KR20140074693A - Ice dispenser and water dispenser equipped with ice maker using the same - Google Patents

Ice dispenser and water dispenser equipped with ice maker using the same Download PDF

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Publication number
KR20140074693A
KR20140074693A KR1020120142942A KR20120142942A KR20140074693A KR 20140074693 A KR20140074693 A KR 20140074693A KR 1020120142942 A KR1020120142942 A KR 1020120142942A KR 20120142942 A KR20120142942 A KR 20120142942A KR 20140074693 A KR20140074693 A KR 20140074693A
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South Korea
Prior art keywords
ice
making
water
opening
closing
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KR1020120142942A
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Korean (ko)
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이은영
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이은영
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Priority to KR1020120142942A priority Critical patent/KR20140074693A/en
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25CPRODUCING, WORKING OR HANDLING ICE
    • F25C5/00Working or handling ice
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25CPRODUCING, WORKING OR HANDLING ICE
    • F25C2400/00Auxiliary features or devices for producing, working or handling ice
    • F25C2400/04Ice guide, e.g. for guiding ice blocks to storage tank

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  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Mechanical Engineering (AREA)
  • Thermal Sciences (AREA)
  • General Engineering & Computer Science (AREA)
  • Devices For Dispensing Beverages (AREA)

Abstract

The present invention relates to an ice dispenser and a drinking water supply apparatus capable of making ice using the same, and, more specifically, is to secure to dispense ice smoothly by applying a ice dispenser having a separating unit and an opening and closing body operating the separating unit, wherein the separating unit includes: a dispensing member moving the ice to be guided toward the ice dispensing part of an ice storage container storing the ice; and a separating member separating the ice adhering to each other. The ice dispenser according to the present invention for the effect above comprises: the ice storage container with the dispensing part; the opening and closing body opening and closing the dispensing part of the ice storage container; and the separating unit operated by an operating unit, and moving the ice contained in the ice storage container. In addition, according to the present invention, a drinking water supply apparatus capable of making ice using the ice dispenser comprises: an ice making container filled with ice making water; an ice making unit with an ice making body submerged in the ice making water, allowing the ice made thereon, and allowing the ice separated therefrom; a dispensing unit including an opening and closing member and a displacing unit; the ice storage container having the dispensing part, and storing the ice after receiving the ice through the dispensing unit; and the ice dispenser including the opening and closing body and the separating unit, wherein the opening and closing member opens and closes the lower opening of the ice making container in order to dispense the ice separated from the ice making body, the displacing unit moves the opening and closing member, the opening and closing body opens and closes the dispensing part of the ice storage container, and the separating unit operated by the operating unit moves the ice storage container having the ice contained therein.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to an ICE dispenser and an ICE dispenser,

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to an ice discharge device and an ice-

More specifically, by introducing a biasing means for moving the ice toward the ice discharging portion by moving the ice to the ice discharging portion or an ice discharging device for separating the ice from each other by rocking the ice,

In addition, the separating means includes an exhaust member and further includes an opening / closing member for opening and closing the ice discharging portion. The opening / closing member is connected to the separating means to operate, thereby not only separating the ice from each other, and,

Further, the drinking water supply device provided with such an ice discharge device can cool the stored water of the cold water tank without any separate cooling device by using ice or ice-making water produced by the ice making means, or both,

The ice making residual water remains in the ice tray or is conveyed as it is to the cold water bottle without being supplied to a separate storage container. Therefore, the structure is simple and the cooling water cooling efficiency can be increased,

Also, since the ice tray is not rotated, the load applied to the motor for driving can be drastically reduced, so that the remaining power can be prevented, power consumption can be reduced,

In addition, the ice-making water is supplied from a cold water tank to a drinking water supply device having an innovative ice-making function capable of shortening the ice-making time.

A technology to manufacture and provide ice with drinking water supply is Patent Registration No. 0407867 (November 20, 2003) [Cold Water Purifier with Ice Maker].

The above patent discloses a technology that can reduce the installation space of the ice maker by giving an ice-making function to the cold / warm water purifier and can quickly and efficiently freeze ice by using freezing point drop, There is one.

In addition, in the utility model registration No. 0285212 (July 30, 2002) [a cold / hot water supply device including an ice maker], a technique to easily enjoy the cold water and the hot water ice is provided by installing a relatively simple device in the hot / .

On the other hand, Patent Registration No. 0729962 (Jun. 13, 2007) (a cooling and heating water system and device capable of obtaining cold water simultaneously with an evaporator as an evaporator) In addition, since cold water can be obtained at a constant temperature or less as a raw material for de-icing, it is possible to reduce the amount of ice making according to the change in raw water temperature and ambient temperature We have proposed a technique to minimize the change.

There is also a Utility Model Opening No. 2010-0011185 (Nov. 17, 2010) [Ice Water Purifier]. The public utility model provides an ice water purifier capable of making ice and cold water with one evaporator, Wherein a nozzle portion having a nozzle hole provided at a predetermined interval on a concentric circle centering around the ice-making pin is provided so that chilled water pumped from the cold water tank is sprayed from the nozzle hole to form ice on the peripheral surface of the ice- And an ice water purifier for allowing a flower-shaped ice having various petals to be de-iced according to the number of the nozzle openings.

However, such a conventional cold / warm water purifier having an ice making function has a problem in that the cooling water step coupled to the cold water tank and the ice making means for ice making are separately introduced for providing cold water, which causes a rise in manufacturing cost. There is a problem in that it restricts the miniaturization and compactness of the water cooler and the water purifier in terms of technical limitations.

In addition, there is a problem that the ice making water takes a long time because the ice making water is supplied in the water tank of the room temperature, and the ice water purifier can not function properly in the summer season.

In addition, since de-icing water is poured in the process of de-icing after de-icing and the de-icing water is supplied again, it takes a lot of time to fill the de-icing water and the additional energy for freshly cooling the de- There is a problem that consumption occurs.

On the other hand, in the prior art relating to an ice supply device unique to an ice supply device, a refrigerator or a water purifier,

Japanese Patent Application Laid-Open No. 10-2011-0079968 (published on July 12, 2011) [ice storage device and refrigerator and water purifier including the ice storage device].

The present invention discloses an ice storage device capable of being discharged through various routes, and a refrigerator and a water purifier including the ice storage device,

An ice storage box; A plurality of ice discharge ports provided in the ice storage box; An ice transfer member provided in the ice storage box for selectively transferring ice to one of the plurality of ice discharge ports according to a rotation direction; An opening / closing unit provided at at least one of the plurality of ice discharge ports and opening the predetermined ice discharge port when the ice transfer member rotates in a specific direction to transfer ice in a predetermined ice discharge port direction; And an ice crushing device provided adjacent to the opening and closing unit for crushing ice that has passed through the ice discharge port equipped with the opening and closing unit.

There is also an ice / beverage dispenser with an in-line ice crusher, as disclosed in Japanese Patent Application Laid-Open No. 10-2008-0045236 (published on May 22, 2008)

The disclosure relates to commercial ice dispensers and ice dispensers and ice and beverage dispensers such as those used in fast-service restaurants.

There is also a patent application Laid-Open No. 10-2008-0029201 (published on Apr. 03, 2008) [an ice taking device and a refrigerator equipped with the ice taking device]. The patent discloses an ice- And a refrigerator having the same.

In addition, there is a patent registration No. 10-0590796 (registered on June 09, 2006) [an ice dispenser equipped with a combined discharge pipe]

The above patent discloses an ice dispenser equipped with a complex discharge pipe which can discharge the ice and powder ice through one discharge pipe and discharge port, thereby reducing the volume occupied by the discharge pipe and discharging the powder ice smoothly. About

However, all of these conventional technologies use a motor or an actuator for discharging ice, so it is urgent to propose a power saving non-powered, analog type ice discharge device, and a proposal of an ice discharge device associated with another driving factor is required.

On the other hand, attempts have been made to solve problems by detecting leaks generated in piping, piping connection parts, piping and filter connection parts in a water purifier or a cold / hot water machine.

An example of this is Patent Registration No. 10-0794132 (registered on Jan. 4, 2008) [Water leakage detection device for water purifier]

The patent discloses a frame type device including a water collecting area for receiving water falling inside a water purifier and a water leakage detecting area for detecting a water purifier leak, the water leakage detecting device being installed at a lower part of the water purifier.

In addition, there is a patent registration No. 10-0794118 (registered date Jan. 04, 2008) [a water purifier leak monitoring device and its method]

The above patent discloses a water purifier for detecting the leakage of the water purifier by using the output times of the low pressure cutoff switch LPS and the high pressure cutoff switch HPS provided at the front and rear ends of the water purifier filter, The present invention relates to a water leakage detection device and a method thereof, and more particularly, to a water leakage detection device and a water leakage detection method therefor. The water leakage detection device and the method include a filter portion for purifying raw water introduced into a water purifier and purifying the purified water, The water purifier detects the pressure of the purified water flowing into the discharge unit and determines that the purified water pressure due to the leakage of the purified water is a leakage of the water purifier when the low pressure and the high pressure are alternately repeatedly detected for a predetermined time , The raw water flowing into the water purifier and the raw water flowing into the filter are blocked.

Furthermore, Japanese Patent Application Laid-Open No. 10-2009-0000057 (published on Jan. 07, 2009) (a water purifier and information providing method for providing information on the operation status and management history of a water purifier)

The present invention relates to a water purifier, including a sensor unit for collecting information on a water purifier, an operation state analyzing unit for analyzing the operation state of the water purifier, A control unit, a memory unit for storing information, and a communication port for mediating information transmission to the external check device. The contents of the service and the contents of the service generated according to the current status of the water purifier and the use of the water purifier can be confirmed, The present invention provides an advantage in that the sensor unit can be quickly and conveniently checked and managed.

In addition, there is a patent registration No. 10-0726402 (registered date June 01, 2007) [water supply cutoff device of a built-in sink water purifier]

The above patent relates to a built-in water purifier water shut-off device installed in a sink of a kitchen in order to purify tap water. When the water purifier is in use, So that the water supply can be quickly blocked.

However, all of these prior arts do not disclose a concrete method of how to install the actual leak sensor when the water receiving member having the inclined portion is used, and when using the chip type leak sensor mounted on the PCB, And does not offer a solution to increase commerciality and versatility by applying leak detection means to already installed and installed cold / hot water system and water purifier.

SUMMARY OF THE INVENTION The present invention has been made in order to solve the above problems, and it is an object of the present invention to provide a refrigerator which has ice cubes for moving ice cubes toward an ice cubicle for storing ice cubes or separation means for oscillating ice cubes It is aimed to ensure smooth ice discharge by introducing an ice discharge device.

In order to prevent the ice from melting due to melting of the ice cubes due to a change in the temperature of the ice bucket and preventing the ice from being smoothly discharged, a separation member An ice discharge device for operating the means through the opening / closing body, and a drinking water supply device having an ice making function using the ice discharge device.

On the other hand, according to the present invention, a water receiving member having an inclined portion is introduced into a housing of a cold / hot water machine or a water purifier, and a water leakage sensor is arranged at the inclined portion of the water receiving member, And to provide a drinking water supply device having an ice making function using the ice discharge device.

In addition, in the present invention, in order to solve the problem that the leak detection sensitivity due to the thickness of the PCB is low when a leakage detection sensor made of a PCB having a chip type or the like mounted thereon is used, the detection member is arranged at the lower portion, And an object of the present invention is to provide a device for supplying drinking water having an ice making function using the ice discharging device.

According to another aspect of the present invention, there is provided an ice discharge device including a sensing member such as a chip type mounted on a lower portion of a PCB for constituting a water leakage sensor separately for initial detection of leaking water or falling water, And an object thereof is to provide a provided drinking water supply device.

Further, according to the present invention, the water receiving member is constituted by a cushion member for supporting the lower portion of the housing, so that the leakage detection function can be sufficiently introduced without changing the internal structure of the existing cold / hot water and water purifier. And an ice-making device for ice-making the ice-making device using the ice-making device.

In the meantime, according to the present invention, water stored in a cold water tank is cooled without using a separate cooling device by using ice produced in an ice-making means as well as an ice-making means, and ice- Which can dramatically simplify the configuration of the ice making apparatus and shorten the ice making time, and a drinking water supplying apparatus having an ice making function using the same.

According to the present invention, the first mode for ice-making and the second and third modes for ice-making are progressed by the ice-making means as the ice-making cylinder moves to the first, second and third positions with respect to the ice- In the second mode when the barrel is separated from the ice-making body, to the cold water bottle in the second position. In the third mode to the third position, ice can be conveyed to the ice bucket, thereby producing a smooth cold water by ice, an ice discharge device capable of utilizing ice after preferential cold water generation, and a drinking water supply device having an ice- The purpose is to provide.

In addition, in the present invention, the ice-making water supplied to the ice-making tray is supplied to the ice-making tray in the first mode, and the ice-making water remaining in the ice-making tray is not poured into the cold water tank after the ice- It is possible to rapidly perform the ice making operation. In addition, in the ice making operation, the ice making container is moved without being turned. Therefore, when the ice making container is pivoted to transport ice firstly scraped into the ice making container, And an object of the present invention is to provide an ice discharge device free from problems of designing, cause of trouble, increase of electricity consumption, increase in unit cost due to adoption of high performance motor, and drinking water supply device having an ice making function using the ice discharge device.

It is still another object of the present invention to provide an ice discharge device in which a structure of a conveying guide member for conveying and discharging ice of an ice-making device to and from an ice bucket is combined with ice making and a drinking water supply device using the same.

To achieve these and other advantages and in accordance with the purpose of the present invention, as embodied and broadly described herein,

An ice tray having a discharge portion;

An opening / closing body for opening / closing the discharge port of the ice bin; And

Separating means operated by operating means for moving ice contained in the ice bucket;

And a control unit.

Further, in the ice discharge device according to the present invention

The operating means is an opening / closing member connected to the separating means, and the separating means further comprises a discharging member for pressing the ice to the discharging portion.

Further, in the ice discharge device according to the present invention

The ice cistern is provided with a guide portion formed toward the discharge portion,

And the separating means has a wing portion moving along the guide portion.

In the ice discharge device according to the present invention,

Wherein the opening and closing member has a pressing portion and an opening and closing portion which are connected to each other, and a rotating shaft is provided between the pressing portion and the opening and closing portion, and the rotating shaft is provided with an elastic body,

And the opening / closing end of the opening / closing body is connected to the separating means through a connecting shaft.

Also, the ice discharge device according to the present invention and the drinking water supply device having an ice making function using the ice discharge device

An ice-making cylinder filled with ice-making water;

An ice-making unit including an ice-making body which is immersed in the ice-making water to perform ice-making and de-icing;

An opening and closing member that opens and closes a lower opening of the ice-making cylinder to discharge ice when the ice-making body is scooped, and a displacing unit that moves the opening and closing member; And

An ice cube having a discharge part,

An opening / closing member for opening and closing the discharge portion of the ice bin, and

An ice discharge device operated by the operating means and including separating means for moving ice contained in the ice cube container;

And a control unit.

Meanwhile, an ice discharge device according to the present invention and a drinking water supply device having an ice making function using the ice discharge device

A water receiving member provided in the housing and having an inclined portion; And

A water leakage sensor provided on an inclined portion of the water receiving member;

And a leakage detection means including a leakage detection means.

Further, in the ice discharge device according to the present invention and the drinking water supply device provided with the ice making function

The water leakage sensor includes a PCB and a sensing member mounted thereon. The PCB is disposed on the upper portion, the sensing member is disposed in the lower portion in a reverse direction,

Preferably, the water receiving member includes a cushion member provided at a lower portion of the housing, and the water leakage sensor is installed at an inclined portion of the cushion member formed by being pushed by the lower edge of the housing.

