JP3152608B2 - Dehumidifying and drying equipment - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention comprises a rotary dehumidifying element used for dehumidifying and drying inside a high-humidity enclosed room such as a bathroom, a clothes storage room, a washroom, a dressing room or a basement room of a building. Regarding the dehumidifying / drying device, in particular, it is possible to efficiently perform dehumidifying and drying processing of indoor humid air by a rotary dehumidifying element and regeneration processing of a rotary dehumidifying element by a simple air blowing system, and also perform indoor heating. It was made.

[0002]

2. Description of the Related Art In general, a ventilation opening is opened through a decorative grill on a wall surface or a ceiling surface of a bathroom or the like as a closed room in a house, and a ventilation fan is attached to a ventilation opening frame of the ventilation opening outside the room. This provides indoor ventilation.

In order to perform dehumidification / drying in a room, a suction port and an air outlet are separately provided on a side wall surface or a ceiling surface of the room, and the inside of the room is dehumidified and dried by a dehumidifying / drying device installed outside the room. The air is sucked in from the suction port to dehumidify and dry, and the dehumidified dry air is blown out from the outlet into the room.
The bathroom is used as a drying room for clothes such as laundry.

Conventionally, in this type of dehumidifying and drying apparatus,
Circulating air that allows the humid air in the room sucked from the suction port to pass through the rotary type dehumidifying element provided in the case main body to cause the moisture to be adsorbed, and that the dry air is blown into the room from the outlet through the outlet. The forced circulation mechanism is provided, and high-temperature air is supplied to the rotary dehumidifying element to which moisture has been adsorbed, thereby causing the rotary dehumidifying element to desorb moisture and regenerate the rotary dehumidifying element. There is a device having a configuration as described above.

[0005]

However, in the dehumidifying / drying apparatus having the above-mentioned conventional structure, a forced circulation mechanism for circulating air for sucking in humid air in the room and blowing out dry air after dehumidification, Since the air blowing function for taking in and discharging air is performed by separate air blowing mechanisms, two dedicated air blowers are required, which complicates the air blowing system and increases the size of the entire device. Instead, it becomes expensive.

In addition, when air for regeneration is directly taken in from outside the room, the temperature and humidity of the outdoor air change greatly, making it difficult to control heating by an electric heater, requiring a large capacity of the heater, and reducing the drying efficiency. In addition, since there is much dirt on the outdoor air, there is a problem that the rotary dehumidifying element is heavily stained and adversely affects the dehumidifying / drying performance and durability.

SUMMARY OF THE INVENTION An object of the present invention is to make it possible to efficiently perform a dehumidifying / drying process of indoor humid air and a regenerating process of a rotary dehumidifying element by a rotary dehumidifying element by using a simple air blowing system, and to realize an entire apparatus It is an object of the present invention to provide a dehumidifying / drying apparatus which can reduce the size and cost of the apparatus and can heat the room.

[0008]

SUMMARY OF THE INVENTION In order to solve the above-mentioned problems, the present invention relates to a case body provided with a suction port and a blow-out port on a front surface facing an indoor side. A primary zone that communicates, a tertiary zone that is connected to the outlet, and a secondary zone that is divided into the tertiary zone and the primary zone and that is adjacent to the primary zone. Air blowing means for circulating the air through the secondary zone and the tertiary zone to the outlet, and contacting the air which passes through the secondary zone to the tertiary zone, adsorbs moisture in the air, and dehumidifies the air. A dehumidifying / drying means comprising a cylindrical rotary dehumidifying element having a processing portion; and a heat recovery processing portion of the rotary dehumidifying element for removing a part of air from the secondary zone to the tertiary zone. A heat recovery means for performing heat recovery by passing the heat recovery means, a heating means for heating air passing through the heat recovery processing part and passing the air to a regeneration processing part of the rotary dehumidifying element, and the regeneration processing part Exhaust means for exhausting air that has passed through to the outside, ventilation means for exhausting air on the way from the primary zone to the secondary zone to the outside, and heating means for the regenerating means passing through the heat recovery processing site. Drying / heating switching means for bringing heated air to the tertiary zone and exhausting the air from the outlet, wherein the regenerating means heats the regenerated processing part on the tertiary zone side of the rotary dehumidifying element. A recovery chamber disposed at a site corresponding to the recovery processing site, wherein the exhaust chamber of the exhaust unit disposed on the secondary zone side is disposed in the regeneration chamber. An exhaust pipe facing the outside from the lower part of the case main body provided in the exhaust chamber is formed by a flat tube, and is close to the inlet of room air from the primary zone to the secondary zone. The exhaust pipe is installed such that the side farther from the side that is located is closer to the rotary dehumidifying element.

[0009]

[0010]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Embodiments of the present invention will be described below in detail with reference to the drawings. FIG. 1 shows a dehumidifying and drying apparatus according to the present invention installed in a bathroom or the like.
As shown in FIG. 1, reference numeral 1 denotes a case body.

The case body 1 uses, for example, a bathroom or a dressing room of a building (in the illustrated embodiment, a bathroom is shown as an example) as a dehumidifying / drying room, and is provided with an opening in a side wall surface 101 of the bathroom 100. Is mounted on a mounting frame 102 for a ventilation fan to which a ventilation fan or the like is mounted, and a makeup grill 103 is detachably mounted on the indoor side thereof.

As shown in FIGS. 3 to 5, the case body 1 is capable of sucking / blowing air on the same plane at a substantially central portion of a front portion 1a facing the inside of the bathroom 100. A suction port 2A having a function and an outlet 2B are opened vertically adjacent to each other, and the suction port / outlet 2A, 2B
, A duct 60 described later is attached.

