JZX-102M, and current amplifier 14 can amplify the electric signal in the circuit, thereby making relay 13 can identify the electric signal in control assembly 6 circuit and the current closing or disconnecting of power component 7, and the model number of current amplifier 14 is LM358, and first battery 15 provides power supply for control assembly 6, and thermistor 16 is installed on proton catalytic equipment, and when the temperature of proton catalytic equipment surface changes, thermistor 16 also will change, and relay 13 has current amplifier 14 on the side, and current amplifier 14 has first battery 15 on the side away from relay 13, and first battery 15 has thermistor 16 on the side away from relay 13, and power component 7 provides condensing water for water storage assembly 8 and provides power, and power component 7 includes second battery 17, placing box 18 and protection assembly 19, and second battery 17 provides power supply for power component 7, and placing box 18 provides placing space for second battery 17, and protection assembly 19 automatically disconnects when the current in power component 7 is too large, prevents the self-ignition phenomenon of equipment, and protection assembly 19 includes protection box 29, protection wire 30 and connecting hole 31, and protection box 29 provides placing space for the storage of protection wire 30, and connecting hole 31 connects protection wire 30 and external lead wire, and protection wire 30 can automatically disconnect when the current is too large because of the temperature is too high, and protection wire 30 is placed on the top of the inner wall of protection box 29, and connecting hole 31 is carved in the side end surface of protection box 29, and second battery 17 is placed on the top of the inner wall of placing box 18, and protection assembly 19 is placed on the side of second battery 17, and water storage assembly 8 can store condensing water and provide condensing water for heat conduction pipe assembly 1 under the control of control assembly 6, and water storage assembly 8 includes water outlet pump 20, second communicating pipe 21 and water storage pool 22, and water outlet pump 20 delivers the condensing water in water storage pool 22 to heat conduction pipe assembly 1,The second communication pipe 21 connects the water outlet pump 20 and the water storage pool 22, the side of the water outlet pump 20 is provided with the second communication pipe 21, the water outlet pump 20 and the second communication pipe 21 are connected through threads, the second communication pipe 21 and the water storage pool 22 are connected through threads, the side of the second communication pipe 21 away from the water outlet pump 20 is provided with the water storage pool 22, the waste water treatment assembly 9 can collect the used condensate water and uniformly treat it, and the waste water treatment assembly 9 comprises a third communication pipe 23, a waste water connecting hose 24 and a waste water pool 25.

[0041] The third communication pipe 23 connects the waste water connecting hose 24 and the heat conduction pipe assembly 1, the side of the third communication pipe 23 is provided with the waste water connecting hose 24, the side of the waste water connecting hose 24 away from the third communication pipe 23 is provided with the waste water pool 25, the third communication pipe 23 and the waste water connecting hose 24 are connected through threads, the waste water connecting hose 24 and the waste water pool 25 are connected through threads, the side of the control assembly 6 is provided with the power supply assembly 7, the side of the power supply assembly 7 away from the control assembly 6 is provided with the water storage assembly 8, the side of the water storage assembly 8 away from the control assembly 6 is provided with the waste water treatment assembly 9, the side of the heat conduction pipe assembly 1 is provided with the condensation assembly 2, the heat conduction pipe assembly 1 comprises the water pump connecting hose 3, the first communication pipe 4 and the pipe assembly 5, the pipe assembly 5 comprises the outer protective pipe 10, the heat dissipation assembly 11 and the flange assembly 12, the outer protective pipe 10 can protect the heat dissipation assembly 11, the heat dissipation assembly 11 comprises the heat conduction contact plate 26, the heat conduction metal pipe 27 and the heat conduction sheet 28, the heat conduction contact plate 26 conducts the heat on the surface of the proton catalytic device, the heat conduction metal pipe 27 can make the condensate water quickly cool down, the heat conduction sheet 28 can increase the area of contact with air, so that the heat is more quickly dissipated, the side of the heat conduction contact plate 26 is provided with the heat conduction metal pipe 27 through welding, the side of the heat conduction metal pipe 27 away from the heat conduction contact plate 26 is provided with the heat conduction sheet 28 through welding, the flange assembly 12 comprises the first flange plate 32, the second flange plate 33 and the sealing sleeve 34, the sealing sleeve 34 can increase the sealing property of the flange assembly 12, the first flange plate 32 and the second flange plate 33 are fixed through bolts, the side of the first flange plate 32 is provided with the second flange plate 33, the outer diameter surface of the first flange plate 32 is provided with the sealing sleeve 34, the flange assembly 12 flange connects the pipe assembly 5 and the first communication pipe 4, the inner wall side of the outer protective pipe 10 is provided with the heat dissipation assembly 11, the outer wall of the heat dissipation assembly 11 is bonded with the outer protective pipe 10, the side of the outer protective pipe 10 is provided with the flange assembly 12, the side of the water pump connecting hose 3 is provided with the first communication pipe 4, the water pump connecting hose 3 connects the water outlet pump 20 and the first communication pipe 4, the first communication pipe 4 connects the pipe assembly 5 and the water outlet pump 20, the side of the first communication pipe 4 away from the water pump connecting hose 3 is provided with the pipe assembly 5, the first communication pipe 4 and the pipe assembly 5 are connected through threads, the water pump connecting hose 3 and the first communication pipe 4 are connected through threads.

