JP6234576B2 - Humidifying element and humidifier equipped with the same - Google Patents

Description

  The present invention relates to a humidifying element that is installed in a ceiling or the like alone or in an office building or the like together with an air conditioner or a ventilator, and humidifies a naturally evaporating room that operates for a long time, and a humidifier equipped with the humidifying element Relates to the device.

  Devices that generate air in a humidified atmosphere include natural evaporation, electric heating, water spray, and ultrasonic methods. Among them, the natural evaporative humidifier is used in a place where it is operated for a long time because the running cost is small, and the humidifying ability which is the problem is improving. There are various types of natural evaporation humidifiers (see, for example, Patent Document 1), and each has advantages and disadvantages. Among these, the humidification method is particularly high, and there are “drip-type” and “flow-down” as humidification methods suitable for long-term use, and these types are used especially for commercial humidifiers such as air conditioners. (For example, refer to Patent Documents 1 to 5).

Japanese Patent Publication No. 07-65788 Japanese Patent No. 3108002 Japanese Patent No. 3305546 Japanese Patent No. 5322975 JP-A-7-167469

  In a humidifier using a drip-type or flow-down type humidifier, in order to increase the amount of humidification, to reduce the amount of humidification per surface to extend the life, and to reduce the pressure loss as much as possible, on a wide flat plate as much as possible A humidifier is required. The humidifying body is generally a porous material for evaporating water. Water is supplied to the humidifier and wind is circulated around it. However, since the size of the product is limited due to the problem of installation space and the like, it is necessary to install a large number of humidifiers while maintaining a constant interval for the humidified air flow path.

There are various ways to maintain the spacing between humidifiers,
1) A humidifier is passed through holes with a fixed interval, and held by applying tension by pulling the humidifier from below (for example, Patent Document 1).
2) Utilizing a corrugated humidifier (for example, Patent Document 2),
3) A corrugated humidifier is stacked between flat humidifiers (for example, Patent Document 3).
4) Insert the comb-like spacing member into the flat humidifier (for example, Patent Document 4),
5) A block-shaped humidifying body that holds the gap is pasted (for example, Patent Document 5).
Etc. have been taken.

  However, common problems with these methods include an increase in material cost due to the addition of a member for maintaining the gap, deterioration in assemblability, and an increase in the pressure loss of the humidifying element due to the addition of a member in the gap portion that becomes the air passage. In addition, there was a lack of long-term reliability in securing gaps by tension and adhesion.

  In view of such a conventional problem, an object of the present invention is to maintain a distance between humidifiers by a method that is long-term reliable and easy to assemble. In addition, another object is to obtain a humidifying element that is inexpensive, has low pressure loss, has a large amount of humidification, and is excellent in long-term reliability, and a humidifying device including the humidifying element.

  The humidifying element of the present invention comprises a porous member having water retention and water absorption, a plurality of flat humidifiers arranged in a direction parallel to the flow direction of the humidified air, and the plurality of humidifiers A humidifying body storage section for storing and holding water, a water supply port for injecting water, a water storage section provided above the humidifying body for storing water from the water supply opening, and a drainage for collecting drainage from below the plurality of humidifying bodies A diffusion member that is in contact with both the water storage section of the casing and the plurality of humidifying bodies and supplies water from the water storage section to the plurality of humidifying bodies, A plurality of convex portions are formed on the humidifying body, and the convex portion has a convex surface and a concave rear surface, and the concave surface of one humidifying body between adjacent humidifying bodies among the plurality of humidifying bodies. The convex part of the other humidifier does not enter the part It is the one in which the interval between the humidifying member is held by the plurality of protrusions.

