KR20080026293A - Indoor unit of air conditioner - Google Patents

Abstract

An indoor unit of an air conditioner is provided to maximize air conditioning efficiency by distributing exhaust air stream in all directions through rotation of a discharge. An indoor unit of an air conditioner comprises a cabinet(10) and a discharge(100). The cabinet has an intake port(12), through which indoor air is introduced, and an air conditioning unit that air-conditions the introduced air. The discharge rotates at an upper portion of the cabinet and has exhaust ports(13,14,15) through which the air is exhausted to the interior of a room. The discharge rotates at an angle of 15‹ to 25‹. The discharge has a rotation period of 5seconds to 70seconds or 9seconds to 20seconds. The exhaust ports of the discharge are disposed in the rotation direction of the discharge. The exhaust ports are divided into a front exhaust port, a left exhaust port and a right exhaust port.

Description

Indoor unit of an air conditioner {Air-condition's Indoor Unit}

1 is a bird's eye view of the indoor unit installation of the air conditioner according to the present invention.

2 is a perspective view of an air conditioner according to a first embodiment of the present invention.

3 is a perspective view when the front panel of the indoor unit of the air conditioner according to the first embodiment of the present invention is opened.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention.

5 is a cross-sectional view taken along the line A-A of FIG.

FIG. 6 is a cross-sectional view taken along line B-B of FIG. 2.

7 is a cross-sectional view taken along the line C-C of FIG.

FIG. 8 is an exploded perspective view of the blower and heat exchanger illustrated in FIG. 4.

FIG. 9 is an exploded perspective view of the discharge and discharge rotating unit shown in FIG. 4. FIG.

10 is a comparison graph of various embodiments according to one rotation angle and rotation period of the discharge in the indoor unit of the air conditioner of the present invention.

11 is a graph of room temperature versus one rotation angle of the discharge in the indoor unit of the air conditioner according to the present invention.

12 is a graph of room temperature versus a rotation period of the discharge in the indoor unit of the air conditioner according to the present invention.

13 is a diagram illustrating an example of a multi-directional discharge mode operation of an indoor unit of an air conditioner according to a first embodiment of the present invention.

14 is a view showing another example of the multi-directional discharge mode operation of the indoor unit of the air conditioner according to the first embodiment of the present invention.

15 is a diagram illustrating an example of a concentrated discharge mode operation of an indoor unit of an air conditioner according to a first embodiment of the present invention.

16 is a diagram illustrating an example of an artificial intelligence mode operation of an indoor unit of an air conditioner according to a first embodiment of the present invention.

17 is a perspective view of an indoor unit of an air conditioner according to a second embodiment of the present invention.

18 is a cross-sectional view of an indoor unit of an air conditioner according to a second embodiment of the present invention.

19 is a perspective view of an indoor unit of an air conditioner according to a third embodiment of the present invention.

20 is a cross-sectional view of the indoor unit of the air conditioner according to the third embodiment of the present invention.

21 is a perspective view of an indoor unit of an air conditioner according to a fourth embodiment of the present invention.

22 is a cross-sectional view of the indoor unit of the air conditioner according to the fourth embodiment of the present invention.

 Figure 23 is a perspective view of the indoor unit of the air conditioner according to the prior art.

<Explanation of symbols on main parts of the drawings>

1: indoor unit 2: outdoor unit

3: refrigerant piping 10: cabinet

11: left inlet 12: right inlet

20: top panel 21: first discharge port

22: 2nd discharge outlet 23: 3rd discharge outlet

24: first discharge louver 25: second discharge louver

26: third discharge louver 30: base

40: main frame 41: left panel

42: right panel 43: rear panel

44: left suction grill 47: right suction grill

50: front panel 52: top panel

54: front inner panel 60: blower

70: heat exchanger 100: discharge

102: discharge base panel 104: discharge main frame

106: discharge top panel 110: discharge discharge port louver

120: discharge discharge port louver drive unit 160: discharge rotation unit bracket

170: discharge bearing 180: discharge holder

190,192: discharge rotation unit motor 200: discharge rotation drive force transmission mechanism

201,202: drive gear 204: driven gear

The present invention relates to an indoor unit of an air conditioner, and more particularly, to an indoor unit of an air conditioner in which a discharge provided to discharge air-conditioned air to the room can be rotated.

In general, the air conditioner is to cool and cool the room by using an air conditioning cycle of a refrigerant consisting of a compressor, a condenser, an expansion device, and an evaporator to create a more comfortable indoor environment for the user, or to purify the air by using a filter. It is divided into separate type and integral type.

The separation type and the integrated type are functionally the same, but the separation type is an indoor unit having a cooling / heat radiating function installed at the indoor side and an outdoor unit having a heat radiating / cooling and compression function installed at the outdoor side to connect two separated devices with refrigerant pipes. The one-piece type integrates the function of cooling, heat dissipation compression, and is directly installed by drilling a hole in the wall of the house or hanging the device on the window.

Figure 23 is a perspective view of the indoor unit of the air conditioner according to the prior art.

As shown in FIG. 23, the indoor unit of the conventional air conditioner has a front central discharge port 702 formed at the center of the front upper part of the cabinet 700 forming the exterior, and the front of each of the front upper sides of the cabinet 70. Left and right discharge ports 704 are formed, respectively, and left and right suction ports 706 are formed at both front lower sides of the cabinet 700, respectively.

A discharge grill 710 for dispersing air discharged through the front center discharge port 702 is disposed in the front center discharge port 702.

Discharge vanes 710 for opening and closing the front left and right discharge ports 704 are rotatably mounted on the front left and right discharge holes 704, respectively.

Suction grills 714 are mounted to the left and right suction ports 706, respectively.

The indoor unit of the air conditioner according to the related art, which is configured as described above, after the air sucked through the front left and right suction ports 706 is cooled / heated, etc. in the cabinet 700, the front central discharge port 702. And it is discharged toward the upper front of the indoor unit through the front left, right discharge port 704.

However, the indoor unit of the air conditioner according to the prior art as described above, the left and right inlet 706 and the front center discharge port 702 and the front left and right discharge port 704 are formed only on the front side of the cabinet 700. Since the air sucked into the lower part of the front side of the air conditioner is discharged only to the upper side of the front side of the air conditioner, there is a problem that efficient cooling / heating is difficult because the direction of discharge airflow is limited and always the same.

In addition, the indoor unit of the air conditioner according to the prior art as described above is disadvantageous in terms of indoor interior harmony and indoor space utilization because the installation position of the indoor unit of the air conditioner is limited by the direction of the discharge air flow as described above. There is this.

The present invention has been made to solve the above-described problems of the prior art, the discharge air flow feeling is optimized because the discharge provided to discharge the air-conditioned air to the upper side of the cabinet or the upper portion of the cabinet to the room can be rotated It can be, and there is no installation position constraints due to the discharge air flow direction is to provide an indoor unit of the air conditioner that can improve the interior interior harmony and indoor space utilization.

According to an aspect of the present invention, there is provided a cabinet having an intake port through which indoor air is sucked, and an air conditioning unit configured to air-condition the air sucked therein; A discharge part provided at an upper side of the cabinet or at an upper side of the cabinet to be rotatable, the discharge having a discharge port through which the air-conditioned air is discharged into the room; The discharge provides an indoor unit of the air conditioner rotated by 5 to 55 degrees.

The discharge may be rotated by 15 to 25 degrees.

The rotation period of the discharge may be 5 seconds to 70 seconds.

Alternatively, the rotation period of the discharge may be 9 seconds to 20 seconds.

One discharge port of the discharge may be formed in the discharge, or a plurality of discharge ports may be arranged in the rotation direction of the discharge.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 is a bird's eye view of the indoor unit installation of the air conditioner according to the present invention.

At least one indoor unit (1) of the air conditioner according to the present invention is installed in the room (I) where air conditioning is required, and at least one outdoor unit (2) and a refrigerant pipe (3) installed outside the room (I). Connected to the room (I) to cool / heat or purify. Hereinafter, the present invention will be described with limited to one indoor unit 1 and one outdoor unit 2.

