CN1898503A - Floor mounted air conditioner - Google Patents

Abstract

The invention provides a floor mounted air conditioner (1) capable of selecting a variety of air flows, comprising a casing (4), a plurality of first horizontal flaps (80), a first flap control mechanism (21), and a second flap control mechanism (22). A first outlet (12) blowing out a conditioned air is formed in the casing (4). The plurality of first horizontal flaps (80) are installed at the first outlet (12) parallel with each other in the vertical direction (D2) and guide the air blowing out from the first outlet (12). The first flap control mechanism (21) can control the direction of the plurality of first horizontal flaps (80) belonging to the first horizontal flap group (G1) among the plurality of first horizontal flaps (80). The second flap control mechanism (22) can control the direction of the plurality of first horizontal flaps (80) belonging to the second horizontal flap group (G2) among the plurality of first horizontal flaps (80) independently of the first horizontal flap group (G1).

Description

floor air conditioner

technical field

The invention relates to a floor-standing air conditioner.

Background technique

Among air conditioners that discharge conditioned air indoors to condition indoor air, there is a so-called floor type air conditioner. This floor-standing air conditioner is a type of air conditioner installed on the floor of a room, and has a casing provided with an exhaust port. A plurality of baffles arranged side by side in the vertical direction are provided in each exhaust port, and these baffles guide the air discharged from the exhaust port. Although this floor-standing air conditioner can change the direction of the air discharged from the exhaust port by changing the direction of a plurality of baffles, however, in the past floor-type air conditioners, it is arranged so that the air outlets are arranged side by side in one exhaust port. A structure in which multiple baffles are connected together to move, and when the direction of the baffles is changed manually or automatically, the directions of all the baffles are uniformly changed to the same direction (see Patent Document 1).

Patent Document 1: Japanese Patent Laid-Open No. 2003-343871, FIG. 5

In the floor type air conditioner as mentioned above, when changing the wind of the air discharged from the exhaust port,

In the case of wind direction, the degree of freedom to choose the wind direction is low. Although the user wishes to be able to select multiple airflows in order to create a comfortable air-conditioning environment, it is difficult to realize multiple airflows when the degree of freedom in selecting the airflow direction is low.

Contents of the invention

An object of the present invention is to provide a floor-standing air conditioner capable of selecting a plurality of airflows.

A floor-standing air conditioner according to a first aspect of the present invention has a casing, a plurality of first dampers, a first damper adjustment mechanism, and a second damper adjustment mechanism. The housing is provided with a first exhaust port for exhausting conditioned air. A plurality of first baffles are arranged side by side in the first exhaust port in a vertical direction, and guide air discharged from the first exhaust port. The first baffle adjustment mechanism is a mechanism capable of adjusting the direction of the plurality of first baffles belonging to the first baffle group among the plurality of first baffles. The second baffle adjustment mechanism is a mechanism capable of adjusting the directions of the plurality of first baffles belonging to the second baffle group among the plurality of first baffles independently of the first baffle group.

In this floor type air conditioner, the plurality of first baffles are at least divided into two baffle groups, the first baffle group and the second baffle group, and are adjusted by the first baffle adjustment mechanism and the second baffle group. The mechanism can adjust the direction of each baffle group. Thus, for example, by orienting the baffle group located on the upper side upward and the baffle group located on the lower side directed downward, air flow including envelopment in the upper and lower directions can be achieved. Furthermore, by orienting both baffle groups of the first baffle group and the second baffle group in the same direction, or by orienting the upper baffle group downward and the lower baffle group upward, the air Concentrating the flow can make the air flow reach a long distance. Thus, a variety of air streams can be selected with this floor-standing air conditioner.

According to a second aspect of the present invention, in the floor-standing air conditioner according to the first aspect of the present invention, the first exhaust port has a vertically elongated shape.

In such a floor-standing air conditioner, since the first exhaust port has a vertically elongated shape, it is possible to generate a wide air flow in the vertical direction.

According to a third aspect of the present invention, in the floor-standing air conditioner according to the first aspect of the present invention or the second aspect of the present invention, the first damper adjustment mechanism has a first link member. The first link member is connected to the plurality of first flaps belonging to the first flap group and is movable in the vertical direction. And the second baffle adjustment mechanism has a second link member. The second link member is connected to the plurality of first baffles belonging to the second baffle group and is capable of moving in the vertical direction independently of the first link member.

In such a floor-standing air conditioner, the force for changing the direction of the first damper of the first damper group is transmitted through the first link member. Furthermore, a force that changes the direction of the second baffle in the second baffle set independently of the first link member is transmitted through the second link member. Therefore, the direction of the first baffles of the first baffle group and the direction of the first baffles of the second baffle group can be changed respectively. In this way, in this floor-standing air conditioner, the direction of the first baffle in each of the first baffle group and the second baffle group can be adjusted respectively.

According to a fourth aspect of the present invention, in the floor-standing air conditioner according to the third aspect of the present invention, the first link member and the second link member are provided so as to be manually movable.

In this floor-standing air conditioner, the directions of the plurality of first dampers can be manually changed. In the case of manually changing the direction of the first baffle, if all the first baffles are connected, due to the influence of the direction of gravity, a relatively large force is required when moving the first baffle . However, in this floor type air conditioner, since the first baffles are connected to each of the first baffle group and the second baffle group, compared with the case where all the first baffles are connected together, it is easier to use. A small force can change the direction of each group of first baffles. Thus, operability for changing the direction of the first flap can be improved.

According to a fifth aspect of the present invention, in any one of the floor-standing air conditioners from the first aspect to the fourth aspect of the present invention, there is also a third damper adjusting mechanism. The third baffle adjustment mechanism is capable of adjusting the direction of the first baffles belonging to the third baffle group among the plurality of first baffles independently of the first baffle group and the second baffle group mechanism. Also, the first baffle group, the second baffle group, and the third baffle group are arranged side by side in the vertical direction.

In such a floor-standing air conditioner, it is possible to adjust the direction of each set of first baffles among the first baffle group, the second baffle group, and the third baffle group arranged side by side in the vertical direction. Therefore, in such a floor-standing air conditioner, more diverse air flows can be selected.

According to a sixth aspect of the present invention, in any one of the floor-standing air conditioners from the first aspect of the present invention to the fifth aspect of the present invention, there is also a vent on the casing that is side by side with the first exhaust port in the lateral direction when viewed from the front. A second exhaust port is located and exhausts the conditioned air. Moreover, this floor-standing air conditioner also has a plurality of second baffles, a fourth baffle adjusting mechanism and a fifth baffle adjusting mechanism. A plurality of second baffles are arranged side by side in the vertical direction in the second exhaust port, and guide air discharged from the second exhaust port. The fourth baffle adjusting mechanism is a mechanism capable of adjusting the direction of the plurality of second baffles belonging to the fourth baffle group among the plurality of second baffles. The fifth baffle adjustment mechanism is a mechanism capable of adjusting the direction of the plurality of second baffles belonging to the fifth baffle group among the plurality of second baffles independently of the fourth baffle group.