  In the humidifying element of the present invention, since the intervals between the plurality of humidifiers are held by the plurality of convex portions formed on the flat plate-like humidifier, an additional member for holding the intervals is unnecessary. Therefore, by adjusting the number and arrangement of the convex portions, the pressure loss of the humidifying element can be suppressed to a low level without closing the air path between the flat humidifiers. Moreover, a convex part can be formed by plastic deformation, and according to it, a shape is hold | maintained until a humidification body deteriorates. That is, it is difficult to cause a problem due to poor spacing until the humidifying element is replaced, and the long-term reliability is excellent. Furthermore, it is possible to assemble by simply stacking the humidifiers having a plurality of convex portions, and the workability is excellent. With these devices, it is possible to obtain a humidifying element that is inexpensive, has a low pressure loss, and has a high humidifying capacity, and a humidifying device that uses the humidifying element.

The perspective view of the humidification element in Embodiment 1 of this invention The block diagram of the humidification apparatus in Embodiment 1 of this invention 1 is an exploded view of a humidifying element according to Embodiment 1 of the present invention. The front view of the humidification element in Embodiment 1 of this invention XX direction sectional drawing of the humidification element of FIG. The perspective view of the humidification element periphery part of the humidification apparatus in Embodiment 1 of this invention The schematic diagram which shows the shape of the humidification body in Embodiment 1 of this invention Another schematic diagram showing the shape of the humidifier in Embodiment 1 of the present invention The schematic diagram which shows Example 1- Example 6 of the shape of the convex part of the humidification body in Embodiment 1 of this invention The schematic diagram which shows the example of arrangement | positioning of the convex part of the adjacent humidification body in Embodiment 1 of this invention. The schematic diagram which shows the example of arrangement | positioning of the convex part of the adjacent humidification body in Embodiment 1 of this invention. The schematic diagram which shows another example of the humidification body in Embodiment 1 of this invention. The schematic diagram which shows another example of the humidification body in Embodiment 1 of this invention. Explanatory drawing at the time of incorporating the humidification body in Embodiment 1 of this invention into a casing Schematic diagram when there is no protrusion in the casing containing the humidified body laminate The schematic diagram which shows the example which equips the casing which accommodated the humidification body laminated product in Embodiment 1 of this invention with a protrusion. The schematic diagram which looked at the humidification body of 2 types used in FIG. 16 from the lamination direction, and the schematic diagram which shows the example of arrangement | positioning of the protrusion in a casing seeing from the humidification body lamination direction Another schematic diagram showing an example in which a protrusion is provided in the casing that houses the humidified body laminate in Embodiment 1 of the present invention. The schematic diagram which looked at the humidification body of 2 types used in FIG. 18 from the lamination direction, and the schematic diagram which shows the example of arrangement | positioning of the protrusion in a casing seeing from the humidification body lamination direction The plane schematic diagram which shows the shape of the convex part of one humidification body among the two types of humidification bodies in Embodiment 2 of this invention. The plane schematic diagram which shows the shape of the convex part of the other humidification body among the two types of humidification bodies in Embodiment 2 of this invention. Explanatory drawing which shows the relationship between the arrangement | positioning of the convex part of a laminated humidifier, and compressive force Explanatory drawing which shows the relationship between the arrangement | positioning of the convex part of a laminated humidifier, and compressive force

  Hereinafter, embodiments of a humidifying element and a humidifying device according to the present invention will be described in detail with reference to the drawings. Note that the present invention is not limited to the embodiments.

Embodiment 1 FIG.
1 is a perspective view of a humidifying element 2 according to Embodiment 1 of the present invention, FIG. 2 is a configuration diagram of a humidifying device 1 incorporating the humidifying element 2, FIG. 3 is an exploded view of the humidifying element 2, and FIG. 4 is a humidifying element. 2 is a front view of FIG. 5, FIG. 5 is a cross-sectional view of the humidifying element 2 in FIG. 4 in the XX direction, and FIG. 6 is a perspective view showing a peripheral portion of the humidifying element of the humidifying device according to Embodiment 1 of the present invention.
A humidifying element 2 is incorporated as a core of the humidifying device 1, and a blower 5 for sending indoor air to the humidifying element 2 before or after the humidifying element 2 and then blowing out air into the room again is incorporated. ing.

