Humidification wall using porous tile module

Abstract

A humidifying wall using a porous tile module according to one aspect of the present invention comprises a wall comprising metal, a porous tile module detachably coupled to the wall, a water storage device for storing water supplied to the porous tile module, and a water supply device connected to the water storage device and supplying water to the front surface of the porous tile module, wherein the porous tile module may comprise a frame, a porous tile coupled to the frame and having pores, and a magnet block detachably coupled to the frame and having a magnet.

Description

Technology Field

[0001] The present invention relates to a humidifying wall using a porous tile module structure. Background Technology

[0002] There are various humidification methods, including natural humidification, evaporative humidification, and ultrasonic humidification.

[0003] Among these humidification methods, natural humidification is known to have a wider humidification range and superior humidification effect over a large area compared to ultrasonic humidification because the water molecules generated during humidification are smaller.

[0004] In addition, natural humidification is known as an eco-friendly humidification method because it consumes less energy than evaporative or ultrasonic humidification methods.

[0005] On the other hand, natural humidification has many advantages compared to the aforementioned humidification devices because the water droplets are small, the humidification range is wide, and moisture is evenly distributed indoors. However, natural humidification is less efficient than using a humidification device, and if commonly used towels utilizing the capillary action are used, there is the inconvenience of having to replace the towels frequently, just as with a humidification device.

[0006] Accordingly, the aforementioned problem can be resolved by using porous tiles capable of absorbing and releasing moisture depending on the environment for natural humidification. However, there is a problem in that reinstallation is difficult and costly when the porous tiles need to be replaced after a certain period of time. Prior art literature

[0007] Korean Registered Patent Publication No. 10-1232930 Korean Registered Patent Publication No. 10-2345056 The problem to be solved

[0008] The objective of the present invention is to provide a humidifying wall using porous tile modules that can be used regardless of the season and allow for easy replacement of the porous tiles. means of solving the problem

[0009] A humidifying wall using a porous tile module according to one aspect of the present invention comprises a wall comprising metal, a porous tile module detachably coupled to the wall, a water storage device for storing water supplied to the porous tile module, and a water supply device connected to the water storage device and supplying water to the front surface of the porous tile module, wherein the porous tile module may comprise a frame, a porous tile coupled to the frame and having pores, and a magnet block detachably coupled to the frame and having a magnet.

[0010] The above frame may include an internal hole extending in one direction.

[0011] The magnet block may include a magnet receiving portion in which the magnet is received and a fitting portion coupled to the magnet receiving portion and fitted into the inner hole.

[0012] The magnet receiving portion may include a magnet frame surrounding the magnet and a magnet groove formed in the magnet frame, which is a groove in which the magnet is received.

[0013] The above fitting portion may include a protruding member that protrudes from the magnet receiving portion and is fitted into the inner hole.

[0014] The above magnet block may include a first magnet block that can be coupled to four frames by including four of the above protrusions, a second magnet block that can be coupled to three frames by including three of the above protrusions, and a third magnet block that can be coupled to two frames by including two of the above protrusions.

[0015] The porous tile module may further include a first heater located in the inner hole to supply heat to the porous tile.

[0016] The first heater may include a heating wire inserted into the inner hole and extended in one direction, and a control module coupled to the heating wire to control the heat supplied by the heating wire.

[0017] The porous tile module may further include a second heater that is disposed over the entire surface area of ​​the porous tile on the back surface of the porous tile to supply heat.

[0018] The porous tile module may further include a sensor coupled to the porous tile to detect at least one of the temperature and humidity of the porous tile.