2 is a perspective view of the indoor unit of the air conditioner according to the first embodiment of the present invention, Figure 3 is a perspective view when the front panel of the indoor unit of the air conditioner according to the first embodiment of the present invention, Figure 4 An exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, and FIG. 6 is a cross-sectional view taken along line BB of FIG. 2.

In the indoor unit 1 of the air conditioner according to the first embodiment of the present invention, the cabinet 10 may be long in the vertical direction, and may have a circular structure and a polygonal structure. Explain.

In the cabinet 10, suction ports 11 and 12 are formed on one side to suck air in the room, and discharge ports 13 and 14 and 15 are formed on the other side to discharge air into the room.

The suction ports 11 and 12 are formed on at least one of the circumferential surfaces of the cabinet 10. When the intake air flow directions are varied, the air in the room can be sucked into the cabinet 10 quickly and evenly, thereby providing a plurality of suction holes. It is preferable to be provided with a dog, it is preferable to be spaced apart at equal intervals along the circumferential direction of the cabinet (10).

Therefore, in the present embodiment below, the suction ports 11 and 12 are provided in two, and the cabinet 10 is installed in a state in which the cabinet 10 is installed close to the wall of the room so that the cabinet is not easily visible for the appearance. When viewed from the front to the front and the left and right of the cabinet 10 are respectively limited to the description, for convenience of description, the inlet port 11 disposed on the left side of the cabinet 10, the left inlet port 11 The suction port 12 disposed on the right side of the cabinet 10 is referred to as a right suction port 12.

In addition, the left inlet 11 and the right inlet 12 may be quickly and evenly air-conditioned if the indoor air circulation is smooth, and is located at the lower side of the cabinet 10 for smooth air circulation in the room. .

The discharge ports 13, 14, 15 may be quickly and evenly air-conditioned if the discharge air flows are varied in direction, and thus, each of the discharge holes 13, 14, 15 may be disposed along the circumferential direction of the cabinet 10 on the same horizontal plane for optimal discharge air flow. It is preferable that it consists of a plurality of spaced apart.

In addition, in the present embodiment, the indoor unit 1 of the air conditioner is installed to be close to the wall of the room so that the indoor space can be widely used, so that the surface close to the wall of the room is the wall of the room. Since it is blocked by, it is preferable to be formed on the surface excluding the surface close to the wall of the room of the peripheral surface of the cabinet 10 for the optimum discharge air flow composition.

Therefore, in the present exemplary embodiment, the discharge holes 13, 14, and 15 are limited to three, and for convenience of description, the discharge holes 13 disposed at the front of the cabinet 10 may be disposed at the front discharge holes. 13, the discharge port 14 disposed on the left side of the cabinet 10 is referred to as the left discharge port 14, and the discharge port 15 disposed on the right side of the cabinet 10 is referred to as the right discharge port 15. .

On the other hand, the cabinet 10 is disposed between the plurality of discharge ports 13, 14, 15 along the circumferential direction of the cabinet 10 for the optimal discharge air flow composition to assist the air to be discharged into the room A discharge port 16 (not shown) may be further formed.

When the auxiliary discharge port 16 (not shown) is close to the wall of the interior of the cabinet 10, the discharge air flow resistance increases, and thus, between the front discharge port 13 and the left discharge port 14 and the front discharge port 13. And each one between the right discharge port 15 is preferable. For convenience of explanation, the auxiliary discharge port 16 disposed between the front discharge port 13 and the left discharge port 14 is called a left auxiliary discharge port 16 and between the front discharge port 13 and the right discharge port 15. The auxiliary discharge port 16 arranged in the right side is called a right auxiliary discharge port (not shown).

The cabinet 10 may have a structure in which a lower part of the left inlet port 11 and a right inlet port 12 is formed and an upper part of which the front discharge port 13, the left discharge port 14, and the right discharge port 15 are formed. In addition, an integrated structure is also possible, and in the present embodiment, the integrated structure will be described below.

The cabinet 10 of the integrated structure includes a base 30 constituting the lower surface of the cabinet 10, and a main circumference formed on the upper side of the base 30 and forming seven circumferential surfaces excluding the front surface of the cabinet 10. Frame 40, the front panel 50 disposed in front of the main frame 40 to form the front of the cabinet 10, and is mounted on the upper side of the main frame 40, the cabinet 10 It may be made of a top cover 20 forming an upper surface of the.

The base 30 has a base installation unit 32 on which the main frame 40 and the front panel 50 are mounted, and a heat exchanger 70 protruding upward from the base installation unit 32 to be described later. It is configured to include a drain pan 34 for receiving the condensate falling from the heat exchanger 70 is raised.

The drain pan part 34 may include a left plate part 35 protruding upward from the base installation part 32 and a right plate part 36 protruding upward from the base installation part 32 to be spaced apart from the left plate part 35. And an upper box portion 37 formed at the upper end of the left plate portion 35 and the right plate portion 36 and having a drainage hole 37a formed at one side thereof.

One end of the upper box portion 37 is connected to the drainage hole 37a, and a drain hose 38 of which the other end extends through the side of the cabinet 10 extends to the outside of the cabinet 10 is connected.

Most preferably, the base 30 is molded by plastic injection, and the drain pan part 34, in particular, the upper box part 37, is formed to protrude and form the drain pan part 34 integrally with the base installation part 32. An opening 30a is formed at the bottom of the.

The base 30 further includes a base cover 30b which is fastened by a fastening member such as a screw to the bottom of the base installation part 32 so as to block the lower end of the opening 30a.

The base 30 may be the bottom surface of the base installation unit 32 is in direct contact with the floor of the room, may be mounted on a separate base panel 39 in contact with the floor of the room, the base 30 is a description that the base installation portion 32 is further configured to further include a base panel 39 is fastened.

The main frame 40 includes a left panel 41 disposed on an upper left side of the base 30, a right panel 42 disposed on an upper right side of the base 30, and a rear of the base 30. It may be made of a rear panel 43 disposed above.

The left side panel 41 has a structure in which the left suction port 11 is opened to the left and right sides thereof, and a left discharge port 14 is formed to the left and right sides thereof.

The left side suction grille 44 disposed at the left side suction port 11 is coupled to the left side panel 41.

The left side suction grille 44 is attached to and detached from the left side pre-filter 45a through which the foreign matter in the air passing through the left side suction grille 44 is filtered.

The left panel 41 is provided with a left high performance filter 45b such as a HEPA filter or an electrostatic precipitator for purifying air that has passed through the left prefilter 45a, and the left panel 41 has the left high performance filter. The left filter guide 45c to which the 45b is attached and detached is provided.

The right panel 42 is configured to be symmetrical with the left panel 41.

The right panel 42 is formed in a structure in which the right inlet 12 is opened left and right in a lower portion thereof, and the right outlet 15 is opened in left and right portions thereof in an upper portion thereof.

The right side suction grille 47 disposed at the right side suction port 12 is coupled to the right side panel 42.

The right pre-filter 48a to which foreign substances in the air passing through the right intake grill 47 are filtered is attached to the right intake grill 47.

The right panel 42 is provided with a right high performance filter 48b such as a HEPA filter or an electrostatic precipitator for purifying air that has passed through the right prefilter 48a, and the right panel 42 has the right high performance filter ( The right filter guide 48c to which 48b) is attached and detached is provided.

The rear panel 43 is provided with a pipe cover 43b having a pipe through-hole 43a through which the drain hose 38 and the refrigerant pipe of the heat exchanger 70 to be described later are formed. The pipe cover attaching part 43c to which the said pipe cover 43b is mounted is provided.

The rear panel 43 has a hook hole (not shown) in which a hook provided to protrude from the left panel 41 is inserted, and a hook hole is inserted into the hook to protrude into the right panel 42. Each is formed.

The front panel 50 has a structure in which the front discharge port 13 is opened and closed at an upper portion thereof. The front discharge port 13 is positioned at the left and right centers of the front panel 50.

The front panel 50 is formed in a structure in which the left side auxiliary discharge port 16 and the right side auxiliary discharge port (not shown) are opened back and forth on the left and right sides of the front discharge port 13, respectively, on the upper side thereof.