Further, the ice discharge device according to the present invention and the drinking water supply device having an ice-making function using the ice discharge device

housing;

An ice-making container filled with iced water contained in the housing;

An ice-making unit including an ice-making body which is immersed in the ice-making water to perform ice-making and de-icing;

A discharging means for discharging ice upon deicing of the ice making body; And

A water receiving member provided in the housing and having an inclined portion, and

A water leakage sensing means including a water leakage sensor provided at an inclined portion of the water receiving member;

.

In addition, an ice discharge device according to the present invention and a drinking water supply device having an ice-making function using the ice discharge device

Water supply section

housing;

A water reservoir built in the housing; And

A conduit opening and closing body including a tube for supplying water of the water supply unit to the water storage tank, a solenoid valve provided on the tube for opening and closing a channel of the tube, and a PCB on which the microchip for controlling the solenoid valve is mounted .

Meanwhile, in the ice discharge device according to the present invention and the drinking water supply device having the ice making function,

And water leakage detection means including a water receiving member provided on the housing and having an inclined portion and a water leakage sensor provided on an inclined portion of the water receiving member,

Wherein the water receiving member has an inclined wing for guiding leakage water and a leakage water storage portion connected to the inclined wing,

Wherein a variable deformable concavo-convex portion is formed in the end portion when a load is applied to the oblique vane,

Preferably, the storage unit is provided with a leak detection sensor fixing bracket.

The ice discharge device of the present invention and the drinking water supply device using the ice discharge device according to the present invention can be used as biopsy means for moving ice to move the ice toward the ice discharge portion, An ice discharge device with separation means is introduced to ensure smooth ice discharge.

Further, the ice discharge device and the drinking water supply device using the ice discharge device according to the present invention may further include a discharge member for discharging the ice toward the discharge portion and discharging the ice to the discharge portion, It is possible to prevent ice from being discharged to the user by inserting the ice discharging device which is connected to the opening and closing member to operate the separating means having the member at the same time.

In the meantime, the drinking water supply device according to the present invention introduces a water receiving member having an inclined portion in the housing of the cold / hot water and purifier, arranges the leak detecting sensor at the inclined portion of the water receiving member, It is possible to prevent the secondary damage of the sensor chip. In addition, in the case of using a water leakage sensor having a PCB mounted with a sensing member such as a chip type, In addition, a sensing member such as a chip type is mounted on the upper part of the PCB constituting the water leakage sensor separately for the initial detection of water leaking and falling from the upper part and also on the upper part thereof And further, the water receiving member is constituted by a cushion member for supporting the lower portion of the housing, Leak detection can be introduced without changing the internal structure of the water purifier. Leakage detection means can be applied to the already installed and installed cold / hot water system and water purifier, which can dramatically improve commerciality and versatility.

On the other hand, in the drinking water supply apparatus having an ice-making function according to the present invention, in introducing the ice-making function, the ice-making cylinder in which the ice-making body of the ice-making means is locked does not move and opens and closes only the lower portion of the ice- And a first guide means for cooling the stored water of the cold water tank without using any separate cooling device and transferring the remaining ice to the cold water bottle without remaining in the ice tray or being supplied to a separate storage container Since the structure is simple and the cold water cooling efficiency can be enhanced and the ice tray is not rotated, the load applied to the motor for driving can be drastically reduced, thereby preventing the bottom balance and reducing the power consumption. Further, It is possible to reduce the time of icing by constructing it to be supplied from cold water tank.

According to another aspect of the present invention, there is provided a drinking water supply device having an ice making function, wherein the ice water produced by the ice making means is used to cool stored water in the cold water tank and to receive ice water from the cold water tank, The ice-making water of the ice-making cylinder is not drained and remains, and the ice-making water of the ice-making tray after being scooped is supplied additionally with a necessary amount (that is, an amount corresponding to ice) In addition, the ice-making water supplied to the ice-making cylinder is supplied from the cold water tank at the time of the first mode, and the ice-making water remaining in the ice- Which is not poured into a cold water tank or the like, so that ice can be drastically accelerated in a subsequent ice-making mode, When the ice tray is pivoted to transport the ice that has been firstly scraped into the ice tray, the load applied to the driving means such as a motor becomes large, which causes difficulties in designing, causes of trouble, , There is no problem of a rise in the unit price due to the adoption of a high-performance motor. In the deicing operation, the ice tray is moved away from the ice-making unit by the swing motion, so that the ice- The conveying guide member for conveying and discharging the ice to the ice bucket is connected to the ice making passage to further simplify the structure and the ice tray can stably and swing through the displacement means without shaking.

Further, in the drinking water supply device according to the present invention, the ice supplying device introduces a fixed body having an ice discharging portion into an ice cube storing ice, and the discharging portion is opened by the opening / closing body without any power, As well as a stirrer capable of separating the ice sticking to each other according to the elapsed time of storage in the ice cube, and a resistance member capable of reducing the falling speed of the ice are introduced, and furthermore, And other measures to prevent the outside air from entering into the ice bucket can be expected to achieve remarkable effects such as reduction of power consumption, prevention of residual power, and securing operation reliability.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 and FIG. 2 are schematic views of a drinking water supply apparatus with improved leakage prevention function according to the present invention;
Fig. 3 is a view showing a water receiving member different from that of Fig. 1; Fig.
4 is an external perspective view of a drinking water supply apparatus according to the present invention.
FIG. 5 is a first exploded perspective view of a drinking water supply device according to the present invention. FIG.
6 is a perspective view of a secondary disassembly portion of the drinking water supply device according to the present invention.
7 to 9 are views related to the operation of the ice making means, the first and second guide means in the drinking water supply apparatus according to the present invention.
11A is a view of a pipeline opening / closing member for improving the water leakage prevention function.
Fig. 11B and Fig. 11C are circuit diagrams for a pipe open / close body.
12 is a schematic view showing ice discharging means having another type of ice-making container and opening and closing member.
13 is a schematic configuration diagram of an ice-making cold / hot water generating machine according to the present invention.
FIG. 14 is an external perspective view of an ice making machine according to the present invention. FIG.
FIG. 15 is a schematic view of a mixed-water supply device multifunction apparatus having an ice-making function according to the present invention; FIG.
FIGS. 16 and 17 are diagrams showing a process in which the ice tray is pivoted through the displacement means according to the present invention, and the operation state of the conveyance guide member is thereby changed.
FIG. 18 is a schematic view of an ice supply device associated with the ice making means and the second guide means shown in FIGS. 4 to 9 in the drinking water supply device according to the present invention; FIG.
19 is a partial sectional view showing an exploded perspective view and a change in operating state of the ice discharge device in the drinking water supply device according to the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The present invention will now be described in detail with reference to the accompanying drawings.

While the present invention has been described in connection with certain embodiments, it is obvious that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the invention. It is to be understood, however, that the invention is not intended to be limited to the particular forms disclosed, but on the contrary, is intended to cover all modifications, equivalents, and alternatives falling within the spirit and scope of the invention.

In the drawings, the same reference numerals are used for the same reference numerals, and in particular, the numerals of the tens and the digits of the digits, the digits of the tens, the digits of the digits and the alphabets are the same, Members referred to by reference numerals can be identified as members corresponding to these standards.

In the drawings, the components are expressed by exaggeratingly larger (or thicker) or smaller (or thinner) in size or thickness in consideration of the convenience of understanding, etc. However, It should not be.

The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The singular expressions include plural expressions unless the context clearly dictates otherwise. In the present application, the term " comprising " or " consisting of ", or the like, refers to the presence of a feature, a number, a step, an operation, an element, a component, But do not preclude the presence or addition of one or more other features, integers, steps, operations, components, parts, or combinations thereof.

Unless defined otherwise, all terms used herein, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. Terms such as those defined in commonly used dictionaries are to be interpreted as having a meaning consistent with the contextual meaning of the related art and are to be interpreted as either ideal or overly formal in the sense of the present application Do not.

It is to be understood that the first to second aspects described in the present specification are merely referred to in order to distinguish between different components and are not limited to the order in which they are manufactured, It may not match.

The concept of the drinking water supply device of the present invention is applied to an ionizer, a medical water purifier, a cold water heater using bottled water contained in a water tank, and a simple water heater, as well as a purifier for purifying tap water after being connected to a water pipe Therefore, the present invention should not be construed to be limited by the description of water purifiers, cold / hot water machines, and multifunctional units thereof.

As shown in FIG. 1, a cold / hot water supply or water purifier A having a water leakage sensing means according to the present invention is provided in a housing H provided with a cold cork C1 or C2 on the front side ), And a water leakage sensor.

In the present invention, it is preferable that the water-receiving member constituting the water-leakage detecting means is provided at a lower portion of a pipe and a part through which water flows, such as a filter, a cold water tank, and a hot water tank. Preferably, the size and structure of the housing are not changed, It is preferable to adopt it without changing the arrangement structure such as a bottle, a hot water bottle, or the like.

In addition, the water receiving member and the leak detection sensor constituting the leak detecting means detect the falling water due to the condensation of the natural air in the middle of the water, which is generated in parts for cooling the water in the cold water container such as the condenser, To prevent the occurrence of

It is preferable that the arrangement position of the water receiving member and the water leakage sensor is selected and the sensing sensitivity of the sensor is adjusted so as to detect the minimum water leakage amount which may cause a short circuit or an electric shock.

1, the water receiving member 110A constituting the water leakage detecting means 100 according to the present invention is provided in the housing H, and in particular, is housed in the housing and has an inclined portion 111a.

The water leakage sensor 120 constituting the water leakage sensing means 100 is provided at the inclined portion 111a of the water receiving member and is arranged at the lowest point 111m of the water receiving member inclined portion in order to improve the sensitivity of sensing the water leakage.

In addition, the leakage sensor 120 is connected to the microcomputer so as to block the raw water from being blocked by the solenoid valve when the leakage detection and the judgment are made, and in consideration of the mass productivity and the cost competitiveness

And a sensing member 123 mounted on the PCB 121. The sensing member may utilize a known chip type component.

Furthermore, in order to solve the problem of low sensitivity of leak detection due to the thickness of the PCB, the reverse mounting structure in which the sensing member 123 is arranged at the lower part and the PCB 121 is arranged at the upper part is introduced.

Also, as can be seen in the upper right triple-dotted circle on the upper right side of Fig. 1,

A separate fixture 130 is introduced into the lowest point 111m of the inclined portion 111a of the water receiving member 110A to ensure installation of the reversed leak sensor 120,

The fixture 130 has shelves 131 to support both sides of the PCB 121 and has an opening 133A at the bottom thereof to expose the sensing member 123 and to sense leakage collected at the lowest point 111m .

As can be seen in the two-dot-dashed circle at the bottom right of Fig. 1,

A sensor 123 (123A) such as a chip type is provided on the upper part of the PCB 121 as well as the lower part of the PCB 121 for the initial detection of water leaking and dropping from the upper part as well as the detection of leakage water collected in the water receiving part 110A. As shown in Fig.

In this case, the fixing member 130 is provided with openings 133A and 133B for exposing the sensing members 123A and 123 on the upper and lower portions of the shelf portion 131, respectively.

Next, as shown in FIG. 2, the water / cooler / water purifier A provided with the water leakage detecting means 100 according to the present invention applies leak detection means without any modification or operation to the already installed and installed cold / And versatility,

The water receiving member is constituted by a cushion member particularly supporting the lower portion of the housing so that the leakage detection function can be sufficiently introduced without changing the internal structure of the existing cold / hot water and water purifier.

That is, in the leakage sensing means 100 of the present invention, the water receiving member 110B includes a cushion member 113A provided at a lower portion of the housing H, And can be configured to be installed on the inclined portion 111b of the cushion member 113A formed by being pushed by the edge H1.

Further, the cushion member 113A is composed of an outer shell and an inner shell, and the inner shell is composed of elastic members such as various air, liquid, cotton, and foam plastic that can be compressively deformed, and the shell is preferably made of a waterproof member.

Further, the cushion member 113A may be formed to have a shape such that the cushion member is deformed to a certain degree by the weight of the water purifier or the cold / hot water heater A to support the water purifier or the cold / hot water generator A, It is preferable that the light receiving member 113B is separately provided inside.

The cushion member 113A forms an inclined portion 111b because the edge H1 of the housing H of the water purifier or the cold / hot water generator A where the load is concentrated is intensively pressed and descends more than other portions,

The light receiving member 113B is provided with three or four or more height adjusting members, particularly a screw-tightening and loosening degree, so that the leakage can be assuredly gathered at the corner H1 portion of the housing H, that is, And a height adjusting member 113b having a screw portion whose height is easily adjusted according to the height of the adjusting member 113b,

It is preferable to be inclined toward the water leakage sensor 120 by a certain angle "? &Quot; as compared with the vertical line" X ", as can be seen in the one- .

The leakage sensor 120 may be arranged at all four corners H1 of the housing H in the form of a rectangular parallelepiped or may be arranged at only some corners.

As shown in Fig. 2, when the inclined portion 111b of the lower cushion member 113A at any one of the four corners H1 of the housing H is lower due to the height adjusting member 113b, The leakage detection sensor 120 can be introduced.

When a water leakage sensor is provided on a part or all of the corner H1 of the housing H, the installation structure may have a structure that can be confirmed in the one-dot chain line on the upper right side of Fig.

That is, the light receiving member 113B has a recess 113 having a depth corresponding to a portion where the water leakage sensor 120 is installed, and in particular, the sensing member 123 of the water leakage sensor 120 is exposed Structure.

When the leakage detection means 100 is constructed using the cushion member 113A,

The structure in the one-dot chain line at the upper right of FIG. 2 and the structure in the one-dot chain line in FIG. 1,

That is, a normal alignment structure in which the PCB 121 constituting the leak sensor 120 is arranged below the sensing member 123

A reversing arrangement in which the PCB 121 is arranged on the upper portion of the sensing member 123 can be adopted.

Further, the cushioning member 113A may have a structure in which the cushioning member 113A has a perforation at the position of the retention groove 113a of the hard supporting member 113B, or the inner skin is omitted or minimized, and only the outer skin is present.

In FIG. 2, the degree of shrinkage of the cushion member, particularly the degree of shrinkage at the corner of the housing, is exaggerated for convenience.

FIG. 3 shows a water receiving member of a different form from that of FIG.

The water receiving member f has an inclined wing f2 for guiding the leakage water and a leakage water storage portion f1 connected to the inclined wing f2.

When the load is applied to the inclined wing (f2), a deformable variable concavo-convex portion (f4) is formed at the end portion. The variable concave-convex part can be easily combined with the water-receptacle sensor and the water-leakage sensor in a universal manner even if the space size surrounded by the front and rear left and right panels of the drinking water supply device such as the water purifier or the cold / hot water heater is variable .

In the present invention, the mounting position of the water receiving member may be arbitrarily varied. In addition, in the case of separating the water-receiving member for installation, maintenance, and maintenance, the water-receiving member can hold the variable concave / convex portion f4 by hand (or with a tool) and can serve as a kind of grip,

It is possible to fix the water receiving member more completely by fitting a commercial M3 screw to the clearance between the variable concave / convex portions f4.

Further, a leak detection sensor fixing bracket f3 is provided at the center of the storage unit f1. The fixing brackets f3 are paired and can be easily fixed by fitting a leak detection sensor in the fixing gap f3a therebetween.

On the other hand, the improvement of the water leakage prevention function in the drinking water supply device can be improved in addition to the leakage detection means, the ball-top valve for opening and closing the pipe, and the solenoid valve provided in the pipe.

In other words, in connection with the drinking water supply device provided with the ice-making means shown in FIGS. 5 to 10, FIG. 11A shows the integrated pipe opening / closing body WD.