Inside the case body 1, a primary zone 3A which communicates with the suction port 2A and in which the humid air A in the room is sucked by a forced circulation mechanism 20, which will be described later, and the primary zone 3A
And a secondary zone 3B, which is communicated with the forced circulation mechanism 20 via the air supply path 4 and the air supply port 5 for the humid air, and communicates with the secondary zone 3B via a dehumidifying / drying mechanism 30 described later. A tertiary zone 3C connected to the outlet 2B and a quaternary zone 3D in which the forced circulation mechanism 20 is disposed.
Through the fourth partition panels 6, 7, 8, and 9, respectively.

The primary zone 3A is surrounded and partitioned by first, second and fourth partition panels 6, 7, 9 and the upper surface 1b of the case body 1, and the secondary zone 3B is
And a fifth partition zone 3E in which a drive motor 32 of a dehumidifying / drying mechanism 30, which is incorporated in the third partition panel 8 and is described later, is housed. The tertiary zone 3 </ b> C is divided into first, third, and fourth partition panels 6, 8, 9, and the case body 1. And the fourth zone 3D is divided into second, fifth, and sixth partition panels 7, 11, and 12, the side portion 1d of the case body 1, and the fourth zone 3D. A forced circulation mechanism 20 is unitized and detachably assembled to the second partition panel 7 while being surrounded and partitioned by the bottom surface 1e.

The forced circulation mechanism 20 includes a centrifugal air blower 21 as a blower such as a sirocco fan.
The drive motor 22 of the blower 21 is provided with a first ventilation hole 13 opened in the bottom 1e of the case body 1.
The fifth partition panel 11 that forms the air passage 4 is provided in the nozzle portion 21 a of the fourth partition 3 D that communicates with the outside air.
00 in the primary zone 3 in order from the suction port 2A.
A, while circulating to the outlet 2B through the secondary zone 3B and the tertiary zone 3C, the rotary dehumidifying element 31 is passed through the secondary zone 3B by the The first vent hole 13 is in contact with the air A which is led to the zone 3C, and adsorbs moisture in the air A. The first ventilation hole 13 divides the inside of the quaternary zone 3D into an outdoor atmosphere (outside air). And the drive motor 22 of the blower 21 housed in the quaternary zone 3D.
Constitutes a first cooling mechanism for cooling the cooling device.

The fifth partition panel 11 which forms the air supply passage 4 is the sixth partition panel 1 which forms the fifth zone 3E in which the drive motor 32 of the dehumidifying / drying mechanism 30 is housed.
2, and the back side of the air supply passage 4 has an opening 2
3 is provided, and a ventilation port 14 is provided on the back surface 1 c of the case main body 1 corresponding to the opening 23.

In the figure, reference numeral 24 denotes a ventilation / drying switching damper provided so as to alternately open and close the air supply port 5 and the opening 23 of the air supply passage 4. The ventilation / drying switching damper 24 is
For example, the opening / closing control is performed by a step motor 25 so that the opening 23 provided on the back side of the air supply passage 4 is shut off during the dehumidification / drying operation, while the air supply port 5 side is closed during the ventilation operation. By performing switching control so as to close, the wet air A in the bathroom 100 that is blown from the suction port 2A to the secondary zone 3B through the primary zone 3A by the blower 21 of the forced circulation mechanism 20, It has a ventilation / drying switching function such that the air is directly discharged from the ventilation port 14 to the outside through the opening 23.

On the other hand, a rotary dehumidifying element 31 constituting the dehumidifying / drying mechanism 30 is unitized and detachably assembled to the third partition panel 8, and the rotary dehumidifying element 31 is For example, cobalt on silica gel,
The metal silicate gel, which combines multiple metals such as iron and manganese, undergoes a polymerization reaction in the ceramic honeycomb laminate, and the micropore shape is fine-tuned to match the water molecules. Has a cylindrical shape in which the water adsorption and desorption properties are improved by increasing the hydrophilicity by fixing a large amount of the water, the diameter of the cylinder is, for example, 20 cm, and the rotation speed is 1 minute per minute. / 2 rotations.

As shown in FIG. 6, the rotary dehumidifying element 31 includes a dehumidification processing part 31A and a regeneration processing part 3A.
1B and the heat recovery processing part 31C are located so as to correspond in order along the rotation direction X, and these dehumidification processing parts 31A,
The respective areas of the regeneration processing part 31B and the heat recovery processing part 31C have an angle ratio of θ1: θ2: θ3 (θ1 ≧ θ2 ≧ θ
3) For example, it is set to 5: 2: 1, and the air volume ratio between the dehumidification processing part 31A and the regeneration processing part 31B is set to, for example, 200 (m ³ / h): 20 (m ³ / h). The rotational drive control is performed by the rotary dehumidifying element 3.
A driving belt 35 wrapped around a gear 34 attached to a rotating shaft 33 of a reduction motor 32 is wrapped around the outer periphery of the gear 1 via a tension roller 37 urged by a spring 36. ing.

Tertiary zone 3 of the rotary dehumidifying element 31
A first chamber (regeneration chamber) 41 made of a heat-resistant synthetic resin is provided at a portion corresponding to the regeneration processing portion 31B and the heat recovery processing portion 31C on the C side.
In the chamber 41, as shown in FIG. 3, the dividing air introduction path 43 after adsorbing moisture from the heat recovery processing part 31C of the rotary dehumidifying element 31 at the partition wall 42, and the divided air is A lead-out path 44 formed by making a U-turn on the side of the regeneration processing portion 31B of the rotary dehumidifying element 31 is defined.

