The present invention relates to an air conditioner, and in particular to a single unit type air conditioner having an indoor unit and an outdoor unit as one body.
An air conditioner is for adjusting temperature, humidity, air current in a certain space so as to be appropriate for activity of human being and removing dust, etc. from air simultaneously.
The air conditioner consists of an indoor unit for cooling/heating indoor air and an outdoor unit for discharging/absorbing heat generated in the indoor unit to outdoors, the indoor unit and the outdoor unit can be installed separately or as one body.
In particular, an air conditioner having an indoor unit and an outdoor unit as one body is called a single unit type air conditioner or a window type air conditioner (hereinafter, it is referred to a single unit type air conditioner).
As depicted in
A motor 13 is installed at the center of the separation plate 11, a fan 23 for generating air flow is installed at a rotational shaft 13a of the motor 13 in the indoor space region 21 in order to make sucked indoor air pass the evaporator 22, and a cooling fan 33 for generating air flow is installed at the rotational shaft 13a of the motor 13 in the outdoor space region 31 in order to make sucked outdoor air pass the condenser 32.
In general, a turbo fan is used as the fan 23, and an axial fan is used as the cooling fan 33.
In the conventional single unit type air conditioner, when power is applied, the compressor 12 compresses the refrigerant in the operation, the refrigerant compressed in the compressor 12 releases heat to the outdoor air sucked by the cooling fan 33 while passing the condenser 32, and accordingly the refrigerant is cooled.
The refrigerant cooled while passing the condenser 32 flows to the evaporator 22, performs heat exchange with the indoor air sucked by the fan 23 and cools the indoor air so as to be at a certain temperature.
Herein, condensate water is generated on the surface of the evaporator 22 while the indoor air is cooled.
The air conditioner includes a condensate water discharge unit (not shown) for discharging condensate water generated in the operation to the outside, and a flow channel (not shown) is formed at a bottom region 14 of the casing 10 in order to make the condensate water flow from the indoor space region 21 to the outdoor space region 31 smoothly.
In more detail, the condensate water condensed on the surface of the evaporator 22 flows to the bottom region 14 of the casing 10 and flows to the outdoor space region 31 along the flow channel.
The condensate water gathered in the bottom region 14 of the outdoor space region 31 is generally discharged to the outside by the condensate water discharge unit (not shown), etc. However, part of the condensate water can be scattered onto the condenser 32 by a scattering unit (not shown), etc. additionally installed or installed at the end of a wing of the cooling fan 33 in order to cool the condenser 32 more efficiently.
In the meantime, the conventional single unit type air conditioner can be installed in any space, but, it is generally installed at a window. However, because of the structure, there is a limit to adjust a width or a height of the air conditioner while securing a certain cooling performance.
In more detail, in the conventional single unit type air conditioner, because it is installed at a window, installation conditions may be intricate, in addition, it may injure the view.
In order to solve the above-mentioned problems, it is an object of the present invention to provide an air conditioner that is capable of having a structure adjustable a height freely.
In order to achieve the above-mentioned objects, it is another object of the present invention to provide an air conditioner that is capable of adjusting a height thereof freely and cooling a condenser more efficiently by using condensate water.
In order to achieve the above-mentioned objects, an air conditioner in accordance with the present invention includes a casing having an indoor space region in which a first heat exchanger is installed and an outdoor space region in which a second heat exchanger is installed; a cross flow fan installed in the outdoor space region and generating air flow so as to make outdoor air pass the second heat exchanger and release heat to the outside; and a condensate water scattering means for scattering condensate water gathered in a bottom region of the casing to the second heat exchanger.
The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this specification, illustrate embodiments of the invention and together with the description serve to explain the principles of the invention.
In the drawings:
Hereinafter, the preferred embodiment of an air conditioner in accordance with present invention will be described in detail with reference to accompanying drawings. Construction parts same with or similar to the conventional art will have the same reference numerals, and description about them will be abridged for convenience.
The air conditioner in accordance with the present invention includes a casing 100 having an indoor space region 210 in which a first heat exchanger 20 is installed and an outdoor space region 310 in which a second heat exchanger 320 is installed; a cross flow fan 330′ installed in the outdoor space region 310 and generating air flow so as to make outdoor air pass the second heat exchanger 320 and release heat to the outside; and a condensate water scattering means for scattering condensate water gathered in a bottom region 110 of the casing 100 to the second heat exchanger 320.
The first heat exchanger 220 is an evaporator constructing a refrigeration cycle and is connected to a compressor 130 installed in the casing 100 for compressing a refrigerant passing the first heat exchanger 220.
In the indoor space region 210 of the casing 100, a suction unit 241 for sucking indoor air with an air guide 240 for smoothing air flow in the indoor space region 310; and a discharge unit 242 for discharging the sucked air into Indoors are formed on a wall of the casing 100, as depicted in
And, the first heat exchanger 220 can be variously constructed according to installation shapes and positions, in the present invention, it is installed in the discharge unit 242.
In the meantime, a fan 230 is installed in the indoor space region 210 as a means for generating air flow so as to suck indoor air into the indoor space region 210 and discharge the sucked air to the room, as depicted in
And, in the bottom region 110 of the indoor space region 210 of the casing 100, a condensate water flow channel (not shown) is formed in order to make the condensate water generated on the surface of the first heat exchanger 220 in the operation flow toward the outdoor space region 310.