  The humidifying device 1 is connected to a humidifying element 2, a water supply pipe 3 that is connected to a water supply source such as a water supply facility, and supplies humidifying water to the humidifying element 2, and discharges water remaining without being humidified by the humidifying element 2 to the outside. A drain pipe 4 that conducts the air flow through the humidifying element 2, a control device 6 that controls the operation of the solenoid valve of the blower 5 and the water supply pipe 3, etc. And a drain container 7 for draining. In FIG. 2, a broken line indicates a signal line, and a white arrow indicates an air flow.

  As shown in FIG. 6, one or more humidifying elements 2 are directly installed on the drain container 7. The ridge corners on both sides of the top structure of each humidifying element 2 are detachably held by guide rails (not shown) mounted on the partition wall and the front inner wall surface of the main body box. A water supply system including a water supply valve 3 a for adjusting the pressure and flow rate of water supplied to the humidifying element 2 is connected to the humidifying element 2, and a drain pipe 4 is connected to the drain container 7.

  The water supply pipe 3 for supplying humidifying water to the humidifying element 2 is configured as a water channel including a strainer 8 for preventing dust from entering the water supply pipe 3 and a water supply pipe in addition to the water supply valve 3a. It is desirable that all connection portions of the water supply pipe 3 except for the connection portion with the water supply source side are concentrated in the drain container 7.

As shown in FIGS. 1, 3, 4, and 5, the humidifying element 2 has a plate-like humidifying body 20 (humidified body laminated product) arranged in a large number and is supplied to the humidifying body 20 above the humidifying element 20. There is a water storage part 12 for storing water, a water supply port 11 for injecting water from the water supply pipe 3 into the water storage part 12, and under the humidifying body 20, water remaining from the humidifying body 20 without being humidified is received. There is a drainage portion 13 for draining, and a drainage port 13a.
The humidifier 20 is encased by the casing 10 in which the water supply port 11, the water storage unit 12, the drainage unit 13, and the humidifier storage unit 17 that stores and holds the humidifier 20 are all integrated. Water accumulates from the water supply port 11 to the water storage unit 12, then permeates the diffusion member 30 and spreads to the humidifying body 20, humidifies the air flowing through the gap between the humidifying bodies 20, and excess water is discharged from the lower drainage unit. It begins to flow from 13.

  The casing 10 of the humidifying element 2 is formed by injection molding using a thermoplastic plastic such as ABS resin, PS resin or PP resin, and is composed of two casing parts 10a and 10b having structural walls 14a and 14b. . The humidifying body 20 is sandwiched between the casing part 10a and the casing part 10b, and the engaging parts 15a and 15b are combined so that the casing part 10a and the casing part 10b are integrated. Each of the casing parts 10 a and 10 b is provided with a portion serving as the water storage portion 12, a portion serving as the drainage portion 13, and an opening for introducing humid air into the humidifier 20. The casing component 10b is provided with a water supply port 11 for supplying water to the water storage section 12. Further, a humidifying body storage portion 17 that stores and holds the humidifying body 20 is provided at the center of the casing 10. By restricting the position of the outer periphery of the humidifying body 20 by the humidifying body storage portion 17, positional displacement between the humidifying bodies when a large number of the humidifying bodies 20 are stacked is eliminated. At the time of assembling the humidifying element 2, the humidified bodies 20 that have been laminated in advance are simply put into the humidified body storage portion 17, so that there is no displacement between the humidified bodies, and the intervals between the humidified bodies 20 are formed in the humidified bodies 20. It is naturally secured by a convex part (which will be described later).