The introduction passage 43 is provided with a sheath heater (P) as an electric heating device for heating the divided air after absorbing moisture from the heat recovery processing portion 31C of the rotary dehumidifying element 31.
An electric heater 45 comprising a TC heater is provided such that a rectangular ventilation heating surface faces the heat recovery processing portion 31C of the rotary dehumidifying element 31 at an oblique angle. Arrange the electric heater 4
The opening / closing allowable space of a drying / heating switching damper 48 of a drying / heating switching means, which will be described later, provided on the downstream side of 5 is formed on the U-turn portion side of the introduction path 43.

The drying / heating switching means includes an exhaust port 46 opened to communicate with a side wall of the first chamber 41 facing the tertiary zone 3C, and an open / close control of the exhaust port 46 by, for example, a step motor 47. Possible switching dampers 48
The switching damper 48 discharges the regeneration air C heated by the electric heater 45 to the tertiary zone 3C side when the exhaust port 46 of the first chamber 41 is in an open state. It has a heating function of heating the inside of the room 100 by discharging it from the outlet 2B, and is in a closed state during drying.

As shown in FIGS. 7 and 8, the switching damper 48 is supported by a support shaft 41A having an upper end 49a of a rotating shaft 49 projecting into the chamber housing, and a lower end 49b of the stepping motor 49a. 47 drive shaft 47
A is rotatably mounted on the shaft A, and an engagement groove 50 is formed in the rotation shaft 49. A dowel 51 projecting from the inner wall of the chamber housing is engaged with the engagement groove 50. Are to be combined.

The dowel 51 contacts the lower end 49b of the rotating shaft 49 with the bottom surface inside the chamber housing due to the lowering of the switching damper 48 due to its own weight, or the upper and lower portions of the rotating shaft 49 due to thermal contraction and extension of the chamber housing itself. It is positioned so as to restrict the contact of the both ends 49a, 49b with the chamber housing surface, thereby reducing the load on the step motor 47 and at the same time, the upper and lower ends 49a of the rotary shaft 49. , 49b can be kept to a minimum.

In the figure, reference numeral 52 denotes the first chamber 41.
An electric heater comprising a sheathed heater for heating (PTC heater) integrally supported by the
For example, the capacity is set to 600 W, and the rectangular ventilation heating surface has a horizontally long horizontal state above the dehumidification processing part 31A of the rotary dehumidification element 31 facing the tertiary zone 3C side in the case body 1. It is provided so as to be maintained so as to maintain the air in the room 100 by heating the dry air B after the dehumidification processing and discharging the heated air for heating E from the outlet 2B during the heating operation. That has a heating function of performing

In this case, the reason why the electric heater 52 is installed above the dehumidification processing part 31A of the rotary dehumidifying element 31 is that the electric heater 52 is disposed above the dehumidification processing part 31A of the rotary dehumidifying element 31.
This is because the upper portion is a region where the wind speed is relatively slow, so that the dry air B after the dehumidification process can be efficiently heated.

The rotary dehumidifying element 31 has a stainless steel plate thickness of about 1.2 mm which forms a third partition panel 8 for dividing the secondary zone 3B and the tertiary zone 3C in the case body 1. Is rotatably supported by a seal panel member 8A. The seal panel member 8A is provided with a ventilation hole 8B smaller than the diameter (for example, 20 cm) of the rotary dehumidifying element 31. The ventilation hole 8B At the center thereof, there is provided a shaft supporting portion 8C for supporting the rotary dehumidifying element 31. The shaft supporting portion 8C is provided with the rotary dehumidifying element 31 for dehumidification processing part 31A, regeneration processing part 31B, and heat recovery processing part. 31C, and are held by radially extending connecting pieces 8D, 8E, 8F arranged so as to be cross-linked from the inner peripheral edge of the ventilation hole 8B so as to be divided in correspondence with 31C.
In the middle of the portion corresponding to the dehumidification processing portion 31A of the rotary dehumidifying element 31, a reinforcing connecting piece 8G is provided in a cross-linked manner as in the case of the connecting pieces 8D, 8E, and 8F.

The reinforcing connecting piece 8G prevents the smoothness of the seal panel member 8A from being lost due to thermal distortion due to the influence of the rotary dehumidifying element 31 heated to a high temperature. As shown in FIGS. 9 and 10, between the regeneration chamber 41 and the seal panel member 8A, three shaft members 53 are interposed around the rotary dehumidifying element 31 at substantially equal intervals of about 120 °. The rotary dehumidifying element 3 is fixed by caulking one end thereof to the seal panel member 8A and fastening the other end thereof with screws 54 to support three points.
1, and a gap b of about 0.5 mm is maintained between the seal panel member 8A and the rotary dehumidifying element 31 and the regeneration chamber 41. This prevents an increase in rotational torque and abrasion of the contact surface due to contact with the regeneration chamber 41 or the seal panel member 8A caused by uneven rotation of the rotary dehumidifying element 31.

