CN217785528U - Condensation subassembly - Google Patents

Abstract

The present application provides a condensation assembly. The condensation assembly comprises a condensation device and a liquid storage device, at least part of the liquid storage device is sleeved with the condensation device, the condensation device is provided with a first accommodating space and a second accommodating space which are separated from each other, the first accommodating space is used for accommodating steam, the second accommodating space is used for accommodating a cooling medium, the cooling medium is used for absorbing heat of the steam to enable the steam to be converted into liquid, the temperature of the cooling medium is increased, the liquid storage device is used for storing the liquid formed by condensation in the first accommodating space, and the liquid storage device is abutted against at least part of side walls, located in the second accommodating space, of the condensation device. The at least partial lateral wall looks butt that the space that is arranged in acceping cooling medium among condensation assembly messenger's stock solution device and the condensing equipment in this application corresponds to make the liquid in the stock solution device can provide heat energy for cooling medium, with the stability that provides cooling medium thermal cycle, thereby improve evaporation condensing system's job stabilization nature.

Description

Condensation subassembly

Technical Field

The application belongs to the technical field of the condensation, concretely relates to condensation subassembly.

Background

With the continuous improvement of the environmental importance degree, the requirements of people on waste liquid discharge are also continuously improved. Evaporative condensing systems are commonly used to separate contaminants from waste streams to meet waste stream discharge requirements. In the evaporative condensation system, the cooling medium needs to exchange heat with vapor in the condensation device, so that heat release of the cooling medium in the evaporation device and heat absorption of the cooling medium in the condensation device are realized. However, during the heat exchange, the heat energy supplied to the cooling medium by the vapor is unstable, for example, the vapor amount in the condensing device is insufficient, so that the conventional condensing device is liable to lower the stability of the heat circulation of the cooling medium, thereby lowering the operation stability of the evaporative condensation system.

SUMMERY OF THE UTILITY MODEL

In view of this, the present application provides a condensing assembly, where the condensing assembly includes a condensing device and a liquid storage device, at least a portion of the liquid storage device is sleeved with the condensing device, the condensing device has a first receiving space and a second receiving space that are separated from each other, the first receiving space is used for receiving vapor, the second receiving space is used for receiving a cooling medium, the cooling medium is used for absorbing heat of the vapor so as to convert the vapor into liquid, and the cooling medium is heated, the liquid storage device is used for storing the liquid condensed in the first receiving space, and the liquid storage device abuts against at least a portion of a side wall of the condensing device located in the second receiving space.

The application provides a condensation subassembly comprises condensing equipment and stock solution device, and condensing equipment is used for making vapour change into liquid, and the stock solution device is used for the liquid that forms after the storage condensation. The steam in the first accommodating space can exchange heat with the cooling medium in the second accommodating space. It is also understood that the cooling medium absorbs the thermal energy of the vapor, causing the vapor to change to a liquid, and the cooling medium warms up.

In the process that the cooling medium absorbs the heat energy, when the cooling medium in the second accommodating space absorbs enough heat energy and reaches the preset temperature, the cooling medium leaves the second accommodating space, and therefore the heat circulation of the cooling medium is achieved. When the heat energy provided by the steam to the cooling medium is insufficient, that is, the temperature of the cooling medium does not accord with the preset temperature, at least part of the cooling medium cannot leave the second accommodating space, the stability of the thermal circulation of the cooling medium is reduced, and even the thermal circulation of the cooling medium cannot be realized.

However, the condensing device is sleeved on the liquid storage device, and the liquid storage device contacts at least part of the side wall of the second accommodating space in the condensing device. It can also be understood that the liquid in the liquid storage device can exchange heat with the cooling medium located in the second accommodating space, that is, the liquid in the liquid storage device can provide heat energy to the cooling medium in the second accommodating space, so that the cooling medium reaches a preset temperature, and thermal circulation of the cooling medium is realized. In other words, the cooling medium in the second receiving space can absorb the thermal energy of the liquid in the liquid storage device as well as the thermal energy of the vapor in the first receiving space.

Therefore, the condensation subassembly in this application makes liquid storage device and condensing equipment in be used for accommodating at least partial lateral wall that the space of cooling medium corresponds and contacts to make the liquid in the liquid storage device can provide heat energy for cooling medium, with the stability that provides cooling medium thermal cycle, thereby improve evaporation condensing system's job stabilization nature.

