TWM590023U - Drinking device capable of rapid cooling - Google Patents

Abstract

A drinking water device capable of rapid cooling includes a refrigerator, a snake tube and a water outlet module. The refrigerator includes an ice storage space, an ice inlet hole, and a through hole. The ice inlet hole is used to allow ice cubes and/or water to enter the ice storage space. The snake tube surrounds the inner side wall of the ice storage space, including the water outlet and the water inlet. The water inlet end is connected to the water inlet equipment through the through hole; the water outlet module includes a water outlet motor and a water outlet pipe, the water outlet motor is connected to the water outlet end through the through hole, the water outlet motor is used to pump out the water in the snake pipe, and the water outlet pipe is connected to the water outlet motor . In this way, through the operation of the water outlet motor, the water in the water inlet device enters the coil through the water inlet end, exchanges heat with the lower temperature water in the ice storage space, and then from the water outlet end, the water outlet motor to the water outlet model The outlet pipe of the group flows out to achieve the function of rapid cooling.

Description

Drinking water device capable of rapid cooling

This creation is about a drinking water, beverage, hot water, liquid device, especially a drinking water device that can quickly lower the temperature of the beverage entering the device and lower the temperature to the range of suitable drinking temperature.

Drinking water supply device (for liquids such as tea, coffee, juice, etc.) is a machine that can provide drinks instantly after cooling from high temperature for human consumption, without losing the original flavor. It is widely installed in general public places, movie theaters, restaurants and Food Street etc.

Among them, the conventional drinking water supply devices are divided into many types, one of which is a drinking water sales device with a packaging of the beverage itself, which can be filled with a rated number of beverages, and are beverages with different classifications, such as pure water, mineral springs Water or other beverages are available for users to choose according to different preferences. Among them, after setting the drink, the drinking water sales device adopts a whole to cool down the drink in the device. Generally, it takes about 1 hour to cool down to provide cold drinks. After the beverage supply is completed, it is necessary to refill the beverage at normal temperature, through the drinking water sales device for cooling and cooling, so you must wait another hour before re-supplying low-temperature beverages.

Furthermore, another drinking water supply device is known as the device itself has a container that can hold beverages. Among them, unlike the previous drinking water supply device, this drinking water supply device can always replenish beverages into the container for human drinking, and the device itself has the functions of cooling and cooling, and the user loads the higher temperature beverage into After the container, after the device cools down and cools down for a period of time, you can drink beverages with a lower temperature.

Among them, since the drinking water supply device with a container generally does not have a temperature sensor and a display panel, the temperature in the container cannot be known from the appearance of the drinking water supply device, and the user cannot immediately control the temperature of the beverage in the container, so that The temperature of the drink is sometimes high and sometimes low, causing inconvenience in drinking.

However, the above drinking water supply device has a common point. After the beverage with a higher temperature is loaded, it still needs to cool down and cool through the device for a period of time before cooling the hot water into cold water. However, when people are thirsty, they always want to drink cold water as soon as possible. At this time, if there is only a higher temperature beverage, people must wait patiently for the temperature to cool down. Not only is the waiting time irritating, but if they should drink water The water supply device is installed in the shopping mall. Only the hot drinks may reduce the consumer's willingness to buy. In addition, while waiting for the drinks to cool down, some consumers who originally wanted to consume may also be lost.

In addition, since the drinking water supply device needs to be able to provide users with low-temperature beverages at any time, the internal cooling and cooling device needs to be filled with ice cubes, so that the temperature of the beverage in the snake tube (stainless steel tube) can be instantly cooled.

The main purpose of this creation is to provide a drinking device that can quickly cool down the temperature, which can quickly lower the temperature of the drink, so that when people are thirsty, they can drink cold drinks as soon as possible. In simple terms, any high-temperature beverage (water, tea, coffee, etc.) can be cooled quickly and instantly, and the flavor of the beverage can be locked, not volatile, so as to achieve the best taste buds.

Another purpose of this creation is to provide a drinking water device that can cool down quickly, allowing users to instantly control the temperature of drinks in the ice storage space, and replenish ice cubes and low-temperature water.

Another purpose of this creation is to provide a drinking water device that can cool down rapidly. The compressor can operate and the body can make ice by itself, so that the interior has the effect of cooling and ice storage, and the sensor will automatically stop when it reaches a certain amount of ice.