In such a floor-standing air conditioner, the first exhaust port and the second exhaust port are arranged side by side in the lateral direction, and are respectively provided with a plurality of first baffles and a plurality of second baffles. Moreover, not only the directions of the plurality of first baffles can be adjusted, but also the directions of the plurality of second baffles in the fourth and fifth baffle groups can be adjusted respectively. Therefore, not only in the vertical direction but also in the lateral direction, that is, the degree of freedom of the airflow in the horizontal direction can be improved. In this way, this floor-standing air conditioner can choose more diverse air flows.

In the floor-standing air conditioner according to the first aspect of the present invention, since the direction of each set of baffles can be adjusted by the first baffle adjusting mechanism and the second baffle adjusting mechanism, multiple air flow modes can be selected.

In the floor-standing air conditioner according to the second aspect of the present invention, since the first exhaust port has a vertically elongated shape, it is possible to generate an air flow having a larger width in the vertical direction.

In the floor-standing air conditioner of the third aspect of the present invention, the direction of the first baffle of the first baffle group and the direction of the first baffle of the second baffle group can be changed respectively through the first link member and the second link member. The direction of a bezel. In this way, using this floor-standing air conditioner, the direction of each set of first baffles in the first baffle group and the second baffle group can be adjusted respectively.

In the floor-standing air conditioner of the fourth aspect of the present invention, the direction of the first dampers in each damper group can be changed with a smaller force than in the case where all the first dampers are connected. Thus, operability for changing the direction of the first flap can be improved.

In the floor-standing air conditioner according to the fifth aspect of the present invention, since the direction of each first baffle in the first baffle group, the second baffle group and the third baffle group arranged side by side in the vertical direction can be adjusted, Therefore, a more varied air flow can be selected.

In the floor-standing air conditioner of the sixth aspect of the present invention, since the degree of freedom of the air flow not only in the vertical direction but also in the lateral direction, that is, the horizontal direction can be increased, more diverse air flows can be selected. .

Description of drawings

Figure 1 is a front view of the appearance of the floor-standing air conditioner;

Fig. 2 is a front view showing the structure of the floor-standing air conditioner;

Fig. 3 is the upper sectional view showing the structure of the floor-standing air conditioner;

Fig. 4 is a side sectional view showing the structure of the floor-standing air conditioner;

Fig. 5 is a front view showing the structure of the first horizontal baffle part and the second horizontal baffle part;

6 is a perspective view showing in detail the structure of the first horizontal baffle portion;

7 is a perspective view showing in detail the structure of the first horizontal baffle portion;

Fig. 8 is a control block diagram of the floor-standing air conditioner of the first embodiment;

Fig. 9 is an action diagram showing the first vertical baffle and the second vertical baffle;

Fig. 10 is an action diagram showing the first vertical baffle and the second vertical baffle;

Fig. 11 is an action diagram showing the first horizontal flap and the second horizontal flap;

Fig. 12 is an action diagram showing the first horizontal baffle and the second horizontal baffle;

Fig. 13 is a schematic diagram showing the relevant exhaust effect of the present invention;

Fig. 14 is a schematic diagram showing the relevant exhaust effect of the present invention;

15 is a control block diagram showing a floor-standing air conditioner according to a second embodiment;

Fig. 16 is a schematic diagram showing the exhaust gas effect of the present invention.

Label description

1: floor-standing air conditioner, 4: casing, 12: first exhaust port, 13: second exhaust port, 21: first baffle adjustment mechanism, 22: second baffle adjustment mechanism, 23: third gear Plate adjustment mechanism, 24: fourth baffle adjustment mechanism, 25: fifth baffle adjustment mechanism, 80: first horizontal baffle (first baffle), 81: first link member, 82: second link Part, 90: second horizontal baffle (second baffle), G1: first horizontal baffle group (first baffle group), G2: second horizontal baffle group (second baffle group), G3: The third horizontal baffle group (the third baffle group), G4: the fourth horizontal baffle group (the fourth baffle group), G5: the fifth horizontal baffle group (the fifth baffle group), D1: horizontal, D2: vertical direction

Detailed ways

[first embodiment]

(structure)

[the whole frame]

Fig. 1 is a front view showing the appearance of a floor-standing air conditioner 1 according to a first embodiment of the present invention. In addition, in this embodiment, "horizontal" or "left and right" refers to the left and right directions when viewed from the front in FIG. 1 in the horizontal direction (see solid line arrow D1). In addition, the so-called "vertical direction" or "up and down" refer to the up and down direction when viewed from the front of FIG. 1 (see solid line arrow D2).

This floor-standing air conditioner 1 is an air conditioner installed on a floor F in a family room, and is used to adjust indoor air, perform heating and cooling, and the like. The floor-standing air conditioner 1 is connected to an outdoor unit (not shown) arranged outdoors, and forms a refrigerant circuit between an unshown compressor housed in the outdoor unit and an outdoor heat exchanger. This floor-standing air conditioner 1 mainly includes a heat exchanger 2 , a fan 3 , a casing 4 , a control unit 10 and a remote controller 11 .

[heat exchanger]

As shown in FIGS. 2 and 3 , the heat exchanger 2 is accommodated inside the housing 4 and exchanges heat with air sucked into the housing 4 . As shown in FIG. 2 , the heat exchanger 2 occupies the upper half of the floor-standing air conditioner 1 and is arranged at the same height as the first exhaust port 12 and the second exhaust port 13 described later. Furthermore, as shown in FIG. 4 , the heat exchanger 2 is installed such that its upper portion is inclined toward the rear side of the floor-standing air conditioner 1 . In addition, FIG. 2 is a front view of the floor-standing air conditioner 1 with the lower front panel 43 removed, FIG. 3 is a sectional view along III-III in FIG. 1 , and FIG. 4 is a sectional view along IV-IV in FIG. 1 .

[fan]

The fan 3 is accommodated inside the casing 4 . The fan 3 sucks indoor air into the casing 4 from the suction unit 6 (see FIG. 1 ) described later, and sends it to the first exhaust port 12 and the second exhaust port 13 through the heat exchanger 2 . The fan 3 is a multi-blade fan, which is arranged to rotate in a plane parallel to the front of the floor-standing air conditioner 1 , as shown in FIG. 2 , and is arranged below the heat exchanger 2 . In addition, as shown in FIG. 4 , the fan 3 is arranged in the vicinity of the suction portion 6 described later. As shown in FIG. 2 , the fan 3 is accommodated in a fan case 30 . The fan housing 30 is disposed opposite to the side of the fan 3 and has an arc-shaped side 32 surrounding about 3/4 of the circumference of the fan 3 along the side of the fan 3 . The fan casing 30 surrounds the left half of the side of the fan 3 and the lower half of the right side. Moreover, a fan case outlet 31 is also provided on the fan case 30 . The fan casing outlet 31 is a portion where air flows from the fan 3 to the upper heat exchanger 2 , and is arranged at a position opposite to the upper right half of the fan 3 that is not surrounded by the fan casing 30 . The outlet 31 of the fan casing is arranged to be deviated to the right of the rotation center of the fan 3 . In addition, the fan 3 rotates counterclockwise in FIG. 2 to deliver air to the heat exchanger 2 (see blank arrow A1 and solid arrow A2 in FIG. 2 ).

