WO2021233458A1

WO2021233458A1 - Kitchen air conditioner all-in-one machine

Info

Publication number: WO2021233458A1
Application number: PCT/CN2021/096327
Authority: WO
Inventors: 李书佳; 王中伟; 孙升华; 宋威; 徐同扬; 黄罡
Original assignee: 青岛海尔空调器有限总公司; 青岛海尔空调电子有限公司; 海尔智家股份有限公司
Priority date: 2020-11-13
Filing date: 2021-05-27
Publication date: 2021-11-25
Also published as: CN112432264B; CN112432264A

Abstract

The present invention relates to a kitchen air conditioner all-in-one machine. The kitchen air conditioner all-in-one machine comprises: a cabinet which comprises a multi-functional chamber, a rear chamber and a top chamber that are adjacent to one another, wherein the multi-functional chamber is configured so that same can be opened and closed by means of a front door located on a front wall of the cabinet, and is separated from the rear chamber by means of a vertical wall, the top chamber is separated from the multi-functional chamber and the rear chamber by means of separation walls, and the top of the top chamber is provided with a top opening door capable of being opened and closed; and a refrigerating system, which comprises a refrigerating system main body arranged in the rear chamber, a first evaporator which forms a first refrigerating circuit with the refrigerating system main body and is arranged in the top chamber, and a second evaporator which forms a second refrigerating circuit with the refrigerating system main body, is arranged in the multi-functional chamber and is mounted on the vertical wall, wherein a humidifying water tank is arranged at the bottom of the multi-functional chamber. Due to the arrangement of the multi-functional chamber, the rear chamber and the top chamber that are adjacent to one another, the kitchen all-in-one machine is more compact in structure and smaller in space occupied, and the efficiency of the refrigerating system is higher.

Description

All-in-one kitchen air conditioner

Technical field

The present invention relates to the field of kitchen appliances, in particular to an integrated kitchen air conditioner.

Background technique

With the acceleration of the pace of life and the improvement of living standards, kitchen appliances such as refrigerators and microwave ovens have basically become essential for families. Existing kitchen appliances such as refrigerators and microwave ovens are usually independently designed and manufactured, with single functions, and occupying a large space in the kitchen. On the other hand, most of the current air conditioners are other indoor designs, which are mainly used to adjust the indoor temperature of spaces such as bedrooms, living rooms, and study rooms. There are few air conditioners used to adjust the kitchen environment. When people cook food in the kitchen or use a microwave oven to heat food, a lot of heat is often generated, which makes the temperature in the kitchen higher than that of other indoor spaces. Especially in the hot summer, the high temperature in the kitchen can make users feel uncomfortable.

In order to solve the above technical problems, the prior art has developed an integrated kitchen air conditioner. For example, the Chinese invention patent application CN110296479A discloses an integrated kitchen air conditioner. The kitchen air conditioner integrated machine includes a box body and a refrigeration system, wherein the box body is sequentially provided with an air conditioning room, a heating room, a refrigerator room, and a bottom room from top to bottom. The main body of the refrigeration system, including compressor, condenser, throttling structure, condenser fan and other related components, is placed in the bottom chamber at the bottom of the box. The refrigeration system also includes a first evaporator and a second evaporator that respectively form a refrigeration circuit with the main body of the refrigeration system. The first evaporator is placed in the air-conditioning room on the top of the box, and the second evaporator is placed in the compartment located in the middle of the box and between the heating room and the refrigerating room. The refrigeration pipeline connecting the main body of the refrigeration system to the first evaporator and the second evaporator needs to extend from the bottom of the box to the middle and top of the box via a channel arranged at the rear of the box, respectively. The arrangement of the main body of the refrigeration system at the bottom of the box will cause inconvenience in the maintenance of the main body of the refrigeration system because of its low position. The connection pipeline between the main body of the refrigeration system and the first evaporator and the second evaporator extends relatively long. One is to increase the pressure loss of the refrigeration system, which reduces the efficiency of the refrigeration system, and the other is the possibility of refrigerant leakage. . Due to the need to leave a separate cooling pipeline extension space, the kitchen air-conditioning integrated machine still occupies a large amount of kitchen space, so there is a possibility of improvement.

Correspondingly, a new technical solution is needed in this field to solve the above-mentioned problems.

Summary of the invention

In order to solve the above-mentioned technical problems that the integrated kitchen air conditioner in the prior art is not compact enough and affects the performance and maintenance of the refrigeration system, the present invention provides an integrated kitchen air conditioner. The integrated kitchen air conditioner includes a box body including a multifunctional room, a rear room, and a top room adjacent to each other, and the multifunctional room is configured to be opened and closed by a front door located on the front wall of the box body, And separated from the rear chamber by a vertical wall, the top chamber is separated from the multifunctional chamber and the rear chamber by a partition wall, the top of the top chamber is provided with a top opening door that can be opened and closed; and a refrigeration system , Which includes a refrigeration system main body placed in the rear chamber, a first refrigeration circuit formed with the refrigeration system main body and a first evaporator placed in the top chamber, and a second refrigeration system main body formed with the refrigeration system A refrigeration circuit, a second evaporator placed in the multifunctional room and installed on the vertical wall, wherein a humidifying water tank is provided at the bottom of the multifunctional room.

Those skilled in the art can understand that the integrated kitchen and air conditioner of the present invention includes a cabinet and a refrigeration system. The box body is provided with a multifunctional room, a rear room and a top room adjacent to each other, wherein the multifunctional room is separated from the rear room by a vertical wall, and the top room is separated from the rear room and the multifunctional room by a partition wall. The refrigeration system includes a refrigeration system main body, and a first evaporator and a second evaporator respectively forming a circuit with the refrigeration system main body, wherein the refrigeration system main body is arranged in the rear chamber, the first evaporator is arranged in the top chamber, and the second evaporator is arranged in the top chamber. The evaporator is arranged in the multifunctional room and installed on the vertical wall. The first evaporator is configured to provide cold air to the upper part of the kitchen space when the top door is opened. The second evaporator is configured to refrigerate food in the multifunctional room when the front door is closed, and to provide cold air to the lower part of the kitchen space when the front door is opened. The main body of the refrigeration system is arranged in the rear chamber to facilitate the access of maintenance personnel. Further, through the arrangement of the multifunctional chamber, the rear chamber and the top chamber adjacent to each other, the distance between the main body of the refrigeration system and the first evaporator and the second evaporator is shorter, thus shortening the length of the refrigeration pipeline and eliminating the excessive length The installation space required by the refrigeration pipeline makes the structure of the whole kitchen all-in-one machine more compact and occupies a smaller space. At the same time, as the pressure loss of the refrigeration pipeline is reduced, the efficiency of the refrigeration system is also higher. The humidification water tank arranged in the multifunctional room can be used to maintain the proper humidity of the food surface in the multifunctional room when needed.