Further, a second chamber (exhaust chamber) 55 is provided at a portion corresponding to the regeneration processing portion 31B on the secondary zone 3B side of the rotary dehumidifying element 31 with an outlet path 44 of the first chamber 41. The bottom of the second chamber 55 is connected to an exhaust pipe 56 that faces the outside from the lower surface side of the case main body 1. As shown in FIG. 5, a flat tube is formed, and its major axis direction OO is opposed to the blowing direction of the humid air A in the room that is blown from the primary zone 3A through the air passage 4 into the secondary zone 3B. So that the side close to the air supply port 5 is separated from the rotary dehumidification element 31 and the side away from the air supply port 5 approaches the rotary dehumidification element 31. is set up. As a result, the primary zone 3
Part of the room air A introduced from A into the secondary zone 3B,
In other words, the air that has entered between the heat recovery processing portion 31C of the rotary dehumidifying element 31 and the exhaust pipe 56, which is located at the lower rear side of the second chamber 55, has a smaller space as it goes away from the air supply port 5. As a result, a large decrease in air pressure is prevented, so that the rotary type dehumidifying element 31 can be smoothly introduced (passed) into the heat recovery processing portion 31C.

That is, a part of the humid air A introduced from the primary zone 3A to the secondary zone 3B by the blower 21 is transferred to a heat recovery processing portion 31C of the rotary dehumidifying element 31 as shown in FIG. The diverted air is heated by the PTC heater 45 through the introduction path 44 of the first chamber 41, and the heated regeneration air C is supplied to the regeneration processing part 31B side by the humid air. By making a U-turn in a countercurrent state opposite to the direction A and passing through the regeneration processing portion 31B of the rotary dehumidifying element 31, the rotary dehumidifying element 31 is regenerated.

Then, the air D after such regeneration processing is performed.
Is configured to exhaust air from the lower surface side of the case body 1 to the outside via an exhaust pipe 56 connected to the second chamber 55, while being passed through the dehumidification processing part 31A. Air B after dehumidification and drying is in tertiary zone 3
Through C, the air is returned from the outlet 2B into the chamber 100, whereby dehumidification and drying in the chamber 100 are performed.

In this case, the heat recovery processing part 31C of the rotary dehumidifying element 31 sends the air A introduced into the secondary zone 3B side to the rotary dehumidifying element 31 which has become high temperature in the regeneration processing part 31B. While having the effect of lowering the temperature of the rotary dehumidifying element 31
The capacity of the electric heater 45 as a heating means of the regenerated air C in the heat recovery processing part 31C is set to, for example, 600 W, whereby the dry air B blown out of the outlet 10 into the chamber 100 after dehumidification and drying. Is set to be higher than room temperature.

On the other hand, to perform only the ventilation operation in the room 100, the ventilation / drying switching damper 24 is opened, and
At the same time as the opening 23 of the air supply passage 4 is opened, the air supply port 5 communicating with the secondary zone 3B is closed, and the blower 21 of the forced circulation mechanism 20 passes through the primary zone 3A from the suction port 2A through the primary zone 3A. This is performed by directly exhausting the wet air A in the bathroom 100 sucked into the air supply passage 4 to the outside from the ventilation port 14.

When the heating operation in the room 100 is performed, the electric heater 52 for heating provided in the first chamber 41 is turned on to supply electricity, and the drying / heating switching damper 48 is opened. Then, the exhaust port 46 is opened, and the heating air E heated by the electric heaters 45 and 52 is discharged from the outlet 2B.

In this case, the energization control of the electric heater 52 and the opening control of the ventilation / drying switching damper 24 are performed, for example, by installing a temperature sensor 57 outside the exhaust pipe 56 facing the outside and setting the outside air temperature to 15 ° C. or less. Or when the room temperature is detected to be 17 ° C. or less, the operation control is performed so that the heating is performed,
After raising the room temperature to a predetermined set temperature (+ 2 ° C.), switching control of the drying operation is performed.

The rotation axis of the blower 21 and the rotation axis of the rotary dehumidifying element 31 constituting the dehumidifying / drying mechanism 30 are perpendicular to the panel surface facing the inside of the chamber 100 of the case body 1. While being arranged adjacently to each other so as to be located on the same plane and in a parallel state,
The suction surface of the suction port of the blower 21 is disposed so as to face obliquely with respect to the suction surface of the suction port 2A, whereby the depth dimension and width of the case body 1 with respect to the panel surface facing the inside of the chamber 100. It enables the size to be reduced.

In the figure, reference numeral 15 denotes a second ventilation hole provided in the fourth partition panel 12 for partitioning the fifth zone 3E.
The second vent hole 15 connects the quaternary zone 3D and the quintic zone 3E to each other, and converts the outdoor atmosphere (outside air) in the quaternary zone 3D by the first vent hole 13 into the quintic zone 3E. And a second cooling mechanism that cools the drive motor 32 of the rotary dehumidifying element 31 housed in the fifth-order zone 3E.

Further, in the figure, reference numeral 16 denotes a motor accommodating section formed in the bottom portion 1e of the case main body 1. In the motor accommodating section 16, a step motor 25 for controlling opening and closing of the ventilation / drying switching damper 24 is provided. A third ventilation hole 17 communicating with the outdoor atmosphere (outside air) is provided on the bottom surface while being positioned and accommodated, whereby the third motor 17 for cooling the step motor 25 accommodated in the motor accommodation portion 16 is provided. A similar cooling mechanism is provided for a stepping motor 47 which constitutes a cooling mechanism and controls the opening / closing of a drying / heating switching damper 48 of the regeneration chamber 41.

In the drawing, reference numeral 18 denotes a back portion 1c of the case body 1.
The protective cover 18 is attached so as to protect the periphery of the ventilation opening 14 opened to the outside from the outside.
Has a form in which the lower surface portion 18a side is opened to expand downward, and during ventilation operation, the room humid air A from the ventilation port 14 is exhausted downward. Inside thereof, a plurality of ribs 181 are provided, and by the formation of these ribs 181, when the operation is stopped, or during the drying / heating operation, the opening 23 is shut off by the ventilation / drying switching damper 24, Intrusion of small birds, insects, and the like from the ventilation port 14 into the case body 1 is prevented.