[shell]

The casing 4 is a long box-shaped member in the vertical direction D2, and accommodates the heat exchanger 2, the fan 3, and the like. As shown in FIG. 3 , corners 42 of the rear surface 40 of the housing 4 are chamfered. As shown in FIG. 1 , the front surface 41 of the case 4 is shaped to have a front panel 43 , a recessed portion 44 and an inclined surface 45 . And, the casing 4 has a first exhaust port 12, a second exhaust port 13, a suction portion 6, a first vertical baffle portion 5, a second vertical baffle portion 7, a first horizontal baffle portion 8, a second horizontal baffle portion Baffle part 9.

The front panel 43 is a flat portion provided on the front surface of the housing 4 in the vertical direction D2 substantially throughout the housing 4 . Furthermore, on the upper part of the front panel 43, the display part 46 which displays information, such as an indoor temperature, an outdoor temperature, and an operation setting, is provided.

The recessed portion 44 is a depression that is elongated in the vertical direction D2 along the side end of the front panel 43 , and is respectively provided on both sides of the front panel 43 . As shown in FIG. 3 , the concave portion 44 is composed of a side surface 440 and a curved surface 441 . The side 440 is connected to the front panel 43 and is arranged to be perpendicular to the front panel 43 . The curved surface 441 is connected to the side surface 440 and also connected to the inclined surface 45 .

The inclined surface 45 is an inclined surface adjacent to the side of the recessed portion 44 and provided along the vertical direction D2 of the entire front surface 41 . The inclined surfaces 45 are respectively provided on both side ends of the front surface 41 .

[First exhaust port and second exhaust port]

The first exhaust port 12 and the second exhaust port 13 are provided on the upper half of the front face 41 of the housing 4 for exhausting air temperature-conditioned by the heat exchanger 2 . In addition, during ventilation operation or the like, air not subjected to temperature adjustment may be discharged from the first exhaust port 12 and the second exhaust port 13 .

The first exhaust port 12 and the second exhaust port 13 are rectangular openings having a long shape in the vertical direction D2 and are provided along both side ends of the front face 41 . The first exhaust port 12 and the second exhaust port 13 are arranged on the upper half of the inclined surface 45, separated by the front panel 43 and the recessed part 44, the first exhaust port 12 is arranged on the left side, and the second row The air port 13 is arranged on the right side. Therefore, the first exhaust port 12 and the second exhaust port 13 are arranged side by side with a distance in the lateral direction D1 when viewed from the front. As shown in FIG. 5 , the first exhaust port 12 and the second exhaust port 13 are divided into three parts, namely an upper part S1 , a middle part S2 and a lower part S3 , by a partition plate 49 . In addition, the upper ends of the first exhaust port 12 and the second exhaust port 13 and the partition plate 49 are respectively provided with protrusions 14a-14c, 15a-15c protruding in the vertical direction. On the upper end portion of the first exhaust port 12, a protrusion 14a protruding downward in the vertical direction is provided, and on the partition plate 49 of the first exhaust port 12, a protrusion protruding upward in the vertical direction is provided. The raised parts 14b, 14c. In the vicinity of the lower end portion of the first exhaust port 12, a first damper motor 50 whose drive shaft tip is directed upward is fixed. Also, the bosses 14a-14c and the drive shaft of the first flapper motor 50 are spaced apart from each other in the vertical direction and aligned on a straight line, in line with the second rotation axis AX1 of the first vertical flapper 51 to be described later. correspond. Similarly, on the upper end portion of the second exhaust port 13, a protrusion 15a protruding downward in the vertical direction is provided. Protruding bosses 15b, 15c. In the vicinity of the lower end portion of the second exhaust port 13, a second damper motor 70 whose drive shaft tip is directed upward is fixed. The protrusions 15a-15c and the drive shaft of the second shutter motor 70 are spaced apart in the vertical direction and aligned on a straight line, corresponding to the second rotation axis AX2 of the second vertical shutter 71 described later. In addition, the protrusions 14a-14c provided on the first exhaust port 12 and the drive shaft of the first damper motor 50 are located on the outer side, that is, on the left side of the center of the first exhaust port 12, and are located on the left side. Between the center of the first exhaust port 12 and the outer end of the first exhaust port 12 . In addition, the "center" here means the center in the horizontal direction D1, and it is the same below. The protrusions 15a-15c provided on the second exhaust port 13 and the drive shaft of the second damper motor 70 are located on the outside, that is, on the right side, of the center of the second exhaust port 13, and are located on the second side. Between the center of the exhaust port 13 and the outer end of the second exhaust port 13 . In addition, on each of the raised portions 14a-14c, 15a-15c, the first vertical baffle 51 and the second vertical baffle 71 that can be freely rotated as described later are fitted, and on each of the baffle motors 50, 70 On the drive shaft, the lower end of the first vertical baffle 51 and the lower end of the second vertical baffle 71 are respectively fixed.

[inhalation part]

The suction part 6 is a part for sucking indoor air into the housing 4, and as shown in FIG. The suction unit 6 is composed of a first suction port 61 , a second suction port 62 , and side suction ports 66 and 67 .

The first suction port 61 and the second suction port 62 are openings provided on the side 440 of the recessed portion 44, the first suction port 61 is disposed on the recessed portion 44 on the left side, and the second suction port 62 is disposed on the right side on the recessed portion 44 of the As shown in FIG. 4 , the first suction port 61 is composed of three openings 63 , 64 , 65 arranged side by side in the vertical direction D2 . The position of the uppermost opening 63 is higher than that of the fan 3 , and the positions of the other two openings 64 , 65 are lower than that of the fan 3 . That is, the first suction port 61 is arranged at a position not facing the fan 3 . The same applies to the second suction port 62 . In addition, the position where each suction port 61, 62 is arranged is not strictly limited to a position not facing the fan 3, and a part of each suction port 61, 62 may be arranged at a position corresponding to the fan 3 to some extent. In addition, the suction ports 61, 62 are not limited to being separately arranged at the upper and lower positions of the fan 3, and may also be arranged only at the top or only at the bottom.

The side suction ports 66 and 67 are long openings in the vertical direction D2 shown in FIG. 4 , and are respectively provided below the side surfaces 47 of the floor-standing air conditioner 1 . The side suction ports 66 and 67 are located between the fan 3 and the front surface 41 in the width direction D3. In addition, in FIG. 4 , the side suction port 66 provided on the left side 47 as viewed from the front is shown, but the same applies to the side suction port 67 provided on the right side 47 .