In order to achieve the aforementioned purpose, this creation will provide a drinking water device that can rapidly cool down, including a refrigerator, a coil and a water outlet module.

The refrigerator includes an ice storage space, an ice inlet hole and a through hole. The ice inlet hole and the through hole are respectively connected with the ice storage space, and the ice inlet hole is used for allowing ice cubes and/or water to enter the ice storage space.

A snake tube (stainless steel tube) surrounds an inner side wall of the ice storage space, and includes a water outlet end and a water inlet end. The water inlet end is connected to a water inlet device through a through hole.

The water outlet module includes a water outlet motor and a water outlet pipe. The water outlet motor is connected to the water outlet of the snake pipe (stainless steel pipe) through the through hole. The water outlet motor is used to pump out the water in the snake pipe (stainless steel pipe), and the water outlet pipe is connected to the water outlet motor.

Among them, when the water outlet motor is running, the water in the water inlet device enters the inside of the snake pipe (stainless steel pipe) through the inlet end of the snake pipe (stainless steel pipe), then enters the water outlet motor from the outlet end of the snake pipe (stainless steel pipe), and finally The outlet pipe of the group flows out.

In an embodiment of the present invention, the rapid-cooling drinking water device further includes a stirring module, the refrigerator also includes an ice storage upper cover, the stirring module is disposed on the ice storage upper cover, and includes a partition cover and a stirring motor, the partition cover It includes a plurality of holes, which is arranged at the bottom of the ice storage upper cover and is located in the ice storage space. The stirring motor includes a central shaft and a stirring blade. One end of the central shaft extends into the partition cover, and the stirring blade is arranged on the central shaft The first end; wherein, when the stirring motor is running, the central axis of the stirring motor drives the stirring blade to rotate, so that the stirring blade stirs the ice cubes and/or water in the ice storage space.

Preferably, the central shaft of the stirring motor further includes a second end, the second end extends out of the top of the ice storage upper cover, and a fan is provided.

In an embodiment of the present invention, the rapid cooling water drinking device further includes a refrigeration system, including a compressor, a condenser, an expansion valve and an evaporation module that constitute a circulation system, wherein the evaporation module further The first evaporator is arranged on the inner side wall of the ice storage space for heat exchange of water contained in the ice storage space, so that the water gradually condenses from the inner wall of the ice storage space toward the center.

Preferably, the drinking water device capable of rapid cooling further includes a temperature sensing module and a display panel, the temperature sensing module is electrically connected to the display panel and the freezing system, and the temperature sensing module includes a first temperature detection switch And a second temperature detection switch, the first temperature detection switch and the second temperature detection switch extend into the water contained in the ice storage space, and the first temperature detection switch and the second temperature detection switch and the ice storage There are unequal distances between the inner walls of the space; where, when the freezing system is running, since the water gradually condenses from the inner walls of the ice storage space toward the center, the first temperature detection switch and the second temperature detection switch are at Different locations sense the different temperatures at which water gradually condenses to send a signal to a control unit, respectively, to start or shut down the compressor.

Wherein, the relationship between the first temperature detection switch and the second temperature detection switch is arranged parallel to each other in the ice storage space, and the first temperature detection switch and the second temperature detection switch are axially oriented toward the Bottom surface; wherein, the first temperature detection switch is relatively close to the inner side wall of the ice storage space, and the second temperature detection switch is away from the same inner side wall relative to the first temperature detection switch.

Preferably, the first temperature detection switch and the second temperature detection switch are temperature probes or temperature sensors.

In an embodiment of the present invention, the rapid-cooling drinking water device further includes a housing, the housing has an accommodating space and an upper cover of the housing, a refrigerator and a freezing system are provided in the accommodating space, and the water outlet motor is provided in the housing体上盖。 Body cover.

In an embodiment of the present invention, the evaporation module further includes a second evaporator, and the second evaporator is disposed in the accommodating space and used for heat exchange of the accommodating space.

In an embodiment of the present invention, the rapid cooling water device further includes a temperature sensor and a display panel. The temperature sensor extends into the water contained in the ice storage space and is electrically connected to the display panel.