This can be installed in a water reservoir (a water tank, a water tank, a water tank, a cold water tank, a hot water tank, etc.)

11A, the ice making cylinder 220, the motor constituting the displacing means 260, the water-cooling cylinder 210, the motor constituting the displacement means 260, the motor (the combination of the opening and closing member 221 and the first guiding means G1 and the second guiding means G2) , And the ice container 250 is installed in the coupling hole of the cover Ha 'that covers the first attachment Ha.

The conduit opening / closing body WD includes a conduit Nt, a solenoid valve C provided on the conduit to open and close the conduit, and a PCB (not shown) on which a microchip for controlling the solenoid valve is mounted .

When such pipe opening / closing body WD is used, it is possible to integrate a ball-top valve and a solenoid valve dispersed in a plurality of places, and the cut-off portion of the tube forming the pipe can be reduced, thereby drastically reducing the risk of leakage.

The tubular body Nt is composed of upper and lower nozzles N1 and N2 passing through upper and lower surfaces of a case 11S with a built-in PCB. Tubes are connected to the upper nozzles and water is discharged to the lower nozzles.

Furthermore, the pipe opening / closing body (WD) incorporates the water level detection function in the PCB. That is, a water level sensor 11s for detecting the water level in the cold water tank or the water purification tank, is exposed and connected under the case.

On the outer circumferential surface of the lower water supply nozzle N2, there is provided an insertion bolt portion which is fitted in a fixing portion such as a cover Ha 'for covering the first attachment member Ha, (WD) integrated module is easily mounted.

This 'pipe opener' is more generalized as 'water level sensor for water purifier (or cold / hot water heater) and water channel open / close valve integrated module'.

11B and 11C show circuit diagrams related to the function of such channel openers or modules. 11B shows a case where a commercial 220V power source is used, and FIG. 11C shows a case where a 24V power source through a separate adapter is used. Its common functions are described below.

1. 24V Vs 220V

- Shovel type water purifier uses 24V pump, 24V for pump and sol valve drive power supply - It has commercial power (220V) adapter to convert it to 24V.

2. Capacitive sensor

- Water level sensor and water leakage sensor use capacitive sensor. - Recent trend of using capacitive expression

3. 220V Schematic

- R2, C2 at the input; Noise elimination of input power (commercial power)

          D1, D3; Input power rectification

          C1; Rectified power smoothing

D2; Smooth Power Constant Voltage - The constant voltage power is supplied to the sensor and transistors (Q2,3,4) and to the porter coupler (U1) as the drive power (VCC).

- Overview of operation when the sensor detects high water level or water leakage

; When one of the sensors is sensed, the transistor Q2 or Q3 or Q4 connected thereto is turned off from the on state, and when the transistor is off, the photo coupler U1 is turned on and off, and when the photo coupler is off When the triac (Q1) is turned off and the triac is turned off, the power supply to the solenoid valve (SOL1) of the commercial power supply is cut off.

- A bridging diode (BD) is provided on the sole valve (SOL1) side. - When a commercial power supply (AC 220V) is supplied to the solenoid valve, the noise is significant, so bridge diodes are connected to reduce noise.

- A UV lamp or other power supply is connected to SOL2.

4. 24V Schematic

- Adapter connected to J1 (commercial power is converted to DC 24V), output power (24V) of adapter is supplied to pump (connected to J2) and sol valve (connected to J4).

- C3, EC3, U1, C4, EC2 (constant voltage circuit); Constant voltage of the output power of the adapter and supply it to the sensor and transistor as driving power (VCC)

- Pressure switch (connected to J3); It is installed in the piping and opened when the water pressure of the piping becomes high. When opened, relay (K1) is opened and power supply (24V) is blocked from supplying to pump and solenoid valve.

- header pin (connected to JP5); When the pressure switch is not connected, the power line is short-circuited. - If the pressure switch is not connected, the power line is always open. Only one pressure switch and header pin are connected.

- Overview of operation when sensor is detected

; When any one of the three sensors is activated (full or leak detection), the transistors Q3, Q4 and Q5 connected thereto are turned on and off, and when the transistors Q3, Q4 and Q5 are off, When the transistor Q2 is turned on and the transistor Q2 is turned on, the other transistor Q1 connected thereto is turned off from the on state. When the transistor Q1 is turned off, the relay K1 is turned off, 24V) is blocked from being supplied to the pump or solenoid valve. .

4 and 5, a drinking water supply apparatus A having an ice making function according to the first embodiment of the present invention basically comprises a water supply pipe W1 as a water supply unit, And can be routed through the filter assembly (F) as required (when the water tank contains ground water, etc.)

The supply device A may be configured to use both the tap water W2 and the water bottle W1 as a water supply part, such as the compound machine A2 of the water cooler and water purifier shown in FIG.

As shown in FIGS. 4 to 6, the drinking water supply device A having the ice making function according to the first embodiment of the present invention includes an ice-making container 220 in which the ice-making body of the ice- Only the opening and closing member 221 for opening and closing the lower opening portion 220a of the ice making box does not move and swings to the displacing means to discharge the ice, so that the ice making process and the ice discharging process are performed It is possible to minimize the power loss and to reduce the load to reduce the occurrence of the residuals.

In the external perspective view of Fig. 4, a cold water cork C1 connected by cold water and a hot water coke C2 connected by hot water can be identified as in a normal water purifier.

5, the upper and lower, left and right, front and rear panels H1A and H1B (H2A and H2B) (H3A and H3B) constituting the drinking water supply device (A) housing H can be identified,

The front panel is composed of an upper front panel H3A and a lower front panel H3A 'to which a cold water output tray H3a (to which the grille H3b is coupled) is connected and in which the cold corks C1 and C2 are arranged ,

The upper panel H1A is composed of a service door H1b and a fixed panel H1a which are hinged to allow access to a built-in ice making-related component, a cold water container, a hot water container, etc. for cleaning and troubleshooting.

The lower panel H1B may be constructed in a sliding manner in consideration of convenience of storing and separating the cold water container W1,

The filter assembly F and the intermediate panel H4 for fixing the upper and lower cold water bottles or the ice-making-related member.

As required, the housing and each panel can be modified in various forms, structures, and combinations.

4 to 9, a drinking water supply apparatus A having an ice making function according to the first embodiment of the present invention includes an ice-making cylinder 220 which basically is filled with ice-making water, (See FIG. 6) for discharging ice (IC) during the deicing operation of the ice making body 231. The ice making body 231 includes ice making bodies 231, .

The discharging means E includes an opening / closing member 221 for opening / closing the lower opening 220a of the ice-making cylinder 220, and a displacement means for moving the opening / closing member.

A detailed description of the ice making and ice-making mode and the like in the ice-making body 231 immersed in the ice-making water contained in the ice-making cylinder 220 with respect to the ice-making device 230 will be described in detail with reference to FIGS. And are omitted in FIG. In Figs. 4 to 7, piping related to the flow of water is not shown for convenience.

6 and 9, in a drinking water supply apparatus A having an ice making function according to the first embodiment of the present invention

In the ice-making cylinder (220), an ice-making body (231) constituting the ice-making unit (230) is fixedly arranged at a position locked with ice-

The ice making cylinder 220, the combination of the opening and closing member 221, the first guiding unit G1 and the second guiding unit G2, the motor constituting the displacing unit 260, the cold water tank 210, (250) is placed in the first attachment (Ha)

The first mounting body Ha is placed in a second mounting body Hb which again surrounds the first mounting body Ha and the second mounting body is provided with cold corks C1 and C2 which are again placed in the middle panel H4 And is housed in the housing (H).

A plurality of vertical protrusions and vertical grooves are formed on the contact surfaces of the first attachment member Ha and the first attachment member Ha, respectively. In addition, an opening Ha '(see FIG. 6) is formed in the first attachment member Ha at a position of the discharge portion 251 of the ice bin 250.

Although not shown in the figure for simplicity, the outlet 251 of the ice cube 250 is provided with a lid, which is opened and closed by an electric opening / closing member constituted by a solenoid or the like or other manual opening / closing member, Is preferably configured to be operated by a lever or a button at the front of the drinking water supply device.

The present invention is characterized in that the discharging means E as a core is a discharging means E for discharging ice when ice is discharged from the ice making body 231. Specifically, the discharging means E includes a lower opening portion 220a An opening and closing member 221 for opening and closing the door, and displacement means for moving the door.

The opening and closing member 221 is basically in the form of a panel, and the packing means 221a is provided on the contact surface with the lower surface of the ice-making container 220 to ensure watertightness.

The opening and closing member 221 vertically moves about a swing shaft 221x provided at one side of the ice tray 220. The swing shaft 221x is rotated in an area of the ice tray 220 Or may be arranged at an off-position.

The displacement means is basically composed of a small electric motor, and the electric motor may be a reduction gear integrated structure for improving the torque.

The rotational force of the electric motor moves up and down the opening / closing member 221 through the link means,

It is preferable to be located at a distance from the swing axis 221x, which is the point of action of the force, like the principle of the leverage, but it is limited in the internal area of the compact housing H.

The principle of the leverage constitutes the discharge means E and the second guide means G2 for selectively introducing the ice IC scraped from the ice making body 231 into the cold water container 210 or the ice container 250 And the opening and closing member 221 and the electric motor are connected to each other.

Also, it is preferable that the remaining ice-making water remaining in the ice-making cylinder 220 after the ice-making is supplied to the cold water container 210. Preferably, the first guide means G1 is provided.

In addition, it is preferable that the first guide means is connected to the second guide means G2 for selectively supplying the ice (ice bucket or cold water bucket). In particular, the cold water bucket 210 is arranged below the ice- Closing member (221) is connected to the first guiding means (G1) so that the ice-making residue falls down to the cold water bottle through gravity, and the first guiding means is connected to the passing portion 241a,

The passing portion is formed so that the distal end 241b of the infeed plate 241 constituting the second guiding means G2 and the inner end 240b of the guide plate 240 adjacent to the distal end 241b of the infeed plate 241, Are spaced apart from each other. As described above, it is preferable that the passing portion 241a is provided so as to allow ice making water to pass therethrough, and is formed so as to be spaced apart from the ice tray so as not to allow ice to pass therethrough.

The electric motor constituting the displacement means 260 is fixedly arranged on a mounting portion M connected to the ice-making cylinder 220,

The opening and closing member 221 is moved by receiving the power of the electric motor and the guide plate 240 connected to the opening and closing member and constituting the second guiding means G2 is connected through link means

6, this link means is arranged such that one end of a crank 263 having a principle similar to that of a crank provided on the pedal of a bicycle is arranged at a position where it is remodeled from the rotational axis of the electric motor, The other end of the crank 263 is connected to one end of the link member 264 and the other end of the link member 264 is connected to the second guiding means G2 through the engaging member 264a have.

 The second guiding means G2 for selectively introducing the ice from the ice making body 231 into the cold water container 210 or the ice container 250 is connected to the opening and closing member, And an inlet plate 241 rotatably provided on the guide plate and having a cold water reservoir at a lower portion thereof.

More precisely, the engaging member 264a of the link member 264 is connected to the engaging plate 241 connected to the guide plate 240 via the pivot shaft 241x.

Therefore, in the case where the opening and closing member 221 closing the opening portion 220a of the ice-making cylinder 220 is opened to supply the ice-making water to the cold water container 210 for de-icing after the ice-making is completed,

When the electric motor constituting the displacement means 260 moves, the crank 263 of the link means eccentrically connected to the drive shaft of the electric motor moves, whereby the link member 264 descends,

The inlet plate 241 connected to the end engaging portion 264a is pressed to press down (the opening and closing member 221 - the guide plate 240 combination) and the packing means 221a is opened to allow the ice making remainder to be poured out The state shown in FIG. 9 is obtained.

The discharged ice-making water drops through the first guide means G1 composed of the passing portion 241a formed by the inlet plate 241 and the guide plate 240 being separated from each other and into the cold water container 210. [

A retention member must be provided at the interface between the periphery of the infeed plate 241 and the guide plate 240 for the movement of the infeed plate 241 (the open / close member 221 - the guide plate 240 combination). The retaining member may be a retractable locking plunger (a kind of locking piece) configured to be connected to a solenoid, or a means for stiffening the pivot shaft 241x (for example, a spring washer provided on the pivot shaft).

Next, when the ice-making water is discharged, the ice-making unit 230 advances to the ice-making mode, and the heated heat medium is supplied to the cock of the ice-making body 231 to melt the ice (IC) The ice falls.

The dropped ice is supplied to the ice bucket 250 or the cold water bottle 210 (this is determined by the controller's control. For example, the control method is to keep the cold water bottle temperature at a priority, The ice can be supplied to the ice bucket at a later stage).

With respect to the above selection, when the driving mode is progressed in the state of FIG. 9, the ice is transferred to the ice bucket.

The guide plate 240 has an ice separation protrusion 240c which protrudes from the inner end portion 240b and is bent at an upper end of the guide plate 240. The inlet plate 241 is connected to the ice separation protrusion 240c, It is preferable that they are formed so as to have corresponding guide portions 241c and are coupled to each other. When the ice-making mode is proceeded and the ice is transported to the ice bucket, the ice delivered by the ice-separating jaw 240c is widely dispersed and slid so that it is widely dispersed evenly in the ice bucket 250, It is possible not only to allow more ice to be built in the ice making chamber 250, but also to help smooth the ice discharge to be performed.

Further, the inlet plate 241 of the drinking water supply apparatus according to the present invention is provided with an ice inlet hole 241d through which a lump of ice can be passed to one side of the passing portion 241a through which the ice making residual water passes to the cold water container, As shown in FIG. 9, the icemaker discharges the ice from the state shown in Fig. 9, and at the same time, the deicing of the ice proceeds, so that the ice-making residue and the ice simultaneously slide (the combined body of the opening and closing member 221 and the guide plate 240) . When the ice-making water and ice are simultaneously transferred to the ice bin 250, the ice-making water falls into the cold water bottle due to gravity because it can not pass through the passing portion 241a of the inlet plate 241 due to the nature of the water, Passes through the passing portion 241a, and falls toward the ice cistern. At this time, a part of the ice passing through the passing portion 241a passes through the ice inlet hole 241d and drops into the cold water container 210. [ And the ice dropped into the cold water tank helps to maintain the temperature of the ice making water of the cold water bottle, so that the user can drink cool cold water without needing a separate cooling and holding device.

However, if the motor retention member is unlocked by the signal of the controller

When the force of the motor constituting the displacement means is further exerted so as to overcome the interference fit state or becomes large enough to overcome the frictional force of the anti-rotation braking member of the pivot shaft

The inlet plate 241 is aligned with the guide plate 240, and as shown in FIGS. 7 and 10,

And the ice is caught by the installed inlet plate 241 and drops into the cold water container through the coupling opening of the guide plate 240 to which the inlet plate 241 is coupled. Since ice and ice-making water dropped into the cold water tank have the effect of cooling the cold water of the cold water tank without providing a separate cooling device in the cold water tank, not only the manufacturing cost of the drinking water supply device is reduced, It is possible to reduce the amount of power consumption and prevent noise and provide convenience to the user.

The drinking water supply device described with reference to Figs. 4 to 10 comprises an opening / closing member for opening and closing a lower opening portion of the ice maker, and a displacement means for moving the opening / closing member, which will be described more simply and simply with reference to the schematic view of Fig. .

That is, as can be seen from the closed state of [A] in Fig. 12 and the open state of [B]

The icemaker Tt is fixed and the icemaker 31 of the icemaker is also fixed and the icemaker is provided with an opening and closing member Tc for opening and closing the lower opening of the ice- .

On the other hand, the opening and closing member is provided with a packing means Tp for contacting the contact surface of the ice-making passage, in particular, the end portion of the lower surface of the ice tray Tt, thereby preventing water leakage.