In addition, a filter (not shown) covering the lower part of the housing 4 is provided to face the first suction port 61 , the second suction port 62 and the side suction ports 66 and 67 .

[First horizontal fence part and second horizontal fence part]

The first horizontal flap portion 8 is a portion for guiding the air discharged from the first exhaust port 12 and blowing it out in the vertical direction D2. As shown in Figure 5, the first horizontal baffle part 8 has a first baffle adjustment mechanism 21, a second baffle adjustment mechanism 22, a third baffle adjustment mechanism 23, and a plurality of first horizontal baffles 80 (first baffles). plate).

A plurality of first horizontal baffles 80 are arranged side by side in the first exhaust port 12 in the vertical direction D2 for guiding the air discharged from the first exhaust port 12 to blow out in the vertical direction D2. In this embodiment, the plurality of first horizontal baffles 80 are divided into three groups: the first horizontal baffle group G1 (first baffle group), the second horizontal baffle group G2 (second baffle group) and the third horizontal baffle group G2 (second baffle group). The horizontal baffle group G3 (third baffle group), each group has 5 first horizontal baffles 80 . The first horizontal baffle group G1, the second horizontal baffle group G2 and the third horizontal baffle group G3 are respectively arranged on the upper part S1, the middle part S2 and the lower part S3 of the first exhaust port 12, and in the vertical direction D2 side by side. The first horizontal flap 80 is made of an elastic material into a thin plate shape, and is arranged approximately horizontally.

In addition, the first horizontal baffle 80 is not limited to being made of an elastic material as a whole, and a part of the first horizontal baffle 80 such as the central part may be made of an elastic material. In addition, the first horizontal baffle 80 may not be made of elastic material, but the first horizontal baffle 80 may be made into a sheet shape, etc. to make it elastic.

The first flap adjustment mechanism 21 is a mechanism capable of adjusting the direction of the plurality of first horizontal flaps 80 belonging to the first horizontal flap group G1 , and has a first link member 81 and a first fixing member 84 . As shown in FIG. 6 , the first link member 81 is a long plate-shaped member in the vertical direction D2 and connects the vicinity of the front side of the outer end of the first horizontal flap group G1 . When the first link member 81 moves in the vertical direction D2, the front end of the first horizontal flap group G1 integrally moves in the vertical direction D2. Furthermore, a first slit 801 and a second slit 802 penetrating in the lateral direction D1 are provided in the first link member 81 . The first slit 801 is disposed on the upper portion of the first link member 81 and has a curved shape protruding rearward. The second slit 802 also has the same shape as the first slit and is provided at the lower portion of the first link member 81 . The two locking claws 121 , 122 provided on the edge of the first exhaust port 12 are inserted into the first slit 801 and the second slit 802 , respectively. The locking claws 121 and 122 are respectively locked in the first slit 801 and the second slit 802 and can slide. In addition, near the center of the inner surface of the first link member 81 and between the first slit 801 and the second slit 802 , an operation portion 803 protruding inward is provided. The user can easily move the first link member 81 in the vertical direction D2 by holding the operation portion 803 . And, as shown in FIG. 7, on the outer surface of the first link member 81, a plurality of recesses 804 sunken inwardly are provided (in addition, in FIG. are omitted). A plurality of recesses 804 are arranged side by side in the vertical direction D2, and protrusions 123 (see FIG. 6 ) provided on the edge portion of the first exhaust port 12 are inserted thereinto. When the protrusion 123 is inserted into the recess 804 , the protrusion 123 is locked in the recess 804 to limit the movement of the first link member 81 in the vertical direction D2 . When the user holds the operating portion 803 and exerts force on the first link member 81 , the first link member 81 moves, and the protrusion 123 is locked in different recesses 804 . Thus, the first link member 81 is positioned at a desired position. In addition, since the plurality of recesses 804 are arranged side by side in the vertical direction D2, the first link member 81 can be positioned at a plurality of stages (steps) in the vertical direction D2. As shown in FIG. 6, the first fixing member 84 is fixed to the rear side of the outer end portion of the first horizontal baffle group G1. In addition, as shown in FIG. 7, the first fixing member 84 has: a plurality of fixing claws 805 provided corresponding to the plurality of first horizontal baffles 80 of the first horizontal baffle group G1; Wall portion 806 on claw 805 . A crotch (back) is provided on the fixed claw 805. When the edge of the first exhaust port 12 is inserted into the gap between the fixed claw 805 and the wall 806, the crotch of the fixed claw 805 is fixed on the fixed claw 805. The hole 124 on the edge portion, so the first fixing member 84 is fixed on the housing 4 .

The second fence adjustment mechanism 22 is a mechanism capable of adjusting the direction of the plurality of first horizontal fences 80 belonging to the second horizontal fence group G2 , and has a second link member 82 and a second fixing member 85 . In addition, the third flap adjustment mechanism 23 is a mechanism capable of adjusting the direction of the plurality of first horizontal flaps 80 belonging to the third horizontal flap group G3 and has a third link member 83 and a third fixing member 86 . Although the structure of the second link member 82 and the third link member 83 is the same as that of the first link member 81, the link members 81-83 are separated and can move independently. In addition, the second link member 82 is connected to the second horizontal baffle group G2, and the third link member 83 is connected to the third horizontal baffle group G3. The second fixing part 85 is fixed on the second horizontal baffle group G2, and the third fixing part 86 is fixed on the third horizontal baffle group G3.

The second horizontal flap portion 9 is a portion that guides the air discharged from the second exhaust port 13 in the vertical direction D2. The second horizontal flap section 9 has a fourth flap adjusting mechanism 24 , a fifth flap adjusting mechanism 25 , a sixth flap adjusting mechanism 26 , and a plurality of second horizontal flaps 90 (second flaps).

A plurality of second horizontal baffles 90 are arranged side by side in the second exhaust port 13 in the vertical direction D2, and guide air discharged from the second exhaust port 13 in the vertical direction D2. Like the first horizontal baffle 80, the second horizontal baffle 90 is divided into three groups: the fourth horizontal baffle group G4 (fourth baffle group), the fifth horizontal baffle group G5 (fifth baffle group), and the fifth horizontal baffle group G5 (fifth baffle group). Six horizontal baffle group G6. The fourth flap adjustment mechanism 24 is a mechanism capable of adjusting the direction of the plurality of second horizontal flaps 90 belonging to the fourth horizontal flap group G4 , and has a fourth link member 91 and a fourth fixing member 94 . The fifth flap adjustment mechanism 25 is a mechanism capable of adjusting the direction of the plurality of second horizontal flaps 90 belonging to the fifth horizontal flap group G5 , and has a fifth link member 92 and a fourth fixing member 95 . In addition, the sixth flap adjustment mechanism 26 is a mechanism capable of adjusting the direction of the plurality of second horizontal flaps 90 belonging to the sixth horizontal flap group G6 , and has a sixth link member 93 and a sixth fixing member 96 .