The condensing device comprises a first barrel, a first partition, a second partition and a plurality of condensing pipes, wherein the first partition is arranged on the end face of the first barrel, the second partition and the first partition are arranged at intervals and fixedly arranged in the first barrel, the plurality of condensing pipes penetrate through the first partition and the second partition, a first accommodating space is formed in each condensing pipe, and the first partition, the second partition, the condensing pipes and at least part of the first barrel are enclosed to form a second accommodating space;

the liquid storage device comprises a second cylinder body, at least part of the first cylinder body is sleeved on the second cylinder body, the second cylinder body is communicated with the first accommodating space, so that liquid in the first accommodating space can be transmitted to the second cylinder body, and the first isolating piece is arranged on the end face of the second cylinder body.

Wherein, a side surface of the second isolating piece, which faces away from the first isolating piece, is flush with the bottom wall of the second cylinder.

Wherein the bottom wall of the second cylinder is far away from the first isolating piece than the second isolating piece.

Wherein the first barrel comprises a first portion and a second portion connected with each other, the first separator is disposed on an end surface of the first portion facing away from the second portion, the second separator is spaced apart from the first separator and is fixedly disposed in the first portion, the second portion is disposed on a side of the second separator facing away from the first separator, the second separator and the second portion define a liquid collecting space, and the liquid collecting space communicates the first receiving space and the second barrel, so that the liquid in the first receiving space can be transmitted to the liquid collecting space, and the liquid collecting space can transmit the liquid to the second barrel.

The condensing device further comprises a third cylinder, at least part of the third cylinder is arranged on one side, away from the second isolating piece, of the first isolating piece, the third cylinder is provided with a gas storage space communicated with the first accommodating space, and the gas storage space is used for storing the steam.

The condensing assembly further comprises a heating device, and the heating device is communicated with the liquid storage device and is used for heating liquid in the liquid storage device.

The condensing assembly further comprises a storage device, the storage device is connected with the first accommodating space, and when the temperature of the cooling medium meets a preset temperature, the storage device is used for storing the liquid.

The condensation assembly further comprises a cooling medium input pipe, an adjusting piece and a temperature measuring device, the cooling medium input pipe is communicated with the second accommodating space, the adjusting piece is arranged on the cooling medium input pipe and used for adjusting input parameters of the cooling medium transmitted to the second accommodating space, the temperature measuring device comprises a temperature measuring piece and a processor, the temperature measuring piece is used for detecting the temperature of liquid and/or environment in the liquid storage device, and the processor controls the adjusting piece according to the temperature to adjust the input parameters, so that the temperature of the cooling medium is in accordance with the preset temperature.

Wherein, the condensation subassembly still includes inlet means, inlet means intercommunication the stock solution device for add liquid to in the stock solution device.

Drawings

In order to more clearly describe the technical solutions in the embodiments of the present application, the drawings that are required to be used in the embodiments of the present application will be described below.

Fig. 1 is a side view of a condensing assembly according to an embodiment of the present disclosure.

FIG. 2 isbase:Sub>A schematic cross-sectional view taken along A-A of FIG. 1 according to an embodiment of the present disclosure.

Fig. 3 is a side view of a condensing assembly according to another embodiment of the present disclosure.

Fig. 4 isbase:Sub>A schematic cross-sectional view taken alongbase:Sub>A-base:Sub>A of fig. 3 according to another embodiment of the present disclosure.

Fig. 5 is a side view of a condensing assembly according to yet another embodiment of the present application.

FIG. 6 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 5 in accordance with yet another embodiment of the present application.

FIG. 7 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 5 in accordance with another embodiment of the present application.

FIG. 8 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 5 in yet another embodiment of the present application.

FIG. 9 is a side view of a condensing assembly according to yet another embodiment of the present application.

FIG. 10 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 9 according to yet another embodiment of the present application.

Fig. 11 is a schematic structural diagram of a condensing assembly according to still another embodiment of the present disclosure.

Fig. 12 is a schematic structural diagram of a condensing assembly according to still another embodiment of the present disclosure.