In an embodiment of the present invention, the quick-cooling drinking water device further includes an ice filling bucket, which is disposed in the ice inlet.

Preferably, the quick-cooling drinking water device further includes a bucket cover, and the bucket cover is provided on the water injection bucket.

In an embodiment of the present invention, the quick-cooling drinking water device further includes a drain pipe, one end of the drain pipe is disposed in the ice storage space, and the other end of the drain pipe is connected to a pumping device.

The effect of this creation is that by surrounding the snake tube (stainless steel tube) placed in the ice storage space, the higher temperature beverage enters the snake tube (stainless steel tube) through the inlet end of the snake tube (stainless steel tube), and then stores When the ice space is surrounded, the lower temperature water in the ice storage space can be used for heat exchange to reduce the temperature of the drink in the snake tube (stainless steel tube), so that people can drink cold drinks as soon as possible when they are thirsty.

Furthermore, with the temperature sensor provided in the ice storage space of the first embodiment, the temperature difference of the condensation of water in the ice storage space into ice is sensed through the temperature sensor and displayed on the display panel , Allowing users to instantly control the temperature of drinks in the ice storage space, so that users can replenish ice cubes and low-temperature water in real time.

In addition, with the temperature sensing module provided in the ice storage space of the second embodiment, the temperature difference between the condensation of water in the ice storage space into ice is sensed through the temperature sensing module, and a signal is sent to the control To control the operation of the compressor, it can effectively reduce the number of compressor startup and shutdown, thereby extending the life of the compressor and avoiding unnecessary waste of power.

The following describes the implementation of this creation in more detail with reference to drawings and component symbols, so that those skilled in the art can implement it after studying this manual.

1 and 2 are respectively a three-dimensional assembly diagram and a three-dimensional exploded view of a drinking water device capable of rapid cooling according to the first embodiment of the invention. As shown in FIGS. 1 and 2, the present invention provides a drinking water device capable of rapid cooling, which includes: a refrigerator 10, a coil 20 and a water outlet module 30. The following is a detailed explanation of each part.

The refrigerator 10 includes an ice storage space 11, an ice inlet hole 12 and a through hole 13; the refrigerator 10 is a container for holding water, and the ice inlet hole 12 and the through hole 13 communicate with the ice storage space 11, respectively The hole 12 is used for allowing ice cubes and/or water to enter the ice storage space 11.

A snake tube (stainless steel tube) 20 surrounds an inner side wall 111 of the ice storage space 11, and includes a water outlet end 21 and a water inlet end 22; the water inlet end 22 is used to communicate with a water inlet device through a through hole 13 (not shown) ) Connect.

The water outlet module 30 includes a water outlet motor 31 and a water outlet pipe 32; the water outlet motor 31 is connected to the water outlet 21 of the snake pipe (stainless steel pipe) 20 through the through hole 13, and the water outlet motor 31 is used to connect the water in the snake pipe (stainless steel pipe) 20 Withdrawing, the water outlet pipe 32 is connected to the water outlet motor 31.

When the water outlet motor 31 is running, the water in the water inlet device enters the inside of the snake pipe (stainless steel pipe) 20 through the inlet end 22 of the snake pipe (stainless steel pipe) 20, and then enters the outlet water from the outlet end 21 of the snake pipe (stainless steel pipe) 20 The motor 31 finally flows out from the water outlet pipe 32 of the water outlet module 30.

Fig. 3 is a cross-sectional view of a drinking water device capable of rapid cooling according to the first embodiment of the invention. As shown in FIGS. 2 and 3, in the first embodiment of the present invention, the drinking water device capable of rapid cooling further includes a stirring module 40, and the refrigerator 10 further includes an ice storage cover 14; the stirring module 40 is provided in the storage The ice cover 14 includes a partition cover 41 and a stirring motor 42; the partition cover 41 includes a plurality of holes 411, which are provided at the bottom of the ice storage cover 14, when the ice storage cover 14 is placed in the refrigerator 10, the partition cover 41 will Located in the ice storage space 11; the stirring motor 42 includes a central shaft 421 and a stirring blade 424, a first end 422 of the central shaft 421 extends into the partition cover 41, and the stirring blade 424 is disposed at the first end 422 of the central shaft 421 Wherein, when the stirring motor 42 is running, the central shaft 421 of the stirring motor 42 drives the stirring blade 424 to rotate, so that the stirring blade 424 stirs the ice cubes and/or water in the ice storage space 11.