In the preferred technical solution of the above-mentioned integrated kitchen air conditioner, a wind hood and an interference fan located below the second evaporator are further provided on the vertical wall, and the wind hood is configured to cover the second evaporator and The interference fan is provided with ventilation holes on the parts of the wind hood corresponding to the second evaporator and the interference fan. Through the above configuration of the wind hood, when the front door is closed, the interference fan can make the air in the multifunctional room circulate through the outer surface of the second evaporator to be cooled to a desired temperature, so that the food in the multifunctional room can be processed Refrigeration; when the front door is open, the interference fan can draw air from the lower part of the kitchen space to circulate through the outer surface of the second evaporator to be cooled to a desired temperature, thereby reducing the temperature of the lower part of the kitchen space.

In the preferred technical solution of the above-mentioned integrated kitchen and air conditioner, the integrated kitchen and air conditioner includes a microwave generating device arranged in the rear chamber, and the microwave generating device is configured to defrost food in the multifunctional room. The microwave generating device and the main body of the refrigeration system are both arranged in the rear chamber, which can further make the structure of the integrated kitchen air conditioner more compact.

In the preferred technical solution of the above-mentioned integrated kitchen and air conditioner, the microwave generating device includes a magnetron that generates microwaves and a wave guide that conducts the microwaves, and the magnetron is fixed on the bottom of the wave guide. The vertical wall is provided with a through hole for accommodating the wave guide so that the opening of the wave guide faces the multifunctional room, and the through hole is located between the second evaporator and the interference fan. The second evaporator, the wave guide, and the interference fan are all arranged on the same vertical wall, which not only saves space, but also the microwave generating device and the second evaporator can share the same fan.

In the preferred technical solution of the above-mentioned integrated kitchen air conditioner, the interference fan has a metal impeller, so that the microwave can be evenly dispersed into the multifunctional room through the rotation of the metal impeller. The rotation of the metal impeller can help to evenly disperse the microwaves into the multifunctional room, so that the food in the multifunctional room can be thawed evenly.

In the preferred technical solution of the above-mentioned integrated kitchen and air conditioner, the refrigeration system main body is arranged in the upper part of the rear chamber, and the microwave generating device is arranged in the lower part of the rear chamber. In this way, the space of the rear chamber can be better utilized, and since the main body of the refrigeration system is arranged on the upper part of the rear chamber, the maintenance of the main body of the refrigeration system is more convenient.

In the preferred technical solution of the above-mentioned integrated kitchen air conditioner, the integrated kitchen air conditioner includes a heat collector and a superconducting element configured to conduct heat from the heat collector to the first evaporator, so The heat collector is arranged on the side wall of the multifunctional room. In this technical solution, the first evaporator acts as a radiator, transferring heat from the heat collector to the air in the top chamber, and the heated air is discharged to the upper part of the kitchen space by opening the top door.

In the preferred technical solution of the above-mentioned integrated kitchen and air conditioner, the integrated kitchen and air conditioner includes a driving mechanism configured to drive the top opening door to rotate, and the driving mechanism is arranged in a driving chamber adjacent to the top chamber, The top opening door is provided with a rotating shaft that can extend into the driving chamber to form a connection with the driving mechanism. Through the driving mechanism, when needed, the top opening door can be automatically controlled to open or close.

In the preferred technical solution of the above-mentioned integrated kitchen air conditioner, a food weighing device is provided in the multifunctional room, and the food weighing device is located above the humidifying water tank. Through the food weighing device, the weight of the food in the multifunctional room can be automatically obtained, and the appropriate refrigerating temperature, thawing temperature and thawing time can be automatically set based on the weight of the food.

In the preferred technical solution of the above-mentioned integrated kitchen air conditioner, an ultrasonic atomizer and an ultraviolet lamp tube are provided in the humidification water tank. The ultrasonic atomizer is configured to atomize the water in the humidifying water tank to generate water mist that maintains the humidity of the food surface, and the ultraviolet lamp tube is configured to sterilize the water mist.

Description of the drawings

The preferred embodiments of the present invention are described below with reference to the accompanying drawings, in which:

Figure 1 is a front schematic view of an embodiment of an integrated kitchen and air conditioner of the present invention;

Figure 2 is a front partial cross-sectional view of an embodiment of an integrated kitchen and air conditioner of the present invention;

3 is a schematic cross-sectional view taken along the A-A section line shown in FIG. 2 of the embodiment of the integrated kitchen air conditioner of the present invention;

Fig. 4 is a schematic partial cross-sectional view of the embodiment of the integrated kitchen air conditioner of the present invention taken along the line B-B shown in Fig. 2.

List of reference signs:

1. All-in-one kitchen air conditioner; 11. Cabinet; 111, front wall; 111a, ventilation holes on the front wall; 111b, door opening; 112, top wall; 113, bottom wall; 114, left wall; 115, right wall; 116 , Top room; 117, drive room; 118, multifunctional room; 119, rear room; 120, rear wall; 12, front door; 121, front door position sensor; 13, controller; 161a, first fan; 161b, second Fan; 162, the top wall of the top chamber; 163, the top opening door position sensor; 164, the top opening door; 164a, the shaft of the top opening door; 165, the left wall of the top chamber; 166, the right wall of the top chamber; 167, the top chamber Front wall; 168, the back wall of the top room; 171, motor; 172, gear; 173, sector gear; 181, the top side of the multi-function room; 182, the right side wall of the multi-function room; 183, the wind cover; 183a, Ventilation holes of the wind hood; 184, carrier; 185, center temperature sensor; 186, bottom plate; 186a, bottom water mist hole; 187, bracket; 187a, bracket water mist hole; 188, vertical wall; 189, lighting lamp; 190. Multifunctional room temperature sensor; 21. Refrigeration system; 211. First evaporator; 212. Second evaporator; 213. Compressor; 213a. Compressor bracket; 214. Condenser; 214a. Condenser bracket; 215 , Expansion valve; 216, the second solenoid valve; 217, the first solenoid valve; 31a, the first heat collector; 31b, the second heat collector; 32a, the first superconducting element; 32b, the second superconducting heat Components; 33a, the first collector shield; 33b, the second collector shield; 41, load cell; 42, load cell transition block; 51, magnetron; 52, wave guide; 53, High-voltage transformer; 53a, high-voltage transformer bracket; 54, high-voltage diode; 61, negative ion generator; 71, interference fan; 72, interference fan bracket; 81a, first lamp holder; 81b, second lamp holder; 82a, first far Infrared heating tube; 82b, the second far-infrared heating tube; 83a, the first protective lampshade; 83b, the second protective lampshade; 91, humidification water tank; 92a, the first ultraviolet lamp tube; 92b, the second ultraviolet lamp tube; 93a, The first ultrasonic atomizer; 93b, the second ultrasonic atomizer; 94, the humidifying fan; 95, the return air baffle; 96, the humidifying fan bracket.