The left auxiliary discharge port vane 18 is disposed at the left auxiliary discharge port 16 to open and close the left auxiliary discharge port 16. The left auxiliary discharge port vane 18 is hinged to open and close the left auxiliary discharge port 16 while rotating left and right in the left auxiliary discharge port 16.

The right auxiliary discharge port vane 19 is disposed at the right auxiliary discharge port (not shown) to open and close the right auxiliary discharge port (not shown). The right auxiliary discharge port vane 19 is hinged to open and close the right auxiliary discharge port (not shown) while being rotated in the left and right directions to the right auxiliary discharge port (not shown).

The front panel 50 has a front panel hole 50a formed at one side of the cabinet 10 to facilitate service of components in the cabinet 10, and is disposed in the front panel hole 50a to open and close the front panel hole 50a. The front door 52 may be provided.

Each of the front panel holes 50a will be described as limited to three blowers 60, heat exchangers 70, and discharge rotating units, respectively, which will be described later.

The front door 52 may be attached to or detached from the front panel 50 by a fastening member such as a screw to open or close the front panel hole 50a, and may rotate back and forth or up and down on the front panel 50. It is also possible to be installed while opening and closing, and also possible to be installed to open and close while sliding to the front panel 50 vertically or left and right, in the present embodiment below for the convenience of description the front panel 50 It will be described as limited to being installed so as to be able to open and close while rotating back and forth.

The front door 52 is provided with hinge shafts 52a and 52b that are rotatably fitted to the front panel 50 or the base 30, respectively, on one side of the left and right sides thereof.

The front door 52 is provided to maintain the front panel hole 50a in a closed state by various methods such as a magnetic force or a hook or a latch using a magnet.

The front door 52 may be provided with a front door handle to facilitate opening and closing of the front door 52.

The front panel 50 has an operation operation of the indoor unit 1 of the air conditioner to the left or the right side of the front door 52 with respect to the front door 52 to the indoor unit 1 of the air conditioner. A display 54 for the purpose of displaying driving conditions may be installed.

The top cover 20 may be mounted on an upper side of the main frame 40 to be fastened with a fastening member such as the main frame 40 and a screw.

On the other hand, the cabinet 10 is disposed inside the front panel 50 so that the complicated interior of the cabinet 10 can be shielded when the front panel 50 is opened (see FIG. 3), so that the front panel 50 is closed. A front inner panel 56 may be further included to shield the front panel hole 50a of the 50.

The front inner panel 56 may be provided to shield all the front panel holes 50a of the front panel 50, and only a part of the front panel holes 50a of the front panel 50 may be shielded. The front panel hole 50a of the front panel 50 may be shielded, but may be provided in a plurality of two or more. In the present embodiment, the front panel hole 50a of the front panel 50 may be provided. It will be described by limiting all provided with shielding.

The front inner panel 56 may be detachable by the fastening member 55 such as the front panel 50 and the screw, and may be provided to be opened and closed by a hinge structure.

The front inner panel 56 may be provided with a front inner panel handle 56a to facilitate mounting of the front inner panel 56.

In addition, the front inner cover 56 may be provided with an accessory storage unit 56b to store accessories such as a remote controller 58 for wireless operation operation of the indoor unit of the air conditioner.

In addition, the cabinet 10 may further include a decoration ring 59 fitted to the outside of the cabinet 10 in order to enhance the image of the cabinet 10.

The decoration ring 59 may be made of a different color or a different material from the cabinet 10.

On the other hand, the cabinet 10 is an infrared sensor 22 installed outside the cabinet 10 to sense the temperature distribution in the room so that the discharge air flow is concentrated toward the relatively high temperature for rapid cooling, heating 23 and 24 may be installed.

The infrared sensors 22, 23, 24 are preferably provided in plural along the circumferential direction of the cabinet 10 for the accuracy of sensing the temperature distribution in the room.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 6 is a cross-sectional view taken along line BB of FIG. 2, and FIG. 8. Is an exploded perspective view of the blower and heat exchanger shown in FIG. 4.

The cabinet 10 is provided in an upper portion of the cabinet 10 to suck air from the outside of the cabinet 10 through the left and right suction ports 11 and 12 to form an upper portion of the cabinet 10. The blower 60 which blows toward is installed.

The blower 60 includes a blower motor mounter 61 installed above the heat exchanger 70, a blower motor 62 installed at the blower motor mounter 61, and a rotation shaft 62a of the blower motor 62. And an orifice 66 installed in the blower motor mounter 61 and surrounding the blower fan 64.

The blower fan 64 has a cylindrical hub 64a, a plurality of blades 64b spirally formed on the outer circumference of the hub 64a, and the blower motor is horizontally formed inside the hub 64a. It comprises a disc portion 64c to which the rotation shaft 62a of 62 is coupled.

The blade 64b has a bow-shaped cross section in which the upper surface is concave and the lower surface is convex.

The orifice 66 is opened in the vertical direction so that the air heat-exchanged in the heat exchanger 70 flows in the vertical direction, and the flow path in the center is narrower than the flow path in the upper and lower parts.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 6 is a cross-sectional view taken along line BB of FIG. 2, and FIG. 8. Is an exploded perspective view of the blower and heat exchanger shown in FIG. 4.

Inside the cabinet 10, a heat exchanger 70 is provided at a lower side of the cabinet 10 to cool or heat the air in the cabinet 10.

The heat exchanger 70 includes a first heat exchanger 71, a second heat exchanger 72 disposed to be spaced apart from the first heat exchanger 71, and a first heat exchanger 71 and a second heat exchanger. A first cover 73 coupled to block one side of the front and rear surfaces between the portions 72 and the other side of the front and rear surfaces between the first heat exchange portion 71 and the second heat exchange portion 72. It is configured to include a second cover 74 coupled.

The first heat exchange part 71 has a lower end mounted on the drain pan part 34, and an upper end thereof faces to the right of the left suction port 11 so as to face an upper side of the left suction port 11 of the left panel 41. It is arranged to be inclined.

The second heat exchange part 72 has a lower end mounted on the drain pan part 34, and an upper end thereof faces to the left side of the right inlet 12 so as to face the upper side of the right inlet 12 of the right panel 42. It is arranged to be inclined.

The heat exchanger 70 is fastened by a fastening member to an upper left side of the first cover 73 and an upper left side of the second cover 74 to the upper left side of the heat exchanger 70 and the left panel 41. The left airtight member 75 which closes the gap between the upper right side of the first cover 73 and the upper right side of the second cover 74 is fastened by a fastening member, and the upper right side of the heat exchanger 70 and the right side thereof. It further comprises a right airtight member 76 that closes between the panels 42.

The heat exchanger 70 is fixed to at least one of the left panel 41 and the right panel 42. The left bracket 80 is fastened to the heat exchanger 70, in particular, the first cover 73 by a fastening member 81 such as a screw, and the left bracket 80 hangs on the left panel 41. It is fixed. In addition, a right bracket 82 is fastened to the heat exchanger 70, in particular, the first cover 73 by a fastening member 83 such as a screw, and the right bracket 90 is fastened to the right panel 42. Is fixed to hang.

The heat exchanger 70 is formed at the upper end of the first cover 74, the bent portion 84 is bent in a cross-sectional shape of '??'.

The bent portion 84 is equipped with a permanent magnet 85 in the front portion.

The upper portion of the bent portion 84 is fastened through the blower motor mounter 61, the orifice 66, and a fastening member 86 such as a screw.

The heat exchanger 70 is fixed to the rear panel 43 and the rear bracket 87.

The heat exchanger 70 may include one side of the refrigerant pipe 3 connected to at least one of the heat exchanger 70, particularly, the first heat exchanger 71 and the second heat exchanger 72. In particular, it further comprises a refrigerant pipe holder 88 fixed to the first cover (73).

The heat exchanger 70 is a pipe through-hole formed in the first cover 73 so that the refrigerant pipe 3 passes through the first cover 73 and extends along the front of the first cover 73. And a pipe cover 89 which minimizes air intake through the pipe through hole 73a and covers a part of the refrigerant pipe 3 passing through the pipe through hole 73a. do.