The water in the ice-making cylinder (Tt) is closed by the opening / closing member (Tc), and then the water, particularly the water in the water tank (10) is poured and filled from the separately provided pump, 31) is freezing according to the operation of the ice-making means.

At the time of de-icing, the opening / closing member Tc descends by the displacement means for moving the opening / closing member Tc, so that the ice-making cylinder is opened, and the ice IC and the remaining ice-making water after the ice-making are discharged.

The displacement means can be constituted by a normal motor (capable of introducing a reduction gear), an actuator using an oil pressure, a pneumatic or a motor, and a separate locker for fixing the closed state or the open state can be introduced.

It is possible to carry out a mode of repeatedly discharging the iced water cooled by the ice making body at the time of generating the simple cold water without reaching the freezing step with the ice hanging on the ice making body,

Also, the displacement means and the ice-making means are operated by the controller.

Further, a guide Ts guiding ice and iced water to the cold water bottle 10 is provided under the ice tray Tt. If necessary, the guide Ts is provided with a slit for discharging de- .

In addition, the iced water is kept and the water of the cold water bottle is cooled only by ice, or the ice is selectively discharged by a separate ice bucket,

The ice-making water remaining after freezing is supplied to a separate ice-water storage bin without discharging it to the cold water bin. The ice-water is supplied again to the ice-making bin from the storage bin. So that the ice-making time can be shortened. The water level measurement and replenishment of the storage tank and the like is performed by the controller, and a normal water level sensor can be utilized.

The ice discharge device, which can be used in the drinking water supply device having the ice making function according to the present invention, or in the freezer or other ice making device,

It is preferable to have a function of preventing the situation where the ice surface is melted due to the temperature change when the ice is stored in the ice bucket so that the ice sticks to each other and the discharge is obstructed and the function of moving the ice to the discharge portion of the ice bucket .

Such an ice discharge device (or an ice discharge device) may function as one or both of the biasing means for moving the ice to the discharge portion and the ice separating means for removing the ice sticking to each other.

The ice discharging device St, that is, the biasing means or the separating means, is constituted by a mesh body having a passing portion and a swinging means for moving the mesh body.

The illustrated ice discharging device is a multi-joint type ice discharging device St which moves according to the rising and falling of the guide plate 240 by the displacement means 260, and the guide plate (or displacing means) functions as a swinging means.

In addition, it is preferable that the ice cube 250 has a bottom inclined portion, in particular, an inclined portion inclined toward the discharge portion 251, and this inclined portion also constitutes biasing means.

The mesh of this ice discharge device St is made up of mutually connected bar type members, which preferably have a size such that the clearance between the bar type members, that is, the passing part, is such that individual ice does not escape.

However, even if the passage portion of the netting constituting the separating means, as required,

As the nebula rises, the ice oscillates and part or all of the ice falls into the passage,

Again, the reticulum can move through the ice between the ice basin and the bottom of ice container, and the effect of ice separation is greater.

In addition, even if the passage portion of the ridge is large enough to leave a single ice, it can perform the function of biasing means for driving the ice to the discharge portion of the ice bucket.

It is preferable that the ice discharger St composed of the mesh-like body has a bent portion according to the shape of the ice cube container, and a part or all of the bent portion has a joint portion Sl.

And can be fitted to the bent shape of the ice bin (250) or the arrangement position of the guide plate (240) and the ice bin through the plurality of joints (Sl), thereby preventing the ice storage space from being narrowed and the interference with the ice discharge being prevented.

The multi-joint type ice discharging device St is hilariously moved up and down by the guide plate 240 constituting the swinging means to vibrate the ice to separate the ice pieces, And also functions as a kind of ice discharge means. The multi-joint type separating means (St) is preferably composed of a plurality of bar-shaped bodies arranged at a predetermined interval on the bottom surface of the ice tray.

In FIG. 18, it is preferable that the barrel Sf located at the discharge side of the ice cube in a schematic perspective view in the upper one-dot chain line is fixed to the end of the ice cube 250.

Further, the ice discharging apparatus according to the present invention can be configured to perform both of the functions of the biasing means and the separating means 253 while pressing and discharging the ice to the discharging portion 251 as shown in FIG. 19 .

19, the ice discharge device includes an opening / closing member 252 for opening and closing the discharge port of the ice cube passing through the ice having the discharge portion; And a separating means (253) which is operated by the operating means and moves the ice contained in the ice bucket. The operating means is an opening / closing member (252) connected to the separating means (253). Therefore, by operating the separating means 253 through the opening and closing member 252, it is possible to prevent the ice from sticking to each other and prevent the discharge from being smooth, as well as pushing the ice to facilitate the discharge of ice. The ice discharge device will be described in detail as follows.

19A, the opening / closing body 252 has a pressing portion 252a and an opening / closing portion 252b which are mutually connected to each other and a rotary shaft 252c is provided between the pressing portion 252a and the opening / closing portion 252b And is connected to the upper outer surface of the discharge portion 251 of the ice bin 250. The rotary shaft 252c is provided with an elastic body 252d so that the opening and closing portion 252b exerts elasticity in the direction of closing the discharge portion And the end of the opening and closing part 252b of the opening and closing member 252 is connected to the separating unit 253 through a connecting shaft 252e. The separating means 253 includes a discharging member 253a for pressing the ice to the discharging portion and a separating member 253c protruding inside the discharging member 253a to separate ice adhered to each other, And a pair of wing portions 253b connected to the opposite ends of the wing portion 253a. The ice bucket 250 has an inclined surface inclined toward the discharge portion 251 and has an insertion slot 251b through which the wing portion 253b can be inserted and guided to the lower side of the discharge portion and the insertion slot 251b, A guide portion 251a formed of a guide member 253c bent and formed between the guide portions 251a is formed. 19B, when the opening and closing part 252b closes the discharge part by the elastic body 252d, the wing part 253b connected to the opening and closing part 252b is inserted into the guide part 251a of the ice container 250 And a discharge member 253a and a separating member 253c connected to the wing 253b are also located inside the ice cube. The ice stored in the ice tray is biased toward the discharge portion by the inclined surface formed toward the discharge portion 251 and positioned between the separating means 253 and the opening and closing portion 252b.

The pressurizing unit 252a may be a drinking water supply device having an ice making function or an ice discharge button or lever formed in both the freezing device and the other ice making device using the ice discharging device according to the present invention As shown in FIG. 19C, when the pressing portion 252a is pressed, the opening / closing portion 252b is opened with the rotation axis 252c as a center, Is opened. The opening portion 252b is opened and a wing portion 253b connected to the connecting shaft 252e is pushed out of the discharging portion through the guide portion 251a of the ice barrel and the discharging portion 253b connected to the wing portion 253b, The separating member 253a and the separating member 253c separate the ice adhered to each other by the separating member 253c while pressing the ice positioned between the opening and closing unit 252b and the discharging member 253a toward the discharging unit, 253a may force the discharge of ice to facilitate discharge of ice. When the ice melts and adheres to each other due to a change in the temperature inside the ice bucket, the exhaust through the exhaust member 253a may not be easy to discharge, or the ice adhered to each other may be discharged as it is. In order to prevent such a problem, the separating member 253c formed by protruding inward while the ejecting member 253a forcibly discharges the ice presses the separated ice to force it to be separated, and then the ejecting member 253a is pressed And the separated ice is discharged through the discharge part 251. [ Therefore, the ice discharging apparatus according to the present invention including the separating means 253 having the discharging member 253a and the separating member 253c described above can solve the functions of the biasing means and the separating means 253 simultaneously The efficiency as an ice discharge device can be enhanced.

Further, it is preferable that the discharge member 253a is formed at a position close to the wall surface of the ice tray formed on the opposite side of the discharge unit. If the discharge member 253a is formed at a position close to the discharge portion (that is, when the length of the blade portion 253b is short), sufficient amount of ice is hardly located between the opening and closing portion 252b and the discharge member 253a, The ice can not be discharged, and a forced discharge effect can not be expected for the ice positioned between the discharge member 253a and the wall surface of the ice bucket.

The discharge member 253a forcibly discharging the ice by the above-mentioned operation automatically moves to the original position by the elastic body 252d when the pressing force to the pressing portion 252a is removed. At this time, when the discharge member 253a forcibly discharges the ice, the discharge member 253a is spaced apart from the wall surface of the ice container 250 so that ice in the ice container upper part due to gravity is discharged to the discharge member 253a, And the automatic return of the pressing portion 252a by the elastic body 252d may be impeded by the ice positioned between the discharge member 253a and the wall surface of the ice barrel, It is possible to push out the ice positioned between the discharge member 253a and the wall surface of the ice bin sufficiently by the restoring force of the elastic body 252d owing to the slippery surface having a small friction coefficient of itself. However, as described above, when the ice melts and sticks to each other due to a change in the temperature inside the ice cube container, the discharge member 253a may not be automatically returned by the elastic force of the elastic member 252d. The discharge member 253a may be formed so as to be in contact with the wall surface of the ice tray and may be bent so that the central portion of the discharge member 253a protrudes in the direction of the wall surface. The central portion of the discharge member 253a protrudes and comes in close contact with the wall surface of the ice barrel and is inclined so as to be spaced apart from the wall surface of the ice barrel toward the wings 253b at the central portion, The ice placed between the discharge member 253a and the wall surface can be automatically returned while being pushed to both sides, thereby preventing the return from being interrupted by the ice. At this time, the distance between the portion of the discharge member 253a connected to the wing 253b and the wall surface of the ice tray is preferably smaller than the ice size. When the distance is formed larger than the size of ice, the ice may be located at the distance, and the forced discharge may not be performed.

When the wing portion 253b is fully inserted into the ice bin, the wing portion 253b and the exhaust member 253a are automatically caught by ice discharged into the discharge portion 251 by the inclined surface of the ice bucket during the automatic return of the exhaust unit 253a, ) May be folded upward to prevent proper separation and discharge function. In order to prevent this, the wing portion 253b of the separating means 253 in the ice discharging apparatus according to the present invention has a distal end (that is, a contact to which the wing portion 253b and the discharge member 253a are connected, And a guide portion 251a formed in the ice barrel 250. The guide portion 251a is formed in the ice barrel 250 so as to prevent the insertion of the ice barrel 250 into the ice barrel 250, As shown in FIG. An end of the wing 253b is exposed through the guide 251a to the outside of the ice cube and an inserting jaw 253d is formed in the exposed wing 253b, The discharge member 253a is brought into close contact with the guide member 253c as a guide auxiliary means for assisting operation through the guide portion 251a while preventing the separating means 253 from being folded by hanging on the outer surface of the ice cube Thereby allowing the ice to be discharged smoothly.

As shown in FIGS. 13 and 14, the ice making machine according to the present invention includes a water tank W1, which is a water supply unit, The water tank 10 and the hot water tank T are supplied by the supply pump P2 so that the heavy water tank is lifted and replaced without inconvenience and troublesomeness and the sliding cart supporting the lower portion of the water tank W1 So that the water tank can be easily put on the sliding cart and can be pushed lightly so that children, women, and aged people can easily replace the heavy water bottle, which greatly improves the usability in many ways. In addition, unlike a conventional cold / hot water dispenser, there is no drinking water inlet in the upper part of the present invention, and the sanitary property is very high since the inlet of the water dispenser is sealed at the time of use, and is suitable for use in office, home, school, bank and various work places.

The ice making machine according to the present invention includes a water tank W1 connected to a supply pump P2 for supplying water to the cold water tank 10 and serving as a water supply unit, An ice maker 20 for ice making by the ice making body 31 of the ice making means; displacement means 60 for moving the ice making cylinder 20 by pivoting the ice making cylinder 20; A conveying guide member 40 for transferring the ice to the ice tray 50, and a controller 70 for determining the destination of the ice.

The hot water coke C2 and the hot water tank T connected thereto are provided as required and a separate heater T1 on / off switch is provided in the same manner as a normal cold / hot water or water purifier . The water supplied to the hot water tank T may be supplied directly from a water supply unit (a water tank or a water tank in the case of a separate water purifier) or may be supplied from a cold water tank as required.

The core of the ice-making cold / hot water generating machine (A1) according to the present invention is to simplify the structure of the drinking water supplying device by cooling the water stored in the cold water tank using the ice produced by the ice making means, (Or a water purifier or a multifunctional machine) capable of shortening an ice-making time. In this way, the ice water purifier, which has been introduced to the market at present, can provide an ice-making water purifier or an ice-making cold water heater similar to a general water purifier, a cold water heater or the like, and can be diversified in size from large size to small size.

In the ice making machine according to the present invention, water in the cold water tank 10 may be supplied to the ice-making cylinder 20 by using natural springs. However, as shown in FIG. 13, The water in the cold water tank is transferred to the ice-making cylinder 20 by using the natural cooling method (P1).

The deicing unit of the ice making unit and the manufactured ice is very similar to the known ice water purifier.

Specifically, the ice maker 30 is driven by a compressor 33 for a refrigeration cycle, passes through a condenser 35 for causing the generated high-temperature and high-pressure gas to heat-exchange with a medium-temperature high-pressure liquid refrigerant, Temperature low-pressure liquid refrigerant into a low-temperature low-pressure liquid refrigerant, and finally the low-temperature low-pressure liquid refrigerant is supplied to the ice-making body 31, which is a kind of evaporator. The individual downward protrusions constituting the ice making body are similar to the nipple of the cow, and may have a known form in which a plurality of downward tails having an internal space through which the coolant circulates are gathered.

In the first mode for ice-making, the individual faucets of the ice-making body 31 are immersed in the water (iced water) contained in the ice-making cylinder 20 supplied with the cold water by the circulation pump P1 in the cold water tank 10, Ice (31) is formed around the nipple and sticks to the ice.

In the second or third mode for ice-making, when the completion of ice-making is judged by the time or temperature sensing method or the like, the ice-making process by the ice-making means 30 is completed and the ice (IC) And is then transferred to a destination of either the cold water tank 10 or the ice bucket 50,

When hot gas of high temperature and high pressure flows into the ice making body 31 serving as an evaporator through the ice making line 39 at the opening of the solenoid valve 39V, the ice that has been dangling instantly falls .

The ice-making water can be supplied from a water bottle, a water bottle, or the like, but it is preferable that the ice-making water is supplied from the cold water bottle 10 for faster ice-making.

Various types of water level sensors are also provided in the ice making cylinder 20 to determine whether to supply or stop the iced water supplied through the circulation pump P1 in the cold water tank 10 The supply pump P2 can also be controlled), and whether or not the ice tray 20 is at a full water level can be measured using a flow meter if necessary, or alternatively, the full water level of the ice tray 20 can be controlled by limiting the supply time have.

The temperature sensor 13 is provided in the cold water bottle 10 so that when the temperature detected by the controller 70 such as a microcomputer through the temperature sensor 13 exceeds a reference value, The ice produced in the ice maker 31 is supplied to the cold water tank 10, and when the temperature of the cold water tank 10 satisfies the reference value, the produced ice is discharged to the ice bin 50.

In the present invention, the basic ice-making mode is configured such that the ice can be utilized after the generation of the chilled water. However, depending on the configuration of the external input unit, the ice supply selection button for allowing the user to use the ice first, Can be introduced. That is, when the ice supply mode is set, the ice can be set to a reference value (the reference value may be set to the height of the ice filled in the ice cube or the weight of the ice in the ice cube 50 regardless of the temperature of the cold water in the cold water bottle 10 ). When the ice is filled, the ice is discharged into the cold water tank 10 so that the cold water in the cold water tank 10 becomes lower than the reference value.