Fig. 13 is a schematic structural diagram of a condensing assembly according to still another embodiment of the present disclosure.

Fig. 14 is a schematic structural diagram of a condensing assembly according to still another embodiment of the present disclosure.

Description of the reference symbols:

the device comprises a condensing component-1, a condensing device-11, a first accommodating space-11 a, a second accommodating space-11 b, a liquid collecting space-11 c, a first cylinder-111, a first part-1111, a second part-1112, a first isolating piece-112, a second isolating piece-113, a condensing pipe-114, a liquid storage device-12, a third accommodating space-12 a, a second cylinder-121, a third cylinder-13, a gas storage space-13 a, a heating device-14, a storage device-15, a cooling medium input pipe-16, a regulating piece-17, a temperature measuring device-18 and a liquid inlet device-19.

Detailed Description

The following is a preferred embodiment of the present application, and it should be noted that, for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present application, and these improvements and modifications are also considered as the protection scope of the present application.

With the continuous improvement of the environmental importance degree, the requirements of people on waste liquid discharge are also continuously improved. Evaporative condensing systems are commonly used to separate contaminants from waste streams to meet waste stream discharge requirements. In the evaporative condensation system, the cooling medium needs to exchange heat with vapor in the condensation device, so that the heat circulation that the cooling medium releases heat in the evaporation device and absorbs heat in the condensation device is realized. However, during the heat exchange, the heat energy supplied to the cooling medium by the vapor is unstable, for example, the vapor amount in the condensing device is insufficient, so that the conventional condensing device is liable to lower the stability of the heat circulation of the cooling medium, thereby lowering the operation stability of the evaporative condensation system.

In view of the above, in order to solve the above problems, the present application provides a condensation assembly 1. Referring to fig. 1-2, fig. 1 is a side view of a condensing assembly according to an embodiment of the present disclosure. FIG. 2 isbase:Sub>A schematic cross-sectional view taken along A-A of FIG. 1 according to an embodiment of the present disclosure.

In the condensation assembly 1 provided by the present embodiment, the condensation assembly 1 includes a condensation device 11 and a liquid storage device 12, at least a portion of the liquid storage device 12 is sleeved on the condensation device 11, the condensation device 11 has a first receiving space 11a and a second receiving space 11b which are separated from each other, the first receiving space 11a is used for receiving vapor, the second receiving space 11b is used for receiving a cooling medium, the cooling medium is used for absorbing heat of the vapor so as to convert the vapor into liquid, and the cooling medium is heated, the liquid storage device 12 is used for storing the liquid condensed in the first receiving space 11a, and the liquid storage device 12 abuts against at least a portion of a side wall of the condensation device 11 located in the second receiving space 11b.

The condensing assembly 1 provided by the present embodiment is composed of a condensing device 11 and a liquid storage device 12, and can be used for cooling vapor so as to convert liquid. The condensation unit 1 provided in the present embodiment may include various components, and the present embodiment is schematically described only in the case where the condensation unit 1 is applied to waste liquid treatment. This does not mean that the condensation unit 1 of the present embodiment is necessarily applied to waste liquid treatment. In other embodiments, the condensation assembly 1 may also be applied in other fields, such as chemical fields, refrigeration fields, and the like. Alternatively, the waste liquid includes, but is not limited to, electroplating waste liquid, metal waste liquid, printing waste liquid, landfill leachate, and the like. Alternatively, the cooling medium includes, but is not limited to, oil, water, air, freon, ammonia, and the like.

The condensation assembly 1 provided by the embodiment comprises a condensation device 11 and a liquid storage device 12, wherein the condensation device 11 is used for converting vapor into liquid, and the liquid storage device 12 is used for storing the liquid formed after condensation. The vapor in the first accommodation space 11a can exchange heat with the cooling medium in the second accommodation space 11b. It is also understood that the cooling medium absorbs the thermal energy of the vapor, causing the vapor to change to a liquid, and the cooling medium warms up. The liquid storage device 12 has a third accommodating space 12a communicating with the first accommodating space 11a, and the third accommodating space 12a is spaced apart from the second accommodating space 11b. The third accommodating space 12a is used for accommodating the liquid formed by the condensation of the vapor in the condensing device 11 and also for providing thermal energy to the cooling medium in the second accommodating space 11b. It should be noted that the liquid storage device 12 in the present embodiment may pass through the first accommodating space 11a via a pipeline, which is not labeled in fig. 1, so that the liquid in the first accommodating space 11a can be transferred to the liquid storage device 12.