2 is a perspective view of the air conditioner according to the first embodiment of the present invention, Figure 4 is an exploded perspective view of the indoor unit of the air conditioner according to the first embodiment of the present invention, Figure 5 is a line AA of Figure 2 6 is a cross-sectional view taken along line BB of FIG. 2, FIG. 7 is a cross-sectional view taken along line CC of FIG. 2, and FIG. 9 is an exploded perspective view of the discharge and discharge rotating unit shown in FIG. 4.

Inside the cabinet 10, a discharge 100 for discharging air in the cabinet 10 through some of the front discharge port 13, the left discharge port 14, and the right discharge port 15 is leftward and rightward. It is provided to be rotatable.

The discharge 100 may have a circular structure or may have a polygonal structure. Hereinafter, the discharge 100 will be described as being limited to a circular structure.

The discharge 100 is an upper portion of the cabinet 10 so that air can be discharged directly from the discharge 100 to a part of the front discharge port 13, the left discharge port 14, and the right discharge port 15. Preferably located at.

The discharge 100 includes a circular discharge base panel 102 that forms a lower surface of the discharge 100, and a ring-shaped discharge main frame disposed above the discharge base panel 102. 104 and a circular discharge top panel 106 mounted on an upper side of the discharge main frame 104 to form an upper surface of the discharge 100.

The discharge base panel 102 is formed with a discharge inlet 101 so that air in the cabinet 10 can be sucked in. The discharge inlet 101 may be located at the center of the discharge base panel 102 so that air in the cabinet 10 can be smoothly blown into the discharge 100.

The discharge main frame 104 has the front discharge port 13 and the left discharge port 13 so that air is discharged toward one of the front discharge port 13, the left discharge port 14, and the right discharge port 15 on one side thereof. A discharge discharge port 103 is formed which faces 14) and a part of the right discharge port 15.

The discharge discharge port 103 is provided with one so that the discharge air flow can be concentrated, it is preferably formed approximately the same size as any one of the front discharge port 13, the left discharge port 14 and the right discharge port (15). Do.

The discharge discharge port 103 may be provided with a discharge discharge port louver 110 for opening and closing the discharge discharge port 103 and adjusting the discharge air flow direction.

The discharge discharge louver 110 is fixed to the discharge discharge louver blade 112 and the discharge discharge louver blade 112 disposed to be rotatable at the discharge discharge port 103 and the discharge main frame ( And a discharge outlet louver shaft 114 that is rotatably fitted to 104.

The discharge outlet louver shaft 114 is coupled to a lower end of the discharge outlet louver blade 112.

The discharge discharge port louvers 110 may be provided in one or two or more pieces, and the present embodiment will be described in detail with the two or more discharge holes louvers 110.

The plurality of discharge outlet louvers 110 may be provided to rotate in the vertical direction and may be provided to rotate in the left and right directions. Hereinafter, in the present embodiment, the discharge for the optimal discharge air flow composition and various discharge air flow compositions are provided. As the charge 100 is rotated in the left and right directions, it will be described as being limited to being arranged in a vertical direction so as to rotate in a direction different from the discharge direction of the discharge 100.

The plurality of discharge outlet louvers 110 may be automatically rotated integrally by the discharge outlet louver driving unit 120.

The discharge discharge port louver drive unit 120 is disposed on the discharge discharge port louver motor 122 that provides rotational driving force, and the rotation shaft 121 of the discharge discharge port louver motor 122, and the plurality of discharge discharge port louvers. A discharge drive pinion gear 124 integrally rotated with any one of the 114, a discharge rack gear 126 engaged with the discharge drive pinion gear 124, and sliding up and down; And a discharge driven pinion gear 128 that is engaged with the discharge rack gear 126 and integrally rotates integrally with the remaining discharge outlet louver 114 that is not engaged with the discharge drive pinion gear 124.

The discharge outlet louver motor 122 is fixed inside the discharge 100 and fastening member 121 such as a screw to the outside of the discharge gear housing 129 for guiding sliding of the discharge rack gear 126. Is fixed by.

The discharge drive pinion gear 124 is coupled to the discharge outlet louver 110, in particular the discharge outlet louver shaft 114.

The discharge rack gear 126 is inserted into the discharge gear housing 129 so as to be slidable as described above.

The discharge driven pinion gear 128 is coupled to the discharge outlet louver 110, in particular the discharge outlet louver shaft 114.

The discharge driven pinion gear 128 is not circular as the discharge drive pinion gear 124, because the discharge discharge louver 110 is rotated within an approximately 90 degree rotation range as an example without being rotated 360 degrees. It is also possible to form an arc.

2 is a perspective view of the air conditioner according to the first embodiment of the present invention, Figure 4 is an exploded perspective view of the indoor unit of the air conditioner according to the first embodiment of the present invention, Figure 5 is a line AA of Figure 2 6 is a cross-sectional view taken along line BB of FIG. 2, and FIG. 9 is an exploded perspective view of the discharge and discharge rotation unit illustrated in FIG. 4.

The discharge rotation which is disposed between the discharge 100 and the blower 60 so that the discharge 100 is automatically rotated left and right inside the cabinet 10 to rotate the discharge 100 Unit 100 'is provided.

The discharge rotation unit 100 ′ includes a discharge rotation unit bracket 160 fixed inside the cabinet 10 to face the discharge 100, in particular the discharge base panel 102, and the discharge rotation. The discharge bearing 170 provided between the unit bracket 160 and the discharge 100, in particular the discharge base panel 102, and the discharge 100 are separated from the discharge rotation unit bracket 160. The discharge holder 180, the discharge rotation unit motors 190 and 192, and the discharge rotational drive force transmission mechanism 200 which prevent it from becoming impossible are included.

The discharge rotation unit bracket 160 may be located above the blower 60 and installed directly in the cabinet 10, or may be mounted on the blower 60 and installed in the blower 60. And, it is also possible to be mounted on the blower 60, but installed in the cabinet 10, in the present embodiment is located above the blower 60 so as not to receive the vibration of the blower 60 directly in the cabinet It demonstrates only to being installed in (10) directly.

The discharge rotation unit bracket 160 may have a bracket main panel 161 that partitions the inside of the cabinet 10 up and down so that air in the cabinet 10 may be discharged through the discharge 100. It includes.

The bracket main panel 161 rotates the discharge rotation unit motors 190 and 192 and the discharge between the discharge rotation unit bracket 160 and the discharge 100, in particular the discharge base panel 102. The driving force transmission mechanism 200 is spaced apart from the discharge 100, in particular, the discharge base panel 102 by a predetermined interval in the vertical direction.

The discharge rotation unit bracket 160 is provided at the edge of the bracket main panel 161 so as to be installed in the cabinet 10 through a fastening member 162 such as a screw and is interviewed with the cabinet 10. Bracket fastening boss 163.

The bracket fastening boss 163 is preferably provided with at least two, it is preferable that the discharge rotation unit bracket 160 is arranged along the circumferential direction.

The discharge rotation unit bracket 160 divides the inside of the cabinet 10 in the vertical direction of the bracket main panel 161, and the bracket main panel allows air to flow into the discharge 100. It includes a bracket hole 164 formed in the panel 161.

The bracket hole 164 coincides with the discharge inlet port 101 in the vertical direction so that the air from the cabinet 10 to the discharge 100 flows vertically to maximize the blowing efficiency. Preferably positioned to

In addition, the bracket hole 164 is preferably positioned such that the center of the blower 60 and each other to maximize the blowing efficiency.

The discharge rotation unit bracket 160 includes an air guide rib 165 for guiding a vertical flow of air from the cabinet 10 toward the discharge 100 in order to maximize blowing efficiency.

The air guide rib 165 surrounds the bracket hole 164 and is formed in a ring structure protruding from the bracket main panel 161 toward the discharge 100.

The air guide rib 165 may protrude vertically from the bracket main panel 161 in a vertical direction so that a cross section thereof is constant toward the discharge 100 in the cabinet 10, and the bracket main Protruding from the panel 161 inclined with respect to the vertical direction may be provided so that the cross section is gradually reduced or gradually increased toward the discharge 100 in the cabinet 10, it may be formed in other shapes.