It is preferable that a service door 51 is provided at the upper part of the ice bin 50 arranged adjacent to the cold water bottle 10 for convenience of massive take-out of ice, cleaning and management of ice bucket, The ice can be taken out manually, and an automatic discharging means such as a separate coke type can be introduced if necessary.

In particular, since the ice cisterns 50 are arranged side by side adjacent to the cold water bottle 10, it is not necessary to largely change the structure of the existing cold / hot water chiller, hot water cistern arrangement structure or water purifier water tank, cold water tank, And the internal and external sizes and arrangement of the housing of the conventional cold / hot water or water purifier can be adopted as it is, and the conventional manufacturing apparatus (metal mold and the like) and parts can be used as they are, and the cost saving effect is excellent. Further, since it is arranged beside the cold water bottle 10, it is suitable for maintaining the freezing temperature of the ice bucket 50 and is preferable because it also helps maintain the cold water temperature of the cold water bottle. Also, it is easy to configure the ice transfer guide member 40.

Further, crushed ice can be used for various kinds of dishes such as iced coffee, and ice crushing means can be introduced to improve convenience.

This ice crushing means 53 communicates with the ice cistern 50, and the ice cistern may have a structure in which the bottom surface is inclined so as to supply the ice to the ice crushing means by natural descent. Further, the ice crushing means 53 may be constituted by a motor or a pair of manually operated grinders 53A, and it is preferable that the ice crushing means 53 is provided with a separate discharge valve 55 for the purpose of improving the sanitary property and maintaining the temperature of the ice- Do. The ice crushing means may be implemented in various other ways, and the ice crushing means may constitute a part of the ice discharge means.

Next, in the ice-making cold / hot water generating machine (A1) according to the present invention, in order to prevent water from overflowing even if ice is used for cooling the cold water tank, it is preferable that the full water level sensing point of the water level sensing means is lower than the maximum water level of the cold water tank .

That is, the cold water tank 10 is provided with a water level sensing means 11, and the water level L1, which blocks water supplied from the water supply unit W1 to the cold water tank 10 by the water level sensing means, Is preferably lower than the maximum water level L2 on the volume of the pail.

The difference between the full water level L1 measured by the water level sensing means and the maximum water level L2 on the capacity of the cold water tank increases or decreases according to the amount of ice to be supplied for realizing the reference cold water temperature set according to the external temperature, (For example, 50 DEG C) of the room temperature.

In addition, the water level detecting means of the cold water tank can employ various sensors such as a ball-top (float-use, float-type) means 11, other touch level sensors, and a recube level sensor,

The stainless steel rods 11a, 11b, and 11c are immersed in the cold water tank 10 by using the two-stage contact point sensible water level sensor 11A to detect the high water level and the low water level by controlling the current by the contact resistance have.

Specifically, in addition to the rod 11c for measuring the water level and the rod 11a for measuring the water level, the rod 11b for the intermediate contact point can be separately employed for stability in one side of the cold water tank 10.

Next, the ice making machine according to the present invention needs a transfer means for transferring the ice produced by the ice making means into respective transfer destinations (the cold water bottle 10 and the ice bucket 50).

(IC) is separated (detached) from the ice making body 31 after the ice making process by the ice making unit 30 is completed by the ice making unit, the ice cube 10 or the ice cube 50 The present invention is not limited to the ice bin in the present specification, and in particular, the ice bin in the present invention is not limited to the illustrated one but may be an arbitrary place other than the cold water bin as an abstract concept ) To any one of the destination.

In the present invention employing a method of lowering the temperature of water stored in the cold water tank 10 by using ice, the ice making water is also supplied from the cold water tank, so that the ice making time can be shortened as much as possible,

In order to simplify the structure and secure the competitiveness of the unit price, in the present invention, the conveying means is moved in the orbiting motion of the ice tray 20 so that the ice tray 10 accommodates the ice tray 31 of the ice tray 30 (first position- (Second mode - second mode or third mode - third mode) for moving the ice from the ice making body 31 out of the ice making body 31 (first mode) A cooling water mode (corresponding to the second mode) in which ice is dropped into and discharged from the cold water tank 10 and ice are conveyed to and discharged from the ice cistern 50 And a controller (70) for controlling the driving of the displacement means (60) in accordance with the ice mode (corresponding to the third mode). By using the concept of the present invention, ice can be used only for the purpose of generating cold water by cooling the water stored in the cold water tank to a predetermined temperature, and it can be configured without a separate ice cube.

Meanwhile, it may be preferable to separately provide a means for preventing noise generated during the process of ice-making ice being scooped down and being discharged into the cold water tank or the ice tank.

The displacement means constituting the core of the present invention is a means for moving the ice making cylinder relative to the ice making body relatively (not simply means for fixing the ice making body and moving only the ice making body, Or moving only the ice maker)

Do not drain de-icing water from the ice tray to another place (do not drain it with a cold water bottle or water tank, nor a separate auxiliary tank, etc.), temporarily drain it into the auxiliary tank and then return the ice- .)

The ice-making water supplied to the ice-making cylinder in the first mode is supplied from the cold water tank (optional but not essential), and the ice-making water remaining in the ice-making cylinder after the ice- It is necessary to rapidly perform ice-making in the subsequent ice-making mode. In addition, since the ice-making cylinder is moved without being turned during operation for ice-making, the ice- The load applied to the driving means of the motor or the like becomes large, thereby causing difficulty in designing, causes of failure, increase in electric consumption, and increase in the unit cost due to adoption of a high-performance motor.

Fig. 16 is a perspective view of the displacement means 60 according to an example of the present invention, and schematically shows an operation outline of the ice-making cylinder 20 and the conveyance guide member 40 in accordance with the movement of the displacement means. Fig. The moving range and the movement of the ice-making cylinder 20 in accordance with the movement of the means 60, and the operation outline of the ice-making cylinder 20 and the conveyance guide member 40 are continuously shown.

The displacement means 60 shown in Figs. 16 and 17 is provided with rotating rods 63A and 63B connected to the rotating shaft 62 of the driving portion 61, such as a motor, while the ice- Is a swing type that is rotated around the motor shaft.

The rotary rods 63A and 63B have different lengths and are connected to the ice-making cylinder 20 at different positions. Only one rotary rod receives the force to be connected to the displacement means 60, Is constructed as an idle structure so as to perform a swing motion simply in accordance with the movement of one rotary rod.

The rotary rods 63A and 63B may be connected to a motor, which is a separate driving unit, so that the rotary rods 63A and 63B are rotated at different speeds so that the ice tray is raised and lowered in a horizontal state.

16, a driving unit 61 is disposed at a predetermined distance from the ice making body 31 of the ice making unit 30, a rotating rod 63A and 63B coupled to both sides of the driving unit, And a hinge pin 65 connected to an end of each of the two rotary rods 63A and 63B.

A motor is generally used as a power source for providing a rotational force. The motor is provided with a rotating rotary shaft 62,

One end of each of the rotating rods 63A and 63B is coupled to the rotating shaft 62 of the driving unit 61 and rotates forward and backward in conjunction with normal and reverse rotation of the rotating shaft 62,

The hinge pins 63A and 63B are protruded and connected to the inside of the other ends of the rotary rods 63A and 63B and hinged to the opposite sides of the ice tray 20, respectively.

The rotary shaft 62 connected to the rotary rods 63A and 63B may not be the rotary shaft of the motor itself constituting the driving unit 61 but may be a rotary shaft of a component for power transmission and relaying such as a reducer. Therefore, the motor can be connected to the rotating rod through various power transmitting and relay members, not directly connected to the rotating rod.

The two rotary rods 63A and 63B connected to both sides of the ice-making cylinder 20 are connected to the rotary shaft 62 (two rotary shafts 62 are provided in this case) Only one of the rotating rods 63A or 63B is connected to the rotating shaft 62 and the other rotating rod 63A or 63B is hinged simply to a case or the like enclosing the driving portion 61 to be linked to the rotation of the rotating rod connected to the rotating shaft 62 And can be rotated.

The driving unit 61 of the displacement means 60 is rotated in the forward direction (counterclockwise in the drawing) under the control of the controller 70 to move the first mode-first position for ice- The ice making cylinder 20 is lifted and raised so as to receive the ice making body 31 of the ice making unit 30 so that each of the ice making bodies is locked in the built-up ice making water, (The fourth operation in the lower front view of Fig. F) or the third position-third mode (the third operation in the lower front view of Fig. F) so as to move the ice- So that the ice cubes are prevented from flowing into the ice tray 20.

The driving unit 61 controlled by the controller 70 is driven in the first to third modes. That is, a first mode in which the icemaker 31 is immersed in ice-making water in the ice-making cylinder 20 to perform ice-making, a second mode in which the ice cubes are melted and supplied to the cold water container 10 , And the ice maker 50 is driven in a third mode in which the ice cubes are defrosted and then the ice cubes 50 are supplied.

In the first mode, the driving unit 61 is rotated in the forward direction to move the ice-making cylinder 20 to the first position so that the ice-making body 31 is locked in the iced water of the ice-making cylinder 20, (Starting from the upper right portion and proceeding counterclockwise to the first, second, third, fourth, fifth, and sixth operation with reference to a series of frontal operation diagrams shown in Fig. ),

In the second mode, the driving unit 61 is rotated in the reverse direction to move the ice-making cylinder 20 to the second position, and until the ice is removed from the ice-making body 31 and supplied to the cold water cylinder 10 2 position (based on the front view of Fig. F, the second position corresponds to the fourth operation), and

In the third mode, the driving unit 61 is rotated in the reverse direction to move the ice-making cylinder 20 to the third position so that the conveying guide member 40 is directed to the ice cylinder 50, (The third position corresponds to the third operation), the conveying guide member 40 is moved in the direction of the ice The ice cubes 50 can be conveyed smoothly and the ice cubes can be properly sloped and positioned in order to prevent falling ice from falling down into the ice maker from the fixed ice cubes. After the second mode or the third mode is completed, the first mode proceeds to move the ice-making cylinder 20 to the first position, and the ice-making water corresponding to the ice discharged from the ice-making cylinder 21 is supplied and filled Thereby allowing the ice making body 31 to be immersed in the iced water in the ice making cylinder.

The ice-making cylinder 20, which is pivotally moved by the displacement means 60 and moves to the swing type, does not move continuously in the order of the first, second, and third positions. That is, in the cold water mode in which ice is supplied to the cold water tank 10, the ice-making cylinder 20 moves from the first position to the second position via the third position and from the second position to the first position, 50, the ice-making container 20 moves from the first position to the third position without moving through the second position, and from the third position to the first position.

The hinge pins 65 on both sides of the displacement means 60 are hinged to both sides of the ice making cylinder 20 so that the ice making cylinder 20 can swing in a swing type stably, The two hinge pins are biased to the left and right from the center so as to be bilaterally symmetrical. In other words, the two hinge pins (65) are formed at a position eccentric from the upper side of the ice-making cylinder (20).

The two hinge pins 65 are eccentrically disposed in the ice tray 20 so that the two hinge pins 65 can be rotated with respect to the ice tray 20. The ice tray 20 has a hinge pin 65 Is limited by the other hinge pin 65 and is moved in a state in which it is kept horizontal without shaking (rotation). Therefore, since the cold water contained in the ice-making cylinder 20 is not discharged and lost during the orbiting movement process, the ice-making water of the ice-making cylinder 20 used for the next ice- The amount of ice making water discharged to the ice making box 20 can be minimized so that the amount of ice that is insufficient (that is, discharged) in the ice making box 20 can be minimized, Thereby minimizing the operation of the circulation pump P1 for filling the ice-making water of the ice maker. The number, length, coupling position, etc. of the rotary rods connecting the driving unit and the ice-making cylinder 20 may be variously modified as necessary.

Also, the two rotary rods 63A and 63B eccentrically coupled to the ice tray 20 can distribute the load applied to the driving unit 61 according to the swing operating point of the ice tray.

(The top dead center of the ice-making cylinder 20) from the fourth operation (bottom dead center of the ice-making cylinder 20) to the first operation (top dead center of the ice-making cylinder 20) An auxiliary returning means such as an elastic body is connected to the ice-making passage fixing point (the water purifier or the housing of the cold / hot water machine), so that it can be displaced more easily.

The conveying guide member 40 has a rectangular flat plate structure,

A plurality of slit holes 41 are formed in the upper and lower longitudinal direction to reduce the material cost and allow the ice cubes 50 to be transported and discharged by dropping the contacted ice more smoothly, Is discharged to the cold water tank (10) without being discharged to the ice cistern (50), so that the quality of the ice filled in the ice cistern is not lowered.

A cushioning pad (or coating) is introduced into the upper surface (i.e., the ice contact surface) of the conveyance guide member to prevent noise caused by collision with ice falling from the ice making body and falling ice. If necessary, Material (e.g., silicon, etc.).

In the second mode-second position, the conveying guide member 40 is hinged to the upper end of the outer surface of one side (the right side in the figure) of the ice-making cylinder 20 and is vertically arranged by its own weight The fourth operation point),

In the first mode-first position, when the ice-making cylinder 20 is lifted and lowered, the lower end of the ice-making cylinder 20 is further raised and separated from the horizontal protrusion 19 at the upper end of the ice-making cylinder (or the cold water cylinder) Based on the frontal view of f, the 1st operating point).

A blocking plate 43 is provided on both sides of the conveying guide member 40 so as to allow the ice tray 50 to be discharged without falling off both sides of the ice dropped on the surface,

And a round portion 45 for guiding the ice cubes to be slidably moved when the ice cubes are in contact with the protruding portions 19 are rounded at a lower end thereof.

The ice maker 20 is pivoted to the first, second and third positions by the displacement means 60 and the conveying guide member 40 is moved to the ice- 31 will be described with reference to FIG. ≪ RTI ID = 0.0 > f. ≪ / RTI >

First, when the driving section 61 of the displacement means 60 makes a normal rotation in a state where the ice-making cylinder 20 is at the second position (the fourth operating point with reference to the front view of Fig. 20) starts to ascend and descend,

When the ice tray 20 ascends and descends in the arc shape, the vertically arranged conveying guide member 40 comes into contact with the side surface of the projecting portion 19 (see Fig. 5 (f) The conveying guide member 40 is inclined to the free space formed by the inclined side surface of the ice tray 20 so that the conveyance guide member 40 is lifted without disturbance by the projecting portion 19 to move out of the projecting portion 19, Even if there is no clearance space due to the inclined structure, the conveying guide member can be bent and lifted if it has elasticity) (the sixth operation point on the basis of the front view of Fig.

When the ice tray 20 is completely raised and lowered and is located at the first position (the first operating point in FIG. 1), the ice tray 20 accommodates the ice-making body 31 therein, The ice making body 31 is locked.

When the ice making operation is completed in the ice making body 31, the drive part 61 of the displacement means 60 starts to rotate in the opposite direction, and the ice making cylinder 20 starts to descend in a shape of arc,

When the ice tray 20 descends in an arc shape, when the lower end of the vertically arranged conveying guide member 40 is in contact with the surface of the projecting portion 19 and the ice tray further descends after the contact, The lower portion of the conveying guide member 40 is slid by the ice barrel 50 and is located at the third position by the round portion 45 provided at the lower end of the member 40,

When the ice tray 20 further descends, the distance between the upper end of the conveying guide member 40 and the protruding portion 19 is increased so that the conveying guide member 40 slides on the surface of the protruding portion 19, ).

The ice maker 20 is pivotally moved up and down by the swing type so that the conveying guide member 40 contacts the protruding portion 19 and moves toward the ice bin 50 or the protruding portion 19, Is performed under the control of the controller (70).