As shown in FIG. 1, FIG. 2 and FIG. 3, in the first embodiment of the present invention, the rapid cooling water drinking device further includes a temperature sensor 60 and a display panel 70. The temperature sensor 60 is used to extend into It is contained in the water in the ice storage space 11 and is electrically connected to the display panel 70. The display panel 70 is used to display the temperature sensed by the temperature sensor 60 for the user to observe the ice storage space 11 through the display panel 70. The temperature of the water determines whether to add ice cubes and/or water to the ice storage space 11.

As shown in FIG. 1 and FIG. 2, preferably, in the first embodiment of the present invention, the drinking water device capable of rapid cooling further includes an ice filling bucket 50, which is provided in the ice inlet 12; Set up, users can pour more ice and/or water at a time, and then leave the drinking device that can quickly cool down without having to stand beside the drinking device that can quickly cool down and wait for ice and/or water to slowly flow into the ice storage Space 11 saves the user's time. Preferably, in order to prevent external dust and debris from entering the ice storage space 11, a bucket cover 51 may be further provided, and the bucket cover 51 is placed on the ice filling bucket 50.

As shown in FIG. 1 and FIG. 2, in the first embodiment of the present invention, the quick-cooling drinking water device of the present invention further includes a housing 80 having a housing space 81 and a housing upper cover 82, The refrigerator 10 is disposed in the accommodating space 81, and the water outlet motor 31 is disposed on the upper cover 82 of the casing.

As shown in FIG. 3, preferably, the central shaft 421 of the stirring motor 42 further includes a second end 423 that extends out of the top of the ice storage upper cover 14 and is provided with a fan 425. With the setting of the fan 425, the temperature in the accommodating space 81 is reduced.

4 and 5 are respectively a schematic diagram of putting ice cubes and a schematic diagram of the internal use of the refrigerator 10 in the quick-cooling drinking water device of the first embodiment of the creation. As shown in FIGS. 4 and 5, during use, first pour ice cubes and/or water into the ice storage space 11 through the ice filling bucket 50 and the ice inlet hole 12 to make the ice storage space 11 in a low temperature state, the user The water outlet module 30 can be activated.

As shown in FIGS. 4, 5 and 6, in the first embodiment of the present invention, when the user starts the operation of the water outlet motor 31 by pressing the button 33 on the water outlet motor 31, the water inlet equipment (not shown) The water will enter the inside of the snake pipe (stainless steel pipe) 20 through the inlet end 22 of the snake pipe (stainless steel pipe) 20, and then enter the outlet motor 31 from the outlet end 21 of the snake pipe (stainless steel pipe) 20, and finally from the outlet pipe of the outlet module 30 32 flows out.

Among them, when the water in the water inlet device (not shown) enters the inside of the snake tube (stainless steel tube) 20 and enters the ice storage space 11, the temperature in the ice storage space 11 is lower, so the snake tube (stainless steel tube) The water entering the water inlet 22 of the 20 will exchange heat with the ice cubes and/or water in the ice storage space 11, so that the water flowing out of the water outlet 21 of the coiled pipe (stainless steel pipe) 20 will have a higher temperature than when entering Low to facilitate users to drink.

It is worth mentioning that the snake tube (stainless steel tube) 20 of this creation is placed around the ice storage space 11, and by increasing the number of turns of the snake tube (stainless steel tube) 20, the water inflow from the snake tube (stainless steel tube) 20 is increased. The water entering the end 22 can perform heat exchange with ice cubes and/or water in the ice storage space 11 more than once to achieve the effect of rapid cooling.

As shown in FIGS. 1 and 4, in the first embodiment of the present invention, the rapid cooling water drinking device further includes a drain pipe 23, one end of the drain pipe 23 is disposed in the ice storage space 11, and the other of the drain pipe 23 One end is connected to a pumping device (not shown). When there is too much water in the ice storage space 11, the water in the ice storage space 11 can be drawn out through the drain pipe 23 by a pumping device (not shown).