The fourth link member 91 is connected to the fourth horizontal baffle group G4, the fifth link member 92 is connected to the fifth horizontal baffle group G5, and the sixth link member 93 is connected to the sixth horizontal baffle group G6. The second horizontal baffle 90 is arranged symmetrically with the first horizontal baffle 80, the fourth horizontal baffle group G4 corresponds to the first horizontal baffle group G1, and the fifth horizontal baffle group G5 corresponds to the second horizontal baffle group G2, the sixth horizontal baffle group G6 corresponds to the third horizontal baffle group G3. Moreover, the structure of each link member 91-93 of the 2nd horizontal flap part 9 is the same as each link member 81-83 of the 1st horizontal flap part 8, and is a left-right symmetrical structure. The fixing members 94-96 are also the same as described above.

As mentioned above, the rear sides of the first horizontal baffle 80 and the second horizontal baffle 90 are fixed by means of fixing members 84-86, 94-96, and their front sides are fixed by means of link members 81-83, 91-90. 93 connected and able to move freely. Therefore, by the movement of the link members 81-83, 91-93, the flexible first horizontal flap 80 and the second horizontal flap 90 are deformed. For example, when the link members 81-83, 91-93 move upwards, the first horizontal baffle 80 and the second horizontal baffle 90 are bent, and the front ends of the first horizontal baffle 80 and the second horizontal baffle 90 face above (see Figure 11(a)). And, when the link members 81-83, 91-93 move downward, the first horizontal fender 80 and the second horizontal fender 90 bend, and the front ends of the first horizontal fender 80 and the second horizontal fender 90 face downward. (See Figure 11(b)). Thus, by the movement of the link members 81 - 83 , 91 - 93 , the direction in which the air is guided can be changed by means of the first horizontal flap 80 and the second horizontal flap 90 .

[The first vertical fence part and the second vertical fence part]

As shown in Figure 3, the first vertical baffle part 5 and the second vertical baffle part 7 are respectively arranged on the first exhaust port 12 and the second exhaust port 13, and are guided from the first exhaust port 12 and the second exhaust port 13. The air discharged from the second exhaust port 13 is blown away in the horizontal direction D1.

The first vertical damper part 5 is a part for adjusting the wind direction of the air discharged from the first exhaust port 12 , and has a first vertical damper 51 and a first damper motor 50 .

Viewed from the front, the first vertical baffle 51 is arranged on the left side for opening and closing the first exhaust port 12 . The first vertical baffle 51 has: a first plate portion 52 that is long in the vertical direction D2 and has approximately the same shape as the outer edge of the first exhaust port 12; and a plurality of first ribs (rib) 53 are arranged side by side on the inner side surface of the first plate portion 52 in the vertical direction D2. The first plate portion 52 is a member that guides air discharged from the first exhaust port 12 in an open state. The first rib 53 protrudes approximately vertically from the inner surface of the first plate portion 52 and is provided with a circular hole penetrating in the vertical direction D2. In the hole of the first rib 53 located near the lower end of the first plate portion 52, the drive shaft of the first barrier motor 50 provided in the housing 4 is inserted and fixed (see FIG. 5). In addition, the plurality of protrusions 14 a to 14 c provided inside the first exhaust port 12 are respectively fitted into other holes of the first rib 53 . The first vertical baffle 51 is configured to be freely rotatable around the first rotation axis AX1 , and the first rotation axis AX1 passes through the hole provided on the first rib 53 and extends in the vertical direction D2 . In addition, the hole provided in the first rib 53 is provided eccentrically outside the center of the first plate portion 52 , that is, to the left, and is provided eccentrically outside the center of the first exhaust port 12 . In this way, the first rotation axis AX1 is also located on the outer side than the center of the first exhaust port 12, and is located between the center of the first exhaust port 12 and the outer end of the first exhaust port 12, that is, the left end. position between the parts.

The first flapper motor 50 rotates the first vertical flapper 51 around a first rotation axis AX1 parallel to the vertical direction D2. The first barrier motor 50 changes the direction of the first vertical barrier 51 by changing the arrangement angle of the first vertical barrier 51 . In this way, the wind direction of the air discharged from the first air outlet 12 is changed. The operation of the first vertical baffle 51 at this time will be described in detail later.

The second vertical damper part 7 is a part that adjusts the wind direction of the air discharged from the second exhaust port 13 , and has a second vertical damper 71 and a second damper motor 70 . Viewed from the front, the second vertical baffle 71 is arranged on the right side for opening and closing the second exhaust port 13 .

The second vertical baffle 71 has: a second plate portion 72 , which is long in the vertical direction D2 and has approximately the same shape as the outer edge of the second exhaust port 13 ; and a plurality of second ribs 73 , are arranged side by side on the inner side surface of the second plate portion 72 in the vertical direction D2. The second plate portion 72 is a member that guides the air discharged from the second exhaust port 13 in the open state. The second rib 73 protrudes approximately vertically from the inner surface of the second plate portion 72 and is provided with a circular hole penetrating in the vertical direction D2. In the hole of the second rib 73 located near the lower end of the second plate portion 72, the drive shaft of the second shutter motor 70 provided in the housing 4 is inserted and fixed. In addition, the plurality of protrusions 15 a to 15 c provided inside the second exhaust port 13 are respectively fitted into other holes of the second rib 73 . The second vertical baffle 71 is configured to be freely rotatable around the second rotation axis AX2, and the second rotation axis AX2 passes through the hole provided on the second rib 73 and extends in the vertical direction D2. In addition, the hole provided in the second rib 73 is provided eccentrically to the outside, that is, to the right side, of the center of the second plate portion 72 , and is provided eccentrically to the outside of the center of the second exhaust port 13 . In this way, the second rotation axis AX2 is also located on the outer side than the center of the second exhaust port 13, and is located between the center of the first exhaust port 12 and the outer end of the first exhaust port 12, that is, the right end. position between the parts.

The second shutter motor 70 can be driven independently from the first shutter motor 50, and it can rotate the second vertical shutter 71 around the second rotation axis AX2 parallel to the vertical direction D2. The second barrier motor 70 changes the direction of the second vertical barrier 71 by changing the arrangement angle of the second vertical barrier 71 . In this way, the wind direction of the air discharged from the second air outlet 13 is changed.

In addition, FIGS. 1 and 3 have shown the fully closed state in which the first vertical baffle 51 and the second vertical baffle 71 have closed the exhaust ports 12 , 13 .

[Control section and remote control]

As shown in FIG. 8 , the control unit 10 is connected to the fan 3 , the first damper motor 50 , and the second damper motor 70 for controlling the fan 3 , the first damper motor 50 , and the second damper motor 70 . The control unit 10 can control the first flap motor 50 and the second flap motor 70 respectively, and can control the first vertical flap portion 5 and the second vertical flap portion 7 to be in different states. Therefore, the control unit 10 can not only move the first vertical flap 51 and the second vertical flap 71 symmetrically, but also move them asymmetrically. In this way, the direction of the air discharged from the first exhaust port 12 and the wind direction of the air discharged from the second exhaust port 13 can be changed respectively.