That is, in the ice mode in which ice is supplied to the ice cistern 50, the controller 70 controls the lower part of the conveying guide member 40 to contact the ice cistern 50 with the protrusion 19, The ice cubes 20 descend to the third position of the ice-making cylinder 20 within a range not disposed directly beneath the ice-making body 31 so that ice, which is scraped off from the ice-making body 31 and falls, To be transferred to and discharged from the ice cistern 50,

In the cold water mode in which ice is supplied to the cold water container 10, the controller 70 controls the ice maker 20 in a range in which the conveying guide member 40 is completely vertically aligned with the protruding portion 19 So that the ice that has been scraped off from the ice making body 31 and falls down is directly dropped into and discharged from the cold water bottle 10.

The position of the driving portion 61, the size of the ice-making cylinder 20, the length of the conveying guide member 40, the turning angles of the rotating rods 63A and 63B, Selection can be transformed.

13, the door D for opening and closing the space for storing the water tank W1 under the water cooler / heater A1 is provided with a switch SW1 for turning on and off the operation of the supply pump P2 for connecting the water tank and the cold water tank, The switch SW1 may be a switch for resetting all the power connection parts of the cold / hot water heater.

Next, Fig. 15 shows a combined machine A2 of a cooler / heater and a water purifier having the same configuration as that of the cold / hot water generator A1 and the icemaker 30 shown in Fig. In the description with reference to FIG. 15, the elements overlapping with FIG. 13 will be omitted for convenience.

The water supply unit in the multifunctional apparatus A2 is directly connected to the water pipe W2 or is filled with water or tap water collected in the water bottle W1 and filtered with the filter assembly F to supply the drinking water. Unlike the conventional water purifier, unlike the conventional water purifier, a separate purified water tank may be introduced, or if the tap water is used as a water supply unit, the water bottle itself may be used as a water bottle.

The introduction of the concept of applying the filter assembly (F) to existing cold and hot water dispensers makes it possible to produce 'portable' drinking water supply multifunction devices such as exhibition hall, school, military training ground,

A separate switch SW2 is used to select the tap water W2 or the water tank W1 and the first or second tap water W2 or water W2 can be used for the water bottle W1 (on) or tap water W2 (off) The second valves V1 and V2 are respectively opened to select a desired water source.

The filter assembly F may be a sediment filter, a pre-carbon filter, an ultrafiltration (UF) (or microfiltration) filter (or a microfiltration filter) according to a filtering method such as filter filtration, reverse osmosis, A reverse osmosis (RO) filter, a post-carbon filter, a cation and anion exchange resin, and a special filter such as a silver-added carbon filter and a mineral filter.

The concrete configuration of the case of the cold / hot water heater (A1) of Fig. 13 is as follows.

If the full water level L1 of the cold water tank 10 is confirmed by the water level sensing means after the first power is applied, the pump P2 is turned off by the controller 70 (for example, when the full water level signal is continuously input for one second When fully aware).

At this time, when the water level of the water introduced into the cold water tank 10 reaches the middle bar 11b of the stainless steel bar constituting the two-stage contact point sensible water level sensor 11A (for example, The pump P1 is operated to supply the water in the cold water tank 10 to the ice-making cylinder 20 (the circulation pump P1 operates for 10 seconds to supply cold water to the ice-making bottle, The ice making unit 30 is operated.

The water in the cold water tank 10 does not transfer the ice toward the cold water bottle 10 when the reference value (temperature) reaches 4 DEG C or lower, for example, and then the ice that is to be ice is transferred to the ice bin 50. [

Further, the temperature of the cold water bottle 10 should be maintained at, for example, 4 to 5 DEG C, and when more than 6 DEG C is sensed, the ice water is dropped into the cold water bottle (the ice- , And when the temperature of the cold water tank is lower than or equal to 6 ° C for the cold water tank (10), the operation is continuously performed until the temperature becomes 4 ° C every 10 minutes. It is possible to independently use the method of supplying the ice to the cold water passing through the ice cube, or to use the method of controlling the conveying means through the measurement of the temperature of the cold water pipe in combination.

If the temperature does not fall below 10 캜 within 2 hours after the compressor 33 of the ice making device is operated, the ice-making device 30 is stopped and the water supply lamp EMPTY LED ) And an ice lamp (ICE LED), two of which flash at 20m / s to warn.

The icing time for the transfer of the ice bucket (50) is such that the ice is transported once every 10 to 15 minutes. When the temperature sensor of the ice storage reaches -3 ° C, the icing operation is stopped.

During the ice-making operation, the solenoid valve 39V is opened to supply the high-temperature gas to the ice-making body 31 for 5 seconds.

It is necessary to detect the temperature of the compressor 33 (sensing the heat sink temperature). For example, when the temperature of the heat sink reaches 55 ° C or more, the fan is operated to cool.

If the measured value of the cold water temperature sensor (13) does not reach 10 ℃ or less after 2 hours operation, the water supply lamp (EMPTY LED) and the ice lamp (ICE LED) are blinked by 20m / s After that, the compressor is turned off.

It is preferable that a temperature sensor (safety means for continuous ice-making ice production in the event of failure) is provided in the ice cistern 50 (a motor or the like constituting means for discharging ice produced continuously due to sensor failure in the case of full ice can be broken down) .

When NOMAL OPEN which does not supply water from the water supply section continues for 5 minutes continuously, the water supply lamp (EMPTY LED) flickers every 20m / s and the compressor is turned off.

Even when the intermediate water level sensor 11b does not become full for 10-30 minutes after the pump P2 is started,

Door (D) sensing switch (SW1) means the reel function of all modes (except icing function).

When the number of steps is solved, the door is opened and closed in the sense of re-operation, and all functions are recognized as normal and operated. If the door detection switch (SW1) is opened, the water supply lamp (EMPTY LED) and the ice lamp (ICE LED) are turned off.

While the above description has omitted the conventional well-known techniques related to the mold, the release agent, the specifications of the foamed polyurethane foam, and the headrest angle-adjustable assembly, those skilled in the art can easily guess and deduce it and reproduce it.

As shown in FIGS. 20 to 22, the present invention is an ice making machine including an ice-making cylinder 220 in which ice-making water is filled; And an evaporation pipe 131 protruding from the evaporation pipe 131 so as to be in contact with ice making water in the ice making chamber 220 to perform ice making, And an ice making body (31) including an ice making nozzle (132) having a second passage (132A) communicated with the ice making body (131A). .

In this specification, all of the ice making nozzles 132 protruding from the evaporating pipe 131 are formed in the downward direction. However, the ice making nozzles 132 are not limited to the drawings, It is obvious that a person skilled in the art can sufficiently predict the deicing of ice making water of the ice making cylinder 220 by being protruded laterally or upwardly from the ice making body 132 so as not to be limited to the embodiment shown in the drawings.

The ice-making cylinder 220 may be connected to a supply unit for supplying ice-making water, a discharge unit for discharging ice, and a discharge unit for discharging the ice cubes.

In describing the present invention, each of the constituent parts of the ice making device will be described with reference to FIGS. 20 to 22, particularly with reference to FIG. FIG. 20 is a cross-sectional view and a top view schematically showing an embodiment of the present invention, and a circuit diagram of the constituent parts of the ice-making device of the present invention can be seen from the right side of the sectional view.

As shown in FIG. 20, since the ice making device of the present invention has been described above, it is omitted for convenience of explanation.

21 is a perspective view and a cross-sectional view showing the ice-making body 31 of the present invention, and Fig. 22 is a sectional view showing the ice-making nozzle 132. Fig.

As described above, according to the present invention, the ice-making water generated through the ice-making unit is flowed to freeze the ice-making water in contact with the ice-making nozzle 132 provided in the ice-making body 31,

At this time, in the ice maker of the present invention, the converter 37 includes a capillary so that the low temperature low-pressure refrigerant compressed by the converter 37 (see FIG. 20) can flow in a compressed state, (31) so as to flow the refrigerant.

The high-temperature and high-pressure gas generated from the compressor (33) to open the solenoid valve of the ice-making line (39) to flow into the ice-making body (31) to ice the ice from the ice- The contact surfaces of the ice-making nozzles are melted to perform ice-making. At this time, a hot gas (i.e., a hot gas) flows through a passage such as a low-temperature refrigerant.

Accordingly, in the ice maker in which ice making and deicing are repeatedly performed, when the refrigerant is flowed for the ice-making operation, the refrigerant is heat absorbed by the passageway where the temperature rises due to the hot gas flowed for the previous de- There is a problem that the efficiency of the ice maker is low and the ice making time is long.

The present invention reduces the heat absorption of the refrigerant by flowing the low temperature refrigerant flowing from the converter 37 (see FIG. 20) through the capillary 31A connected from the converter 37 to the ice making body 31, And the refrigerant is sprayed from the capillary 31A to secure the pressure for the flow of the ice making body 31, so that the flow of the refrigerant can be smoothly performed.

In addition, in order to smoothly supply the refrigerant to the ice-making nozzle 132, the ice-making nozzle 132 may further include a refrigerant guide member 134, as shown in FIGS. 21 to 24.

The refrigerant guiding member 134 is formed as a refrigerant guiding pipe 134A for guiding the refrigerant flowing through the first passage 131A to the bottom surface of the second passage 132A The refrigerant-guiding member 134 (134B) of the refrigerant pipe 134 will be described later. The refrigerant is circulated smoothly from the evaporation pipe 131 to the ice-making nozzle 132 by the refrigerant induction pipe 134A so that the temperature of the iced water in which the ice-making nozzle 132 is locked can be easily lowered, So that high-quality ice can be produced in a short time.

22, the ice-making nozzle 132 includes an inner tube coupled to the evaporation tube 131 and a second passage 132A spaced apart from the inner tube and connected to the evaporation tube 131 And an enclosure for connecting ends of the inner tube and the outer tube to each other.

The ice making nozzle 132 causes the refrigerant introduced into the ice making nozzle 132 from the evaporating pipe 131 to circulate to the hermetically sealed portion 132c through the second passage 132A, The circulation of the refrigerant is concentrated on the outside of the nozzle 132, thereby minimizing the loss of cooling heat and reducing the ice-making time.

In the present invention, the ice making nozzle 132 further includes the refrigerant induction pipe 134A shown in FIGS. 21 and 23 as described above. 23 is a sectional view showing an embodiment of the above-described refrigerant induction pipe 134A.

23, the refrigerant induction pipe 134A extends toward the end of the inner passage 134a of the evaporation pipe 131, the bent portion 134b and the second passage 132A and is connected to the ice making nozzle 132 And a storage inducing portion 134c having a cross sectional area smaller than the cross sectional area of the second passage 132A of the second passage 132A.

Therefore, in the present invention, the refrigerant for ice-making is supplied to the evaporator 131 through the inner surface coupling portion 134a of the refrigerant induction pipe 134A while flowing the first passage 131A (see FIG. 21) And is guided to the end of the second passage 132A formed in the ice-making nozzle 132 through the bending portion 134b and the storage guide portion 134c.

At this time, one end of the refrigerant induction pipe 134A, that is, the lower end of the storage inducing part 134c, forms an inner bottom surface and a spacing part 132B of the ice-making nozzle 132. [

The refrigerant flowing into the second passage 132A through the spacing portion 132B stays in the ice-making nozzle 132 and flows toward the next ice-making nozzle 132 while the ice-making is being performed.

The shape of the first passage 131A of the evaporator 131 is the same as that of the inner surface of the evaporator 131 of the refrigerant induction pipe 134A, It is not necessary that the shape of the first passage 131A of the first passage 131A coincides with the shape of the first passage 131A.

As described above, it is preferable that the refrigerant for ice-making is circulated to each of the ice-making nozzles 132 so that a large number of ice are simultaneously generated. Therefore, the cross-sectional area of the coupling portion 134a of the ice-making nozzle 132 and the first passage 131A of the evaporation pipe 131 are different or different from each other, and the refrigerant that has not passed through the refrigerant induction pipe 134A passes through It is preferable that refrigerant is supplied and circulated evenly by guiding the refrigerant in the refrigerant induction pipe 134A of the ice making nozzle 132 other than the ice making nozzle 132. [

The coupling portion 134a of the refrigerant induction pipe 134A has the same sectional area as that of the first passage 131A of the evaporation pipe 131 at the opening portion and the bending portion 134b (That is, in the direction of flow of the refrigerant), the cross-sectional area gradually becomes narrower.

In this specification, the flow of the refrigerant for the ice-making is introduced from the first passage 131A through the second passage 132A in the direction of the ice-making nozzle 132 (that is, from the right to the left with reference to the sectional view of FIG. 21) But it is only an example for the sake of convenience of explanation in the present specification, and it should be understood that the refrigerant flows from the second passage 132A to the first passage 131A (that is, 21, the refrigerant induction pipe 134A is shown in one direction so that the flow of the refrigerant along the direction of the refrigerant induction pipe 134A It can be confirmed that the directions are displayed in different directions.

That is, the flow of the refrigerant described above can be reversed, and those skilled in the art should be interpreted as falling within the scope of protection of the present invention, since it can be easily predicted and modified.

However, considering the secondary compression of the refrigerant through the refrigerant induction pipe 134A described later, the ice making device of the present invention is formed such that the refrigerant flows from the right side to the left side (refer to the sectional view of FIG. 21) More preferable.

The refrigerant induction pipe 134A described above not only guides the refrigerant to the second passage 132A but also the refrigerant which is primarily compressed in the converter 37 and flows to the ice making body 31 through the capillary 31A, The refrigerant passes through the coupling portion 134a of the pipe 134A and is secondarily compressed to flow into the second passage 132A. The refrigerant that has flowed through the second passage 132A rises again to flow through the first passage 131A The above-described secondary compression is repeatedly performed.

Through the secondary compression, the refrigerant is repeatedly compressed and injected, and the refrigerant is ensured to be able to flow through the first passage 131A of the evaporation pipe 131 and the second passage 132A of the swirl nozzle, By reducing the heat loss by compression, the icing function and efficiency of the present invention can be improved.

The present invention can be widely applied to a commonly used drinking water supply device, a refrigerator or an ice generator. At this time, in the conventional ice maker, an icemaker serving also as a function of supplying cold water by utilizing residual water remaining after icemaking is generally used.

However, when cold water is supplied using a conventional icemaker, there is a limit to supply cold water by utilizing the ice-making residual water. In addition to the ice-making water, water at room temperature is formed by cold water using a separate cooling device, It is used to supply cold water.

Therefore, a separate cooling device is provided to increase the unit price of a conventional ice maker. In addition, the use of a separate cooling device generates noise, resulting in an increase in the amount of power consumed by the user. It has been a great burden for users who use the ice maker.

In order to prevent the above-described problems, the present invention can be modified so that a part of the ice-making nozzle 132 is used for forming cold water.

For this purpose, in the present invention, the ice making body 31 preferably includes a nozzle for forming cold water only. The cold water forming nozzle will be described in detail with reference to FIGS. 24 and 25. FIG. Fig. 24 is a perspective view showing an ice-making body 31 having a nozzle 135 for forming a cold water as a second embodiment of the present invention, Fig. 25 is a perspective view of the ice- FIG. 2 is a cross-sectional view schematically showing an ice-maker device of FIG.

24 and 25, in the present invention, the evaporation pipe 131 has a refrigerant inlet portion at the beginning of the first passage 131A and a refrigerant outlet portion at the end of the first passage 131A, It is preferable that a plurality of nozzles 132 are provided and spaced apart from each other.

The present invention further includes a cold water container 210 for forming cold water at a lower portion of the ice making box 220 and a portion 135 of the ice making nozzle 132 is extended downward to form a cold water container 210, So that cold water can be formed by cooling the water using the low temperature of the refrigerant.

The cooling water nozzles 135 (hereinafter, referred to as cooling nozzles) that are submerged in the cold water container 210 may be any of a plurality of ice-making nozzles 132 provided in the evaporation pipe 131 and spaced apart from each other, And preferably one or more initial ice-making nozzles adjacent to the refrigerant inlet formed in the inlet of the evaporator 131.