[0019] The control module above can control the heat supplied by the heating wire based on at least one data of the temperature and humidity of the porous tile measured by the sensor. Effects of the invention

[0020] As described above, a humidifying wall using a porous tile module according to one aspect of the present invention can control humidity regardless of the season and allows for easy replacement of the porous tiles. Brief explanation of the drawing

[0021] FIG. 1 is a perspective view of a humidifying wall using a porous tile module according to a first embodiment of the present invention. Figure 2 is a drawing showing the frame and magnet block of the porous tile module of Figure 1. Figure 3 is a perspective view showing the porous tile module of Figure 1. Fig. 4 is a side perspective view of the porous tile module of Fig. 3. Figure 5 is a cross-sectional view taken along A-A' of Figure 3. FIG. 6 is a perspective view showing the combination of the magnet block and the frame of FIG. 3. Figure 7 is an enlarged view of the first magnet block of Figure 5. FIG. 8 is a perspective view showing a porous tile module according to a second embodiment of the present invention. FIG. 9 is a cross-sectional view showing a porous tile module according to a third embodiment of the present invention. Specific details for implementing the invention

[0022] The present invention is capable of various modifications and may have various embodiments, and specific embodiments are illustrated and described in detail in the detailed description. However, this is not intended to limit the present invention to specific embodiments, and it should be understood that it includes all modifications, equivalents, and substitutions that fall within the spirit and scope of the invention.

[0023] The terms used in this invention are used merely to describe specific embodiments and are not intended to limit the invention. Singular expressions include plural expressions unless the context clearly indicates otherwise. In this invention, terms such as "comprising" or "having" are intended to indicate the existence of the features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, and should be understood as not precluding the existence or addition of one or more other features, numbers, steps, actions, components, parts, or combinations thereof.

[0024] Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. Note that in the accompanying drawings, identical components are indicated by the same reference numerals whenever possible. Furthermore, detailed descriptions of known functions and configurations that may obscure the essence of the present invention will be omitted. For the same reason, some components in the accompanying drawings may be exaggerated, omitted, or schematically depicted.

[0025] Hereinafter, a humidification wall (1) using a porous tile module according to the first embodiment of the present invention will be described.

[0026] FIG. 1 is a perspective view of a humidifying wall using a porous tile module according to a first embodiment of the present invention, FIG. 2 is a drawing showing the frame and magnet block of the porous tile module of FIG. 1, FIG. 3 is a perspective view showing the porous tile module of FIG. 1, FIG. 4 is a side perspective view of the porous tile module of FIG. 3, FIG. 5 is a cross-sectional view cut along A-A' of FIG. 3, FIG. 6 is a perspective view showing the combination of the magnet block and the frame of FIG. 3, and FIG. 7 is an enlarged view of the first magnet block of FIG. 5.

[0027] Referring to FIGS. 1 to 7, a humidifying wall (1) using a porous tile module according to the first embodiment of the present invention may include a wall (10), a water storage device (20), a water supply device (30), and a porous tile module (40).

[0028] According to the present embodiment, a humidifying wall (1) using porous tile modules can regulate the humidity of an internal space by supplying water to the front surface of porous tiles (200) arranged continuously on a wall (10). The humidifying wall (1) using porous tile modules retains water inside the pores of the porous tiles (200) in a high-humidity environment and can release water inside the pores in a low-humidity environment. That is, humidity can be regulated using a natural evaporative humidification method by utilizing porous tiles (200) that can absorb and release moisture depending on the surrounding environment.

[0029] Since the humidification wall (1) using porous tiles (200) only requires water to flow through the porous tiles (200), it can operate with low power consumption compared to conventional humidification devices and can produce a humidification effect with low noise.

[0030] A humidifying wall (1) using a porous tile module supplies water to the front surface of the porous tile (200) that is in contact with the surrounding environment, and can respond to the changing humidity of the surrounding environment by rapidly absorbing and releasing water compared to when water is supplied to the back surface.

[0031] Here, it will be understood by those skilled in the art related to this embodiment that, in addition to the components shown in FIGS. 1 to 7, other general-purpose components may be further included in the humidification wall (1) using porous tile modules.