In the above embodiment, the shutter 182 made of an elastic piece such as a thin rubber
From the outside of the case body 1, and the shutter 18
2 only by fixing the upper side portion with a fixture or the like, and
And the shutter 182 may be opened outward by the wind pressure during the ventilation operation to prevent small insects such as ants and mosquitoes and insects from entering.

On the other hand, the inlet / outlet 2A, 2B which is divided into two upper and lower stages and opened on the front portion 1a of the case body 1.
The duct 60 provided so as to protrude from the first duct 6
1, a second duct 62 slidably fitted to the first duct 61 in an externally fitted state, and a second duct 62
And a suction passage inserted into the first duct 61 and corresponding to the suction opening / outlet 2A, 2B of the case body 1.
An inner partition plate 63 that divides the outlet passages 60A and 60B into two upper and lower stages, and the first duct 61 that corresponds to the inlet 2A of the case body 1 that is partitioned by the inner partition plate 63.
And an air filter 64 removably provided in the upper suction passage 60A of the second duct 62.
Is detachably attached so as to cover the entire open end of the second duct 62.

Then, as shown in FIGS. 12 and 13,
Grooves 61 are formed on both left and right outer surfaces of the first duct 61.
1 and 611 are formed along the front-rear direction, and on the left and right inner side surfaces corresponding to these concave grooves 611 and 611, a first fitting groove 61 for fitting and supporting the middle partition plate 63 is provided.
2, 612 are formed so as to protrude, and these first fitting grooves 61 are formed.
The rear end sides of the members 2 612 are cross-linked with each other to fit and support the rear end of the partition plate 63.

On the left and right inner surfaces of the second duct 62, as shown in FIG. 14, the first duct 61 is fitted with concave grooves 611 and 611 formed on the left and right outer surfaces. The second fitting grooves 621 and 621 are formed to protrude. The second fitting grooves 621 and 621 correspond to the first fitting grooves 612 and 612 formed on both left and right inner side surfaces of the first duct 61. The middle partition plate 63 is fitted and supported by being positioned.

The first and second fitting grooves 612 and 612 formed in the first duct 61 and the second duct 62, respectively.
The partitioning plate 63 fitted and supported by the first and second 621 includes the first and second partitions.
According to the width of the ducts 61 and 62, the front and rear ducts are formed in two front and rear directions, and the entire length thereof is formed to be longer than the depth of the ventilation fan mounting frame 102 mounted on the side wall surface 101 of the bathroom 100. The length of the narrow rear half 63A in the front-rear direction corresponding to the width of the first duct 61 is the same as the length of the first duct 61 in the front-rear direction. The length of the wide front half 63B in the front-rear direction corresponding to the width of the duct 62 is cut in accordance with the depth of the ventilation fan mounting frame 102.

Further, the air filter 64 surrounds an outer peripheral portion of a long band-shaped filter material made of a non-woven fabric with a frame made of a plastic material, and the frame has a plurality of V-shaped hinge portions (in the illustrated embodiment, a plurality of hinge portions). (5 places) Notches are formed symmetrically and can be bent in a zigzag shape so as to maintain the shape of the plane W-shape.

The decorative grill 103 is vertically divided by a partition member, and has an upper suction passage formed on the front upper surface and upper surface thereof by dividing the inside of the second duct 62 into upper and lower partitions by a partition plate 63. An air supply opening 103A communicating with the air outlet 60A is opened, and an air outlet 103B communicating with the air outlet passage 60B is opened on the lower surface 103a, and dehumidification and drying blown out from an air outlet 2B of the case body 1. The air B or the heating air E is supplied to the side wall surface 101 in the chamber 100.
Is ejected directly below along the line.

That is, in order to install the above-described dehumidifying and drying apparatus on the side wall surface 101 of the chamber 100, the vertical and horizontal outer frame dimensions provided through the side wall surface 101 of the chamber 100 are, for example, 150 mm × 200 mm. Mounting frame for ventilation fan 1
First, the mounting member 65 is fixed to the outdoor side of the ventilation fan mounting frame 102.

The mounting member 65 includes a support substrate 651 and
An insertion opening 652, which is opened at a substantially central portion of the support substrate 651 and into which the first duct 61 assembled to the case main body 1 can be inserted, and a suction opening of the case main body 1 provided at an upper side of the insertion opening 652. A pair of left and right engagement ports 653, 653 provided on the upper side of the mouth / outlet 2A, 2B to be engaged with a pair of left and right hook members 19, 19, and bent outward at the lower end of the support substrate 651. Pair of left and right pedestals 6
54, 654.

The ventilation member mounting frame 102 of the mounting member 65
After fixing to the case, the suction port / outlet 2A, 2B of the case body 1
A first duct 61 is attached to the mounting member 65, and the first duct 61 is inserted from the outside into an insertion opening 652 of a mounting member 65 fixed to the mounting frame 102 for a ventilation fan, so as to face the mounting frame 102 for a ventilation fan. The hook members 19, 19 provided on the case body 1 are engaged with the engagement openings 653, 653 of the mounting member 65, and the case body 1 is placed on the pedestals 654, 654. Fasten and fix.