7, 8, 9, and 10 are respectively a three-dimensional assembly diagram, a three-dimensional exploded view, a cross-sectional view, and a schematic diagram of the operation of the freezing system 90 of the drinking water device capable of rapid cooling according to the second embodiment. As shown in FIGS. 7, 8, 9 and 10, in the second embodiment of the present invention, the drinking water device capable of rapid cooling further includes a freezing system 90, and the freezing system 90 and the refrigerator 10 are respectively installed in the accommodating space In 81, the freezing system 90 and the refrigerator 10 are connected through a pipeline. The refrigeration system 90 will be explained in detail below.

The refrigeration system 90 includes a compressor 91, a condenser 92, an expansion valve 93, and an evaporation module 94 that constitute a circulation system; the evaporation module 94 is used for heat exchange with the accommodating space 81 or the surrounding environment to After absorbing a lot of heat, it cooperates with an AC fan 83 to blow out cool air.

The evaporation module 94 further includes a first evaporator 94a and a second evaporator 94b; the expansion valve 93 is simultaneously connected to the first evaporator 94a and the second evaporator 94b by a pipeline, and the first evaporator 94a It is connected to the compressor 91 at the same time as the second evaporator 94b through a pipeline. When the compressor 91 is in operation, it compresses the heat exchange medium (refrigerant) in the pipeline to a high temperature and high pressure and sends it to the condenser 92 to discharge heat to become a high-pressure saturated gaseous refrigerant. Then continue to dissipate heat and discharge the latent heat of condensation. The gaseous refrigerant gradually cools and liquefies into a liquid refrigerant. After removing impurities and moisture, it enters the expansion valve 93 and is throttled by a control section 95, and then the refrigerant enters the evaporator. Return to the compressor 91 to constitute a refrigeration cycle.

In the second embodiment of the present creation, the first evaporator 94a is provided on the inner side wall 111 of the ice storage space 11 for heat exchange of the water contained in the ice storage space 11 so that the water flows from the inside of the ice storage space 11 The side wall 111 gradually condenses toward the center. Specifically, the first evaporator 94a is arranged vertically around the inner side wall 111 of the ice storage space 11; when the ice storage space 11 contains water and the freezing system 90 is in operation, the first evaporator 94a absorbs the ice storage space The heat of the water in 11 causes the water to condense into ice; moreover, the water gradually condenses toward the central area of the ice storage space 11 from the position closest to the first evaporator 94a (ie, the inner side wall 111 of the ice storage space 11). In other words, the condensation of water occurs from around the inner wall 111 of the ice storage space 11 toward the central area.

In the second embodiment of the present creation, the second evaporator 94b is disposed in the accommodating space 81 for providing cold air to the accommodating space 81. Specifically, the accommodating space 81 is provided with a second evaporator 94b and an AC fan 83. When the refrigeration system 90 is in operation, the second evaporator 94b will absorb the heat in the accommodating space 81 and generate cold air, the AC fan At 83, the cold air generated by the second evaporator 94b is blown into the entire storage space 81.

In the second embodiment of the present invention, the rapid cooling water device further includes a temperature sensing module 60a; the temperature sensing module 60a is electrically connected to the display panel 70 and the freezing system 90, and the temperature sensing module 60a includes a The first temperature detection switch 61a and a second temperature detection switch 62a, the first temperature detection switch 61a and the second temperature detection switch 62a extend into the water contained in the ice storage space 11, and the first temperature detection The switch 61a and the second temperature detection switch 62a have unequal distances from the inner side wall 111 of the ice storage space 11, respectively. Specifically, the first temperature detection switch 61a and the second temperature detection switch 62a are arranged in parallel in the ice storage space 11 parallel to each other, and make the first temperature detection switch 61a and the second temperature detection switch 62a axis Toward the bottom surface of the ice storage space 11; wherein, the first temperature detection switch 61a is relatively close to the inner side wall 111 of the ice storage space 11, and the second temperature detection switch 62a is away from the same as the first temperature detection switch 61a Inner sidewall 111.

Preferably, the first temperature detection switch 61a and the second temperature detection switch 62a are temperature probes or temperature sensors.