Detailed ways

The preferred embodiments of the present invention will be described below with reference to the drawings. Those skilled in the art should understand that these embodiments are only used to explain the technical principles of the present invention, and are not intended to limit the protection scope of the present invention.

It should be noted that in the description of the present invention, the terms "upper", "lower", "left", "right", "front", "rear", "inner", "outer", "top", " The terms indicating the direction or position relationship such as “bottom” are based on the direction or position relationship shown in the drawings. This is only for the convenience of description, and does not indicate or imply that the device or element must have a specific orientation or a specific orientation. The structure and operation cannot therefore be understood as a limitation of the present invention. In addition, the terms "first" and "second" are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance.

In addition, it should be noted that, in the description of the present invention, unless otherwise clearly specified and limited, the terms, "installation", "setting", and "connection" should be understood in a broad sense, for example, it may be a fixed connection or It can be detachably connected or integrally connected; it can be directly connected, or indirectly connected through an intermediate medium, or it can be the internal communication between the two components. For those skilled in the art, the specific meaning of the above-mentioned terms in the present invention can be understood according to specific circumstances.

In order to further improve the compactness of the structure of the integrated kitchen air conditioner and enhance the performance of the refrigeration system, the present invention provides an integrated kitchen air conditioner 1. The integrated kitchen air conditioner 1 includes: a cabinet 11, which includes a multifunctional room 118, a rear room 119, and a top room 116 adjacent to each other. 12 is opened and closed, and is separated from the rear chamber 119 by a vertical wall 188. The top chamber 116 is separated from the multifunctional chamber 118 and the rear chamber 119 by a partition wall. The top of the top chamber 116 is provided with a top opening door 164 that can be opened and closed. And the refrigeration system 21, which includes a refrigeration system main body placed in the rear chamber 119, a first refrigeration circuit with the refrigeration system main body and a first evaporator 211 placed in the top chamber 116, and a second refrigeration system main body to form The refrigeration circuit, the second evaporator 212 placed in the multifunctional room 118 and installed on the vertical wall 188, wherein a humidifying water tank 91 is provided at the bottom of the multifunctional room 118. By arranging the multifunctional chamber 118, the rear chamber 119, and the top chamber 116 to be adjacent to each other, the first evaporator 211 and the second evaporator 212 can be arranged close to the main body of the refrigeration system 21. This configuration not only makes the structure of the kitchen air-conditioning integrated machine more compact and takes up less space, but also improves the performance of the refrigeration system 21 and facilitates the maintenance of the refrigeration system 21, such as when the compressor 213 fails or when the refrigeration system 21 needs to be supplemented When the refrigerant. The humidifying water tank 91 may be used to maintain the humidity in the multifunctional room 118 at a preset humidity.

The "main body of the refrigeration system" mentioned in this article is mainly composed of a compressor, a condenser, and a throttling structure, but is not limited to a compressor, a condenser, and a throttling structure.

1 is a schematic front view of an embodiment of the integrated kitchen and air conditioner of the present invention; FIG. 2 is a front partial cross-sectional view of an embodiment of the integrated kitchen and air conditioner of the present invention; Fig. 4 is a schematic partial sectional view taken along the BB section line shown in Fig. 2 of the embodiment of the integrated kitchen and air conditioner of the present invention.

The integrated kitchen air conditioner 1 of the present invention includes a cabinet 11 and a refrigeration system 21. As shown in FIG. 3, the refrigeration system 21 includes a refrigeration system main body, a first evaporator 211 and a second evaporator 212. In one or more embodiments, the main body of the refrigeration system includes, but is not limited to, a compressor 213, a condenser 214, and an expansion valve 215 connected together by a refrigeration pipeline. The first evaporator 211 forms a first refrigeration circuit (not marked in the figure) with the main body of the refrigeration system through the refrigeration pipeline. In order to control the on-off between the first evaporator 211 and the main body of the refrigeration system, a first solenoid valve 217 is provided on the first refrigeration circuit. The second evaporator 212 forms a second refrigeration circuit (not marked in the figure) with the main body of the refrigeration system through the refrigeration pipeline. Similarly, in order to control the on-off between the second evaporator 212 and the main body of the refrigeration system, a second solenoid valve 216 is provided on the second refrigeration circuit.

As shown in Figures 1 to 4, in one or more embodiments, the box body 11 is a roughly rectangular parallelepiped box body. Based on the orientation shown in FIG. 1, the box body 11 has a front wall 111, a top wall 112, a bottom wall 113, a left wall 114, a right wall 115, and a rear wall 120 (see FIG. 4). As shown in FIG. 1, a front door 12 is installed on the front wall 111 of the box body 11. In one or more embodiments, the front door 12 is rotatably fixed to the front wall 111. Correspondingly, a door hole 111b corresponding to the front door 12 is provided on the front wall 111. The front door 12 can be opened manually. Alternatively, if necessary, the front door 12 may also be configured to be automatically opened or closed. A controller 13 is installed on the upper right side of the front wall 111. The controller 13 is configured to control the integrated kitchen air conditioner 1 to operate in different functional modes, for example, including but not limited to an air conditioning mode, a refrigerating mode, a defrosting mode, or a baking mode. The controller 13 is also configured to allow the user to manually set the kitchen air conditioner unit 1 to meet different needs. Below the controller 13, on the right side of the front wall 111 are formed vent holes 111a arranged in multiple rows, which are in air communication with the control room (not shown in the figure) located on the right side of the front wall 111, and control The chamber is used to accommodate components that form an electrical connection with the controller 13, including but not limited to motors and transformers. As shown in FIGS. 2 and 3, a top chamber 116, a multifunctional chamber 118, and a rear chamber 119 are formed in the box 11, and these three chambers are adjacent to each other. In one or more embodiments, the top chamber 116 is located above the top wall 112 of the box 11, and is separated from the multifunctional chamber 118 and the rear chamber 119 by the top wall 112, so that the top wall 112 of the box 11 A part also constitutes the bottom wall of the top chamber 116. Alternatively, the top chamber 116 may also be formed below the top wall 112 of the box body 11, for example, between the top wall 112 and the rear chamber 119 or between the top wall 112 and the multifunctional chamber 118. In one or more embodiments, the multifunctional chamber 118 is separated from the rear chamber 119 by a vertical wall 188, and the vertical wall 188 extends vertically from the bottom wall 113 of the box body 11 to the top wall 112 of the box body 11. Preferably, the vertical wall 188 is composed of or covered with an insulating material.

