KR20010088517A - Ice Box radiation Of Cosmetics - Google Patents

Abstract

PURPOSE: A device for radiation of a refrigerator for storing cosmetics is provided to integrally contact a thermo-element for generating cool air with an insertion type air tube for increasing the heat radiation effect and carry out secondary cooling process by disposing discharge and supply condensers on a same line with a same standard. CONSTITUTION: A device for radiation of a refrigerator for storing cosmetics includes a semiconductor thermo-element(16) coupled with an insertion type air tube(34) integrally for flowing cooling air in the tube, a mesh type aluminium radiation plate mounted outside the insertion type air tube for cooling the heat in the insertion air tube by blowing atmospheric air, a mechanical chamber for driving the air suction and air discharge, discharge and supply condensers of same standards disposed on a same horizontal line at an upper part of the mechanical chamber, a compressor connecting the insertion type air tube to the discharge condenser for circulating cooling air, and a blowing fan mounted in the center of a lower part of the mechanical chamber for cooling the outer surfaces of the insertion type air tube and the condensers.

Description

Refrigerator Radiator for Cosmetic Storage {Ice Box radiation Of Cosmetics}

The technical content of the present invention relates to a heat dissipation device for a refrigerator for cosmetic storage incorporating a heat dissipation device. When the supply power source 17 for driving a refrigerator is connected to the thermoelectric element 16, the polarity of the current in the thermoelectric element 16 is achieved. By repeatedly operating the heat generated in the steel circulation type through the cooling action due to the endothermic cooling and heat dissipation to reduce the room temperature inside the refrigerator 15 to form a compact cosmetic storage refrigerator (15) It relates to a heat dissipation device.

The heat dissipation device of the refrigerator for cosmetic storage having the above contents is installed in the space between the rear surface of the refrigerator 15 and the blocking plate 35 so that the cool air generated by the thermoelectric element 16 forms the air flow therein. Once stored, cold air flows in from the top of the refrigerator.

The heat of the thermoelectric element 16 generated at this time is discharged to the mesh-type aluminum heat sink 28, which is the face plate of the heat sink side 27, the heat of a part of the heat generated by the celestial heat is dissipated and the remaining heat is wound several times. The exhaust air discharged in this way is sufficiently cooled while passing through the supply condenser 29 through the compressor 26 to allow sufficient cooling while passing through the insertion air tube 34 inside the thermoelectric element 16 in the upper part of the refrigerator. By forcibly discharging the high heat of the surface of the heat generating thermoelectric element is to maximize the efficiency of the cold air generation of the thermoelectric element (16).

However, the prior art in this field is a natural air-cooled air does not push the air into the steel, so the heat sink temperature of the thermoelectric element can not be lowered below the atmospheric temperature limit is reduced the effect of generating the cold air of the thermoelectric element. In addition, in the cooling device, since the thermoelectric element and the cooling medium are separated and indirect contact type, it is true that the heat transfer effect is inferior.

The present invention is to complete the heat dissipation device of the thermoelectric element 16, the structure of the cooling device and the pneumatic airflow system to improve the cooling efficiency of the small refrigerator, the heat sink side 27 of the thermoelectric element attached to the back of the refrigerator The insertion type air tube 34 is installed, and the air tube 34 and the thermoelectric element 16 are combined in a completely bonded manner so that the inner surface of the insertion type air tube 34 and the side surface of the thermoelectric element heat sink 27 are insulated. 25) and installed so that all of the heat generated therein is stored in the insert type air tube 34, and at the same time, cooling air forcibly sent from the compressor 26 enters the insert type air tube 34, and at the heating plate 27, It is a heat radiation device of the refrigerator 15 to push the heat dissipated heat to the discharge condenser 30 to increase the cooling efficiency of the thermoelectric element 16 which is a cooling function.

1 is a rear structure diagram showing the arrangement of the cooling device of the refrigerator for storing cosmetics.

Figure 2 is a side cross-sectional view showing a coupling state of the thermoelectric element and the insertion-type air tube of the present invention.

Figure 3 is a detailed layout of the combination of the thermoelectric element and the insertion air tube.

Figure 4 is a top view of the mesh type aluminum heat sink.

5 is a side cross-sectional view of a mesh type aluminum heat radiation wave;

[Description of Symbols for Main Parts of Drawing]

(15) refrigerator body (26) compressor

(16) Semiconductor Thermoelectric Element (27) Heat Sink Side

(17) Electrical Supply Line (28) Mesh Aluminum Heat Sink

18 blower pen 29 supply condenser

(19) Heat Dissipation (30) Discharge Condenser

(20) Cosmetics (31) Supply Connection Unit

(23) Refrigerator machine room (32) Discharge connection unit

(24) Hot air storage space (33) Cold plate side

(25) Insulation sealing cover (34) Insertion type air tube

(35) Refrigerator Block (40) Refrigerator Door

41 intake air pipe 42 exhaust air pipe

As described above, the heat dissipation device for increasing the cooling efficiency of the thermoelectric element of the present invention will be described as follows based on the reference numerals in the accompanying drawings.