[0032] The wall (10) may be a flat plate-shaped wall so that the porous tile module (40) described later can be attached. The wall (10) may include metal. Since the wall (10) includes metal, the magnetic block (300) of the porous tile module (40) described later can be attached by magnetic force. Since the wall (10) is attached so that the porous tile module (40) can be detachably attached and is in an environment constantly exposed to water, it may be made of a material such as steel that has moisture resistance and durability. However, the shape and material of the wall (10) are not limited thereto and may be changed within the scope that is commonly accepted by those with ordinary knowledge in the relevant technical field.

[0033] The water storage device (20) can store water supplied to the porous tile module (40) described later. The water storage device (20) may include a water tank, which is a container for storing water, and a motor coupled to the water tank to provide power for supplying water. However, the configuration of the water storage device (20) is not limited thereto, and any configuration capable of supplying water to the porous tile module (40) may be possible.

[0034] The water supply device (30) is connected to the water storage device (20) and can supply water to the front of the porous tile module (40). The water supply device (30) can supply water to the inside of the pores of the porous tile (200) by flowing water from the top of the porous tile module (40) to the front of the porous tile (200).

[0035] The water supply device (30) can supply water to the porous tile module (40) in various ways. For example, the water supply device (30) can be configured such as a spray bar capable of spraying water, or configured to allow fine water droplets to flow through a hole, so as to supply water without direct contact with the porous tile (200).

[0036] The porous tile module (40) may include a frame (100), porous tiles (200), and a magnetic block (300) (see FIG. 3). The porous tile module (40) may be attached to the wall (10) so as to be detachable. The porous tile module (40) may have multiple porous tiles (200) combined into one module so that multiple porous tiles (200) can be replaced or removed at once. Since the porous tile module (40) includes a magnetic block (300), it may be detachable from the wall (10) containing metal by magnetic force, allowing for the replacement of the porous tiles (200) without separate re-construction.

[0037] The porous tile module (40) can have four porous tiles (200) arranged in two rows and two columns.

[0038] The frame (100) may include an outer frame (110) and an inner hole (120). The frame (100) may serve as a framework to which the porous tile (200) is joined.

[0039] The outer frame (110) may be a frame that is attached to the back surface of the porous tile (200). Multiple outer frames (110) may be assembled by being joined together by magnetic blocks (300). The outer frame (110) may be in the shape of a pipe that extends in one direction and has both ends open, with an inner hole (120) formed therein for joining, which will be described later.

[0040] The outer frame (110) can be made of aluminum, which has sufficient durability and moisture resistance, as it supports the porous tile module (40) and can be continuously exposed to moisture. However, the material of the outer frame (110) is not limited to this and can be made of various materials.

[0041] The inner hole (120) may be a hole extending in one direction within the frame (100). The inner hole (120) may be a hole into which the fitting portions (312, 322, 332) of the magnet block (300) described later are coupled. The inner hole (120) may have a shape corresponding to the outer edge of the fitting portions (312, 322, 332).

[0042] The porous tile (200) is bonded to the frame (100) and may contain pores (not shown). The porous tile (200) may be a thin rectangular tile arranged continuously on one side of the frame (100). The porous tile (200) may be bonded to one side of the frame (100) using an adhesive such as biosilicone.

[0043] The porous tile (200) can be made of natural soil components that are harmless to the human body, as it undergoes metabolic processes with the surrounding environment, such as absorbing and releasing water. For example, the porous tile (200) may include at least one selected from the group consisting of clay, white clay, red clay, and combinations thereof. However, the shape and material of the porous tile (200) are not limited thereto and may have various shapes and materials.

[0044] The porous tile (200) is a tile containing pores and may have excellent hygroscopicity for absorbing moisture and moisture-proofness for releasing moisture. The porous tile (200) may have a high utility as a tile by maintaining a certain level of mechanical strength.

[0045] The porous tile (200) may further include inorganic particles or metal oxides to control particle size and pores. The porous tile (200) may further include a binder and an additive to improve absorption functions. The binder may include prep powder or crushed glass powder, etc., and the additive may include feldspar, diatomaceous earth, or an opaque agent, etc.