As shown in FIGS. 2 and 3, in one or more embodiments, the top chamber 116 is located above the top wall 112 of the box body 11. The top chamber 116 has a top wall 162, a left wall 165, a right wall 166, a front wall 167, and a rear wall 168. Preferably, all the walls surrounding the top chamber 116 can be made of a suitable insulating material or covered with a suitable insulating material on its inner surface. In one or more embodiments, the rear wall 168 of the top chamber 116 is aligned with the rear wall 120 of the box body 11 and extends along the length of the rear wall 120 of the box body 11 (that is, on the left wall 114 of the box body 11). Extending between the right wall 115 and the right wall 115), this configuration makes the manufacture of the entire box more convenient and cost-saving. The front wall 167 of the top chamber 116 is opposite to its rear wall 168 and is positioned close to the upper part of the rear of the multifunctional chamber 118, so the top chamber 116 extends above both the rear chamber 119 and the multifunctional chamber 118. Correspondingly, extending from the front wall 167 of the top chamber 116 to the front wall 111 of the box body 11, a top platform and space where kitchen items or decorations can be placed is reserved above the top wall 112 of the box body 11.

As shown in FIGS. 2 and 3, a first evaporator 211 is arranged in the top chamber 116, and the first evaporator 211 is installed on the bottom wall of the top chamber 116 (which is composed of a part of the top wall 112 of the box body 11 ). The first evaporator 211 is connected to the main body of the refrigeration system 21 through a refrigeration pipe. The first evaporator 211 may be a heat exchanger in the form of a finned coil or other suitable forms of heat exchanger. As shown in FIG. 2, in one or more embodiments, a first fan 161a and a second fan 161b are also arranged in the top chamber 116. The first fan 161 a is installed on the left wall 165 of the top chamber 116, and the second fan 161 b is installed on the right wall 166 of the top chamber 116. Preferably, the first fan 161a and the second fan 161b are the same and arranged symmetrically to each other. Alternatively, only one fan may be installed at a suitable position in the top chamber 116. Preferably, the first fan and the second fan are variable speed fans. In order to deliver cold air to the upper part of the kitchen space, a top opening (not shown in the figure) is formed on the top wall 162 of the top chamber 116, and the top opening door 164 is configured to open or close the top opening. When the first evaporator 211, the first fan 161a and the second fan 161b are working, the top door 164 is opened, and the first fan 161a and the second fan 161b cyclically suck air from the upper part of the kitchen space into the top chamber 116 through the top opening Then the air flows through the outer surface of the first evaporator 211 to be cooled to a lower temperature by the first evaporator 211, and the cooled air leaves from the top opening and is sent to the upper part of the kitchen space, so as to reduce the upper part of the kitchen space. temperature.

In one or more embodiments, the top opening door 164 is a substantially rectangular plate-shaped body with two opposite long edges and two opposite short edges. Alternatively, the top opening door 164 may also have a substantially square shape or other suitable shapes. One long edge of the top opening door 164 forms the free end of the top opening door 164 (not shown in the figure), and the other opposite long edge thereof forms the fixed end of the top opening door 164 (not shown in the figure). In one or more embodiments, the fixed end has an arc-shaped end surface. Correspondingly, the part of the top wall 162 of the top chamber 116 that fits with the fixed end has a reverse arc-shaped mating surface. The cooperation of the two reverse arc surfaces may allow the rotation angle of the top opening door 164 to exceed 90°, thereby allowing the top air supply angle to have a larger adjustment range. Preferably, the free end also has an arc-shaped end surface so as to smoothly join the rear wall of the top chamber 116. In the assembled state, when the top opening door 164 is in the closed position, the free end abuts against the rear wall 168 of the top chamber 116. As shown in FIG. 2, a rotating shaft 164 a of the top opening door 164 is formed on a short edge of the top opening door 164. The rotating shaft 164a is positioned close to the fixed end and extends outward from the corresponding short edge parallel to the fixed end. The rotating shaft 164a is configured to be connected with the driving mechanism of the top opening door 164 so as to drive the top opening door 164 to rotate. In order to detect the position of the top opening door 164, a top opening position sensor 163 is provided on the inner side of the top wall 162 of the top chamber 116. The top opening position sensor 163 is configured to form a communication connection with the controller 13 so as to provide the controller 13 with real-time position information about the top opening door 164.

As shown in FIGS. 2 and 4, in one or more embodiments, a driving chamber 117 is also formed on the top wall of the box body 11. The driving chamber 117 is adjacent to but separated from the top chamber 116 by the right wall 167 of the top chamber 116. The driving mechanism of the top opening door 164 is arranged in the driving chamber 117. As shown in FIGS. 2 and 4, in one or more embodiments, the driving mechanism includes a motor 171, a gear 172 connected to the drive shaft of the motor 171, and a sector gear 173 meshed with the gear 172. The sector gear 173 is connected to the rotating shaft 164 a of the top opening door 164. Alternatively, the drive mechanism may adopt other suitable drive mechanisms, such as a motor, a gear, a rack drive mechanism, or a motor, a cam drive mechanism. As shown in FIG. 2, the rotating shaft 164a of the top opening door 164 passes through the right wall 167 of the top chamber 116 and extends into the driving chamber 117 to be engaged with the sector gear 173. Therefore, the motor 171 can drive the top door 164 to rotate via the gear 172 and the sector gear 173. Correspondingly, according to the position information of the top opening door measured by the position sensor 163, the controller 13 can control the top opening door 164 to automatically open or close or rotate to different positions by controlling the motor 171. Alternatively, the top opening door 164 can also be manually opened and closed when necessary.