After the case main body 1 is fixed to the ventilation fan mounting frame 102 outside the room 100 in this manner,
Of the ventilation fan from the inside of the room 100
2 is fitted into the first duct 61 in an externally fitted state, and is inserted into the inner surfaces of the second duct 62 in the concave grooves 611 and 611 formed on both left and right outer surfaces of the first duct 61. By fitting the formed second fitting grooves 621 and 621 and sliding in the front-rear direction, the second duct 62 can be moved relative to the first duct 61 in the depth dimension of the ventilation fan mounting frame 102 (chamber side). The position is adjusted according to the wall thickness of the wall), and screws are fixed from the indoor side.

Then, the first and second fitting grooves 6 of the first and second ducts 61 and 62 mounted on the ventilation fan mounting frame 102.
The left and right ends of the middle partition plate 63 are fitted to the first and second ducts 61 and 6, and the first and second ducts 61 and 6 are inserted.
2 are divided into upper and lower two stages, and the suction passage / blowout passage 60A, 6
OB is assembled and formed.

At this time, the partition 63 is made up of the first and second
The first and second ducts 61 and 62 are formed in such a manner that the entire length of the ducts 61 and 62 in the front and rear directions is formed to be longer and narrower in advance than the depth dimension of the ventilation fan mounting frame 102. , 62 are inserted into the first and second fitting grooves 612, 621 from the indoor side, and the excess portion of the front half 63B protrudes from the opening end of the second duct 62. Dimension adjustment is performed by cutting the protruding surplus portion according to the depth dimension of the ventilation fan mounting frame 102.

As described above, the first and second ducts 61, 62
Are connected to the suction passage / blow-out passage 60A, 60B
The first and second ducts 61 and 62
An air filter 64 is mounted in the upper suction passage 60A from the indoor side, and after the air filter 64 is mounted, the decorative grill 103 is detachably attached so as to cover the entire open end of the second duct 62. It is.

According to the installation structure of the dehumidifying and drying apparatus as described above, the chamber 100 sucked into the case body 1 from the suction port 2A through the suction passage 60A of the duct 60 through the suction port 103A of the decorative grill 103. The air B (E) after adsorbing the moisture of the humid air A by the dehumidifying / drying mechanism 30 and drying or heating the air B (E) passes from the outlet 2B of the case body 1 through the outlet passage 60B of the duct 60 and the decorative grill 103.
As shown in FIG. 15, the liquid is discharged from directly below the outlet port 103B along the side wall surface 101 in the chamber 100 so as to be discharged directly below the side wall surface 110 in the chamber 100. The air B (E) rises from the floor surface in the room 100 along the other opposing side wall surface, and further draws an airflow circulating along the ceiling surface to perform drying or heating in the room 100. Again, a circulation path is formed from the suction opening 103A of the decorative grill 103 through the suction passage 60A of the duct 60 so as to be sucked as humid air A from the suction opening 2A into the case main body 3. Alternatively, the heating is performed efficiently, and the air B (E) after dehumidification / drying or heating does not directly hit the object 200 to be dried such as laundry suspended in the room 100. Air short-circuit between the material to be dried 200 is prevented, such as.

In the figure, reference numeral 71 denotes a first moisture-proof shutter provided at the air supply port 5 of the air supply passage 4 in the case main body 1. The first moisture-proof shutter 71 is shown in FIG. As described above, the shaft 72 is disposed on the secondary zone 3B side.
Is supported by a shaft support 11A provided on a fifth partition panel 11 forming the air supply passage 4, and one end 73a of a spring 73 wound around the shaft 72 is connected to the first moisture-proof shutter 71 side. And the other end 73b is locked to the fifth partition panel 11 side so that the first moisture-proof shutter 71 always closes the air supply port 5 from the secondary zone 3B side. In the drying / heating operation, the urging force of the spring 73 is set to be weaker than the wind pressure of the indoor humid air A sucked by the blower 21. The air supply port 5 is always shut off by the urging force of the spring 73, so that the bathroom 10 is transferred from the suction passage 60A of the duct 60 to the secondary zone 3B via the suction port 2A of the case body 1.
The humid air A in the inner space 0 is prevented from entering, and during the drying / heating operation, the humid air A is easily opened by the wind pressure of the humid air A in the room sucked by the blower 21 as shown by a two-dot broken line in FIG. Doors are available.

Further, in the figure, reference numeral 74 denotes a second moisture-proof shutter provided at the open end of the second duct 62 forming the outlet passage 60B of the duct 60. As shown in FIG. 17 and FIG. 18, hinge pins 74a, 74a projecting from both upper ends are connected to the opening ends of the second ducts 62 forming the outlet passages 60B through heat insulating materials 75 and fixed. The second moisture-proof shutter is configured to be connected to the frame 76 from outside by a holding member 77, 77 so as to shut off the blowing passage 60B of the duct 60 from the outside by its own weight when the operation is stopped. 74, as indicated by the two-dot broken line in FIG.
The door can be opened by the wind pressure of the dry air B or the heating air E blown out during the heating operation, so that when the operation is stopped, the bathroom enters the tertiary zone 3C from the outlet passage 60B of the duct 60 via the outlet 2B of the case body 1. It prevents the humid air A in 100 from entering.

That is, the first and second shutters 7
1 and 74 always shut off the air supply port 5 and the outlet passage 60B of the duct 60 when the operation is stopped, thereby preventing the infiltration of the humid air A in the bathroom 100 into the case body 1, The dehumidifying efficiency of the rotary dehumidifying element 31 is increased, and electrical components mounted on a printed wiring board 82 in an electrical box 81 arranged in the case body 1 or a thermostat 91, a temperature fuse 92, or the like. This is to prevent any adverse effect on control equipment and the like.