In the meantime, an air guide 340 is formed in the outdoor space region 310 in order to smooth the air flow, and it includes a stabilizer 341 and a rear guide 342.
The stabilizer 341 is fixedly installed at the upper portion of the cross flow fan 330, and the rear guide 342 is installed at a separation wall 120 for dividing the casing 100 into the indoor space region 210 and the outdoor space region 310. In particular, in the rear guide 342, for improving an aerodynamic performance of the air guide 340, a protrusion portion 345 is formed at the bottom region 110 in order to make the condensate water stay between the rear guide 342 and a discharge portion 343 so as to prevent the stayed condensate water from distorting a radius of curvature of the air guide 340.
A section shape of the stabilizer 341 can be variously formed in case of needs, as depicted in
And, in the outdoor space region 310, a suction portion 344 for sucking the outdoor air and the discharge portion 343 for sucking the indoor air are formed at the wall surface of the casing 100. As depicted in
The second heat exchanger 320 is a condenser constructing the refrigerant cycle, is installed in the suction portion 344 or the discharge portion 343 and is connected to the compressor 130 in order to cool the refrigerant compressed in the compressor 130 through heat exchange with the outdoor air.
As depicted in
And, an end of the rotational shaft 333 of the cross flow fan 330 is combined with a rotational shaft of a driving motor 335 installed at a certain side of the outdoor space region 310, and the other end of the rotational shaft 333 of the cross flow fan 330 is rotatably supported by a shaft supporting unit 336 fixedly installed to the bottom region 110 of the casing 100.
As depicted in
Each slinger ring 360 is installed at each diaphragm 332 of the cross flow fan 330, or, it can be installed only at the diaphragms 332 formed at the both ends of the cross flow fan 330 in order to minimize power consumption in installation.
The slinger rings 360 are installed so as to be dip into the condensate water gathered in the bottom region 110 of the casing 100 (when the air conditioner is operated for a certain time, a certain amount of condensate water stays in the bottom region 110 of the casing 100), and accordingly the condensate water is scattered to the second heat exchanger 320 according to the rotation of the cross flow fan 330.
In particular, as depicted in
In addition, as depicted in
In addition, as depicted in
Herein, a section of the slinger ring 360 in the radius direction has a ‘H’ shape. And, in the slinger ring 360, a plurality of protrusion portions 362 having a certain angle on the basis of the center of the slinger ring 360 can be formed in the circumferential direction. Herein, the end portion 360c is protruded inwardly at the protrusion portion 362 in the radius direction.
In the meantime, in the air guide 340 having the stabilizer 341 and the rear guide 342, the smaller a width of a portion in which the cross flow fan 330 is arranged, the more a ventilation performance is improved. For that, the stabilizer 341 and the rear guide 342 have to be arranged nearer to the cross flow fan 330.
For that, as depicted in
In the meantime, the condensate water on the slinger ring 360 is scattered to the outside through the second heat exchanger 320 and the discharge portion 343 by the air flow, in order to prevent it, as depicted in
The protector 370 is fixedly installed to the outdoor space region 310 in order to prevent the condensate water on the slinger ring 360 from being scattered to the outside of the casing 100 through the suction portion 344 or the discharge portion 343 by the air flow, and part of the outer circumference of the slinger ring 360 is inserted into the protector 370 with a certain air gap.
As depicted in
And, the protector 370 is formed as an arc shape centering around the rotational shaft 333 of the cross flow fan 330, as depicted in
The ‘L’ or ‘U’-shaped protector 371, 372 is installed at the slinger ring 360 at the middle portion of the cross flow fan 330 except the slinger ring 360 at the both ends of the cross flow fan 339, it prevents the condensate water on the slinger ring 360 from being scattered to the outside by the air flow, and it makes the condensate water fly to the surface of the second heat exchanger 320 by reducing a particle size of the condensate water.
The triangular-shaped protector 373 is installed at the both ends of the cross flow fan 330, and an inclined surface 373a is formed at the middle of the cross flow fan 330. Herein, because the condensate water crashes against the inclined surface 373a, a particle size of the condensate water is reduced, and accordingly the condensate water can fly toward the second heat exchanger 320.
In the meantime, in the air conditioner in accordance with the present invention, an outdoor unit of the present invention can be also applied to an air conditioner having a separated indoor unit and outdoor unit according to installation conditions of the outdoor unit.
In an air conditioner in accordance with the present invention, by arranging a cross flow fan in an indoor unit and an outdoor unit, a height of an air conditioner can be lowered, and accordingly it relieves installation conditions.
In addition, by installing a slinger ring at the cross flow fan, a cooling efficiency of a condenser can be improved by using condensate water generated in the operation.
Filing Document | Filing Date | Country | Kind | 371c Date |
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PCT/KR02/02376 | 12/17/2002 | WO | 00 | 6/15/2005 |
Publishing Document | Publishing Date | Country | Kind |
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WO2004/055441 | 7/1/2004 | WO | A |
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3401534 | Marsteller | Sep 1968 | A |
5372189 | Tsunekawa et al. | Dec 1994 | A |
6701737 | Ohama et al. | Mar 2004 | B2 |
6701738 | Kobayashi et al. | Mar 2004 | B2 |
Number | Date | Country |
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02-93223 | Apr 1990 | JP |
Number | Date | Country | |
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20060260339 A1 | Nov 2006 | US |