  The water supply port 11 is provided above the humidifying element 2 and above the humidifying body 20 in order to supply water to the water storage unit 12. A water supply pipe 3 is connected to the water supply port 11. The shape of the water supply port 11 may be a shape that matches the water supply pipe 3, and may be attached with a burr so as not to easily come off, or tied with a hose band. In addition, if the amount of water supply is excessively large relative to the humidification amount, the amount of water that flows from the drainage section 13 without being humidified increases and the amount of wasted water increases. Therefore, a mechanism (for example, an orifice) for reducing the amount of water is provided to It is desirable to adjust. When adjusting the flow rate, it is necessary to supply a flow rate larger than the maximum humidification amount of the humidifying element 2. Further, the position of the water supply port 11 is not limited as long as water can be supplied from the upper part of the humidifying body 20, but in consideration of a case where water leaks from the joint between the water supply pipe 3 and the water supply port 11, etc. If it is arranged on the upstream side of the humidified air, the water flying to the upstream side by the flow of the air flow is also led to the downstream side, that is, the humidifying element 2 side, so that the scattering distance of water to the surroundings becomes small.

  The water reservoir 12 is provided above the humidifier 20 and has a diffusion member 30 attached to the bottom thereof. For example, in the case of this example, the water storage section 12 has a shape that functions as a water storage tank by integrating the casing parts 10a and 10b, and the diffusion member 30 is sandwiched between the casing parts 10a and 10b. The diffusion member 30 is arranged on the bottom surface of the water storage unit 12.

  The diffusion member 30 sandwiched between the casing parts 10a and 10b is formed of a porous plate material. Since the diffusing member 30 permeates water and sends water to the humidifier 20, the surface of the material is more hydrophilic as much as possible, and the permeability is improved and the amount of water supplied is increased. The material is not limited as long as water can permeate and be supplied to the humidifying body 20, but since it always comes into contact with water, a material that does not deteriorate with water, for example, polyester such as PET resin or the like, For PP resin, cellulose, and metal, a porous plate made of titanium, copper, stainless steel or the like is desirable.

  The humidifier 20 is formed of a porous plate-like material like the diffusion member 30. Suitable conditions are the same as those of the diffusing member 30, and the material is preferably a porous plate made of polyester or PP resin such as PET resin for resin, cellulose, titanium or copper, stainless steel for metal. However, if a material having better water absorption than the diffusing member 30 is used as the humidifying body 20, the humidifying body 20 absorbs water before the diffusing member 30 absorbs water and sufficiently diffuses water. The uniformity of the supply may decrease. In such a case, measures can be taken by increasing the vertical dimension of the diffusing member 30 sufficiently. However, when there is a restriction in the height direction of the entire humidifying element, it is desirable to use a material that has a slightly lower water absorption than the diffusion member 30.

  As shown in FIGS. 7 and 8, it is desirable that the humidifier 20 is provided with one or more notches 20 a into which the diffusion member 30 is inserted. Due to the notches 20a, it is possible to prevent displacement when the diffusing member 30 is inserted. By providing this notch 20a, the position with respect to the diffusing member 30 can be determined. The position of the notch 20 a is provided on the upper side with respect to the direction of gravity of the humidifying body 20. When the direction of the air flowing through the humidifying body 20 is predetermined, if the air is provided upstream from the center of the humidifying body 20 with respect to the length of the air flowing direction as shown in FIG. Since it will be supplied from the upstream side and the contact time with air will become long, humidification amount increases and is desirable.

The humidifying body 20 is provided with a convex portion 40 used for maintaining the interval between the humidifying bodies 20. The convex portion 40 is preferably formed by plastically deforming the portion, for example, by pressing a jig or the like against the humidifying body 20 on a flat plate.
The convex portion can also be created by bonding the same piece of material as the humidifying body 20. However, in that case, the adhesive portion is always immersed in moisture during the humidifying operation of the humidifying element 2 and further dried during drying, so that there is a very large wet and dry stress, and thus a problem of long-term reliability is likely to occur. Further, when the adhesive layer is provided thick and strong so as to solve the problem, the adhesive enters the flat portion of the humidifying body 20 and hinders the movement of water from the top to the bottom of the humidifying body 20. On the other hand, if the convex part 40 is formed by plastic deformation, the water diffusibility can be improved without hindering the movement of water from the top to the bottom of the humidifier 20.