The electrical box 81 is disposed above a quaternary zone 3D, which is a moisture-proof zone in the case body 1, and a printed circuit board 82 is placed upside down on the ceiling in the electrical box 81. Attach with
The electrical components mounted on the printed wiring board 82 are suspended, thereby allowing the printed wiring board 8 to be mounted as before.
2, dew condensation on the electrical components is less likely to occur than when the electrical components are mounted in an upward state.

Further, control devices such as the thermostat 91 and the thermal fuse 92 are also installed above the tertiary zone 3C which is a drying / heating zone in the case main body 1.
Thereby, the thermostat 91 and the thermal fuse 92
Dew condensation on control equipment such as

[0060]

As is apparent from the above description, according to the present invention, a suction port and an air outlet are provided on the front surface of the case body facing the room side, and the interior of the room introduced from the suction port on the panel surface. The air is passed through a rotary dehumidifying element provided in the case body by a forced circulation mechanism by a blowing means such as a centrifugal blower or the like to adsorb moisture in the air and dehumidify and dry. Regenerating means for returning dry air from the outlet to the room, passing high-temperature air through the rotary dehumidifying element to which the moisture has been adsorbed, and causing the rotary dehumidifying element to release moisture, and Ventilation means for directly exhausting the air from the inside, so that during the dehumidification and drying operation, the dehumidification and drying of the humid air in the room by the rotary dehumidifying element and the regeneration processing of the rotary dehumidifying element are simultaneously and continuously performed. Can do That.

In addition, the inside of the case body is divided into at least a primary zone communicating with the suction port, a tertiary zone connecting to the air outlet, and a secondary zone adjacent to the tertiary zone and the primary zone. The air inside the case is circulated in the case body from the inlet to the outlet through the primary zone, the secondary zone, and the tertiary zone to the outlet through the air inlet, which passes through the secondary zone and the tertiary zone. The ventilation system has a ventilation path that adsorbs the moisture in the air that comes into contact with the cylindrical rotary dehumidifying element, thus simplifying the entire ventilation system and reducing the size of the device. Can be.

Further, since drying / heating switching means for passing the air heated by the heating means of the regenerating means through the heat recovery processing part to the tertiary zone and exhausting the air from the outlet is provided, By switching between the above, the indoor heating can be easily performed, and the drying efficiency during the drying operation can be increased, while the comfort by heating the bathroom during the winter bathing can be maintained.

Further, the regenerating means arranges the regenerating chamber at a portion corresponding to the regenerating processing part and the heat recovery processing part on the tertiary zone side of the rotary dehumidifying element. The introduction path of the divided air after moisture adsorption from the heat recovery processing part and the lead-out path formed by making the divided air U-turn to the regeneration processing part side of the rotary dehumidifying element are formed by partition walls and formed. While providing an electric heater for heating the divided air after moisture adsorption from the heat recovery processing site of the rotary dehumidifying element in the introduction path, the drying / heating switching means,
An exhaust port provided on the downstream side wall of the electric heater facing the tertiary zone side of the regeneration chamber is formed by a switching damper capable of controlling opening and closing, and the regeneration damper heated by the electric heater when the switching damper is opened. Since the air is allowed to reach the tertiary zone, the size of the entire apparatus can be reduced by saving space in the regeneration chamber.

Further, since the tertiary zone in the case body is provided with heating means for heating the air dehumidified and dried by the dehumidifying means and exhausting the air for heating from the outlet, this auxiliary function is provided. The heating means promotes indoor heating.

Further, the exhaust chamber of the exhaust means arranged on the secondary zone side in the regeneration chamber is opposed to the rotary chamber of the dehumidifying means with a rotary dehumidifying element interposed therebetween. Is formed in a non-parallel manner, that is, in such a manner that the major axis direction of the exhaust pipe faces and spreads in the direction of the humid air in the room blown from the primary zone to the secondary zone. The side close to the air port is separated from the rotary dehumidifying element, and the side remote from the air port is installed so as to approach the rotary dehumidifying element, so it is introduced from the primary zone to the secondary zone by the blowing means. Part of the room air that has entered, that is, the air that has entered between the heat recovery processing portion of the rotary dehumidifying element located at the lower rear side of the second chamber and the exhaust pipe, the space becomes narrower as the distance from the air inlet increases, and Since but rises, it is possible to perform incorporation into the heat recovery process portion of the rotary dehumidifying element smoothly.

[Brief description of the drawings]

FIG. 1 is a schematic explanatory view showing a state in which a dehumidifying and drying apparatus according to the present invention is installed in a bathroom of a building.

FIG. 2 is an enlarged vertical sectional side view of the same installed state.

FIG. 3 is a schematic cross-sectional plan view showing the entire configuration of the dehumidifying and drying apparatus.

FIG. 4 is a schematic perspective view showing the entire configuration of the same dehumidifying and drying apparatus as viewed from the front side.

FIG. 5 is a schematic perspective view showing the entire configuration of the dehumidifying / drying apparatus as viewed from the rear side.

FIG. 6 is an explanatory view of a rotary dehumidifying element.

FIG. 7 is a sectional view showing a mounting state of a damper provided in the regeneration chamber.

FIG. 8 is an enlarged perspective view of a main part in a mounted state of a damper similarly provided in the regeneration chamber.

FIG. 9 is a perspective view showing a state where the regeneration chamber is attached to the rotary dehumidifying element.

FIG. 10 is a cross-sectional view showing a state where the regeneration chamber is attached to the rotary dehumidifying element.