The remote controller 11 is an input device for the user to instruct the operation content of the floor-standing air conditioner 1, and receives the control content such as power switch, cooling and heating switching, temperature setting, air volume setting, and setting air direction. After the input, control signals corresponding to various inputs are sent to the control unit 10 by wireless communication means such as infrared rays. For example, the remote controller 11 can respectively receive the designation of the direction of the first vertical barrier 51 and the designation of the direction of the second vertical barrier 71 . In addition, a variety of operation modes are preset in the control unit 10, and these various operation modes may include an operation mode in which the first vertical baffle 51 and the second vertical baffle 71 are moved asymmetrically. In this case, the remote controller 11 can receive the designation of any operation mode.

(action)

Next, the actions of the first vertical baffle 51 , the second vertical baffle 71 , the first horizontal baffle 80 , and the second horizontal baffle 90 , and the air flow that characterize the present invention will be described in detail.

First, when the fan 3 rotates, indoor air is sucked into the casing 4 from the first suction port 61, the second suction port 62, and the side suction ports 66, 67 (see FIG. 1). With the help of the rotation of the fan 3 , the inhaled air is transported from the casing outlet 31 to the top of the fan 3 , passes through the heat exchanger 2 , and then is discharged into the room from the first air outlet 12 and the second air outlet 13 . At this time, the wind direction of the air in the left and right direction can be changed by means of the first vertical baffle part 5 and the second vertical baffle part 7, and the wind direction of the air in the left and right direction can be changed by means of the first horizontal baffle part 8 and the second horizontal baffle part 9 , to change the wind direction of the air in the up and down direction.

[Action of the first vertical fence and the second vertical fence]

When shutting down, as shown in Figure 3, the first exhaust port 12 and the second exhaust port 13 are closed by the first vertical baffle part 5 and the second vertical baffle part 7 (hereinafter referred to as this state "fully closed state"). When the floor-standing air conditioner 1 starts to operate, the first vertical baffle 51 and the second vertical baffle 71 move, and the first exhaust port 12 and the second exhaust port 13 are opened. At this time, the first baffle motor 50 and the second baffle motor 70 are driven, so that the first vertical baffle 51 rotates about the first rotation axis AX1, and the second vertical baffle 71 rotates about the second rotation axis AX2. Center turns. When viewed from above, the first vertical shutter 51 rotates clockwise, and in the fully closed state, the right end of the first plate portion 52 located inside moves forward. In this way, the first vertical shutter 51 turns so that the inner end of the first plate portion 52 in the fully closed state approaches the outer end side of the first exhaust port 12 . In addition, when viewed from above, the second vertical shutter 71 rotates counterclockwise, and in the fully closed state, the left end of the second plate portion 72 located inside moves forward. In this way, the second vertical shutter 71 moves so that the inner end of the second plate portion 72 in the fully closed state approaches the outer end side of the second exhaust port 13 . The control unit 10 can open the first vertical shutter 51 and the second vertical shutter 71 to a desired opening degree by controlling the first shutter motor 50 and the second shutter motor 70 . For example, the first vertical flap 51 and the second vertical flap 71 can be opened to the first open state, the second open state and the third open state shown in FIG. 9 . As shown in FIG. 9( a ), the first open state is a state in which the front end portion of the first plate portion 52 and the front end portion of the second plate portion 72 face inward. At this time, the front end of the first plate portion 52 is located on the inside, that is, to the right, of the center of the first exhaust port 12 , and the rear end thereof is located further from the center of the first exhaust port 12 . Near the outside or left side. In this first state, the air discharged from the first exhaust port 12 and the second exhaust port 13 is concentrated toward the center of the floor-standing air conditioner 1 and blown out. As shown in FIG. 9( b ), the second open state is a state in which the front end portion of the first plate portion 52 and the front end portion of the second plate portion 72 face the front. At this time, the first plate portion 52 and the second plate portion 72 are in a state substantially parallel to the direction perpendicular to the front. In this state, the first plate portion 52 is located outside the first rotation axis AX1 and is located outside the center of the first exhaust port 12 . In addition, the second plate portion 72 is located outside the second rotation axis AX2 and is located outside the center of the second exhaust port 13 . In this second state, the air discharged from the first exhaust port 12 and the second exhaust port 13 is blown directly in the front direction. As shown in Figure 9 (c), the third open state is a state in which the first plate portion 52 and the second plate portion 72 are fully opened, and the front end of the first plate portion 52 and the front end of the second plate portion 72 All face outward. At this time, the front end portion of the first plate portion 52 is located on the outside of the outer end portion of the first exhaust port 12 , and the rear end portion thereof is located on the inside of the center of the first exhaust port 12 . s position. The front end of the second plate portion 72 is located outside the outer end of the second exhaust port 13 , and the rear end is located inside the center of the first exhaust port 12 . In this third state, the air exhausted from the first exhaust port 12 and the second exhaust port 13 is blown outward in a widened manner.

In addition, the openings of the first vertical baffle 51 and the second vertical baffle 71 can not only be opened in three stages from the above-mentioned first open state to the third open state, but also can be opened to an intermediate opening. In addition, the first vertical baffle 51 and the second vertical baffle 71 can not only be opened in stages, but also can be opened to any opening degree.

In addition, in this floor-standing air conditioner 1, the first vertical baffle 51 and the second vertical baffle 71 can not only move left-right symmetrically as shown in FIG. 9 , but also move left-right asymmetrically. , to open the first exhaust port 12 and the second exhaust port 13. For example, as shown in FIG. 10( a ), while the first vertical flap 51 is in the fully closed state, the second vertical flap 71 can be in the third open state. Furthermore, as shown in FIG. 10( b ), while the first vertical shutter 51 is in the first open state, the second vertical shutter 71 can be brought into the third open state.

In addition, when the first vertical flap 51 and the second vertical flap 71 close the first exhaust port 12 and the second exhaust port 13, they may be moved in the opposite direction to the above.

[Action of the first horizontal fence and the second horizontal fence]

In this floor type air conditioner 1, from the first horizontal baffle group G1 to the third horizontal baffle group G3, and from the fourth horizontal baffle group G4 to the sixth horizontal baffle group G6, the levels can be changed respectively. The angle of the baffles 80,90. Therefore, the user can set the angle of each baffle 80, 90 at a desired angle. For example, as shown in Figure 11(a), all of the first horizontal baffle group G1 to the third horizontal baffle group G3 can be set to face upward; The horizontal baffle group G1 to the third horizontal baffle group G3 are all set to face downward. When the first horizontal baffle group G1 to the third horizontal baffle group G3 are all set to face upward, the air discharged from the first exhaust port 12 is discharged upward. Therefore, during cooling, the cold air can be efficiently blown upward. In addition, when the first horizontal baffle group G1 to the third horizontal baffle group G3 are all set to face downward, the air discharged from the first exhaust port 12 is discharged downward. Therefore, during heating, hot air can be efficiently blown downward. The operations from the fourth horizontal flap group G4 to the sixth horizontal flap group G6 are also the same as described above.