  The method of forming the convex portion by plastic deformation of the flat humidifier 20 makes it possible to keep the interval between the humidifiers 20 very easily. On the other hand, the back surface of the convex portion 40 becomes concave. Some measures are required. If the convex portion 40 is formed at the same position on all the humidifying bodies 20 on the flat plate, the convex surface of one humidifying body 20 fits into the concave surface of the other humidifying body 20 between the adjacent humidifying bodies 20. Therefore, the interval between the humidifying bodies 20 cannot be maintained at the intended interval. For this reason, it is necessary to shift the positions of the convex portions 40 of the adjacent flat humidifiers 20 so as not to be at the same position as viewed from the overlapping direction, that is, not to overlap.

  As long as the position of the convex part 40 in the flat humidifier 20 and the quantity of the convex part 40 have shifted | deviated between the adjacent humidifiers 20, there is no problem in any position and quantity in principle. For example, it is possible to change the position of the convex part 40 of the adjacent humidification body 20 by preparing two types of humidification bodies 20 from which the position of the convex part 40 differs, and laminating | stacking these alternately. As a pattern of arrangement of the positions of the convex portions 40, two types of humidifiers 20 may be combined as shown in FIGS. 10 and 11, or three or more types may be combined. Moreover, it is good also as a structure which changes the position of a convex part by preparing one type of humidifier 20 in which the convex part 40 is not arrange | positioned in rotational symmetry like FIG. 12, and rotating it up and down and overlapping.

  However, since the convex portion 40 itself protrudes into the air flow path, there is a possibility that the pressure loss of the humidifying element 2 is increased if the convex portions 40 are arranged randomly. Therefore, as shown in FIG. 13, the position of the convex portion 40 formed on the same humidifier draws at least two virtual lines aa in a direction parallel to the flow direction of the humidified air on the humidifier, It is desirable to arrange on that line. However, if one imaginary line is provided, the interval between the humidifying bodies 20 cannot be maintained even if a plurality of convex portions 40 are formed therein, so two or more imaginary lines are required. Further, by forming the convex portions 40 on a line parallel to the air flow direction, the projected area of the convex portions 40 viewed from the flow direction can be minimized as compared with the case where the same number of convex portions 40 are randomly arranged. Loss can be reduced.

The shape of the convex portion 40 is not particularly limited as long as it is obtained by plastically deforming the material and the shape and strength thereof are stable in the long term. However, since the convex part 40 protrudes into the air flow path in the gap between the humidifying bodies 20, depending on the shape, pressure loss increases or sound is generated by the air flow. An example of the shape of the convex portion 40 that is considered to be more preferable is shown in Examples 1 to 6 in FIG. In FIG. 9, the symbol d represents the width in the direction perpendicular to the air flow direction of the convex portion 40 (the width of the convex portion 40), and the symbol h is parallel to the air flow direction of the convex portion 40. The width of the direction (height of the convex part 40) is represented.
From the above point of view, the width d of the convex portion 40 in the direction perpendicular to the air flow direction is made as small as possible, and the shape thereof also has a smooth shape without an angle as much as possible. As the shape, for example, a conical shape (Example 1 and Example 2 in FIG. 9), a cylindrical shape (Example 3 in FIG. 9), and an elliptical cylinder shape that is long in a direction parallel to the flow direction (Example 4 in FIG. 9 and an example). 5), or a wing-shaped cylinder in a direction parallel to the flow direction (example 6 in FIG. 9) is conceivable.

  The height h of the convex portion 40 is an important dimension that determines the interval between the humidifying bodies 20 to be stacked. If the number of the humidifying bodies 20 is small, or the height h of the convex portion 40 is low, the overall dimension of the humidifying body laminated product in which the humidifying bodies 20 are overlapped is larger than the dimension of the humidifying body storage portion 17 of the casing 10. In the case of being small, the completed humidifying element 2 has an extra gap, and a portion where the height of the convex portion 40 is equal to or higher than the height h is formed as the interval between the humidifying bodies 20. In this case, the interval between the humidifying bodies 20 is always greater than or equal to the height h, but since the variation in the interval is large, the variation in the pressure loss increases. Further, when the humidifying element 2 and the humidifying device 1 on which the humidifying element 2 is mounted are transported, the humidifying body 20 moves vigorously inside the humidifying body storing portion 17 due to vibration of transport, and the convex portion 40 hits the surroundings and is not intended. There is a possibility that the convex portion 40 is deformed.