As described above, according to the present invention, a high-temperature, high-pressure refrigerant gas, that is, a hot gas, generated from the compressor 33 to de-ice the ice from the ice-making nozzle 132 is supplied to the solenoid valve (See V in the circuit diagram of FIG. 3), the ice cubes flow into the ice making body 31 serving as an evaporator through the ice making line 39, and the ice that has been suspended falls instantaneously. At this time, the hot gas reaching the ice-making body 31 flows through the first passage 131A of the evaporation pipe 131 and flows (see the circuit diagram of FIG. 20).

Therefore, when the ice-making nozzle 132 is used as a cooling nozzle instead of one or a plurality of the initial ice-making nozzles 135 adjacent to the refrigerant inflow portion formed at the beginning of the evaporation pipe 131, If the hot gas for de-icing flows to the cooling nozzle 135 forming the cold water, the function of constantly forming the cold water may be deteriorated. do.

Therefore, in order to prevent the above-described problem, the hot gas inlet pipe 31B is further provided in which the hot gas supplied from the ice-making line 39 flows in order to remove ice formed in the ice-making nozzle 132 in the present invention And the inlet pipe 31B is arranged in the evaporator tube 131 so as to be spaced apart from the inlet refrigerant inlet and one or a plurality of initial ice-making nozzles (that is, a cooling nozzle 135) in order to communicate with each other.

Further, an opening / closing member (not shown) may be further provided at a connecting portion between the hot gas inflow pipe 31B and the evaporation pipe 131 to allow the refrigerant to penetrate into the opening / closing member when the refrigerant flows, It is possible to prevent penetration into the passage 131A. The opening / closing member includes all the opening and closing means that can be opened and closed, including solenoid valves and the like which are conventionally used, and can be sufficiently predicted and selected by those skilled in the art.

23 and 26, the refrigerant induction pipe 134A of the present invention can be modified into various forms. FIG. 23 is a sectional view showing a refrigerant induction pipe 134A as an embodiment according to the ice-making refrigerator of the present invention, and FIG. 26 is a sectional view showing modifications of the refrigerant induction pipe 134A.

26A, a part or all of the end of the coupling portion 134a of the refrigerant induction pipe 134A is in contact with the inner surface of the evaporation pipe 131, and the refrigerant induction pipe 134A, A part of the ice-making nozzle 134c may be formed in contact with the inner surface of the ice-making nozzle 132.

At this time, the end of the storage guide portion 134c is formed so as to open in a direction opposite to the contacted inner surface, so that the refrigerant induction pipe 134A does not interfere with the gravity and the flow direction of the refrigerant, You can do it smoothly.

Further, as shown in FIG. 26B, a coolant flow auxiliary portion 134d may be formed at the end of the storage guide portion 134c in the horizontal direction. The refrigerant guided to the ice-making nozzle 132 by the refrigerant flow auxiliary part 134d is uniformly dispersed in the interior of the ice-making nozzle 132 (i.e., the second passage 132A) ). ≪ / RTI >

Accordingly, the ice-making nozzle 132 minimizes the loss of the cold of the refrigerant, thereby improving the ice-making efficiency and reducing power consumption by supplying the refrigerant, thereby reducing the maintenance cost of the ice maker. You can expect.

And may further include an upward flow inducing portion 134e which is connected to the end of the refrigerant induction pipe 134c of the refrigerant pipe 134A and is bent in an outer vertical direction, as shown in FIG. 26C.

The upward flow inducing portion 134e not only assists the flow of the refrigerant by inducing the refrigerant induced to be stored at the end portion of the second passage 132A into the upward flow again but also helps the outer flow of the second passage 132A, It is possible to reduce the ice-making time by increasing the ice-making efficiency of the coolant by introducing the coolant so that the nozzle 132 is circulated concentrically on the outer surface contacting the ice-making water.

The ice making nozzle 132 shown in FIG. 22 according to the present invention guides the refrigerant flowing through the first passage 131A rather than the refrigerant induction pipe 134A to the bottom of the second passage 132A And may further comprise a refrigerant inducing member.

That is, the shutoff plate 134B is connected to the connection portion between the ice-making nozzle 132 and the first passage 131A of the evaporation pipe 131 (that is, the portion where the upper side of the internal space 133B and the first passage 131A are connected) The refrigerant flowing through the first passage 131A is blocked by the blocking plate 134B and the stored refrigerant is guided to the second passage 132A of the ice-making nozzle 132, The circulation can be smoothly performed.

A heat insulating layer 134A to be described later is formed on the outer pipe 132b and the sealing portion 132c of the ice making nozzle 132 to enable deicing water to be contacted with the inner circumferential surface 132a of the ice making nozzle 132. [

That is, since the ice making process is performed only in the internal space 133B of the ice making nozzle 132 (that is, the internal ice making by the ice making nozzle 132) For example, square pillars, cylinders, triangular pillars, etc.). Again, this will be described later.

27, the present invention may also be applied to an ice making machine (see FIG. 20) in which icing water is filled; And an ice making nozzle 132 protruding from the bottom surface of the evaporation pipe 131 to be freezing and freezing in the ice-making water of the ice-making container 220. The ice-making nozzle 132 has a first passage 131A through which the refrigerant flows, An ice-making device including an ice maker; , ≪ / RTI >

The ice making nozzle 132 may be formed of an ice making pipe coupled to the bottom surface of the evaporating pipe 131.

A heat insulating layer 133A may be further formed on the outer circumferential surface 133b and the bottom surface 133c of the ice making pipe 133 so that the ice making process may be performed from the inner circumferential surface 133a. For convenience of explanation, the ice making pipe 133 assumes a circular shape in the drawings and the detailed description, but the ice making pipe 133 includes a shape other than a circle.

That is, the ice making pipe 133 is provided not in the shape of a circle (such as a triangular column or a quadrangular column) so as to perform the ice making in the ice making pipe internal space 133B (as in the internal ice making operation of the above described ice making nozzle 132) In addition to being able to receive various shapes of ice,

The heat insulating layer 133A is provided to make the ice making process in the ice making pipe 133, thereby minimizing the loss of cold and heat, thereby reducing the ice making time and power consumption. The internal ice making of the ice making pipe is the same as the internal ice making of the ice making nozzle 132 described above.

The present invention may be applied to a shutoff plate 134B for connecting the upper surface of the ice making space 133B of the ice making pipe 133 and the first passage 131A of the evaporating pipe 131 to guide the refrigerant to the ice making pipe 133, As shown in FIG. The blocking plate functions as the refrigerant guiding member 134 of the above-described ice making nozzle 132 so that the refrigerant flowing through the first passage 131A is circulated toward the second passage 132A of the ice making pipe 133 To be smooth. Therefore, it is preferable that the blocking plate is formed so as to close the first passage 131A formed on the ice making pipe 133.

Therefore, in the water purifier and the like that also serve as a function of providing the conventional ice, the prior arts not only provide the user with a low-temperature drink or food by providing ice,

In order to satisfy user's aesthetic taste by providing transparent ice with no air inside Many technologies  It is presented in the present situation.

However, in general, when only a lower part of the ice-making nozzle is immersed in ice-making water to generate ice or water is filled in an ice bucket, ice is produced in a conventional freezer, the water at 0 ° C has a light- The ice making process is performed from the upper part of the ice-making water in which the ice-making nozzle is locked or the upper part of the ice-

Since the ice is generated from the upper side to the lower side, the air contained in the lower ice-making water can not be discharged and opaque ice including bubbles is generated,

Conventionally, technologies for ice-making have proposed a technique for producing transparent ice through various methods. However, the complicated structure or the generation of transparent ice is not smoothly performed due to the technique, and the efficiency thereof is extremely low, It puts a lot of burden on users.

In order to solve the above-described problems, the ice maker according to the present invention is characterized in that transparent ice containing no air is generated in the ice making nozzle 113 through a simple structure.

To this end, the present invention further comprises a water level sensor comprising a first sensor for sensing the full water level of the iced water and a second sensor for sensing the low water level in the ice tray,

Wherein the ice-making water of the ice-making tray is continuously supplied to the ice-making container until the water level sensor detects the full water level, and is discharged to the outside of the ice-

And the ice making operation is performed while the supply and discharge of the iced water is repeatedly performed.

Therefore, according to the present invention, the ice-making cylinder (10) is provided with a water level sensor (S) for sensing the level of ice-making water so that the icing water is repeatedly supplied and discharged according to the water level, And the air contained in the de-icing water is exposed and de-icing is performed, so that transparent ice can be generated.

That is, only the water in contact with the outer circumferential surface of the ice-making nozzle 113 is instantly frozen by repeatedly supplying and discharging the ice-making water. Ice is then generated sequentially from the surface of the ice, It is possible to prevent one ice from being generated.

In addition, the present invention is characterized in that the ice-making water discharged from the ice-making cylinder is transferred to the cold water tank so that the ice-making water (ice-making water) is transferred to the cold water.

To this end, the present invention comprises: a supply means composed of a supply line including a water supply unit (W) for supplying water to the ice-making cylinder (10) and the cold water cylinder (20)

The supply line includes a pump P having a solenoid valve for controlling water supply through opening and closing and a second supply unit and a third supply unit for making the ice-making cylinder 10 and the cold water cylinder 20 communicate with each other Lt; / RTI >

More specifically, the supply line includes a first supply unit 31 for supplying water from the water supply unit W to the ice-making cylinder 10 and the cold water cylinder 20,

A second supply unit 32 connected to the first supply unit 31 to supply water to the cold water tank 20,

And a third supply unit (33) connected to the first supply unit (31) and supplying water to the ice making cylinder (10)

And a pump P having a solenoid valve at a connection portion between the first supply portion 31 and the second supply portion 32 and the third supply portion 33 to supply the water from the water supply portion W to the ice- Or both of them are continuously supplied with water,

The ice-making water of the ice-making cylinder may be discharged to the cold water tank through the second supply part and the third supply part of the supply line when the full water level is sensed.

Hereinafter, the generation of transparent ice and the formation of cold water through the second supply unit, the third supply unit, and the water level sensor S will be described in detail with reference to FIG. 24 to FIG.

The ice maker according to the present invention is characterized in that the refrigerant conveyed from the compressor 120 for the refrigeration cycle flows into the ice making body 110 composed of the evaporating pipe 111 and the ice making nozzle 113 protrudingly engaged with the evaporating pipe 111 And the ice making nozzle 113, which is immersed in the ice-making water in the ice-making cylinder 10, performs ice-making using the cold heat of the refrigerant.

At this time, as described above, in the present invention, the nozzle 115 dedicated to forming the cold water is exposed to the cold water tank, and the cold water is formed simultaneously with the ice making.

In addition, the ice-making water in the ice-making tray is repeatedly supplied and discharged to enable generation of transparent ice, and the ice-making water discharged from the ice-making container is transferred to the cold water bottle and is transferred to the cold water. It is possible to form ice and cold water as well as to increase the efficiency of ice making and cold water formation.

The ice maker according to the present invention may further include a control unit (not shown) for controlling the solenoid valve included in the pump P to repeatedly supply and discharge the ice-making water,

When the water level sensor S senses the full water level, the controller closes the solenoid valve so that the ice-making water of the ice-making cylinder 10 flows through the second supply part 32 and the third supply part 33 to the cold water tank 20 ),

When the low water level is sensed, the solenoid valve is opened to supply the ice-making water from the water supply unit W to the ice-making cylinder 10.

The supply and discharge of the ice-making water described above with reference to FIG. 28 will now be described in detail.

First, when the first sensor S1 senses the full water level of the ice-making cylinder 10, the control unit closes the solenoid valve so that the first supply unit 31 and the second supply unit 32 and the third supply part 33, and at this time, the pump P is also stopped and the supply of water is stopped.

When the water supply is stopped, the second supply part 32 and the third supply part 33 are filled with water, and the difference in height between the ice-making cylinder 10 and the cold water cylinder 20 causes a potential energy The ice-making water in the ice-making cylinder 10 falls down to the cold water tank 20 automatically and the ice-making water is automatically discharged.

When the second sensor S2 of the ice-making cylinder 10 senses the low water level of the ice-making water, the control unit opens the solenoid valve so that the first supply unit 31 and the second The supply part 32 and the third supply part 33 communicate with each other and the pump P operates to supply water again so that the ice-making water can be supplied to the ice-making cylinder 10.

At this time, the shapes of the second supply part 32 and the third supply part 33 and the connection relation with the ice-making cylinder 10 or the cold water cylinder 20 can be achieved by various methods, In order to prevent the problem that the deicing water discharging structure through the position energy can not be achieved due to the limitations of the structure in consideration of various internal structures such as a water purifier,

The present invention adopts a design in which the second supply part 32 and the third supply part 33 take the form of a siphon tube.

The shape of the siphon tube is based on the principle of the siphon in which the liquid in the two tubes having different heights flows to the lower part of the water even though the liquid is connected to the tube bent upward by the difference of the atmospheric pressure, Flush toilet bowl of the flue gas is representative.

Therefore, in the present invention, the second supply unit 32 is designed to be folded such as 'A' or '∩' shape, and when the icing water supply of the controller is interrupted, So that the ice water is discharged to the cold water tank,

The ice-making water of the ice-making cylinder 10 can be discharged to the cold water cylinder 20 without being restricted by the structural limitations of the water purifier or the like, and the operation or additional structure of the pump for discharging the ice- It is possible to simplify the structure so that the manufacturing cost can be lowered and the manufacturing convenience can be improved.

In FIG. 28, the siphon tube in which the second supply portion is formed in the 'a' shape is shown for convenience of explanation, and the siphon tube may be modified into various shapes using the principle of the siphon described above.

In the present invention, when the supply of water from the water supply unit W to the cold water tank 20 is continued, the water may be overflowed beyond the capacity of the cold water tank 20, (Not shown) for detecting the water level of the cold water tank 20 so as to control the water level of the cold water tank 20. [

The solenoid valve has a multi-structure in order to regulate the water level of the cold water container 20. The solenoid valve communicates only the first supply part 31 and the second supply part 32 when the valve is opened, The third supply part 33 or the first supply part 31 and the second supply part 32 and the third supply part 33,

The multi-structure of the solenoid valve can be sufficiently predicted and reproduced by a person skilled in the art as a conventional technique conventionally used (commonly referred to as a 2WAY solenoid valve, 3WAY solenoid valve, etc.), and the principle of operation of the solenoid valve The detailed description thereof will be omitted.

The icemaker according to the present invention is also capable of discharging the ice-making water described above when the ice-making water is discharged from the ice-making tray 10, Or,

The ice-making water is supplied to the ice-making tub by the cold water of the cold water tank,

This can also be easily reproduced by a person skilled in the art through the structure of the solenoid valve, and the communication relation of the supply line or the flow of the ice water (water) etc. are the same as described above.

The speed at which the ice-making water is supplied to and discharged from the ice-making cylinder 10 can be adjusted by selecting the unit supply or the unit discharge amount by varying the specifications of the supply lines 31, 32, and 33.

Accordingly, the ice maker of the present invention can simultaneously supply ice and cold water through the simplified structure, and can supply water to the ice-making cylinder 10 and the cold water bottle 20, thereby reducing the size and trouble of the ice- 10, the cooling water is used as the cold water tank 20 to assist the cooling function of the cold water tank 20, thereby improving the efficiency of forming cold water. In addition, by providing a very simple structure for producing transparent ice, A transparent ice water purifier and the like can be popularized.

The present invention can be modified as shown in FIGS. 29 to 32. FIG.