The discharge rotation unit bracket 160 is directed toward the discharge 100 from the bracket main panel 161 so that the support of the discharge 100 and the discharge holder 180 can be locked in the vertical direction. Protruding bracket flange 166.

The bracket flange 166 is a vertical portion 166a protruding vertically from the bracket main panel 161 toward the discharge 100 and the vertical portion 166a not connected to the bracket main panel 161. The horizontal portion 166b is bent vertically at an upper end of the c) and disposed horizontally with the discharge 100, particularly the discharge base panel 21.

The vertical portion 166a of the bracket flange 166 is connected to the bracket main panel 161 so that the bracket flange 166 does not interfere with the flow of air from the cabinet 10 toward the discharge 100. It is provided to be located between the bracket fastening boss 163 and the bracket hole (164).

The vertical portion 166a of the bracket flange 166 has a discharge bearing 170 between the horizontal portion 166b of the bracket flange 166 and the discharge 100, in particular the discharge base panel 102. The discharge holder 180 is positioned so that the discharge holder 180 can be walked between the horizontal portion 166b of the bracket flange 166 and the bracket main panel 161.

As described later, the horizontal portion 166b of the bracket flange 166 has the discharge rotation unit motors 190 and 192 and the discharge rotation drive force transmission mechanism 200 positioned inside the bracket flange 166. Preferably, it is bent toward the outside of the discharge rotation unit bracket 160 from the vertical portion 166a of the bracket flange 166.

The bracket flange 166 is provided in a ring structure to support the discharge 100 at all times regardless of whether the discharge 100 is rotated.

The discharge rotation unit bracket 160 includes a discharge rotation unit motor mounting unit 167 in which the discharge rotation unit motor 180 is installed to reliably support the discharge rotation unit motor 180. do.

The discharge rotation unit motor mounting unit 167 prevents the discharge rotation unit motors 190 and 192 from interfering with the flow of air from the cabinet 10 toward the discharge 100 and the bracket. In order not to interfere with the flange 166, the bracket main panel 161 is preferably positioned between the bracket hole 164 and the bracket flange 166.

 Accordingly, the discharge rotation unit motor mounting unit 167 may be provided in the bracket main panel 161 in a groove structure opened up and down by the air guide rib 165 and the bracket flange 166.

The discharge rotation unit bracket 160 includes a discharge guide rib 168 provided in the bracket flange 166 to guide the left and right rotation of the discharge 100.

The discharge guide rib 168 protrudes vertically from the bracket flange 166 toward the discharge 100 so that the discharge bearing 170 can be inserted into the discharge guide rib 168. .

The discharge guide rib 168 is provided in a ring structure to guide the rotation of the discharge 100 at all times when the discharge 100 rotates.

The discharge guide ribs 168 are horizontal portions 166b of the bracket flange 166 and the discharge 100, in particular the discharge 100, so as not to interfere with the discharge 100, in particular the discharge base panel 102. Preferably, the upper and lower lengths are formed to be shorter than the gap between the base panels 102.

Next, the discharge bearing 170 is for minimizing the rotational friction of the discharge 100, and is fixed to the discharge 100, in particular the discharge base panel 102, so that the discharge rotation unit bracket 160 may be fixed. In particular, it is also possible to make linear contact with the horizontal portion 166b of the bracket flange 166, and is fixed to the discharge rotation unit bracket 160, especially the horizontal portion 166b of the bracket flange 166, so that the discharge 100 In particular, the discharge base panel 102 may be in line contact with the discharge base panel 102. Hereinafter, the discharge base panel 102 may be in line contact with the discharge rotation unit bracket 160. .

The discharge bearing 170 is preferably provided with at least two or more for the stable support of the discharge 100, the circumference of the discharge 100 for balanced support of the discharge 100 Preferably arranged along the direction.

The discharge bearing 170 is arranged to be rotatable between the discharge 100, in particular the discharge base panel 102 and the discharge rotation unit bracket 160, in particular the horizontal portion 166b of the bracket flange 166. A discharge bearing roller leg 174 fixed to the discharge bearing roller 172 and the discharge 100, in particular the discharge base panel 102, to rotatably support the discharge bearing roller 172. Is done.

The discharge bearing roller 172 is rotated about the horizontal center (H) of the discharge 100, the axis 172a of the discharge bearing roller 172 is the discharge of the discharge 100 It is preferably arranged in the radial direction of the circle with respect to the horizontal plane center.

The discharge bearing roller 172 is installed to be positioned inside the discharge guide rib 168 so as to be firmly supported by the discharge rotating unit bracket 160 and guided in the rotation direction thereof.

The discharge bearing roller leg 174 is installed to penetrate the discharge base panel 102 under the discharge 100, in particular below the discharge base panel 102.

Next, the discharge holder 180 includes a discharge holder hook 182 having a hook structure which is integrated with the discharge 100, in particular the discharge base panel 102, and which is engaged with the bracket flange 166. .

The discharge holder hook 182 includes a vertical portion 182a protruding vertically from the discharge 100, in particular the discharge base panel 102, toward the discharge rotation unit bracket 160, and the bracket flange ( 166 and horizontally inserted between the bracket main panel 161 and bent horizontally in the vertical portion 182a of the discharge holder hook 182 to be caught by the bracket flange 166 below the bracket flange 166. Section 182b.

The vertical portion 182a of the discharge holder hook 182 is a horizontal portion 182b of the discharge holder hook 182 to prevent friction between the discharge holder hook 182 and the bracket flange 166. The length of the up-down direction is determined so that it may be spaced apart from the bracket flange 166 by a predetermined distance downward.

The discharge holder hook 182 is preferably provided at least two or more for the stable support of the discharge 100, the balance of the discharge 100 for the balanced support of the discharge (100) It is preferably arranged along the circumferential direction.

The discharge holder 180 is positioned between the discharge holder hook 182 and the bracket flange 166 for robust support of the discharge 100 and smooth rotation of the discharge 100. Holder bearing 184.

The holder bearing 184 may be fixed to the discharge holder hook 182 to be in line contact with the horizontal portion 166b of the bracket flange 166, and conversely, the horizontal portion of the bracket flange 166 may be It is also possible to be fixed to the discharge holder hook 182 is fixed to the (166b), in the present embodiment is fixed to the discharge holder hook 182 and to the horizontal portion (166b) of the bracket flange 166 The description will be limited to being in line contact.

The holder bearing 184 is a holder bearing roller 185 rotatably disposed between the horizontal portion 182b of the discharge holder hook 182 and the horizontal portion 166b of the bracket flange 166; The holder bearing roller leg 186 is fixed to the horizontal portion 182b of the head holder hook 182 to rotatably support the holder bearing roller 185.

The axis 185a of the holder bearing roller 185 is centered on the horizontal plane of the discharge 100 so that the holder bearing roller 185 may be rotated about the horizontal plane center H of the discharge 100. It is preferably arranged in the radial direction of the circle on the basis of.

The holder bearing 184 is preferably provided with at least two or more for the stable support of the discharge 100, the circumferential direction of the discharge 100 for balanced support of the discharge 100 It is preferred to arrange along.

In particular, the holder bearing 184 is arranged in a line with the header bearing 170 in a vertical direction in order to secure the support of the discharge 100 and to prevent sagging of the bracket flange 166. That is, the holder bearing 184 is disposed to face the header bearing 170 in the vertical direction with respect to the bracket flange 166.

The discharge rotating unit motors 190 and 192 are located in the discharge rotating unit bracket 160, in particular, the discharge rotating unit motor mounting unit 167, and are fastened by fastening members 194 and 195 such as screws. It is fixed to the discharge rotation unit bracket 160, in particular the bracket main panel 161.

The discharge rotation unit motors 190 and 192 may be provided as AC motors, and at least two of the discharge rotation unit motors 190 and 192 may be provided for stable and balanced rotation of the discharge 100.