As shown in Figures 2 and 3, in one or more embodiments, the multifunctional chamber 118 is located between the top wall 112, the bottom wall 113, the left wall 114, the right wall 115, and the front wall 111 of the box 11 extend. Preferably, all the walls surrounding the multifunctional chamber 118 may be made of or covered with suitable insulating materials. As shown in Figures 2 and 3, at the bottom of the multifunctional room 118, a humidification water tank 91 is provided. As shown in Figure 2, in one or more embodiments, the humidification water tank 91 extends between the left wall 114 of the tank 11 and the right side wall 182 of the multifunctional room 118, and is divided into a left water tank and a right water tank. Part of the water tank (not marked in the figure). As shown in Fig. 2, the top of each of the left water tank and the right water tank is provided with a water mist outlet 91a. Alternatively, only the left water tank or the right water tank or a water tank arranged at other suitable positions may be provided in the multifunctional room 118. As shown in Figure 2, in one or more embodiments, a first ultraviolet lamp 92a and a first ultrasonic atomizer 93a are provided in the left water tank; a second ultraviolet lamp is provided in the right water tank 92b and a second ultrasonic atomizer 93b. The water mist generated by the first ultrasonic atomizer 93a and the second ultrasonic atomizer 93b can be dispersed into the multifunctional chamber 118 from the corresponding water mist outlet 91a, respectively. The first ultraviolet lamp tube 92a and the second ultraviolet lamp tube 92b are arranged to sterilize the generated water mist. As shown in Figs. 2 and 3, two humidifying fans 94 are provided between the left water tank and the right water tank. Both humidification fans 94 are positioned close to the water mist outlet 91a, and are fixed between the left water tank and the right water tank by a humidification fan bracket 96. Optionally, there may be only one humidification fan 94. As shown in Fig. 3, return air baffles 95 are provided on both the front and rear sides of the humidifying fan 94, so that the water mist can effectively circulate in the multifunctional room.

As shown in FIGS. 2 and 3, in one or more embodiments, a carrier 184 for placing food is arranged in the middle of the multifunctional room 118. Optionally, the carrier 184 is vertically divided into three layers including but not limited to three layers, and a tray (not shown in the figure) may be provided on one or more layers. As shown in FIGS. 2 and 3, in one or more embodiments, a load cell 41 is provided at the bottom of the carrier 184. As shown in FIG. 3, one end of the load cell 41 is arranged on the bracket 187 through a transition block 42, and the other end thereof is connected to the bottom plate 186 through a transition block 42. The bracket 187 is located below the load cell 41 and is supported on the top of the humidification water tank 91. The bottom plate 186 is located above the load cell 41, and the carrier 184 is arranged on the bottom plate 186. As shown in Figures 2 and 3, the bottom plate 186 is uniformly distributed with a plurality of bottom water mist holes 186a, and a plurality of bracket water mist holes 187a are evenly distributed on the bracket 187, so as to allow water mist to pass through the bracket water mist holes 187a. And the bottom water mist holes 186a are evenly dispersed into the multifunctional chamber 118. The load cell 41 is configured to form a communication connection with the controller 13 so as to provide the controller 13 with information about the weight of the food on the carrier 184 when needed. As shown in FIGS. 2 and 3, in one or more embodiments, a negative ion generator 61 is provided in the multifunctional chamber 118. The negative ion generator 61 is installed on the top side 181 of the multifunctional room 118 (that is, the inner side of the top wall 112 of the box 11 ), and is located above the carrier 184. The negative ion generator 61 is configured to sterilize the food on the carrier 184. In order to illuminate the multifunctional room 118, an illuminating lamp 189 is provided on the top side 181. The multifunctional room 118 is equipped with a multifunctional room temperature sensor 190, which can be fixed on any side wall or wind hood of the multifunctional room 118 to measure the temperature in the multifunctional room 118 in real time. In order to measure the center temperature of the food in the multifunctional room 118 in real time, a center temperature sensor 185 is also provided in the multifunctional room 118. As shown in FIG. 2, the central temperature sensor 185 is located above the carrier 184 and can be fixed to the inner side of the front wall 111 of the box 11 or other suitable positions through a support rod (not marked in the figure). Both the center temperature sensor 185 and the multifunctional room temperature sensor 190 are configured to form a communication connection with the controller 13 so as to provide the controller 13 with real-time temperature information of the food center in the multifunctional room 118 and the indoor temperature of the multifunctional room 118. As shown in FIG. 3, in one or more embodiments, a front door position sensor 121 for detecting the position of the front door 12 is also provided in the multifunctional room 118. The front door position sensor 121 may be arranged on the inner side of the front wall 111 of the box body 11 and positioned close to the front door 12. The front door position sensor 121 is configured to form a communication connection with the controller 13 so as to provide the controller 13 with real-time position information of the front door 12.

As shown in FIG. 2, in one or more embodiments, a first heat collector 31a, a second heat collector 31b, a first superconducting element 32a, and a second superconducting element are provided in the multifunctional chamber 118. Thermally conductive element 32b. Preferably, the outer surfaces of the first heat collector 31a and the second heat collector 31b may be equipped with heat collecting fins (not shown in the figure). The first heat collector 31 a is arranged on the inner side of the left wall 114 of the box body 11. The lower end of the first superconducting element 32a extends to the first heat collector 31a and is fixed to the first heat collector 31a. The upper end of the first superconducting element 32 a extends upward through the top wall 112 of the box 11 and enters the top chamber 116 so as to contact the first evaporator 211. The second heat collector 31 b is arranged on the right side partition 182 of the multifunctional room 118. The lower end of the second superconducting element 32b extends to the second heat collector 31b and is fixed to the second heat collector 31b. The upper end of the second superconducting element 32b also extends upward through the top wall 112 of the box 11 and enters the top chamber 116 so as to contact the first evaporator 211. Therefore, the first evaporator 211 not only serves as an evaporator, but also serves as a radiator. The first heat collector 31a and the second heat collector 31b collect the heat in the multifunctional chamber 118 and are respectively conducted to the first evaporator 211 through the first superconducting element 32a and the second superconducting element 32b. The first evaporator 211 radiates the received heat into the air in the top chamber 116, and the heated air is discharged to the upper part of the kitchen space through the top opening (in this case, the top opening door 164 is in an open state). Accordingly, the top chamber 116 can serve as a heat dissipation chamber. Heat collectors are arranged on the left and right sides of the multifunctional room 118, which can dissipate the heat in the multifunctional room 118 in time, which is beneficial to keep the food in good quality. Alternatively, if necessary, only one heat collector and corresponding superconducting element may be arranged in the multifunctional chamber 118.

As shown in FIG. 2, in one or more embodiments, the first heat collector 31a is covered with a first heat collector shield 33a, and the second heat collector 31b is covered with a second heat collector器保护盖33b. The first collector shield 33 a is fixed on the inner side of the left wall 114 of the box 11, and the second collector shield 33 b is fixed on the inner side of the right side partition 182 of the multifunctional room 118. As shown in FIG. 2, in one or more embodiments, a plurality of first lamp sockets 81a are provided on the side of the first collector shield 33a facing the carrier 184, for example, three or more lamp holders 81a. Three more or less, and a first far-infrared heating tube 82a is installed on each first lamp holder 81a. Optionally, all the first far-infrared heating tubes 82a are covered under the first protective lampshade 83a. The first protective lamp cover 83a is also fixed on the first collector protective cover 33a. Similarly, a plurality of second lamp sockets 81b are provided on the side of the second collector shield 33b facing the carrier 184, such as three or more or less than three, in each second A second far-infrared heating tube 82b is installed on the lamp holder 81a. Optionally, all the second far-infrared heating tubes 82b are covered under the second protective lampshade 83b. The second protective lamp cover 83b is fixed on the second collector protective cover 33b.