As a result of the examination, in order to deal with them, the prescribed number of humidifying bodies 20 determined from the humidifying amount and the like is n, and the dimension of the humidifying body storage portion 17 of the casing 10 in the overlapping direction of the humidifying bodies is W (hereinafter referred to as humidifying body) If the thickness of the humidifying body 20 is t, and the height of the convex portion 40 of the humidifying body 20 is h,
h ≧ (W / n) −t
It is desirable to adjust so as to satisfy the relationship. If it does in this way, the dimension ((h + t) * n) as a whole of the humidification body laminated product which piled up the predetermined number of humidification bodies 20 will always become more than the dimension W of the humidification body accommodating part 17. FIG. Next, a method for attaching the humidified body laminate product to the casing 10 will be described with reference to FIG.
Pressure is applied in the stacking direction of the humidified body laminate (see FIG. 14 (1)) having a width (W + α) equal to or greater than the dimension W of the humidifier housing portion 17 so that the dimension of the humidifier stack is W or less ( (See FIG. 14 (2)). In this state, when the humidified body laminate is inserted into the humidified body storage portion 17 of the casing 10 and the applied pressure is removed, the dimensions are restored due to the elasticity of the humidified body laminate. It can be mounted (see FIG. 14 (3)). If it does in this way, since the clearance gap between the humidification bodies 20 will remain to some extent by the height h and elasticity of the convex part 40 of each humidification body 20, the dispersion | variation in pressure loss will also become small. Further, since there is no gap through which the humidifying body 20 can move inside the humidifying body storage portion 17, the humidifying body does not move due to vibration, and deformation during transportation can be suppressed.

  When the humidified body laminated product is put in the casing 10 after being compressed to some extent as described above, the surface of the humidified body 20 on the side where the convex portion 40 is located at the tip of the laminated product and the casing 10 are not convex. A gap corresponding to the portion 40 is formed. On the other hand, the plane portion of the humidifier 20 and the casing 10 are completely in contact with each other on the surface of the humidified body 20 on the side where the concave portion is located and the facing portion of the casing 10. The area does not contribute to the humidification amount. Such a state is shown in FIG. In order to cope with this, for example, an embodiment as shown in FIG. 16 is preferable. That is, the protrusion 16 is provided on the inner wall of one side perpendicular to the humidifying body stacking direction of the humidifying body storage portion 17 of the casing 10 so that a gap caused by the protrusion 16 is formed between the humidifying body 20 and the inner surface of the casing 10. By doing so, the surface of the humidifying body 20 at the rearmost end with the concave portion also contributes to humidification, and the amount of humidification is further increased. In this case, when the protrusion 16 is provided at a position overlapping with the convex portion 40 of any humidifier 20 as viewed from the stacking direction of the humidifier 20, the direction in which the humidifier stack is placed in the casing 10 is determined. When the position of the diffusing member 30 is shifted from the center of the humidifier 20 as shown in FIG. 8, it is necessary to determine the direction and attach it to the casing 10, and in this case, this can be used effectively. That is, if the protrusion 16 is provided only on the inner wall on one side of the humidifying body storage portion 17 of the casing 10 and the humidified body laminate is inserted in the wrong direction, the protrusion 16 of the casing 10 and the convex portion 40 of the humidifying body 20 interfere with each other. This is because, if the position of the protrusion 16 of the casing 10 is adjusted as described above, it is possible to notice an error in assembling.