The rotating shafts 191 and 193 of the discharge rotating unit motors 190 and 192 are vertically disposed vertically toward the discharge 100 in the discharge rotating unit motors 190 and 192.

The discharge rotational driving force transmission mechanism 200 is configured to rotate the discharge unit 100 in the left and right directions by the rotational driving force of the discharge rotating unit motors 190 and 192. As to transmit the rotational driving force of the (192) to the discharge 100, it can be implemented in a variety of ways, such as a belt-pull or a gear set or link, in the present embodiment is limited to the implementation of the gear set method Explain.

The discharge rotational drive force transmission mechanism 200 is constantly engaged with the drive gears 201 and 202 driven by the discharge rotation unit motors 190 and 192, and the drive gears 201 and 202. The discharge 100 consists of driven gear 204 fixed to the discharge base panel 102 in particular.

At least two drive gears 201 and 202 are provided to correspond one-to-one with the discharge rotation unit motors 190 and 192.

The drive gears 201 and 202 are arranged on the rotation shafts 191 and 193 of the discharge rotation unit motors 190 and 192.

The drive gears 201 and 202 are provided to have a smaller size and a smaller gear dimension than the driven gear 204.

The drive gears 201, 202 are located between the discharge rotation unit motors 190, 92 and the discharge 100, in particular the discharge base panel 102, so that the discharge 100, in particular the discharge, is discharged. In order not to interfere with the charge base panel 102, in particular, the discharge base panel 102 is preferably installed to maintain a predetermined interval in the vertical direction.

The driven gear 204 is located between the drive gear 201, 202 and the drive gear 201, 202 externally.

The discharge gear 204 does not obstruct air from the cabinet 10 to the discharge 100, that is, the discharge hole 101 formed in the discharge 100, in particular the discharge base panel 102. It is provided in a ring-shaped structure formed with an air hole 204a through which air can enter and exit the center thereof.

The air hole 204a of the driven gear 204 is preferably formed larger than the discharge hole 101 formed in the discharge base panel 102.

The driven gear 204 is provided with a driven gear boss 204b that is interviewed and fastened to the discharge base panel 102 so as to be fixed to the discharge 100, in particular the discharge base panel 102. .

The driven gear boss 204b is preferably located inside the driven gear 204 because the driven gear 204 is external to the drive gear 201 and 202.

The driven gear boss 204b is provided with at least two or more for stable and balanced fastening of the driven gear 204, and is preferably arranged along the circumferential direction of the driven gear 204.

Since the discharge rotation unit bracket 160, in particular, the air guide rib 165 is positioned below the driven gear 204, the driven gear 204 is fixed in the vertical direction so as not to interfere with the air guide rib 165. Installed to maintain gaps.

The discharge rotation unit 100 ′ as described above may be driven and controlled in a multi-directional discharge mode in which the discharge 100 is rotated 360 degrees or reciprocally rotated within a preset reciprocating rotation angle range. 100 may be driven and controlled in a concentrated discharge mode in which the discharge state is maintained, and the discharge 100 is driven in an artificial intelligence mode in which the discharge 100 is rotated according to a sensing result of the infrared sensor 22, 23, 24. It may be controlled.

In the multi-directional discharge mode among the drive control methods of the various discharge rotation units 100 ', the discharge rotation unit 100' is configured to allow the discharge 100 to quickly and uniformly cool / heat the room. The drive may be controlled to rotate periodically by 5 degrees to 55 degrees. In other words, one rotation angle of the discharge 100 may be set to 5 degrees and 55 degrees in the multi-directional discharge mode.

In addition, the discharge rotation unit 100 ′ may be driven and controlled so that the discharge 100 is periodically rotated by 15 to 25 degrees for faster and more uniform cooling / heating.

In addition, the discharge rotation unit 100 ′ may be driven and controlled to rotate the discharge 100 in a rotation cycle of 5 seconds to 70 seconds in order to rapidly and uniformly cool / heat the room in the above-described multi-directional discharge mode. have. In addition, the discharge rotation unit 100 ′ may be controlled to be driven such that the discharge 100 is rotated in a rotation cycle of 9 seconds to 20 seconds for faster and more uniform cooling / heating.

The driving control setting of the discharge rotation unit 100 ′ for rapid and uniform cooling / heating of the room during the multi-directional discharge mode operation of the indoor unit of the air conditioner according to the present invention is illustrated in FIGS. 11 to 13. The graph of the experimental results shown can be more clearly understood.

11 is a comparative graph of various embodiments according to one rotation angle and a rotation period of the discharge in the indoor unit of the air conditioner of the present invention. The indoor unit of the air conditioner according to the present invention is shown in FIG. When the discharge 100 is cooled and operated while being reciprocally rotated within a 90 degree rotation angle range, the room temperature (T) compared to the operating time (S) of the indoor unit of the air conditioner according to the present invention. ). 12 is a graph showing the room temperature versus one rotation angle of the discharge in the indoor unit of the air conditioner according to the present invention, and FIG. 13 is a graph of the room temperature versus the rotation period of the discharge in the indoor unit of the air conditioner according to the present invention. to be. 12 and 13 illustrate that the indoor unit of the air conditioner according to the present invention is disposed at one corner of the room I as shown in FIG. 1, and the discharge 100 is cooled while reciprocating in a 90 degree rotation angle range. When the initial temperature of the room when the operation of the indoor unit of the air conditioner according to the present invention is stopped at 33 ± 3 ℃, the experimental chamber in 300 ± 30 seconds after the start of the cooling operation of the air conditioner according to the present invention The result of measuring the average temperature of is shown.

11 to 13, the indoor unit of the air conditioner according to the present invention can cool the room quickly and uniformly when one rotation angle of the discharge 100 is 5 degrees to 55 degrees, and moreover. When the rotation angle of the discharge 100 is 15 degrees to 25 degrees, the room may be cooled more rapidly and uniformly, thereby realizing optimal cooling performance. Of course, since both air / heating performance depends on how quickly and uniformly the air conditioning is dispersed in the room, the indoor unit of the air conditioner according to the present invention can quickly move the room as shown in the experimental results of FIGS. Optimum heating performance can be realized by heating uniformly.

11 to 13, the indoor unit of the air conditioner according to the present invention may cool / heat the room quickly and uniformly when the rotation period of the discharge 100 is 5 seconds to 70 seconds, In addition, when the rotation period of the discharge 100 is 9 seconds to 20 seconds, it is possible to realize the optimum cooling / heating performance by cooling and heating the room more quickly and uniformly.

Looking at the operation of the indoor unit of the air conditioner according to the first embodiment of the present invention configured as described above are as follows.

When the indoor unit 1 of the air conditioner is stopped, as illustrated in FIG. 2, the blower 60 and the discharge 100 are not rotated, and the discharge discharge port 103 is disposed at the discharge discharge port louver. Is closed by 110.

When the indoor unit 1 of the air conditioner is operated, various operations may be performed as described below according to the selection of operating conditions of the indoor unit 1 of the air conditioner.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 7 is a cross-sectional view taken along line CC of FIG. 2, and FIG. 13. FIG. 1 is a diagram illustrating an example of a multi-directional discharge mode operation of an indoor unit of an air conditioner according to a first embodiment of the present invention.

As an example of operation of the indoor unit 1 of the air conditioner, when the discharge unit 100 is operated to operate the indoor unit 1 of the air conditioner, the blower motor 62 is driven to operate the blower motor. The blowing fan 64 is rotated by the rotational driving force of 62 to generate the blowing force in the direction toward the discharge 100 in the cabinet 10.

In addition, the discharge discharge port louver motor 122 is driven, the discharge drive pinion gear 124 is rotated by the rotational driving force of the discharge discharge port louver motor 122, and the discharge drive pinion gear 124 is rotated. The discharge rack gear 126 is slid in the vertical direction by the rotation of), and the discharge driven pinion gear 128 is rotated by the vertical sliding of the discharge rack gear 126.

Then, the discharge discharge port louver 110 is rotated vertically toward the inside of the discharge 100 integrally with the discharge drive pinion gear 124 or the discharge driven pinion gear 128, and the discharge The discharge port 103 is opened.