When the freezing system 90 is operating, since the water gradually condenses from the inner side wall 111 of the ice storage space 11 toward the center, the first temperature detection switch 61a and the second temperature detection switch 62a sense different temperatures at which the water gradually condenses at different positions To send a signal to a control unit 95 to start or stop the compressor 91 respectively. The first evaporator 94a is used in conjunction with the refrigerator 10 and the temperature sensor 60 to control the compressor 91 to stop or start operation at an appropriate time.

The control part 95 is generally a computer device storing a preset program, which is electrically connected to the temperature sensing module 60a and the compressor 91, and the control part 95 determines whether to turn off according to the signal sent by the temperature sensing module 60a The compressor 91 is operated or the compressor 91 is started. Specifically, when the freezing system 90 is operating, the first evaporator 94a performs heat exchange on the water in the ice storage space 11 to absorb the heat of the water, causing the water to gradually condense from the inner wall surface 111 of the ice storage space 11 toward the center When ice is formed, the first temperature detection switch 61a and the second temperature detection switch 62a sense different temperatures when the water gradually condenses at different positions, and send a signal to the control part 95 to start or shut down the compressor 91 respectively.

11A and 11B are schematic diagrams of the freezing of the refrigerator 10 of the drinking water device capable of rapid cooling of the second embodiment. As shown in FIGS. 11A and 11B, in more detail, since the first temperature detection switch 61a is closest to the inner side wall 111 of the ice storage space 11, the first temperature detection switch 61a will first sense the frozen ice 100 At this time, after receiving the signal transmitted by the first temperature detection switch 61a, the control unit 95 controls the compressor 91 to start operation, so that the accommodating space 81 and the ice storage space 11 are provided with cold air.

When the water in the ice storage space 11 gradually condenses into ice 100 to the position of the second temperature detection switch 62a, the second temperature detection switch 62a senses the low temperature, which is transmitted by the second temperature detection switch 62a A signal is sent to the control part 95. After receiving the signal sent by the second temperature detection switch 62a, the control part 95 controls the compressor 91 to stop running, so as to stop supplying cold air to the accommodating space 81, and stop absorbing the ice storage space 11. The heat inside.

Since the first evaporator 94a stops absorbing the heat in the ice storage space 11, the condensed ice will be melted. Therefore, when the first temperature detection switch 61a senses a higher melting water temperature, the first temperature detection The test switch 61a will send a signal to the control part 95. After the control part 95 receives the signal sent by the first temperature detection switch 61a, the control part 95 will control the compressor 91 to start running again to supply cool air to the accommodating space 81, and continue to absorb the heat in the ice storage space 11 to re-condensate water, so that the cycle is controlled to start or stop the compressor 91 at an appropriate time, so as to reduce energy waste and extend the life of the compressor 91.

Furthermore, in order to avoid excessive rapid heat exchange between the temperature in the storage refrigerator 10 and the temperature of the external environment, the present invention may provide a heat insulation element (not shown) in the periphery of the storage refrigerator 10; the heat insulation element may have good heat Insulation effect of thermal insulation cotton, Styrofoam, foam, ... and other materials made of a certain thickness of components.

The effect of this creation is that, by surrounding the snake tube (stainless steel tube) 20 disposed in the ice storage space 11, the higher temperature beverage enters the snake tube (stainless steel tube) 20 through the water inlet 22 of the snake tube (stainless steel tube) 20 After the interior, when surrounding in the ice storage space 11, the lower temperature water in the ice storage space 11 can be used for heat exchange to reduce the temperature of the beverage in the snake tube (stainless steel tube) 20, so that when people are thirsty, Can get cold drinks as soon as possible.

Furthermore, with the temperature sensor 60 provided in the ice storage space 11 of the first embodiment, the temperature difference between the condensation of water in the ice storage space 11 into ice is sensed through the temperature sensor 60 and displayed On the display panel 70, the user can immediately control the temperature of the beverage in the ice storage space 11 for the user to replenish ice cubes and low-temperature water in real time.

In addition, with the temperature sensing module 60a provided in the ice storage space 11 of the second embodiment, the temperature difference of the condensation of water in the ice storage space 11 into ice is sensed through the temperature sensing module 60a, and Sending a signal to the control section 95 to control the operation of the compressor 91 can effectively reduce the number of startup and shutdown of the compressor 91, thereby extending the life of the compressor 91 and avoiding unnecessary waste of power.