  In the case of a humidified body laminate using the humidifier 20 as shown in FIG. 7 in which the diffusing member 30 is provided at substantially the center of the humidifier 20, there is no need to consider the right and left of the humidifier laminate. As shown in FIG. 18, protrusions 16 in a direction perpendicular to the humidifying body stacking direction may be provided on both sides of the inner wall of the humidifying body storage portion 17 of the casing 10. In this case, when the protrusion 16 is arranged at a position where it does not interfere with (or does not overlap with) the convex portion 40 of any humidifier 20 when viewed from the stacking direction, the humidified body laminate is not considered in the direction of the casing 10. Can be attached to.

Embodiment 2. FIG.
Since the configuration of the second embodiment is the same as that of the first embodiment except for the humidifying body 20, only the differences will be described. FIG. 20 is a schematic plan view showing the shape of the convex portion of one of the two types of humidifiers according to Embodiment 2 of the present invention. FIG. 21 is a schematic plan view showing the shape of the convex portion of the other humidifier among the two types of humidifiers according to Embodiment 2 of the present invention. In this embodiment, the convex portion 40 enters the concave portion on the back surface of the convex portion 40 of the adjacent humidifying body 20 to prevent the interval between the humidifying bodies 20 from being kept uniform. Instead of making the arrangement position of the portion 40 different between the adjacent humidifiers 20, the same effect can be obtained by devising the shape of the convex portion 40.

Therefore, here, for example, two types of humidifiers 20 having convex portions 40 having shapes that are not uniform in width but have two or more types of widths, such as elliptical shapes as shown in FIGS. 20 and 21, are prepared. To do. That is, the direction having the largest width of the convex portion 40 is shifted from the direction of the convex portion 40 that is in contact between the adjacent humidifiers 20 (which is a concave concave portion on the other humidifying body facing). As described above, the convex portion 40 of the humidifying body 20 in FIG. 20 is formed by partially rotating the elliptical shape of the convex portion 40 of the humidifying body 20 in FIG. In addition, the center of the convex part 40 of the humidification body 20 of FIG. 21 and the convex part 40 of the humidification body of FIG. 20 is made into the same position in the lamination direction. By doing in this way, in two adjacent humidifiers 20 that are stacked, a part of the convex tip of the convex portion 40 of one humidifier 20 is made to be a concave surface on the back side of the convex portion 40 of the other humidifier 20. It is possible to make contact with the non-existing portion (planar portion), and it is possible to maintain the interval between the humidifying bodies 20 so that the convex portion 40 does not enter the opposing concave portion.
In addition, the amount of the rotation of the convex portion 40 between adjacent convex shapes is not particularly limited as long as the target interval of the humidifying body 20 can be maintained. However, if the angle is shifted too much, the flow of air passing between the humidifying bodies is hindered and the pressure loss increases. Therefore, the amount of rotation (angle change amount) should be as small as possible.

Thus, by changing the shape of the convex part 40 without shifting the position of the convex part 40, by preparing two types of humidifiers 20 (for example, two types of FIG. 20 and FIG. 21), the humidifiers can be distinguished. However, it becomes easier than the first embodiment, and there is an advantage that the visibility during the operation is improved and the humidification body is not easily mixed up.
Further, when the humidifying bodies 20 are stacked by shifting the positions of the convex portions 40, in the first embodiment, the contact points that support the upper and lower humidifying bodies 20 are shifted, so the humidifying bodies 20 themselves are caused by their own weight. There is a risk of bending and deformation in the direction of closing the flow path (see FIG. 22). However, when the contact shafts that support the upper and lower humidifiers 20 are the same as in the second embodiment, the load from above does not shift, so that each humidifier is applied even if a compression force is applied due to its own weight. There is also an advantage that the channel between 20 is not easily blocked (see FIG. 23).

  DESCRIPTION OF SYMBOLS 1 Humidifier, 2 Humidifier, 3 Water supply pipe, 3a Water supply valve, 4 Drain pipe, 5 Blower, 6 Control apparatus, 7 Drain container, 8 Strainer, 10 casing, 10a casing part, 10b casing part, 11 Water supply port, 12 Water storage part, 13 Drainage part, 13a Drainage port, 15a, 15b Engagement part, 16 Protrusion, 17 Humidifier storage part, 20 Humidifier, 20a Notch, 30 Diffusion member, 40 Convex part.