Specifically, when the cooling medium in the second accommodating space 11b absorbs enough thermal energy to reach a preset temperature in the process that the cooling medium absorbs the thermal energy, the cooling medium leaves the second accommodating space 11b, thereby realizing thermal circulation of the cooling medium. When the heat energy supplied to the cooling medium by the vapor is insufficient, that is, the temperature of the cooling medium does not meet the preset temperature, at least a part of the cooling medium cannot leave the second accommodating space 11b, the stability of the thermal cycle of the cooling medium is reduced, and even the thermal cycle of the cooling medium cannot be realized. For example, the amount of vapor in the first storage space 11a is small, and sufficient thermal energy cannot be supplied to the cooling medium; or when the device is started up, the waste liquid is heating up and no vapour is formed which provides thermal energy.

However, the liquid storage device 12 of the present embodiment is sleeved on the condensing device 11, and the liquid storage device 12 contacts at least a portion of the side wall of the condensing device 11 located in the second accommodating space 11b. It can also be understood that the second receiving space 11b and the third receiving space 12a are disposed on two opposite sides of the outer peripheral sidewall of the partial condensation device 11, and the liquid in the third receiving space 12a can exchange heat with the cooling medium in the second receiving space 11b, that is, the liquid in the third receiving space 12a can provide heat energy to the cooling medium in the second receiving space 11b, so that the cooling medium reaches a preset temperature, and heat circulation of the cooling medium is realized. In other words, the cooling medium in the second housing space 11b can absorb not only the thermal energy of the vapor in the first housing space 11a but also the thermal energy of the liquid in the third housing space 12a. Alternatively, the reservoir 12 can not only store liquid but also provide thermal energy to the cooling medium.

Moreover, the liquid storage device 12 is sleeved on the condensing device 11, so that the integration degree of the condensing assembly 1 can be improved, and the space utilization rate is improved. When the condensing assembly 1 is arranged on the evaporation and condensation system, more space can be provided for other parts of the evaporation and condensation system, and the installation difficulty of other devices is reduced. The cooling medium realizes the heat circulation in the evaporation and condensation system, and can also be understood as the resource recycling of the cooling medium for heating and refrigeration, so that the resource utilization rate is improved.

For example, when the cooling medium is freon, the gaseous freon heats the waste liquid to form a waste liquid concentrate and vapor. Then the gaseous freon after releasing heat is cooled down, changes into liquid freon, and gets into second accommodating space 11b. When the liquid freon in the second accommodation space 11b absorbs the sufficient heat energy, or the liquid freon accords with the preset temperature, the liquid freon changes into gaseous freon, leaves second accommodation space 11b. Then the gaseous freon continues to heat the waste liquid, and the thermal cycle is continuously carried out.

Therefore, the liquid storage device 12 of the condensation assembly 1 in this embodiment not only has a liquid storage function, but also makes the liquid storage device 12 contact with at least a portion of the sidewall corresponding to the space for accommodating the cooling medium in the condensation device 11, so that the liquid in the liquid storage device 12 can provide heat energy for the cooling medium, thereby providing stability of heat circulation of the cooling medium, and improving the working stability of the evaporative condensation system.

For example, the condensing assembly 1 of the present application can also be applied to a low-temperature condensing system, because an evaporation device in the low-temperature condensing system is in a negative pressure state, so as to realize low-temperature evaporation of waste liquid. The evaporation device can be placed under negative pressure by using a suction device. When the condensation assembly 1 is used with the suction device, the suction device can also suck the liquid in the liquid storage device 12, so that the evaporation device is in a negative pressure state, and low-temperature evaporation is realized. For another example, when the liquid in the liquid storage device 12 is raised by the suction device, the condensing assembly 1 of the present application can make the cooling medium absorb at least part of the heat energy of the liquid in the liquid storage device 12, so as to make the liquid in the liquid storage device 12 in the preset temperature range, thereby improving the operation stability of the cryocondensation system.