In addition, since the first horizontal fence group G1 to the sixth horizontal fence group G6 can change their directions independently, each of the horizontal fences 80 and 90 may be set to face in different directions as shown in FIG. 12 . For example, in Figure 12(a), the first horizontal baffle group G1 is set to face upward, the second horizontal baffle group G2 is set to face the front, and the third horizontal baffle group G3 is set to face below. Therefore, the air discharged from the upper part S1 of the first exhaust port 12 is discharged upward; the air discharged from the middle part S2 is discharged directly to the front; and the air discharged from the lower part S3 is discharged downward. In this way, a wide airflow can be discharged in the vertical direction D2, so that the airflow can spread over the upper and lower parts of the room. In addition, as shown in Figure 12(b), it is also possible to set the first horizontal baffle group G1 to face downward, set the second horizontal baffle group G2 to face the front, and set the third horizontal baffle group G3 to face downward. Oriented upwards. In this case, the air discharged from the upper part S1 of the first exhaust port 12 is discharged downward, the air discharged from the middle part S2 is discharged straight to the front, and the air discharged from the lower part S3 is discharged upward. Therefore, the air can be concentrated and discharged in the front direction, and the air flow can reach a far place. For the fourth horizontal baffle group G4, the fifth horizontal baffle group G5 and the sixth horizontal baffle group G6, it is the same as above.

In addition, the first horizontal flap 80 moves in the vertical direction D2 by the first link member 81, the second link member 82, and the third link member 83, respectively, so that the connected first horizontal flap 80 Bending to change its direction, however, the first link member 81, the second link member 82, and the third link member 83 can not only change their positions in stages, but can also change their positions continuously to desired positions. In addition, the direction of the first horizontal baffle 80 can not only be changed manually, but also by setting drive motors on the first horizontal baffle group G1, the second horizontal baffle group G2 and the third horizontal baffle group G3 respectively. , to automatically change its orientation. The same applies to the second horizontal baffle 90 as well.

(feature)

(1)

In this floor-standing air conditioner 1, the first vertical baffle 51 and the second vertical baffle 71 are located on the outer side of the center of the first exhaust port 12 and the second exhaust port 13 respectively when opened. . As in the conventional floor-standing air conditioner, when the first vertical baffle 51 and the second vertical baffle 71 are arranged close to the inside, when the first vertical baffle 51 and the second vertical baffle 71 are inwardly In the first open state, as shown in FIG. 13(a), since the air flow is dispersed to the outside, it is difficult to concentrate the air flow toward the front direction. In contrast to this, when the first vertical baffle 51 and the second vertical baffle 71 are opened, they are respectively located outside the center of the first exhaust port 12 and the second exhaust port 13, as shown in Figure 13 As shown in (b), since the dispersion of the airflow toward the outside is suppressed, the performance of concentrating the airflow toward the front direction can be improved. Therefore, by concentrating the air flow in the frontal direction, it is possible to improve the straight forward performance of the air flow. Thus, the air flow can reach a long distance.

In addition, in this floor type air conditioner 1, since the first exhaust port 12 and the second exhaust port 13 are arranged at a distance in the lateral direction, as shown in the third open state shown in FIG. 9(c), , the first vertical baffle 51 and the second vertical baffle 71 are largely opened to the left and right directions, so that the air can be blown out to the left and right directions with a wide width. Therefore, it is possible to realize an airflow enveloping from the left and right directions by blowing air in both the left and right directions.

As described above, in the floor-standing air conditioner 1 of the present invention, the control range of the wind direction is enlarged. Therefore, this floor-standing air conditioner 1 can be installed in various places or used in various ways.

(2)

In such a floor-standing air conditioner 1 , the direction of the wind discharged from the first outlet 12 and the direction of the wind discharged from the second outlet 13 can be controlled separately. Therefore, it is possible to perform distribution of the airflow matching the room, distribution of the airflow matching the user's desire, and the like. In addition, since the degree of freedom in the distribution of the air flow is increased, the distribution of the air flow can be changed according to the shape of the room in which the floor-standing air conditioner 1 is arranged, or the air flow can be distributed only to those who particularly need air conditioning such as cooling or heating. part, thereby improving the efficiency of the air conditioner. For example, when the floor-standing air conditioner 1 is arranged at the corner of a long strip-shaped room in one direction, if the air is evenly discharged to the left and right, the air flow is difficult to reach the corner of the floor-standing air conditioner 1 at the diagonal position. corner part. In this case, as shown in FIG. 14, by making the direction of the wind discharged from the first exhaust port 12 and the direction of the wind discharged from the second exhaust port 13 be biased in the length direction of the room, the air flow can reach It's the hard-to-reach part.

(3)

In this floor-standing air conditioner 1 , the horizontal baffles 80 , 90 are divided into a plurality of groups, and each group can freely change the direction of the horizontal baffles 80 , 90 . Therefore, the discharge method in the vertical direction D2 can be freely selected according to the shape of the room and the desire of the user. For example, it is possible to realize the air flow that surrounds the room from top to bottom, and conversely, by concentrating the air flow, the area that the air flow can reach can be enlarged.

In addition, since not only all the horizontal fence groups G1-G3, G4-G6 can be moved simultaneously, but also each horizontal fence group G1-G3, G4-G6 can be moved at the same time, when moving one group of horizontal fence groups G1-G6 , It can be operated with a small force, thereby improving the operability.

(4)

In this floor type air conditioner 1, as mentioned above, by means of the first vertical baffle 51, the second vertical baffle 71, the first horizontal baffle 80 and the second horizontal baffle 90, the air can be allowed to flow to each direction discharge. Therefore, it is not necessary to provide a plurality of fans 3, but only one fan is provided, and the air can be exhausted in various forms.

(second embodiment)

(structure)

In the above-mentioned first embodiment, the adjustment of the left and right wind directions can be individually controlled, and the air volume of the air discharged from the left and right directions can also be individually controlled. Fig. 15 shows a control block diagram of the floor-standing air conditioner 1 according to the second embodiment of the present invention.

This floor-standing air conditioner 1 has a first air volume adjustment unit 58 and a second air volume adjustment unit 78 . The first air volume adjusting part 58 has a first shutter mechanism that changes the opening area of the first air outlet 12 and can adjust the air volume of the air discharged from the first air outlet 12 . The second air volume adjusting part 78 has a second shutter mechanism for changing the opening area of the second air outlet 13 , and can adjust the air volume of the air discharged from the second air outlet 13 . Moreover, the control unit 10 can respectively control the first air volume adjustment unit 58 and the second air volume adjustment unit 78, so that the air volume of the air discharged from the first air outlet 12 and the air volume discharged from the second air outlet 13 can be respectively changed. Air volume. In addition, the user can adjust the air volume of the air discharged from the first air outlet 12 and the volume of the air discharged from the second air outlet 12 by inputting the adjustment of the air volume by the first air volume adjustment part 58 and the second air volume adjustment part 78 to the remote controller 11. The air volume of the air discharged from the port 13 is adjusted to a desired air volume. In this case, as in the first embodiment, not only can the change of the air volume be input to the first air volume adjustment unit 58 and the second air volume adjustment unit 78 respectively, but also the first air volume adjustment unit can be activated by specifying the operation mode. 58 and the second air volume regulator 78 work separately.