The above are only the preferred embodiments to explain this creation, and are not intended to restrict the creation in any way, so that any modification or change to this creation under the same spirit of creation , Should still be included in the scope of protection of this creative intention.

10‧‧‧ refrigerator storage

11‧‧‧Ice storage space

111‧‧‧Inner side wall

12‧‧‧Ice hole

13‧‧‧Through hole

14‧‧‧Ice storage cover

20‧‧‧Snake tube

21‧‧‧ Outlet

22‧‧‧ Water inlet

23‧‧‧Drain

30‧‧‧Water outlet module

31‧‧‧Water outlet motor

32‧‧‧Outlet

33‧‧‧ button

40‧‧‧Stirring module

41‧‧‧Division cover

411‧‧‧hole

90‧‧‧Freezing system

91‧‧‧Compressor

92‧‧‧Condenser

93‧‧‧Expansion valve

94‧‧‧Evaporation module

94a‧‧‧First evaporator

94b‧‧‧Second evaporator

95‧‧‧Control Department

100‧‧‧ ice

42‧‧‧Stirring motor

421‧‧‧Central axis

422‧‧‧The first end

423‧‧‧The second end

424‧‧‧Stirring blade

425‧‧‧Fan

50‧‧‧Ice bucket

51‧‧‧Bucket lid

60‧‧‧Temperature sensor

60a‧‧‧Temperature sensing module

61a‧‧‧First temperature detection switch

62a‧‧‧Second temperature detection switch

70‧‧‧Display panel

80‧‧‧Shell

81‧‧‧accommodation space

82‧‧‧Housing upper cover

83‧‧‧ Exchange fan

FIG. 1 is a three-dimensional assembly diagram of a drinking water device capable of rapid cooling according to the first embodiment of the creation; FIG. 2 is an exploded perspective view of the drinking water device capable of rapid cooling according to the first embodiment of the creation; 3 is a cross-sectional view of a drinking water device capable of rapid cooling according to the first embodiment of the creation; FIG. 4 is a schematic diagram of placing ice cubes in a drinking water device capable of rapid cooling according to the first embodiment of the creation; 5 is a schematic diagram of the internal use of the refrigerator of the drinking water device capable of rapid cooling according to the first embodiment of the creation; 6 is a schematic diagram of the water outlet module of the drinking water device capable of rapidly cooling the first embodiment of the creation; 7 is a three-dimensional assembly diagram of a drinking water device capable of rapid cooling according to the second embodiment of the invention; 8 is an exploded perspective view of a drinking water device capable of rapidly cooling the second embodiment of the creation; 9 is a cross-sectional view of a drinking water device capable of rapid cooling according to the second embodiment of the creation; 10 is a schematic diagram of the operation of the freezing system of the drinking water device capable of rapidly cooling the second embodiment of the creation; and 11A and 11B are schematic diagrams of the freezing of the refrigerator of the drinking water device capable of rapidly cooling the second embodiment of the invention.

10‧‧‧ refrigerator storage

11‧‧‧Ice storage space

111‧‧‧Inner side wall

12‧‧‧Ice hole

13‧‧‧Through hole

14‧‧‧Ice storage cover

20‧‧‧Snake tube

21‧‧‧ Outlet

22‧‧‧ Water inlet

30‧‧‧Water outlet module

31‧‧‧Water outlet motor

32‧‧‧Outlet

40‧‧‧Stirring module

41‧‧‧Division cover

411‧‧‧hole

42‧‧‧Stirring motor

421‧‧‧Central axis

50‧‧‧Ice bucket

51‧‧‧Bucket lid

60‧‧‧Temperature sensor

70‧‧‧Display panel

80‧‧‧Shell

81‧‧‧accommodation space

82‧‧‧Housing upper cover

Claims (13)