Referring to fig. 3 and 4, fig. 3 is a side view of a condensing assembly according to another embodiment of the present disclosure. Fig. 4 isbase:Sub>A schematic cross-sectional view taken alongbase:Sub>A-base:Sub>A of fig. 3 according to another embodiment of the present disclosure. In an embodiment, the condensing device 11 includes a first cylinder 111, a first partition 112, a second partition 113, and a plurality of condensing pipes 114, the first partition 112 is disposed on an end surface of the first cylinder 111, the second partition 113 is spaced from the first partition 112 and is fixedly disposed in the first cylinder 111, the plurality of condensing pipes 114 penetrate through the first partition 112 and the second partition 113, a first accommodating space 11a is disposed in each condensing pipe 114, and a second accommodating space 11b is defined by the first partition 112, the second partition 113, the condensing pipes 114, and at least a portion of the first cylinder 111.

The liquid storage device 12 includes a second cylinder 121, at least a portion of the first cylinder 111 is sleeved on the second cylinder 121, the second cylinder 121 is communicated with the first accommodating space 11a, so that the liquid in the first accommodating space 11a can be transferred to the second cylinder 121, and the first partition 112 is disposed on an end surface of the second cylinder 121.

The condensing unit 11 in this embodiment is composed of a first cylinder 111, a first partition 112, a second partition 113, and a plurality of condensing pipes 114, so as to partition the first cylinder 111 into a first accommodating space 11a and a second accommodating space 11b, so that the vapor in the first accommodating space 11a and the cooling medium in the second accommodating space 11b exchange heat, that is, the vapor can provide heat energy to the cooling medium. The liquid storage device 12 includes a second cylinder 121, and the second cylinder 121 has a third housing space 12a. The liquid storage device 12 can be used for storing liquid and exchanging heat between the liquid in the third accommodating space 12a and the cooling medium in the second accommodating space 11b, i.e. the liquid can also provide heat energy to the cooling medium.

Specifically, the first isolation member 112 is disposed on the end surfaces of the first cylinder 111 and the second cylinder 121, and at least a portion of the first cylinder 111 is sleeved on the second cylinder 121. Therefore, it can also be understood that the first cylinder 111 and the second cylinder 121 are fixed on one side surface of the first spacer 112. Compared with the condensation component 1 in which the top wall and the bottom wall of the second cylinder 121 are both arranged between the first partition 112 and the second partition 113, the top wall of the second cylinder 121 and the surface of the first partition 112 close to the first cylinder 111 are flush, and the volume of the third accommodating space 12a formed by the enclosing of the second cylinder 121 can be increased, so that the contact area between the liquid in the third accommodating space 12a and the cooling medium in the second accommodating space 11b is increased, the heat exchange efficiency is improved, and the capacity of the third accommodating space 12a for storing the liquid is increased.

Referring to fig. 5 to 6, fig. 5 is a side view of a condensing assembly according to another embodiment of the present disclosure. FIG. 6 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 5 in accordance with yet another embodiment of the present application. In one embodiment, a side surface of the second separator 113 facing away from the first separator 112 is flush with the bottom wall of the second cylinder 121.

In this embodiment, the first cylinder 111 and the second cylinder 121 are both fixed on one side surface of the first spacer 112, and one side surface of the second spacer 113 away from the first spacer 112 is flush with the bottom wall of the second cylinder 121. It can also be understood that the second cylinder 121 is disposed corresponding to the sidewall of the first cylinder 111 between the first spacer 112 and the second spacer 113, or the second cylinder 121 is disposed corresponding to the sidewall of the first cylinder 111 located in the second receiving space 11b. Therefore, in the condensation unit 1 of the present embodiment, the volume of the third accommodation space 12a formed by surrounding the second cylinder 121 is further increased, so that the contact area between the liquid in the third accommodation space 12a and the cooling medium in the second accommodation space 11b is further increased, the heat exchange efficiency is improved, and the capacity of the third accommodation space 12a capable of storing the liquid is further increased.

Referring to fig. 7, fig. 7 isbase:Sub>A schematic cross-sectional view taken alongbase:Sub>A-base:Sub>A direction of fig. 5 according to still another embodiment of the present disclosure. In one embodiment, the bottom wall of the second cylinder 121 is further from the first spacer 112 than the second spacer 113.