At this time, the discharge discharge port louver motor 122 may be controlled to stop after the discharge discharge port 103 is fully opened.

Alternatively, the discharge outlet louver motor 122 may be controlled to stop after the discharge outlet 103 is partially opened.

Alternatively, the discharge outlet louver motor 122 may be controlled such that the discharge outlet louver 110 reciprocates in the vertical direction.

In addition, the discharge rotation unit motors 190 and 192 are driven, and the drive gears 201 and 202 are rotated by the rotation driving force of the discharge rotation unit motor 190, and the drive gear 201 is rotated. Rotation of 202 causes the driven gear 204 to rotate.

When the driven gear 204 is rotated, the discharge 100 is rotated in a horizontal direction integrally with the driven gear 204.

In this case, the discharge rotation unit motors 190 and 192 may be controlled such that the discharge 100 is continuously rotated only in one of left and right directions.

Alternatively, the discharge rotation unit motors 190 and 192 may be controlled to reciprocate while the discharge 100 alternately rotates left and right.

At this time, when the discharge 100 is reciprocally rotated in the left and right direction, the reciprocating rotation range of the discharge 100 may be set in one or more modes or may be selected by the user.

In this way, when the blower 60 is driven, the discharge outlet 103 is opened, and the discharge 100 is rotated, the outside air of the cabinet 10 is driven by the blowing force of the blower 60. The air blown to the left inlet 11 and the right inlet 12, and the air blown to the left inlet 11 and the right inlet 12 is passed through the left inlet 11 and the right inlet 12 through the cabinet ( 10) While being sucked into the inside, the left and right pre-filters 45a and 48a and the left and right high-performance filters 45b and 48b are filtered.

The air sucked into the cabinet 10 passes through the heat exchanger 70 to be heat exchanged with the refrigerant in the heat exchanger 70 to be cooled / heated.

The air heated or cooled as described above is mixed in the space between the left heat exchanger 71 and the right heat exchanger 72, and then sucked into an upper portion between the left heat exchanger 71 and the right heat exchanger 72. And is sucked into the blower 60, in particular the orifice 66.

The air sucked into the orifice 66 is blown while forming a whirlwind to the top of the blowing fan 64.

After the air of the vortex blown to the upper portion of the blower fan 64 is discharged to the upper side of the orifice 66, the bracket hole 164 of the discharge rotating unit bracket 160 and the discharge intake port 101. Passes sequentially and is sucked into the discharge (100).

The air sucked into the discharge 100 is discharged from the discharge outlet 103, the front discharge port 13, the left discharge port 14, and the right discharge port 15 of the discharge outlet 103 facing the discharge discharge port 103. Passed in order to be discharged to the outside of the cabinet (10).

In this case, the discharge airflow discharged from the cabinet 10 may be rapidly dispersed in all directions and may be dynamically flown since the discharge 100 is reciprocated in the left and right directions.

In addition, since the discharge airflow discharged from the cabinet 10 is discharged through some of the front discharge port 13, the left discharge port 14, and the right discharge port 14, it can be concentrated to any place, and can be discharged to a long distance. have.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 7 is a cross-sectional view taken along line CC of FIG. 2, and FIG. 14. Is a view showing another example of the multi-directional discharge mode operation of the indoor unit of the air conditioner according to the first embodiment of the present invention.

As another example of the operation of the indoor unit 1 of the air conditioner, when the discharge 100 is rotated and the left auxiliary outlet 16 and the right auxiliary outlet 17 are opened, the indoor unit of the air conditioner ( 1) is operated as follows.

In the operating conditions of the indoor unit 1 of the air conditioner as described above, as in the example of the operation of the indoor unit 1 of the air conditioner described above, into the cabinet 10 by the blowing force of the blower 60. After the air is sucked in, it is cooled or heated by the heat exchanger 70, and the cooled or heated air is sucked into the discharge 100.

The air sucked into the discharge 100 passes through the front discharge port 13, the left discharge port 14, the right discharge port 15, and a part of the left auxiliary discharge port 16 and the right auxiliary discharge port 17. Discharged to the outside of the cabinet 10.

At this time, since the discharge direction of the discharge airflow discharged from the cabinet 10 is more diverse, the discharge airflow can be quickly dispersed in all directions.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 7 is a cross-sectional view taken along line CC of FIG. 2, and FIG. 15. FIG. 1 is a diagram illustrating an example of a concentrated discharge mode operation of an indoor unit of an air conditioner according to a first embodiment of the present invention.

As another example of operation of the indoor unit 1 of the air conditioner, when the discharge 100 is stopped rotating, the indoor unit 1 of the air conditioner is operated as follows.

In the operating conditions of the indoor unit 1 of the air conditioner as described above, as in the operation example of the indoor unit 1 of the air conditioner described above, the air is blown into the cabinet 10 by the blowing force of the blower 60. After is sucked in, it is cooled or heated by the heat exchanger 70, and the cooled or heated air is sucked into the discharge 100.

The air sucked into the discharge 100 is discharged among the front discharge port 13, the left discharge port 14, the right discharge port 15, and the left auxiliary discharge port 16 and the right auxiliary discharge port 17. It discharges through the discharge opening which opposes the discharge opening 103.

At this time, since the discharge 100 is not rotated, a static discharge airflow is formed than when the discharge 100 is rotated, thereby creating a calm indoor environment.

In addition, the discharge airflow may be concentrated to a long distance toward a specific place.

In this case, the discharge 100 may be discharged in a specific direction by adjusting the position of the discharge discharge port 103 by rotating the discharge 100 and then stopping the discharge.

4 is an exploded perspective view of an indoor unit of an air conditioner according to a first embodiment of the present invention, FIG. 5 is a cross-sectional view taken along line AA of FIG. 2, FIG. 7 is a cross-sectional view taken along line CC of FIG. 2, and FIG. 16. Is a view showing an example of the artificial intelligence mode operation of the indoor unit of the air conditioner according to the first embodiment of the present invention.

Alternatively, as another operation example of the indoor unit 1 of the air conditioner, the rotation of the discharge 100 may be controlled to be rotated according to the sensing result of the infrared sensors 22, 23, 24.

That is, as a result of sensing by the infrared sensors 22, 23, 24, if the temperature distribution of the specific part of the room is relatively higher, the discharge 100 is stopped rotating so that the discharge airflow is directed to the specific part of the room. Can be. Of course, when the temperature distribution in the room changes, the position of the discharge discharge port 103 is adjusted so that the discharge direction of the discharge air flow is also changed.

Then, since the discharge air flow is concentrated to a place where the temperature distribution is higher, the temperature change is changed rapidly in a place where the temperature distribution is higher, so that the room can be cooled and heated quickly and evenly.

At this time, the rotation and the stop of the discharge 100 may be repeated, the rotation range or the continuous rotation time of the discharge 100, the stop time of the discharge 100 and the like, the infrared sensor 23 ( 24) may be controlled according to the detection result of 25.

17 is a perspective view of an indoor unit of an air conditioner according to a second embodiment of the present invention, and FIG. 18 is a cross-sectional view of an indoor unit of an air conditioner according to a second embodiment of the present invention.

Since the indoor unit of the air conditioner according to the present embodiment may be implemented in the same manner as the air conditioner according to the first embodiment of the present invention, other configurations and operations other than the discharge may be performed in the first embodiment of the present invention. The same description as the first embodiment of the present invention described above will be omitted, and the same description as the first embodiment of the present invention will be omitted.

In the indoor unit of the air conditioner according to the present embodiment, the inlets 201 and 202 are formed at the lower side of the cabinet 200, and the discharge 210 having the discharge port 211 is provided at the upper side of the cabinet 200. It is arranged to be rotated by the discharge rotation unit 220.

The cabinet 200 has an upper surface thereof open to communicate with the discharge 210, and a discharge hole 212 at a lower side thereof so as to communicate with the cabinet 200. Is formed.

A plurality of discharge ports 211 of the discharge 210 are formed on the circumferential surface except for the upper and lower surfaces of the discharge 210.

Discharge louvers 214 may be provided in the discharge port 211 of the discharge 210 to rotate in the vertical direction.