FIG. 29 is a sectional view schematically showing an embodiment of the ice making device according to the present invention, FIG. 30 is an operational flowchart of the first embodiment of the ice making device according to the present invention, and FIG. 31 is a schematic view showing the second embodiment of the ice making device according to the present invention 32 is a cross-sectional view schematically showing a third embodiment of the ice making device according to the present invention and a plan view of the main part thereof.

As shown in FIGS. 29 to 32, the ice making device according to the present invention has an ice tray 10 in which iced water is filled; And an ice making body 110 including an evaporating tube 111 through which a refrigerant flows and a plurality of ice making nozzles 113 protruding from the evaporating tube 111 and performing ice making and deicing, .

The ice-making water may be a water tank or the like serving as a water supply unit (not shown) provided at one side of the ice making machine of the present invention. If necessary, the water may be roasted through the filter assembly (when the water tank contains ground water, etc.)

The water supply unit may be configured to use both tap water and a water bottle.

Further, the ice-making water includes all the water used for ice-making, which will be described later, and should not be construed to be limited to water for ice-making only.

The ice-making cylinder 10 may be configured to include a supply unit for supplying de-iced water and a discharge unit for discharging the ice-making water. For the sake of convenience, the detailed configuration and connection relationship are omitted .

The ice making apparatus according to the present invention freezes the icing water which is in contact with the ice making nozzle 113 provided in the ice making body 110 by freezing the refrigerant for icing generated through the icing unit.

The ice making body 110 is formed so as to be constantly immersed in the iced water of the ice making cylinder 10 in a state where the ice making body 110 is spaced apart from the bottom of the ice making cylinder 10, As shown in Fig.

The ice making body 110 composed of the evaporating pipe 111 and the ice making nozzle 113 protrudingly coupled to the evaporating pipe 111 is immersed in the iced water of the ice making cylinder 10 to perform ice making using the cool heat of the coolant do.

Accordingly, since the ice making body 110 is always kept immersed in the iced water, the present invention is equipped with the discharging means (not shown) connected to the cold water only coke (not shown) or the like so that the ice making residual water after the ice making is completed, 10 can be used as cold water naturally. Therefore, no separate cooling means for forming cold water is provided. This has the advantage of reducing noise generation and power consumption.

Next, according to the present invention, hot gas of high temperature and high pressure is supplied to the ice making body 110 by opening the valve (V) after ice making, and the ice contact surface formed by contacting the ice making nozzle (113) .

For this purpose, it is preferable that the ice making body 110 further includes an ice-making line through which hot gas for ice-making of the ice-making nozzle 113 flows.

That is, the ice-making machine according to the present invention opens the solenoid valve of the ice-making line to the ice-making body 110 to move the high-temperature, high-pressure gas generated from the compressor 33 to the ice- The contact surface of the nozzle 113 is melted to perform de-icing.

At this time, a hot gas (i.e., a hot gas) flows through a passage such as a low-temperature refrigerant.

According to the present invention, since the upwardly protruding ice-making nozzle 113 is provided, the temperature of the ice-making nozzle 113 rises when the hot gas flows after the ice-making, and the raised temperature melts the contact surface of the ice- The ice is removed from the nozzle 113, and the ice that has been scooped up to the upper side of the ice-making cylinder 10 due to buoyancy can be discharged through a separate ice discharging means.

However, when the ice-making device repeatedly performs ice-making and de-icing, when the refrigerant flows for the ice-making operation, the internal passage of the ice-making body 110 whose temperature has risen due to the hot gas flowing for previous ice- The temperature of the refrigerant is increased or the temperature of the ice-making body 110 is increased. As a result, the temperature cooling time due to the cooling of the refrigerant takes a long time.

In order to solve the above problems, the ice maker of the present invention can collect ice floating by buoyancy through a separate ice discharging means,

In consideration of simplification of the structure, lowering of the price of the ice making unit, and ease of production, it is necessary to remove the ice from the ice-making nozzle 113 when the ice-making cylinder 10 is scooped, And an icing water stage 200. [

Therefore, the present invention can perform deicing in a shorter time than performing deicing by only hot gas flowing by the deicing line, and it is possible to perform deicing by moving the deicing device 110 to the deicing nozzle 113 It is possible to reduce the residence time of the hot gas and to prevent the temperature of the ice making nozzle 113 from rising due to the flow of the hot gas, thereby shortening the cooling time through the cold heat during repeated ice making, thereby maximizing the ice making efficiency.

The deicing device 200 includes a driving unit 210 hinged to the ice tray 10 and a deicing device 221 connected to the driving unit 210 and through which the ice making nozzle 113 penetrates And a de-icing unit 220.

That is, as shown in FIG. 30, in the ice making device according to the present invention, the ice making body 110 and the ice making nozzle 113 are formed by being immersed in ice water, As soon as it starts.

The deicing unit 200 removes the ice from the ice making nozzle 113 and collects the ice cubes so that the deicing unit 200 helps the buoyancy of the ice from which deicing is started to be performed in a short time, (Not shown) of the ice maker.

Therefore, in order to smoothly swing (rotate) the deicing device 200, the ice making body 110 is formed to be inclined downward from the outer wall of the ice tray 10, and the deicing hole 221 of the deicing part 220 It is preferable that the size of the ice making nozzle 113 is larger than the size of the ice making nozzle 113 in consideration of the rotational drive so that a spacing portion 221 of a predetermined space is formed between the deicing hole 221 and the ice making nozzle 113. (See also the enlargement of the lumbar region)

29, the ice-making line through which the hot gas for ice-making is flowed in the ice-making body is connected to one of the outer sides of the ice-making body without being built in the ice-making body in the first embodiment according to the present invention, .

More specifically, the ice making body may include an ice making line not passing through the initial ice making nozzle adjacent to the coolant inflow portion of the ice making body, such as the ice making line 150 shown in FIG. 32 described later.

The deicing unit may be formed to exclude an initial ice making nozzle not passing through the ice making line, and the initial ice making nozzle may be dedicated to a nozzle for forming cold water only.

The detailed configuration and connection relationship of the nozzle for exclusive use of the cold water are similar to those of the third embodiment described later, and those skilled in the art can sufficiently predict and reproduce the detailed description.

The driving means for driving the de-icing water stage 200 may be variously operated by a hydraulic pressure, a pneumatic pressure, a motor, etc., and is not related to essential features of the present invention.

31, the deicing section 220 may further include a side wall 225 for limiting inflow of de-iced water into the ice making nozzle 113. In this embodiment, as shown in FIG.

The side walls 225 prevent the cold heat from being transferred to the entire ice making water which is locked by the ice making body 110 and to the ice making water which is not adjacent to the ice making nozzle 113,

It is possible to prevent a problem that the ice cubes that have been scraped off from the de-icing water stage 200 fall off from the de-icing unit 220 and drop into the ice-making tray 10.

The ice making hole 221 of the deicing part 220 is formed to be wider than the outer diameter of the ice making nozzle 113 so that the ice making nozzle 113 is separated from the predetermined space 221 The deicing unit 220 does not require a separate device for introducing the deicing water into the side wall 225. [

Further, the deicing-ice hole 221 may further include an adjusting member (not shown) for adjusting the flow of deicing water.

The adjusting member is made of a flexible material and is formed to close a part of the deicing hole to control the inflow amount of the deicing water and to control the amount of deicing water to be supplied to the ice making nozzle 113, It is possible to prevent breakage due to the contact of the deicing hole 221.

The size of the adjusting member and the configuration related to the sealing portion of the deicing hole may be variously formed according to the size and height of the ice making nozzle, and the like can be sufficiently predicted and reproduced by those skilled in the art.

In addition, the present invention enables the generation of transparent ice as well as the assisting of ice decking and the prevention of dropping of ice through the side wall 225 and the ice-making hole 221 of the de-icing unit 220.

Conventionally, in the water purifier or the like which also serves as a function of providing ice in the prior art, the conventional technologies not only provide a low-temperature drink or food to the user by providing ice,

A number of technologies have been proposed to satisfy user's aesthetic taste by providing transparent ice that does not contain air inside.

However, in general, when only a lower part of the ice-making nozzle is immersed in ice-making water to generate ice or water is filled in an ice bucket, ice is produced in a conventional freezer, the water at 0 ° C has a light- The ice making process is performed from the upper part of the ice-making water in which the ice-making nozzle is locked or the upper part of the ice-

Since the ice is generated from the upper side to the lower side, the air contained in the lower ice-making water is not discharged and opaque ice including bubbles is generated. Therefore, the conventional ice-making technologies have disclosed techniques for producing transparent ice through various methods However, the complicated structure or the generation of transparent ice is not smoothly performed, and the efficiency thereof is extremely low. Therefore, the manufacturing cost is increased and the user is burdened.

In order to solve the above-described problems, the present invention allows the ice making body 110 to perform ice making in the middle of deicing water in a state in which the ice making body 110 is completely immersed in the iced water, The cold heat is lost during the movement

In this case, only the ice-making water, which is instantaneously received at 0 ° C, is directly received by the ice-making nozzle 113 in contact with the ice-making nozzle 113. In this case, the air contained in the ice-making water is discharged upward, It is possible to generate transparent ice even with only the ice-making means.

Further, the present invention can be modified into a cold water-dedicated nozzle 115 for exerting a part of the ice making nozzle 113 whose inflow of de-iced water is limited to the side wall 225 to the outside of the side wall 225, have.

32, in the ice maker according to the present invention, the ice-making line 150 is spaced apart from the refrigerant inlet 111A of the evaporator 111, Without passing through one or a plurality of initial ice-making nozzles provided on the portion 111A side,

The side walls 225 are formed by excluding the one or more initial ice-making nozzles, and the initial ice-making nozzles include nozzles 115 dedicated to forming cold water.

32 is a front view and an enlarged view showing a third embodiment of the ice making device according to the present invention.

As described above, in the ice making machine according to the present invention, since the ice making is performed while the ice making body 110 is always kept in the ice making water, the ice making water can be used as the cold water,

The hot gas may flow into the ice making body 110 at the time of ice-making so that the temperature of the ice making body 110 and the ice making nozzle rises. As a result, the efficiency of forming cold water may be reduced.

31, when the side wall 225 is formed in the deicing unit 220, the effect of isolating the ice making body 110 from the ice making water of the ice making cylinder 10 And there is a great deal of difficulty in making ice from the ice making water flowing from the ice making hole 221 and transferring the ice making water to the cold water.

In order to solve the above-mentioned problems, the present invention is directed to an apparatus and a method for dispensing an initial refrigerant nozzle adjacent to a refrigerant inlet portion 111A to a nozzle 115 dedicated to forming a cold water (hereinafter, referred to as a nozzle 115 dedicated to forming a cold water The ice making nozzle 115 is always exposed to the iced water, so that the ice making and the cold water forming can be performed at the same time.

Since the nozzle 115 dedicated to the cold water is always exposed to the ice making water, excessive ice making of the ice making water adjacent to the dedicated nozzle 115 may occur. However, according to the present invention, The ice-making operation is repeatedly stopped through the flow,

Furthermore, since a single or a plurality of nozzles 115, particularly a small number of nozzles 115 dedicated to forming cold water, are provided in comparison with a large amount of ice making water, a problem of structurally occurring problems such as excessive icing or excessively low temperature, Can be canceled through generation.

Accordingly, since the ice-making water in the ice-making cylinder 10 can be used as cold water, the ice-making water and the cold water can be formed only by one ice-making means, It is possible to prevent the problem that the amount of use increases.

While the present invention has been described with reference to the accompanying drawings, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the appended claims. And should be construed as falling within the scope of protection of the present invention.

A1: Cooler / heater A2: Water purifier
W1, W2: water supply unit 10: cold water tank
11: water level sensing means 13: temperature sensor
20: ice tray 30:
31: ice making body 33: compressor
35: condenser 37: capillary tube
39: driving line 40: conveying guide member
41: Slit hole 43: Clog plate
45: round section 50: ice tray
60: displacement means 61:
62: rotating shaft 63A, 63B: rotating rod
65: Hinge pin F: Filter assembly
P1, P2: Pump V1, V2: Valve
SW1 and SW2: switches C1 and C2:
T: Hot water tank IC: Ice
100: ice supply device 110: fixed body
111: discharging part 113:
S: opening / closing body 120: displacement member
121: discharge port 123: spring
130: operating member 131: first elevating member
133: second elevator body 135A, 135B: resistance member
140: stirrer 150: ice tray
151:

Claims (10)

An ice tray having a discharge portion;
An opening / closing body for opening / closing the discharge port of the ice bin; And
Separating means operated by operating means for moving ice contained in the ice bucket;
And an ice discharge device.
The method according to claim 1,
Wherein the operating means is an opening and closing means connected to the separating means.
The method according to claim 1,
Wherein the separating means comprises a discharge member for pressing the ice to the discharge port.
The method of claim 3,
The ice cistern is provided with a guide portion formed toward the discharge portion,
Wherein the separating means has a wing portion that moves along the guide portion.
5. The method according to any one of claims 1 to 4,
Wherein the opening and closing member has a pressing portion and an opening and closing portion which are connected to each other, and a rotating shaft is provided between the pressing portion and the opening and closing portion, and the rotating shaft is provided with an elastic body,
Wherein an opening / closing end of the opening / closing body is connected to the separating means through a connecting shaft.
An ice-making cylinder filled with ice-making water;
An ice-making unit including an ice-making body which is immersed in the ice-making water to perform ice-making and de-icing;
An opening and closing member that opens and closes a lower opening of the ice-making cylinder to discharge ice when the ice-making body is scooped, and a displacing unit that moves the opening and closing member; And
An ice cube having a discharge part,
An opening / closing member for opening and closing the discharge portion of the ice bin, and
An ice discharge device operated by the operating means and including separating means for moving ice contained in the ice cube container;
And an ice-making function.
An ice-making cylinder filled with ice-making water;
An ice-making unit including an ice-making body which is immersed in the ice-making water to perform ice-making and de-icing;
A discharging means for discharging ice upon deicing of the ice making body;
An ice tray for storing the ice discharged by the discharging means; And
An ice moving device including biasing means for driving the ice stored in the ice bin to a discharge portion;
And an ice-making function.
8. The method of claim 7,
Wherein the biasing means of the ice movement device includes a bottom inclined portion of the ice bin.
An ice-making cylinder filled with ice-making water;
An ice-making unit including an ice-making body which is immersed in the ice-making water to perform ice-making and de-icing;
A discharging means for discharging ice upon deicing of the ice making body;
An ice tray for storing the ice discharged by the discharging means; And
An ice moving device including separating means for rocking the ice stored in the ice cube;
And an ice-making function.
10. The method according to any one of claims 7 to 9,
The biasing means or the separating means
And a rocking means for moving the mesh-like body. The drinking water supply apparatus according to claim 1,
KR1020120142942A 2012-12-10 2012-12-10 Ice dispenser and water dispenser equipped with ice maker using the same KR20140074693A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
KR1020120142942A KR20140074693A (en) 2012-12-10 2012-12-10 Ice dispenser and water dispenser equipped with ice maker using the same

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
KR1020120142942A KR20140074693A (en) 2012-12-10 2012-12-10 Ice dispenser and water dispenser equipped with ice maker using the same

Publications (1)

Publication Number Publication Date
KR20140074693A true KR20140074693A (en) 2014-06-18

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Country Status (1)

Country Link
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN115342566A (en) * 2022-08-12 2022-11-15 西安交通大学 Water dispenser cold accumulation device and method based on shape memory alloy

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN115342566A (en) * 2022-08-12 2022-11-15 西安交通大学 Water dispenser cold accumulation device and method based on shape memory alloy
CN115342566B (en) * 2022-08-12 2023-08-15 西安交通大学 Water dispenser cold accumulation device and cold accumulation method based on shape memory alloy

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