In this embodiment, the first cylinder 111 and the second cylinder 121 are both fixed on one side surface of the first isolation member 112, and the bottom wall of the second cylinder 121 is farther away from the first isolation member 112 than the second isolation member 113. It can also be understood that the linear distance from the side surface of the first partition 112 close to the first cylinder 111 to the bottom wall of the second cylinder 121 is greater than the linear distance from the side surface of the first partition 112 close to the first cylinder 111 to the side surface of the second partition 113 away from the first cylinder 111. Therefore, in the condensation unit 1 of the present embodiment, the volume of the third housing space 12a formed by surrounding the second tubular body 121 is further increased, so that the contact area between the liquid in the third housing space 12a and the cooling medium in the second housing space 11b is further increased, the heat exchange efficiency is improved, and the capacity of the third housing space 12a capable of storing the liquid is further increased.

Referring to fig. 8, fig. 8 isbase:Sub>A schematic cross-sectional view taken alongbase:Sub>A directionbase:Sub>A-base:Sub>A of fig. 5 according to another embodiment of the present disclosure. In one embodiment, the first cylinder 111 includes a first portion 1111 and a second portion 1112 connected to each other, the first isolation member 112 is disposed on an end surface of the first portion 1111 facing away from the second portion 1112, the second isolation member 113 is spaced apart from the first isolation member 112 and is fixedly disposed in the first portion 1111, the second portion 1112 is disposed on a side of the second isolation member 113 facing away from the first isolation member 112, the second isolation member 113 and the second portion 1112 enclose a liquid collecting space 11c, and the liquid collecting space 11c communicates the first receiving space 11a and the second cylinder 121, so that the liquid in the first receiving space 11a can be transmitted to the liquid collecting space 11c, and the liquid collecting space 11c can be transmitted to the second cylinder 121.

The first cylinder 111 of the present embodiment includes a first portion 1111 and a second portion 1112, and the first portion 1111, the second portion 1112, the first separator 112, the second separator 113, and the condenser pipe 114 are coupled to divide the first cylinder 111 into a first receiving space 11a, a second receiving space 11b, and a liquid collecting space 11c. The liquid collecting space 11c is used for collecting liquid formed by condensation of vapor in the first accommodating space 11a, and can transfer the liquid into the second cylinder 121, that is, can transfer the liquid from the condensing device 11 into the liquid storage device 12. Condensing equipment 11 in this embodiment is equipped with album liquid space 11c to collect liquid, the input parameter of controlling liquid entering second barrel 121 more easily improves the job stabilization nature of condensation subassembly 1. Input parameters into second cylinder 121 include, but are not limited to, fluid flow rate, etc.

Referring to fig. 9-10, fig. 9 is a side view of a condensing assembly according to another embodiment of the present disclosure. FIG. 10 isbase:Sub>A schematic cross-sectional view taken along the line A-A of FIG. 9 according to yet another embodiment of the present application. In an embodiment, the condensing device 11 further includes a third cylinder 13, at least a portion of the third cylinder 13 is disposed on a side of the first isolation member 112 away from the second isolation member 113, the third cylinder 13 has a gas storage space 13a communicated with the first accommodating space 11a, and the gas storage space 13a is used for storing the vapor.

The condensation assembly 1 in this embodiment further includes a third cylinder 13 having a gas storage space 13a, vapor formed by the evaporated waste liquid can be stored in the gas storage space 13a, and is prepared for the vapor to enter the first accommodating space 11a, so as to reduce the probability that a large amount of vapor enters the condenser tube 114 at the same time to reduce the condensation effect of the condensation device 11, and also reduce the probability that too much vapor accumulates in the evaporation device in the evaporation and condensation system, and too much vapor easily causes too high pressure of the evaporation device, thereby affecting the boiling point of the waste liquid, resulting in wasted energy consumption, and even reducing the waste liquid treatment effect.

Referring to fig. 11, fig. 11 is a schematic structural diagram of a condensing assembly according to another embodiment of the present disclosure. In one embodiment, the condensation assembly 1 further comprises a heating device 14, wherein the heating device 14 is communicated with the liquid storage device 12 and is used for heating the liquid in the liquid storage device 12.