The discharge rotation unit 220 is fixedly installed in the cabinet 200, the discharge rotation unit motor 224 directly connected to the discharge 210 via a rotation shaft or indirectly connected through a power transmission unit 222. ) Can be implemented.

The indoor unit of the air conditioner according to the present embodiment configured as described above is sucked into the cabinet 200 through the inlets 201 and 202 of the cabinet 200 during the cooling / heating operation. The air conditioner 200 is air-conditioned by the heat exchanger 70, and the air-conditioned air is discharged into the room through the discharge port 211 of the discharge 210, thereby cooling / heating the room. At this time, the discharge 210 is rotated 360 degrees or reciprocating in the multi-directional discharge mode, stopped in the concentrated discharge mode, and rotated or stopped according to the sensing result of the infrared sensor in the artificial intelligence mode. In addition, the discharge louvers 214 provided at each discharge port 211 of the discharge 210 may be selectively disposed so that at least one of the discharge holes 211 of the discharge 210 may be opened. Each discharge port 211 of the &quot;

19 is a perspective view of an indoor unit of an air conditioner according to a third embodiment of the present invention, and FIG. 20 is a cross-sectional view of an indoor unit of an air conditioner according to a third embodiment of the present invention.

Since the indoor unit of the air conditioner according to the present embodiment may be implemented in the same manner as the air conditioner according to the first embodiment of the present invention, other configurations and operations other than the discharge may be performed in the first embodiment of the present invention. The same description as the first embodiment of the present invention described above will be omitted, and the same description as the first embodiment of the present invention will be omitted.

In the indoor unit of the air conditioner according to the present embodiment, inlets 301 and 302 are formed at a lower side of the cabinet 300, and a discharge 310 having a discharge port 311 is provided at an upper side of the cabinet 300. It is arranged to be rotated by the discharge rotation unit 320.

The cabinet 300 has an upper surface thereof open to communicate with the discharge 310, and the discharge hole 312 at a lower side thereof so as to communicate with the cabinet 300. Is formed.

One discharge port 311 of the discharge 310 is formed on one side of the circumferential surface excluding the upper and lower surfaces of the discharge 310.

Discharge louvers 314 may be provided in the discharge port 311 of the discharge 310 to rotate in the vertical direction.

The discharge rotation unit 320 is fixedly installed in the cabinet 300, the discharge rotation unit motor 322 directly connected through the discharge 310 and the rotating shaft 321 or indirectly connected through a power transmission unit. ) Can be implemented.

The indoor unit of the air conditioner according to the present embodiment configured as described above is sucked into the cabinet 300 through the inlets 301 and 302 of the cabinet 300 during the cooling / heating operation. The air conditioner 300 is air-conditioned by the heat exchanger 70, and the air-conditioned air is discharged to the room through the discharge port 311 of the discharge 310 to allow the room to be cooled / heated. At this time, the discharge 310 is rotated 360 degrees or reciprocating in the multi-directional discharge mode, is stopped in the concentrated discharge mode, and rotated or stopped according to the sensing result of the infrared sensor in the artificial intelligence mode.

FIG. 21 is a perspective view of an indoor unit of an air conditioner according to a fourth embodiment of the present invention, and FIG. 22 is a cross-sectional view of an indoor unit of an air conditioner according to a fourth embodiment of the present invention.

Since the indoor unit of the air conditioner according to the present embodiment may be implemented in the same manner as the air conditioner according to the first embodiment of the present invention, other configurations and operations other than the discharge may be performed in the first embodiment of the present invention. The same description as the first embodiment of the present invention described above will be omitted, and the same description as the first embodiment of the present invention will be omitted. The head 20 may be a circular structure, a polygonal structure is also possible, and the following description will be limited to a substantially circular structure in the present embodiment.

In the indoor unit of the air conditioner according to the present embodiment, the inlets 351 and 352 are formed at the lower side of the cabinet 350, and the air is discharged into the room above the cabinet 350. The discharge 360 formed on the upper surface of the discharge port 361 may be disposed, and the discharge 360 may be rotated by the discharge rotation unit 370 with respect to the vertical direction.

The cabinet 350 has an upper surface thereof open to communicate with the discharge 360, and a discharge hole 362 at a lower side thereof so as to communicate with the cabinet 350. Is formed.

The discharge louver 364 may be provided at the discharge port 361 of the discharge 360 to be rotatable in the vertical direction.

The discharge rotation unit 370 is fixedly installed in the cabinet 350 and directly connected to the discharge 360 through a rotation shaft, or indirectly through a power transmission unit 372 such as a gear method or a belt & pulley method. It can be implemented with a connected discharge rotation unit motor 374.

The indoor unit of the air conditioner according to the present embodiment configured as described above is sucked into the cabinet 350 through the inlets 351 and 352 of the cabinet 350 during the cooling / heating operation. The air conditioner is air-conditioned by the heat exchanger 70 in the 350, and the air-conditioned air is discharged to the room through the discharge port 361 of the discharge 360, thereby cooling / heating the room. At this time, the discharge 360 is rotated 360 degrees or reciprocating in the multi-directional discharge mode, is stopped in the concentrated discharge mode, and rotated or stopped according to the sensing result of the infrared sensor in the artificial intelligence mode.

The indoor unit of the air conditioner according to the present invention configured and operated as described above is air-conditioned by suctioning indoor air in a cabinet provided with an air conditioner, and the air-conditioned air is provided at an upper side of the cabinet or an upper side of the cabinet. It is configured to discharge to the room through the discharge, the discharge is rotated by 5 degrees to 55 degrees, the rotation period of the discharge is set to 5 seconds to 70 seconds, so that the discharge air flow in all directions by the rotation of the discharge In addition to being dispersed and formed three-dimensionally and dynamically, the air discharged from the indoor unit of the air conditioner and the indoor air are rapidly and uniformly dispersed and mixed to maximize the air conditioning efficiency even more. Discharge airflow has the advantage that the feeling of discharge airflow can be optimized.

In addition, since the indoor unit of the air conditioner according to the present invention configured and operated as described above may be discharged in all directions as described above, the discharge airflow having a large temperature difference from the room may not be concentrated in a living body such as a person or animal Therefore, the stress that life can feel due to a sudden temperature change can be prevented, and there is an advantage that health threats associated with diseases such as a cold or cooling disease can be minimized.

In addition, since the indoor unit of the air conditioner according to the present invention configured and operated as described above is formed only in some of the plurality of discharge ports by the discharge, even if a plurality of discharge ports are formed along the circumferential direction of the cabinet. There is an advantage in that the remote discharge airflow can be formed.

In addition, the indoor unit of the air conditioner according to the present invention configured and acted as described above can be discharged to the centralized place to discharge the air flow to the specific place by the discharge stop rotation, thereby varying the function by the discharge air flow There is an advantage that can be realized.

In addition, since the indoor unit of the air conditioner according to the present invention constructed and operated as described above may discharge the air flow in all directions, the restriction of the installation position of the indoor unit of the air conditioner is minimized due to the discharge air flow direction. Since the freedom of installation of the indoor unit is higher, there is a very advantageous advantage in terms of indoor interior harmony and indoor space utilization.

Claims (5)

A cabinet having an intake port through which indoor air is sucked and having an air conditioning unit for air-conditioning the sucked air therein; A discharge part provided at an upper side of the cabinet or at an upper side of the cabinet to be rotatable, the discharge having a discharge port through which the air-conditioned air is discharged into the room; The discharge unit indoor unit of the air conditioner is rotated by 5 to 55 degrees. The method according to claim 1, The discharge unit is an indoor unit of the air conditioner is rotated by 15 to 25 degrees. The method according to claim 1 or 2, The rotation period of the discharge is 5 seconds to 70 seconds indoor unit of the air conditioner. The method according to claim 4, An indoor unit of the air conditioner, wherein the discharge cycle is 9 seconds to 20 seconds. The method according to claim 1 or 2, An indoor unit of an air conditioner, one discharge port of the discharge is formed in the discharge, or a plurality of discharge ports are arranged in the rotation direction of the discharge.

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