[0042] When the heat conduction device is installed on the surface of the proton catalytic device, the proton type ionic liquid will be catalyzed in the interior of the proton catalytic device, when the interior temperature of the proton catalytic device gradually rises, the heat dissipation assembly 11 installed on the surface of the proton catalytic device will conduct the heat in the interior of the proton catalytic device to the outside, the heat dissipation assembly 11 installs the heat conduction fin 28, so as to increase the area of contact with air, and the heat in the heat dissipation assembly 11 is dissipated faster, the heat conduction contact plate 26 is in contact with the surface of the proton catalytic device, so as to conduct heat, the heat is transferred from the proton catalytic device to the heat conduction contact plate 26, and then is transferred to the heat conduction fin 28 through the heat conduction metal pipe 27, the heat conduction fin 28 is in direct contact with air, and the temperature is dissipated, the alloy used by the heat dissipation assembly 11 is brass with good heat conduction performance, when the temperature in the interior of the proton catalytic device cannot be conducted to the outside in time through the heat dissipation assembly 11, the thermistor 16 in the control assembly 6 will be reduced due to the rise of temperature, when the reduced electric signal is amplified by the current amplifier 14 to just make the relay 13 close the circuit of the power supply assembly 7, the power supply assembly 7 will supply power to the water outlet pump 20 in the water storage assembly 8 when the circuit is closed, so that the water outlet pump 20 extracts the condensed water in the water storage tank 22 and flows into the heat dissipation assembly 11 through the pipeline, so that the heat dissipation efficiency of the heat dissipation assembly 11 is accelerated, so as to quickly control the temperature of the proton catalytic device in the appropriate range, when the temperature in the interior of the proton catalytic device decreases, the thermistor 16 installed on the surface thereof will be raised due to the decrease of temperature, so as to make the relay 13 open the short circuit of the power supply assembly 7, so that the condensed liquid does not enter the heat dissipation assembly 11, so that the heat conduction rate of the heat conduction device is reduced, so as to repeatedly control the temperature of the proton catalytic device, the condensed water entering the heat dissipation assembly 11 will enter the waste water tank 25 along the pipeline, workers can treat the condensed water in the waste water tank 25 and recycle, the above is the working principle of the proton catalytic heat conduction device with the function of multi-pipeline heat conduction.

Claims

1. A proton-catalyzed heat-conducting device with multi-pipe heat-conducting function, comprising a heat-conducting pipe assembly (1) and a condensing assembly (2), characterized in that: The side of the heat pipe assembly (1) is mounted with a condensing assembly (2), and the heat pipe assembly (1) comprises a water pump connecting hose (3), a first communication pipe (4) and a pipe assembly (5), and the side of the water pump connecting hose (3) is mounted with the first communication pipe (4), and the side, away from the water pump connecting hose (3), of the first communication pipe (4) is mounted with the pipe assembly (5), and the condensing assembly (2) comprises a control assembly (6), a power supply assembly (7), a water storage assembly (8) and a wastewater treatment assembly (9), and the side of the control assembly (6) is placed with the power supply assembly (7), and the side, away from the control assembly (6), of the power supply assembly (7) is placed with the water storage assembly (8), and the side, away from the control assembly (6), of the water storage assembly (8) is placed with the wastewater treatment assembly (9).

2. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 1, characterized in that: The pipe assembly (5) comprises an outer protective pipe (10), a heat dissipation assembly (11) and a flange assembly (12), and the inner wall side of the outer protective pipe (10) is mounted with the heat dissipation assembly (11), and the side of the outer protective pipe (10) is mounted with the flange assembly (12).

3. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 2, characterized in that: The control assembly (6) comprises a relay (13), a current amplifier (14), a first battery (15) and a thermistor (16), and the side of the relay (13) is placed with the current amplifier (14), and the side, away from the relay (13), of the current amplifier (14) is placed with the first battery (15), and the side, away from the relay (13), of the first battery (15) is placed with the thermistor (16).

4. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 2, characterized in that: The power supply assembly (7) comprises a second battery (17), a placement box (18) and a protection assembly (19), and the inner wall top of the placement box (18) is placed with the second battery (17), and the side of the second battery (17) is placed with the protection assembly (19).

5. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 2, characterized in that: The water storage assembly (8) comprises a water outlet pump (20), a second communication pipe (21) and a water storage pool (22), and the side of the water outlet pump (20) is mounted with the second communication pipe (21), and the side, away from the water outlet pump (20), of the second communication pipe (21) is mounted with the water storage pool (22).

6. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 2, characterized in that: The wastewater treatment assembly (9) comprises a third communication pipe (23), a wastewater connecting hose (24) and a wastewater pool (25), and the side of the third communication pipe (23) is mounted with the wastewater connecting hose (24), and the side, away from the third communication pipe (23), of the wastewater connecting hose (24) is mounted with the wastewater pool (25).

7. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 3, characterized in that: The heat dissipation assembly (11) comprises a heat conduction contact plate (26), a heat conduction metal pipe (27) and a heat conduction sheet (28), and the side of the heat conduction contact plate (26) is mounted with the heat conduction metal pipe (27), and the side, away from the heat conduction contact plate (26), of the heat conduction metal pipe (27) is mounted with the heat conduction sheet (28).

8. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 5, characterized in that: The protection assembly (19) comprises a protection box (29), a protection wire (30) and a connecting hole (31), and the inner wall top of the protection box (29) is placed with the protection wire (30), and the side end face of the protection box (29) is excavated with the connecting hole (31).

9. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 3, characterized in that: The flange assembly (12) comprises a first flange plate (32), a second flange plate (33) and a sealing sleeve (34), the side of the first flange plate (32) is provided with the second flange plate (33), and the outer diameter surface of the first flange plate (32) is provided with the sealing sleeve (34).

10. The proton-catalyzed heat-conducting device with multi-pipe heat-conducting function according to claim 3, characterized in that: The control assembly (6) and the power supply assembly (7) are connected through wires, and the power supply assembly (7) and the water storage assembly (8) are connected through wires.

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