As shown in FIG. 3, a second evaporator 212 is arranged in the multifunctional chamber 118. In one or more embodiments, the second evaporator 212 is arranged on the upper part of the vertical wall 188. The second evaporator 212 may be a heat exchanger in the form of a fin coil or other suitable forms of heat exchanger. An interference fan 71 is provided below the second evaporator 212. The second evaporator 212 and the interference fan 71 are separated by a predetermined separation distance in the vertical direction. The interference fan 71 is fixed on the vertical wall 188 by the interference fan bracket 72. As shown in FIG. 3, the second evaporator 212 and the interference fan 71 are covered with a wind cover 183. As shown in FIG. 2, in one or more embodiments, the wind shield 183 is substantially rectangular. The upper edge and the edge of the wind hood 183 are respectively provided with fixing parts (not marked in the figure) for fixing the wind hood 183 to the vertical wall 188. On the surface of the wind cover 183, a plurality of ventilation holes 183a are respectively distributed corresponding to the part of the second evaporator 212 and the interference fan 71. On the surface of the wind hood 183, located below the part corresponding to the second evaporator 212, there is also a microwave hole (not marked in the figure). When the front door 12 on the box body 11 is in the closed position, the second evaporator 212 is configured to cool the air in the multifunctional compartment 118, for example, for refrigerating or freezing food in the multifunctional compartment 118. When the front door 12 is in the open position, the second evaporator 212 is configured to cool the air in the lower part of the kitchen space. Correspondingly, through the ventilation holes 183a on the wind hood 183, the interference fan 71 is configured to suck the air in the multifunctional room 118 or the air in the lower part of the kitchen space to circulate through the outer surface of the second evaporator 212 to be cooled to a predetermined value. temperature.

As shown in FIG. 3, in one or more embodiments, the rear chamber 119 extends between the top wall 112, the bottom wall 113, the left wall 118, the right wall 115, and the rear wall 120 of the box body 11. Ventilation holes (not marked in the figure) may be provided at suitable positions in any one of the rear wall, the left wall and the right wall surrounding the rear chamber 119. In one or more embodiments, the main body of the refrigeration system is arranged in the upper part of the rear chamber 119 so that the main body of the refrigeration system is closer to the first evaporator 211 and the second evaporator 212. As shown in FIG. 3, in one or more embodiments, the compressor 213 of the main body of the refrigeration system is fixed in the rear chamber 119 by a compressor bracket 213a; the condenser 214 of the main body of the refrigeration system is fixed in the rear chamber by a condenser bracket 214a. Department room 119. The condenser 214 may include, but is not limited to, a finned tube heat exchanger or a plate heat exchanger. As shown in FIG. 3, in one or more embodiments, a microwave generating device is also provided in the lower part of the rear chamber 119. In one or more embodiments, the microwave generating device includes a magnetron 51, a waveguide 52, a high-voltage transformer 53, and a high-voltage diode 54. The waveguide 52 is fixed on the vertical wall 188. A through hole (not marked in the figure) is provided on the vertical wall 188 separating the rear chamber 119 and the multifunctional chamber 118. The through hole is located between the second evaporator 212 and the interference fan 71 in the vertical direction, and is aligned with the microwave hole on the wind cover 183. The wave guide 52 is placed in the through hole, and the horn-shaped opening of the wave guide 52 faces the multifunctional room 118. The magnetron 51 is fixed on the bottom end of the wave guide 52 opposite to the horn-shaped opening, so that the microwave generated by the magnetron 51 can be transmitted to the multifunctional room 118 through the wave guide 52. The magnetron 51 is electrically connected to the high voltage transformer 53 through the high voltage diode 54 so that the high voltage transformer 53 provides the magnetron 51 with a suitable working voltage. As shown in FIG. 3, in one or more embodiments, the high-voltage transformer 53 is arranged on the bottom of the rear chamber 119 through the high-voltage transformer bracket 53a. Preferably, the blade of the interference fan 71 is made of a metal material. When the magnetron 51 is working, the interference fan 71 can also start to rotate, so that the microwaves generated by the magnetron 51 can be evenly diffused into the multifunctional chamber 118 through the rotating metal fan blades, so as to evenly defrost or heat the multifunctional Food in room 118.

The above-mentioned integrated kitchen air conditioner 1 of the present invention can work in an air-conditioning mode, a refrigerating mode, a thawing mode, or a baking mode, including but not limited to.

When the temperature in the kitchen is high and upper temperature adjustment is required, the integrated kitchen air conditioner 1 can be switched to the air conditioning mode through the controller 13. Specifically, when the integrated kitchen air conditioner 1 is powered on, the controller 13 (also referred to as a “control panel”) controls the first fan 161a, the second fan 161b, the motor 171, the first solenoid valve 217, and the compressor 213 is connected to the power supply. The first solenoid valve 217 is opened, so the first refrigeration circuit connected to the first evaporator 211 is connected. When the motor 171 works, the output shaft of the motor 171 drives the gear 172 to rotate, the gear 172 drives the sector gear 173 that is engaged with it to rotate, and the sector gear 173 drives the rotation shaft 164a of the top door 164 to rotate, thereby opening the top door 164 and turning it to The predetermined location. The compressor 213 starts to work, compressing the low-temperature and low-pressure gas refrigerant to a high-temperature and high-pressure gas refrigerant; the high-temperature and high-pressure gas refrigerant is then discharged into the condenser 214, and is cooled to a high-temperature and high-pressure liquid in the condenser 214 Refrigerant; the high temperature and high pressure liquid refrigerant is then throttled to the low temperature and low pressure liquid refrigerant through the expansion valve 215; the low temperature and low pressure liquid refrigerant flows along the refrigeration pipe through the first solenoid valve 217 to enter the first evaporator 211; The first fan 161a and the second fan 161b suck the air in the upper part of the kitchen space to circulate and flow through the outer surface of the first evaporator 211 to be cooled to a predetermined temperature, thereby realizing the cooling adjustment of the upper part of the kitchen space. When it is necessary to adjust the temperature of the lower part of the kitchen, the front door 12 is opened, and the controller 13 controls the interference fan 71, the second solenoid valve 216, and the compressor 213 to be connected to the power source. The second solenoid valve 216 is opened, so the second refrigeration circuit connected to the second evaporator 212 is connected. The compressor 213 starts to work, so the low-temperature and low-pressure liquid refrigerant from the condenser 214 flows into the second evaporator 212 via the second solenoid valve 216. The interference fan 71 sucks air in the lower part of the kitchen space to circulate through the outer surface of the second evaporator 212 via the wind hood 183 to be cooled to a predetermined temperature, and the cooled air is then delivered to the lower part of the kitchen space, thereby effectively adjusting the kitchen space The temperature of the lower part. Optionally, the controller 13 can control the integrated kitchen air conditioner 1 to adjust the temperature of the upper and lower parts of the kitchen space at the same time, or control the integrated kitchen air conditioner 1 to independently adjust the temperature of the upper or lower part of the kitchen space.