1 is a rear structural view showing the arrangement of the components for the cooling device of the compact cosmetic storage refrigerator.

Figure 2 is a side cross-sectional view showing a combined state of the thermoelectric element and the insertion-type air tube of the cold air generating device of the present invention.

3 is a detailed perspective view illustrating a sequence in which a thermoelectric element and an insertable air tube are combined.

4 is a top view of a mesh type aluminum heat sink.

5 is a side view of the mesh type aluminum heat sink.

The heat dissipation device of the present invention based on each of the drawings

In order to increase the cooling efficiency of the refrigerator 15, the components include the cold air generating plate side 33 and the heat sink side 27 of the thermoelectric element 16, which are the core elements of the cooling mechanism, and the thermoelectric element. Compressor 26 for connecting the assembled air tube 34 to the insertable air tube 34 and the assembled insert air tube 34 and the discharge capacitor 30 to circulate cooling air forcibly; A pipe connection part connected to connect the flow of cooling air, a machine room 23 for driving the air intake and discharge, a supply capacitor 29 and an exhaust capacitor 30 installed at the upper part of the machine room, and for cooling the condenser. The blower pen 18 is installed.

As shown in FIG. 1, the insertable air tube 34 is positioned above the rear surface of the refrigerator 15, and the supply connection unit 31 is attached to the upper portion of the air tube 34, and the discharge connection unit 32 is disposed below. In the concave portion of the inner surface of the insertion type air tube 34, which is fastened as a nut, the thermoelectric element 16 is assembled in place as shown in FIG.

In addition, the hot heat generated from the heat sink side 27 of the thermoelectric element 16 is pushed by a forced discharge method is formed into a structure for cooling by sending to the discharge condenser 30, the exhaust air discharged after this first cooling is again In the process of passing through the supply condenser 29 by the compressor 26, the component which introduces circulating air into the insertion type air tube 34 which is a cooling device of the thermoelectric element 16 through a 2nd cooling process is formed.

The cooling capacitor includes a main body of an insertable air tube 34 and a supply capacitor 29 and an exhaust capacitor 30, that is, a machine room 23, combined with a thermoelectric element 16 located on a wall of a refrigerator 15 blocking plate exterior. The cooling air flow is circulated through the surface area of the surface area of the insertion type air tube 34 in which the two condensers and one thermoelectric element are combined by the air cooling blower pen 18 mounted on the lower portion.

On the other hand, it is installed in the machine room 23 is configured to continuously operate the intake and discharge of the circulating air so as to smoothly and continuously interlock the cooling function of the thermoelectric element (16).

When the power supply 17 is connected to the thermoelectric element 16 according to the cooling system of the thermoelectric element 16 of the present invention configured as described above, cold air generation and circulation air flow operation configured for the heat dissipation device of the refrigerator, discharge condenser 30, The supply capacitor 29 and the blower fan 18 are driven in an interlocked fashion.

By the interlocking operation, a cool air stream is generated on the inner surface of the thermoelectric element 16, and the produced cold air flows into the refrigerator in a vortex form, and the heat generated from the outer surface of the thermoelectric element 16 is inserted into an air tube. (34) As it enters the inside and is discharged along with the flow of cooling air, the efficiency of the heat radiation function is increased.

The circulation function is to maintain the cold air circulation function in the refrigerator due to the circulation of air by the compressor 26 and the generation of cold air and heat radiation of the thermoelectric element by the power supply 17 without using a special refrigerant element.

As described above, the present invention, the refrigerator heat dissipation device for cosmetic storage, by contacting the thermoelectric element of the cold air generating unit integrally with the insertion-type air tube as a cooling tool to increase the heat dissipation effect, and also to heat the inside of the air pipe line. Secondary cooling process is performed by installing exhaust condenser and supply condenser on the same position line to increase cooling effect, and cooling efficiency is increased by installing mesh type aluminum heat sink with external shape of insert type air tube. There is a characteristic to let.

Claims (1)

A method of integrally installing the semiconductor thermoelectric element 16 of the refrigerator 15 in combination with the insertion type air tube 34 in the external protrusion, and allowing the cooling air to flow into the insertion type air tube 34; The external shape of the insert type air tube 34 with the mesh type aluminum heat sink 28 so as to cool the heat in the insert type air tube 34, and the exhaust condenser 30 and the supply condenser 29 are of the same standard. The outer surface of the left and right condenser (supply condenser 29 and exhaust condenser 30) and the insertable air tube 34 located above the condenser and the lower part of the machine room 23 located on the same horizontal line. Heat dissipation device of the refrigerator for cosmetics, characterized in that the air cooling method.