Claims (8)

A plurality of plate-like humidifiers made of a porous member having water retention and water absorption, and arranged in a direction parallel to the flow direction of the humidified air,
A humidifying body storage section for storing and holding the plurality of humidifying bodies, a water supply port through which water is injected, a water storage section that is provided above the humidifying body and stores water from the water supply port, and from below the plurality of humidifying bodies A drainage section that collects the wastewater, and a casing formed with,
A diffusion member that contacts both the water storage section of the casing and the plurality of humidifiers, and supplies water from the water storage section to the plurality of humidifier bodies,
Each humidifier is formed with a plurality of convex portions, and the convex portions have a convex surface and a back surface concave, and the humidifiers are adjacent to each other among the humidifiers. The concave surface portion does not allow the convex portion of the other humidifier to enter,
The intervals between the humidifiers are held by the plurality of convex portions ,
Any of the convex portions of the plurality of humidifiers as viewed from the stacking direction of the humidifiers, of two wall surfaces facing each other perpendicular to the stacking direction of the plurality of humidifiers forming the humidifier housing part. A humidifying element characterized in that a protrusion is provided at a position that does not overlap with a position so as to maintain a distance between the wall surface and the flat portion of the humidifying body facing the wall surface . A plurality of plate-like humidifiers made of a porous member having water retention and water absorption, and arranged in a direction parallel to the flow direction of the humidified air,
A humidifying body storage section for storing and holding the plurality of humidifying bodies, a water supply port through which water is injected, a water storage section that is provided above the humidifying body and stores water from the water supply port, and from below the plurality of humidifying bodies A drainage section that collects the wastewater, and a casing formed with,
A diffusion member that contacts both the water storage section of the casing and the plurality of humidifiers, and supplies water from the water storage section to the plurality of humidifier bodies,
Each humidifier is formed with a plurality of convex portions, and the convex portions have a convex surface and a back surface concave, and the humidifiers are adjacent to each other among the humidifiers. The concave surface portion does not allow the convex portion of the other humidifier to enter,
The intervals between the humidifiers are held by the plurality of convex portions,
One of the two wall surfaces perpendicular to the stacking direction of the plurality of humidifying bodies that form the humidifying body storage portion, and the plurality of humidifying bodies as viewed from the stacking direction of the humidifying bodies. A humidifying element characterized in that a protrusion is provided at a position overlapping with any position of the convex portion to maintain a distance between the wall surface and the flat portion of the humidifying body facing the wall surface. By making the positions of the plurality of convex portions on the humidifier different between the adjacent humidifiers, the convex portion of the other humidifier does not enter the concave portion of the one humidifier. humidifying device according to claim 1 or 2, characterized in that the the like. The shape of the plurality of convex portions on the humidifier is a shape in which a part of the convex portion of the other humidifier is in contact with a plane other than the concave portion of the one humidifier. The humidifying element according to claim 1 or 2 . When the height h of the convex part is W, the dimension in the stacking direction of the plurality of humidifiers in the humidifier housing part of the casing is n, the number of the humidifiers is n, and the thickness of the humidifier is t. In addition,
h> (W / n) -t
The humidifying element according to any one of claims 1 to 4 , wherein the relationship is as follows. The humidifying element according to any one of claims 1 to 5 , wherein the convex portion is formed by plastic deformation of the flat humidifier. The said some convex part formed in the said humidification body is arrange | positioned on the 2 or more line | wire parallel to the flow direction of the said humidified air, The any one of Claim 1 to 6 characterized by the above-mentioned. The humidifying element described in 1. A humidifier according to any one of claims 1 to 7 , a blower for sending air to the humidifier,
A water supply pipe for supplying water to the humidifying element;
A drain pipe for discharging water from the humidifying element;
A humidifying device comprising:

Images