When the food in the multifunctional room 118 needs to be refrigerated, the integrated kitchen air conditioner 1 can be switched to the refrigerating mode through the controller 13. The food is placed on the carrier 184. The multifunctional room 118 serves as a refrigerating room. The controller 13 determines that the front door 12 is in the closed position through the front door position sensor 121, and the controller 13 automatically sets an appropriate refrigerating temperature based on the food weight measured by the load cell 41. Alternatively, the temperature required for food refrigeration can also be manually set. The controller 13 controls the interference fan 71, the second solenoid valve 216, and the compressor 213 to be connected to the power source. The second solenoid valve 216 is opened, so the second refrigeration circuit connected to the second evaporator 212 is connected. The compressor 213 starts to work, so the low-temperature and low-pressure liquid refrigerant from the condenser 214 flows into the second evaporator 212 via the second solenoid valve 216. The interference fan 71 sucks the air in the multifunctional room 118 to circulate and flow through the outer surface of the second evaporator 212 via the wind hood 183 to be cooled to a predetermined temperature, so that the temperature in the multifunctional room is controlled within the automatically set temperature range . Optionally, the controller 13 may control the negative ion generator 61 to be connected to the power source, so as to sterilize the surface of the refrigerated food. The temperature sensor 185 in the multi-function room 118 can measure the temperature in the multi-function room 118 in real time, so as to accurately control the temperature in the multi-function room 118 so as to refrigerate and keep food fresh.

When the frozen food (for example, frozen meat, frozen seafood, etc.) in the multifunctional room 118 needs to be quickly thawed, the integrated kitchen air conditioner 1 can be switched to the thawing mode through the controller 13. Frozen food is also placed on the carrier 184. The multifunctional room 118 serves as a thawing room. The controller 13 determines through the front door position sensor 121 that the front door 12 is in the closed position. The controller 13 also automatically sets an appropriate total defrosting time and defrosting cycle based on the initial temperature measured by the temperature sensor 185 and the food weight measured by the load cell 41. Optionally, the required thawing time and temperature can also be set manually. The controller 13 controls the high-voltage transformer 53 and the interference fan 71 to be connected to the power source. The high-voltage transformer 53 provides the working voltage for the magnetron 51, and the microwave generated by the magnetron 51 is transmitted to the multifunctional room 118 through the waveguide 52, which interferes with the operation of the fan 71, and the rotation of its metal fan blades makes the microwave evenly distributed to the multifunctional room In 118, the microwave penetrates the food and reaches the inside, so that the frozen food can be defrosted. When the surface temperature of the food reaches the set value, the controller 13 rotates the top opening door 164 to a predetermined opening position by controlling the rotation of the motor 171. At the same time, the controller 13 controls the first fan 161a and the second fan 161b to turn on the power so that the air in the upper part of the kitchen space circulates into the top chamber 116 and flows over the outer surface of the first evaporator 211. The first heat collector 31a and the second heat collector 31b absorb the heat in the multifunctional chamber 118, and transfer the absorbed heat to the first evaporation through the first superconducting element 32a and the second superconducting element 32b, respectively 211 (in this case, acting as a radiator). The first evaporator 211 transfers air from the first heat collector 31a and the second heat collector 31b to the air flowing through the outer surface thereof. The heated air is then radiated to the outside of the box 11 through the top opening to cool the multifunctional chamber 118 to prevent the surface temperature of the thawed food from rising too fast, so as to ensure the uniform thawing of the food by the microwave. At the same time, the refrigeration system 21 may also be in operation. The high-temperature gas in the multifunctional chamber 118 flows through the outer surface of the second evaporator 212 through the ventilation holes 183a of the wind hood 183 to be cooled into low-temperature gas. The interference fan 71 blows the low-temperature gas upward obliquely to form cold air, which dissipates into the space of the multifunctional room 118, and plays a role in moderately adjusting the temperature in the multifunctional room 118, so as to prevent the food from being burnt due to excessive temperature.

During the thawing process, if the internal temperature of the food reaches a predetermined temperature, for example, about minus 2 degrees, the controller 13 can control the temperature in the multi-function room 118 within the range of 2 degrees to 8 degrees to keep the food fresh and ensure freezing The freshness of the food after thawing. Optionally, the controller 13 may control the negative ion generator 61 to be connected to the power source, so as to sterilize the food. When the thawing is completed, the controller 13 controls the high-voltage transformer 53, the interference fan 71, and the negative ion generator 61 to disconnect from the power supply, and controls the motor 171 to rotate the top opening door 164 to the closed position, and the entire thawing process ends.

When the food (such as meat, seafood, snacks or other foods) in the multifunctional room 118 needs to be baked, the kitchen air-conditioning integrated machine 1 can be switched to the baking mode through the controller 13. The food to be baked is placed on the carrier 184 by opening the front door 12, and then the front door 12 is closed. The multifunctional room 118 serves as a baking room. When the controller 13 determines through the front door position sensor 121 that the front door 12 is in the closed position, the lighting lamp 189 is turned off. The multifunctional chamber temperature sensor 190 is used to detect the temperature in the baking chamber, and the core temperature sensor 185 is used to detect the core temperature of the baked food. The controller 13 can automatically set the total baking time and the baking period according to the weight of the food measured by the load cell 41 and the initial temperature of the food. When the baking starts, the controller 13 controls the first and second far-

infrared heating tubes

82a, 82b, the second solenoid valve 216, the compressor 213, the high-voltage transformer 53, and the interference fan 71 to be connected to the power supply. The far-infrared waves generated by the first and second far-

infrared heating tubes

82a and 82b bake the food. The high-voltage transformer 53 provides the working voltage for the magnetron 51. The high-frequency microwave generated by the magnetron 51 is transmitted to the baking chamber through the waveguide 52; it interferes with the operation of the fan 71, and its metal impeller rotates so that the microwaves are evenly distributed into the baking chamber. Penetrate to the inside of the food. Therefore, far-infrared waves and high-frequency microwaves bake food at the same time.