Other structures are the same as those of the floor-standing air conditioner 1 in the first embodiment.

(feature)

In such a floor-standing air conditioner 1, since the wind direction of the air discharged from the first exhaust port 12 and the air volume discharged from the second discharge port 13 can be individually controlled, it is possible to distribute the air flow according to the room, and Air flow distribution that matches the user's preferences. In addition, since the degree of freedom in the distribution of the air flow is increased, the distribution of the air flow can be changed according to the shape of the room in which the floor-standing air conditioner 1 is arranged, or the air flow can be distributed only to those who particularly need air conditioning such as cooling or heating. part, thereby improving the efficiency of the air conditioner. For example, when the floor-standing air conditioner 1 is arranged at the corner of a long room in one direction, as shown in FIG. Reduce the amount of air that is exhausted from the exhaust port on the other side. In this way, the airflow can reach the parts it has difficulty reaching.

(Other implementations)

(1)

In the floor-standing air conditioner 1 of the above-mentioned embodiment, the first vertical baffle 51 and the second vertical baffle 71 are arranged outwardly eccentrically by means of eccentrically arranging the first rotation axis AX1 and the second rotation axis XA2 to the outside. Open eccentrically, but the first axis of rotation AX1 and the second axis of rotation XA2 can also be arranged on the center of the first outlet opening 12 and the center of the second outlet opening 13 , respectively. In this case, for example, by setting the shape of the first rib 53 and the position of the hole of the first rib 53 at a position away from the first plate portion 52, the first vertical baffle 51 can also be eccentric to the outside. The way to open the first exhaust port 12. However, considering the limitation on the size of the first exhaust port 12 and the first vertical baffle 51 , it is more ideal to arrange the first rotation axis AX1 eccentrically to the outside. The second vertical baffle 71 is also the same as described above.

(2)

In the floor-standing air conditioner 1 of the above embodiment, the first vertical baffle 51 rotates clockwise to open the first exhaust port 12 when viewed from above, but it can also be rotated counterclockwise to open. The first exhaust port 12. The second vertical baffle 71 is also the same as described above.

(3)

In the floor-standing air conditioner 1 of the above-mentioned embodiment, the first exhaust port 12 and the second exhaust port 13 are opened by the rotation of the first vertical baffle plate 51 and the second vertical baffle plate 71, but not only Limited to the rotational movement, the first exhaust port 12 and the second exhaust port 13 can also be opened by moving in other ways.

(4)

The floor-standing air conditioner 1 of the above embodiment is not limited to having the first vertical baffle part 5 and the second vertical baffle part 7 shown in the first embodiment, and the first vertical baffle part 7 shown in the second embodiment. Either one of the air volume adjustment unit 58 and the second air volume adjustment unit 78 may have both of them.

(5)

In the floor-standing air conditioner 1 of the above embodiment, the first horizontal baffles 80 are vertically divided into three groups, but may be divided into two or more groups, for example, may be divided into two groups or four groups. The same applies to the second horizontal baffle 90 .

The present invention has the effect of being able to select a variety of air flows, and is useful for floor-standing air conditioners.

Claims (6)

1. a Floot type air conditioner (1) has:

Shell (4) is provided with first exhaust outlet (12) that the air through overregulating is discharged;

A plurality of first baffle plates (80) are being arranged side by side on the vertical direction in above-mentioned first exhaust outlet (12), and guiding is from the air of above-mentioned first exhaust outlet (12) discharge;

The first baffle plate governor motion (21), the direction that can regulate a plurality of above-mentioned first baffle plate (80) that belongs to first baffle group (G1) in a plurality of above-mentioned first baffle plates (80);

Second baffle governor motion (22) can be independent of the adjusting of above-mentioned first baffle group (G1) to the direction of a plurality of above-mentioned first baffle plate (80) that belongs to second baffle group (G2) in a plurality of above-mentioned first baffle plates (80).

2. Floot type air conditioner as claimed in claim 1 (1) is characterized in that, above-mentioned first exhaust outlet (12) is shape long on vertical direction.

3. Floot type air conditioner as claimed in claim 1 or 2 (1) is characterized in that,

The above-mentioned first baffle plate governor motion (21) has first connecting rod parts (81), and above-mentioned first connecting rod parts (81) are connected on a plurality of above-mentioned first baffle plate (80) that belongs to above-mentioned first baffle group (G1), and can move on vertical direction;

Above-mentioned second baffle governor motion (22) has second connecting rod parts (82), above-mentioned second connecting rod parts (82) are connected on a plurality of above-mentioned first baffle plate (80) that belongs to above-mentioned second baffle group (G2), and it is mobile on vertical direction to be independent of above-mentioned first connecting rod parts (81).

4. Floot type air conditioner as claimed in claim 3 (1) is characterized in that,

Above-mentioned first connecting rod parts (81) and above-mentioned second connecting rod parts (82) are arranged to respectively and can be manually moved.

5. as each described Floot type air conditioner (1) of claim 1～4, it is characterized in that,

Also has the 3rd baffle plate governor motion (23), the 3rd baffle plate governor motion (23) can be independent of the adjusting of above-mentioned first baffle group (G1) and above-mentioned second baffle group (G2) to the direction of a plurality of above-mentioned first baffle plate (80) that belongs to the 3rd baffle group (G3) in a plurality of above-mentioned first baffle plates (80);

Above-mentioned first baffle group (G1), above-mentioned second baffle group (G2) and above-mentioned the 3rd baffle group (G3) are arranged side by side on vertical direction.

6. as each described Floot type air conditioner (1) of claim 1～5, it is characterized in that,

On above-mentioned shell (4), also be provided with and see second exhaust outlet (13) that is arranged side by side and the air through overregulating is discharged at laterally (D1) with above-mentioned first exhaust outlet (12) from the front;

And this Floot type air conditioner (1) also has:

A plurality of second baffles (90) are being arranged side by side on the vertical direction in above-mentioned second exhaust outlet (13), and guiding is from the air of above-mentioned second exhaust outlet (13) discharge;

The 4th baffle plate governor motion (24), the direction that can regulate a plurality of above-mentioned second baffle (90) that belongs to the 4th baffle group (G4) in a plurality of above-mentioned second baffles (90); And

The 5th baffle plate governor motion (25) can be independent of the adjusting of above-mentioned the 4th baffle group (G4) to the direction of a plurality of above-mentioned second baffle (90) that belongs to the 5th baffle group (G5) in a plurality of above-mentioned second baffles (90).

Images