The condensation assembly 1 of this embodiment further comprises a heating device 14 for heating the liquid in the reservoir 12. When the liquid in the liquid storage device 12 is insufficient to supply the cooling medium with heat energy, i.e., the liquid in the liquid storage device 12 is at a low temperature, e.g., the ambient temperature is low, the liquid in the liquid storage device 12 can be heated by the heating device 14, so as to ensure that the liquid in the liquid storage device 12 can supply enough heat energy to the cooling medium to ensure that the cooling medium can be thermally circulated.

Referring to fig. 12, fig. 12 is a schematic structural diagram of a condensing assembly according to another embodiment of the present disclosure. In one embodiment, the condensation assembly 1 further comprises a storage device 15, the storage device 15 is connected to the first receiving space 11a, and the storage device 15 is used for storing the liquid when the temperature of the cooling medium meets a preset temperature.

The condensation assembly 1 of the present embodiment further comprises a storage means 15 for storing the liquid formed after condensation of the vapour. When the temperature of the cooling medium meets the preset temperature, it can also be understood that the cooling medium absorbs the heat energy of the vapor to realize the heat circulation, the liquid in the first accommodating space 11a can be transferred to the storage device 15, the probability of heat exchange between the cooling medium and the liquid in the liquid storage device 12 is reduced, and the energy loss of the cooling medium is reduced.

Referring to fig. 13, fig. 13 is a schematic structural diagram of a condensing assembly according to another embodiment of the present disclosure. In an embodiment, the condensation assembly 1 further includes a cooling medium input pipe 16, an adjusting member 17, and a temperature measuring device 18, the cooling medium input pipe 16 is communicated with the second accommodating space 11b, the adjusting member 17 is disposed on the cooling medium input pipe 16, the adjusting member 17 is configured to adjust an input parameter of the cooling medium transmitted to the second accommodating space 11b, the temperature measuring device 18 includes a temperature measuring member and a processor, the temperature measuring member is configured to detect a temperature of a liquid and/or an environment in the liquid storage device 12, and the processor controls the adjusting member 17 according to the temperature to adjust the input parameter, so that the temperature of the cooling medium is in accordance with a preset temperature.

It should be noted that, the present application aims to provide a novel condensing assembly 1, and the condensing device 11, the liquid storage device 12, the temperature measuring element, the processor, and the positions and the connection relations among the components (the first cylinder 111, the second cylinder 121, the third cylinder 13, the cooling medium input pipe 16, and the adjusting element 17) are set so as to achieve the purpose of the present application. This application just disposes the relation of connection between treater and the condensation subassembly 1, and the processing function of treater is the function that can realize for itself, does not improve algorithm or software aspect, should not think this application is not conform to the object of patent law to utility model protection.

The condensation unit 1 in the present embodiment further includes a cooling medium inlet pipe 16, an adjustment member 17, and a temperature measuring device 18. The cooling medium input pipe 16 is used for transmitting the cooling medium to the second accommodating space, and the adjusting piece 17 can adjust the input parameters of the cooling medium. The input parameters include, but are not limited to, the amount of cooling medium transferred, the rate of cooling medium transferred, etc. The temperature measuring device 18 detects and obtains the temperature of the liquid and/or the environment in the liquid storage device 12, so that the adjusting part 17 is automatically controlled to adjust the input parameters of the cooling medium, the temperature of the cooling medium is enabled to accord with the preset temperature, and the thermal cycle is realized. Optionally, the processor of the condensing assembly 1 may be a PLC control system, which obtains information of the temperature measuring unit, and controls the adjusting unit 17 to adjust the input parameter, so that the temperature of the cooling medium is in accordance with a preset temperature.

Referring to fig. 14, fig. 14 is a schematic structural diagram of a condensing assembly according to another embodiment of the present disclosure. In one embodiment, the condensation assembly 1 further comprises an inlet 19, wherein the inlet 19 communicates with the liquid storage device 12 for adding liquid into the liquid storage device 12.