When the food surface temperature reaches the set value, the controller 13 controls the motor 171 to rotate. The motor 171 drives the gear 172 and the sector gear 173 meshed with the gear 172 to rotate. The sector gear 173 in turn drives the top door shaft 164a to rotate, so the top door 164 is Open. The top-opening position sensor 163 is responsible for detecting whether the top-opening door 164 rotates within a specified position range. The first heat collector 31a and the second heat collector 31b begin to absorb the heat of the high-temperature baking chamber, and transfer the heat to the first evaporator 211 through the corresponding first superconducting element 32a and second superconducting element 32b, respectively (It acts as a heat sink). At the same time, the controller 13 controls the first fan 161a and the second fan 161b to turn on the power so as to radiate the high-temperature air in the top chamber 116 to the outside of the box 11, so as to achieve the purpose of cooling the baking chamber and prevent the food from being baked. The surface temperature rises too fast to ensure even baking of the food. When the food surface temperature reaches the set value, the controller 13 also controls the first and second

ultraviolet lamp tubes

92a, 92b, the first and second

ultrasonic atomizers

93a, 93b, and the humidifying fan 94 to be connected to the power supply. The first and second

ultrasonic atomizers

93a, 93b atomize the water in the humidifying water tank 91, and the first and

ultraviolet lamp tubes

92a, 92b start to sterilize the water mist. The generated water mist is then distributed to the surface of the baked food through the water mist opening 91a on the humidifying water tank 91. After the humidifying fan 94 conveys the generated water mist upwards, the water mist is effectively circulated through the return air baffle 24 to keep on The surface of baked goods is moisturized. At the same time, the high-temperature gas in the baking chamber reaches the surface of the second evaporator 212 through the vent hole 183a of the wind hood 183. The second solenoid valve 216 is opened, and the compressor 213, the condenser 214, the expansion valve 215, and the second evaporator 212 work together to cool the high-temperature gas into low-temperature gas. The interference fan 71 conveys the low-temperature gas to the upper part of the baking chamber to form cold air, which is dissipated into the baking chamber space, and plays a role of moderately adjusting the temperature in the baking chamber, so as to prevent the food from being burnt due to excessive temperature. When the baking is completed, the controller 13 controls the negative ion generator 61 to be connected to the power source, so that the negative ion generator 61 completes the sterilization function. When the whole baking process is over, the controller 13 controls the negative ion generator 61, the first and second far-

infrared heating tubes

82a, 82b, the first and second

ultraviolet lamp tubes

92a, 92b, and the first and second ultrasonic atomization The

motors

93a, 93b, the humidifying fan 94, the high-voltage transformer 53, and the interference fan 71 are disconnected from the power supply, and the top opening door 164 is closed by controlling the rotation of the motor 171 through the power driving element.

Through the above-mentioned structure and configuration, the integrated kitchen air conditioner 1 of the present invention not only effectively solves the problems of less environmental adjustment equipment in the kitchen and single function of other household equipment in the kitchen, so that the space occupied by the kitchen equipment is effectively saved, and the kitchen air conditioner The all-in-one machine integrates air conditioning, food thawing, and refrigerated food. By adjusting the ambient temperature in the kitchen, it effectively guarantees the environmental quality of people at work. It also facilitates people's lives by quickly thawing and refrigerating food.

So far, the technical solutions of the present invention have been described with reference to the preferred embodiments shown in the drawings. However, it is easy for those skilled in the art to understand that the protection scope of the present invention is obviously not limited to these specific embodiments. Without departing from the principle of the present invention, those skilled in the art can combine the technical features of different embodiments, or make equivalent changes or replacements to related technical features, and the technical solutions after these changes or replacements will be implemented. It falls into the protection scope of the present invention.

Claims

An integrated kitchen air conditioner, characterized in that the integrated kitchen air conditioner comprises:

A box body, which includes a multi-function room, a rear room, and a top room adjacent to each other, the multi-function room is configured to be opened and closed by a front door located on the front wall of the box body, and pass through the rear room Separated by a vertical wall, the top room is separated from the multifunctional room and the rear room by a partition wall, and the top of the top room is provided with a top opening door that can be opened and closed; and

A refrigeration system comprising a refrigeration system main body placed in the rear chamber, a first refrigeration circuit formed with the refrigeration system main body and a first evaporator placed in the top chamber, and a first evaporator formed with the refrigeration system main body A second refrigeration circuit, a second evaporator placed in the multifunctional room and installed on the vertical wall,

Wherein, a humidifying water tank is provided at the bottom of the multifunctional room.
The integrated kitchen air conditioner according to claim 1, wherein a wind hood and an interference fan located below the second evaporator are further provided on the vertical wall, and the wind hood is configured to cover the first evaporator. The second evaporator and the interference fan are provided with ventilation holes on the part of the wind hood corresponding to the second evaporator and the interference fan.
The integrated kitchen air conditioner according to claim 2, wherein the integrated kitchen air conditioner comprises a microwave generating device arranged in the rear chamber, and the microwave generating device is configured to defrost the food.
The integrated kitchen air conditioner of claim 3, wherein the microwave generating device comprises a magnetron that generates microwaves and a wave guide that conducts the microwaves, and the magnetron is fixed at the bottom of the wave guide On the vertical wall, a through hole for accommodating the wave guide is provided so that the opening of the wave guide faces the multifunctional room, and the through hole is located between the second evaporator and the interference fan .
The kitchen air conditioner integrated machine according to claim 4, wherein the interference fan has a metal impeller, so that the microwave is uniformly dispersed into the multifunctional room through the rotation of the metal impeller.
The kitchen air conditioner integrated machine according to claim 3, wherein the refrigeration system main body is arranged in the upper part of the rear chamber, and the microwave generating device is arranged in the lower part of the rear chamber.
The integrated kitchen air conditioner according to claim 1, wherein the integrated kitchen air conditioner comprises a heat collector and a superconductor configured to conduct heat from the heat collector to the first evaporator The thermal element, the heat collector is arranged on the side wall of the multifunctional chamber.
The integrated kitchen air conditioner according to claim 1, wherein the integrated kitchen air conditioner comprises a driving mechanism configured to drive the top opening door to rotate, and the driving mechanism is arranged adjacent to the top chamber. In the driving chamber, the top opening door is provided with a rotating shaft that can extend into the driving chamber to form a connection with the driving mechanism.
The integrated kitchen air conditioner according to claim 1, wherein a food weighing device is provided in the multifunctional room, and the food weighing device is located above the humidifying water tank.
The kitchen air conditioner integrated unit according to claim 1, wherein an ultrasonic atomizer and an ultraviolet lamp tube are provided in the humidification water tank.