A drinking water device capable of rapid cooling, including: A refrigerator, including an ice storage space, an ice inlet hole and a through hole, the ice inlet hole and the through hole are respectively connected with the ice storage space, the ice inlet hole is used for ice cubes and/or water to enter the Ice storage space; A coiled tube, which surrounds an inner side wall of the ice storage space, and includes a water outlet end and a water inlet end, and the water inlet end is connected to a water inlet device through the through hole; and A water outlet module, including a water outlet motor and a water outlet pipe, the water outlet motor is connected to the water outlet of the snake pipe through the through hole, the water outlet motor is used to draw water out of the snake pipe, and the water outlet pipe is connected to the water outlet motor ; Wherein, when the water outlet motor is running, the water in the water inlet device enters the inside of the snake pipe through the water inlet end of the snake pipe, then enters the water outlet motor from the water outlet end of the snake pipe, and finally The outlet pipe flows out. The drinking water device capable of rapid cooling as described in item 1 of the scope of patent application further includes a stirring module, the refrigerator also includes an ice storage upper cover, the stirring module is disposed on the ice storage upper cover, and includes a partition cover and An agitating motor, the partition cover includes a plurality of holes, is disposed at the bottom of the ice storage upper cover, and is located in the ice storage space, the agitation motor includes a central shaft and a stirring blade, one end of the central shaft extends To the partition cover, the stirring blade is disposed at the first end of the central shaft; wherein, when the stirring motor is running, the central shaft of the stirring motor drives the stirring blade to rotate, so that the stirring blade stirs the ice storage space Ice and/or water inside. The drinking water device capable of rapid cooling as described in item 2 of the patent application scope, wherein the central shaft of the stirring motor further includes a second end, the second end extends out of the top of the ice storage upper cover and is provided with a fan . The drinking water device capable of rapid cooling as described in item 1 of the scope of the patent application further includes a refrigeration system, including a compressor, a condenser, an expansion valve and an evaporation module constituting a circulation system, wherein The evaporation module further includes a first evaporator disposed on the inner side wall of the ice storage space for performing heat exchange on the water contained in the ice storage space, so that the water flows from the ice storage space The inner side wall gradually condenses toward the center. The drinking water device capable of rapid cooling as described in item 4 of the patent application scope further includes a temperature sensing module and a display panel, the temperature sensing module is electrically connected to the display panel and the freezing system, the temperature sensing The test module includes a first temperature detection switch and a second temperature detection switch, the first temperature detection switch and the second temperature detection switch extend into the water contained in the ice storage space, and the first There is a unequal distance between a temperature detection switch and the second temperature detection switch and the inner side wall of the ice storage space; wherein, when the freezing system is in operation, water is removed from the interior of the ice storage space The side wall gradually condenses toward the center, and the first temperature detection switch and the second temperature detection switch sense different temperatures at which water gradually condenses at different positions, so as to send a signal to a control part, respectively, to activate or deactivate the compression machine. The drinking water device capable of rapid cooling according to item 5 of the patent application scope, wherein the relationship between the first temperature detection switch and the second temperature detection switch is arranged in parallel in the ice storage space in parallel with each other, and the A temperature detection switch and a second temperature detection switch are oriented axially toward the bottom surface of the ice storage space; wherein, the first temperature detection switch is relatively close to the inner side wall of the ice storage space, and the second temperature detection The switch is away from the same inner side wall relative to the first temperature detection switch. The drinking water device capable of rapid cooling according to item 6 of the patent application scope, wherein the first temperature detection switch and the second temperature detection switch are temperature probes or temperature sensors. The drinking water device capable of rapid cooling as described in item 4 of the scope of the patent application further includes a housing having an accommodating space and an upper cover of the housing, the refrigerator and the freezing system are provided in the accommodating space In this case, the water outlet motor is arranged on the upper cover of the casing. The drinking water device capable of rapid cooling as described in item 8 of the patent application range, wherein the evaporation module further includes a second evaporator, the second evaporator is disposed in the accommodating space and used for Set up space for heat exchange. The drinking water device capable of rapid cooling as described in item 1 of the scope of patent application further includes a temperature sensor and a display panel, the temperature sensor extends into the water contained in the ice storage space, and is electrically connected The display panel. The drinking water device capable of rapid cooling as described in item 1 of the scope of the patent application further includes an ice injection bucket, which is provided in the ice inlet hole. The drinking water device capable of rapid cooling as described in item 11 of the scope of the patent application further includes a bucket cover, and the bucket cover is arranged on the water injection bucket. The drinking water device capable of rapid cooling as described in item 1 of the scope of the patent application further includes a drain pipe, one end of the drain pipe is disposed in the ice storage space, and the other end of the drain pipe is connected to a pumping device.

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