FIG. 11 Similarly, the ventilation function of the indoor humid air and the dehumidification
Explanatory drawing which shows the drying function, the reproduction | regeneration function of a rotary dehumidifying element, and a heating function in principle.

FIG. 12 is an exploded view showing a state where the case main body and the first duct are installed in the ventilation fan mounting frame from the outdoor side.

FIG. 13 is an exploded view showing an installation state of the case main body and the first duct from the outdoor side to the ventilation fan mounting frame.

FIG. 14 is an exploded view showing an installation state of the second duct, the air filter, and the decorative grille on the case body and the first duct.

FIG. 15 is an explanatory view showing a state of discharging air after dehumidification and drying into a room.

FIG. 16 is an explanatory view showing the operation of the shutter for preventing infiltration of wet air into the secondary zone in a cross-sectional view.

FIG. 17 is a cross-sectional view showing the operation of the shutter for preventing infiltration of wet air from the outlet of dry air in the same duct portion.

FIG. 18 is an exploded perspective view showing an assembled state of the shutter for preventing infiltration of wet air from the outlet of dry air in the duct portion.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 ... Case main body, 1a ... Front part, 2A ... Inlet, 2B ... Outlet, 3A ... Primary zone, 3B ... Secondary zone, 3C ... Tertiary zone ( Drying / heating zone), 3D: quaternary zone (moisture proof zone), 4: air supply path, 5: air supply port, 6, 7, 8, 9 ... partition panel, 14 ...・ Ventilation port, 20 ・ ・ ・ Forced circulation mechanism, 21 ・ ・ ・ Blower (centrifugal blower type blower), 22 ・ ・ ・ Drive motor, 23 ・ ・ ・ Opening, 24 ・ ・ ・ Switching damper for ventilation / drying , 25: Step motor, 30: Dehumidifying / drying mechanism, 31: Rotary dehumidifying element, 31A: Dehumidifying processing part, 31B: Regenerating processing part, 31C: Heat recovery processing Part, 41: First chamber (regeneration chamber), 42: Partition wall, 43: Conduction Inlet, 44 ... Outgoing path, 45 ... Electric heater, 46 ... Exhaust port, 47 ... Step motor, 48 ... Drying / heating switching damper, 52 ... Heating electric heater , 55: second chamber (exhaust chamber), 56: exhaust pipe, 100: bathroom (dehumidifying / drying chamber), A: wet air, B: dry air, C ... High-temperature air (air for regeneration), D: exhaust air, E: air for heating, O-O: longitudinal direction of the flat tube.

──────────────────────────────────────────────────続 き Continued on the front page (72) Inventor Tatsuo Ikuname 2-5-5 Keihanhondori, Moriguchi-shi, Osaka Inside Sanyo Electric Co., Ltd. (72) Inventor Masashi Hashimoto 2-chome, Keihanhondori, Moriguchi-shi, Osaka No. 5 Sanyo Electric Co., Ltd. (72) Inventor Yasuhiro Mogi 2-5-5 Keihanhondori, Moriguchi-shi, Osaka Prefecture In-house Sanyo Electric Co., Ltd. (72) Akira Okada 2-chome Keihanhondori, Moriguchi-shi, Osaka No. 5 Sanyo Electric Co., Ltd. (56) References JP-A-8-49895 (JP, A) JP-A-8-14751 (JP, A) JP-A-7-180956 (JP, A) JP-A-8 -13562 (JP, A) JP-A-7-63006 (JP, A) JP-A-9-10491 (JP, A) JP-A-6-10782 (JP, U) (58) Fields investigated (Int. . ^7, DB name) F26B 9 / 02,21 / 00,5 / 06 F24F 1 / 00,7 / 08 F24D 15/00 , 5/02

Claims (1)

(57) [Claims] A first zone communicating with at least the suction port, a tertiary zone connecting to the air outlet, and a tertiary zone connected to the interior of the case body having a suction port and an air outlet provided on a front portion facing the indoor side; thereby divided into a secondary zone adjacent to the zone and the primary zone, the case body primary zone in order to room air from the suction port into, Ru is circulated to the air outlet via the secondary zone and tertiary zones a feed air means, through said secondary zone to contact with the air brought lead to tertiary zone, dried by adsorbing moisture in the air
The heat recovery dehumidifier dehumidifying and drying means consists of a cylindrical rotary dehumidifying element having a processing site, the secondary front part of the developing of the air reaching the tertiary zone from the zone Kikai rotor type dehumidifying element that
Heat recovery means for passing heat through a recovery processing site to recover heat;
Have a heating means for passing the regeneration processing site of the air heated by the rotary dehumidifying element that has passed through the heat recovery process site
Reproducing means for an exhaust means for exhausting air that has passed through the reproduction processing portion to the outside, a ventilation unit for exhausting the developing of air to the outside leading to the secondary zone from the primary zone, the
After passing through the heat recovery processing part,
Ri the heated air brought to the tertiary zone comprising a drying-heating changeover means for exhaust from the outlet, the reproduction processing portion of the reproducing means the tertiary zone side of the front Symbol rotary dehumidifying element between the disposed portion corresponding to the heat recovery process site was made from the regeneration chamber, the pre-Kikai rotor type dehumidifying element exhaust chamber of the exhaust means disposed in said secondary zone side to the regenerative chambers An exhaust pipe facing the outside from the lower part of the case body provided in the exhaust chamber is formed by a flat pipe , and
At the inlet of room air from the primary zone to the secondary zone
The side farther from the closer side approaches the rotary dehumidifying element
A dehumidifying / drying apparatus , wherein the exhaust pipe is installed to perform drying.