The condensation assembly 1 in this embodiment further comprises a liquid inlet means 19 for adding liquid to the liquid storage means 12 from the outside. When the evaporative condensation system is just started, the amount of vapor in the condensation device 11 is small, and even no vapor is formed yet, at this time, the liquid storage device 12 cannot obtain the liquid formed after condensation, so that at least part of the liquid can be added into the liquid storage device 12 through the liquid inlet device 19 to provide heat energy for the cooling medium, so as to realize the heat circulation of the cooling medium.

The foregoing detailed description has provided for the embodiments of the present application, and the principles and embodiments of the present application have been presented herein for purposes of illustration and description only and to facilitate understanding of the methods and their core concepts; meanwhile, for a person skilled in the art, according to the idea of the present application, there may be variations in the specific embodiments and the application scope, and in summary, the content of the present specification should not be construed as a limitation to the present application.

Claims (10)

1. A condensation assembly is characterized by comprising a condensation device and a liquid storage device, wherein at least part of the liquid storage device is sleeved with the condensation device, the condensation device is provided with a first accommodating space and a second accommodating space which are separated from each other, the first accommodating space is used for accommodating steam, the second accommodating space is used for accommodating a cooling medium, the cooling medium is used for absorbing heat of the steam so that the steam is converted into liquid, the temperature of the cooling medium is increased, the liquid storage device is used for storing the liquid formed by condensation in the first accommodating space, and the liquid storage device is abutted against at least part of side walls of the second accommodating space in the condensation device.

2. A condensing assembly according to claim 1, wherein the condensing device comprises a first cylinder, a first partition, a second partition, and a plurality of condensing pipes, the first partition is disposed on an end surface of the first cylinder, the second partition is spaced apart from the first partition and is fixedly disposed in the first cylinder, the plurality of condensing pipes penetrate through the first partition and the second partition, a first receiving space is formed in the condensing pipes, and a second receiving space is formed by the first partition, the second partition, the condensing pipes, and at least a part of the first cylinder;

the liquid storage device comprises a second cylinder, at least part of the first cylinder is sleeved on the second cylinder, the second cylinder is communicated with the first accommodating space, so that liquid in the first accommodating space can be transmitted to the second cylinder, and the first partition is arranged on the end face of the second cylinder.

3. A condensing assembly according to claim 2 wherein a side surface of the second partition facing away from the first partition is flush with the bottom wall of the second cylinder.

4. A condensing assembly according to claim 2 wherein the bottom wall of the second cylinder is further from the first partition than the second partition.

5. A condensing assembly according to claim 2, wherein the first cylinder includes a first portion and a second portion connected to each other, the first separator is disposed on an end surface of the first portion facing away from the second portion, the second separator is spaced apart from the first separator and is fixedly disposed in the first portion, the second portion is disposed on a side of the second separator facing away from the first separator, the second separator and the second portion define a liquid collecting space, and the liquid collecting space communicates the first receiving space and the second cylinder, so that the liquid in the first receiving space can be transmitted to the liquid collecting space, and the liquid collecting space can be transmitted to the second cylinder.

6. A condensing assembly according to claim 2, wherein the condensing device further comprises a third cylinder, at least a portion of the third cylinder is disposed on a side of the first separator facing away from the second separator, and the third cylinder has a gas storage space communicated with the first receiving space, and the gas storage space is used for storing the vapor.

7. A condensing assembly according to claim 1 further comprising a heating means in communication with the reservoir for heating the liquid in the reservoir.

8. A condensing assembly according to claim 1, further comprising a storage device connected to the first receiving space for storing the liquid when the temperature of the cooling medium meets a predetermined temperature.

9. The condensing assembly according to claim 1, further comprising a cooling medium inlet pipe, an adjusting member, and a temperature measuring device, wherein the cooling medium inlet pipe is communicated with the second receiving space, the adjusting member is disposed in the cooling medium inlet pipe, the adjusting member is configured to adjust an input parameter of the cooling medium transmitted to the second receiving space, the temperature measuring device comprises a temperature measuring member and a processor, the temperature measuring member is configured to detect a temperature of the liquid and/or the environment in the liquid storage device, and the processor controls the adjusting member according to the temperature to adjust the input parameter, so that the temperature of the cooling medium is in accordance with a preset temperature.

10. A condensing module according to claim 1, further comprising liquid inlet means in communication with said liquid reservoir means for adding liquid to said liquid reservoir means.

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