[0046] The magnet block (300) may include a first magnet block (310), a second magnet block (320), and a third magnet block (330). The magnet block (300) may be detachably coupled to the frame (100) and may include a magnet (M). The magnet block (300) may be inserted into an inner hole (120) of the frame (100) to be coupled with the frame (100). The magnet block (300) may be removed from the inner hole (120) of the frame (100) to release the coupling with the frame (100).

[0047] The magnet (M) included in the magnet block (300) can be coupled to the metal of the wall (10) by magnetic force. At this time, the magnetic force of the magnet (M) is such that it can be detached by the user's force, so the porous tile module (40) to which the magnet block (300) is coupled can be easily coupled to or detached from the wall (10), allowing the porous tile (200) to be easily replaced or removed.

[0048] The first magnet block (310) may include a first magnet receiving portion (311) and a first fitting portion (312). The first magnet block (310) may include four first protruding members (312a) and may be coupled to each of the four frames (100) (see FIG. 5 and FIG. 6). When the porous tile (200) is arranged in 2 rows and 2 columns, the first magnet block (310) may be positioned in the center of the frame (100) and coupled to the four frames (100).

[0049] The first magnet receiving portion (311) may include a first magnet frame (311a), a first magnet groove (311b), and a first magnet hole (311c). The first magnet receiving portion (311) may be a portion in which a magnet (M) is received.

[0050] The first magnet frame (311a) may be a member that surrounds the magnet (M). The first magnet frame (311a) may allow the magnet (M) to be seated in the first magnet groove (311b) described later and not fall out. The first magnet frame (311a) may be made of a material such as steel that has sufficient rigidity so that its shape does not deform despite frequent collisions with the wall (10). However, the material of the first magnet frame (311a) is not limited to this and may have various materials.

[0051] The first magnet groove (311b) is formed in the first magnet frame (311a) and may be a groove into which a magnet (M) is received. The first magnet groove (311b) may be formed in a shape corresponding to the magnet (M) used. The magnet (M) is received in the first magnet groove (311b), and the magnet (M) may provide magnetic force for coupling between the porous tile module (40) and the wall (10).

[0052] The first magnet hole (311c) may be a hole formed on one side of the first magnet frame (311a) (see FIG. 3). The first magnet hole (311c) may allow the magnetic force of the magnet (M) contained within the first magnet groove (311b) to be transmitted to the wall (10). The first magnet hole (311c) may be omitted as needed.

[0053] The first fitting part (312) may include a first protruding member (312a) and a first inner groove (312b). The first fitting part (312) may be coupled to the first magnet receiving part (311) and fitted into the inner hole (120).

[0054] The first protruding member (312a) protrudes from the first magnet receiving portion (311) and can be fitted into the inner hole (120). The first protruding member (312a) can protrude in a shape corresponding to the shape of the inner hole (120).

[0055] The first internal groove (312b) may be a groove in which a space is formed inside the first protruding member (312a). Since the first internal groove (312b) is formed as an empty space, the total weight of the porous tile module (40) can be reduced, thereby reducing the magnetic force for bonding with the wall (10). Necessary equipment, such as the control module (420) and sensor (600) described later, may be installed in the empty space of the first internal groove (312b).

[0056] The second magnet block (320) may include a second magnet receiving portion (321) and a second fitting portion (322). The second magnet block (320) may include three second protruding members (322a) and may be coupled to three frames (100) (see FIG. 5). When porous tiles (200) are arranged in two rows and two columns, the second magnet block (320) may be positioned at the center of one side of the frame (100) and coupled to three frames (100).

[0057] The second magnet receiving portion (321) may include a second magnet frame (321a), a second magnet groove (321b), and a second magnet hole (321c). The second magnet receiving portion (321) may be a portion in which a magnet (M) is received. The second magnet receiving portion (321) may be formed with the same structure as the first magnet receiving portion (311).

[0058] The second fitting part (322) may include a second protruding member (322a) and a second inner groove (322b). The second fitting part (322) may be coupled to the second magnet receiving part (321) and fitted into the inner hole (120).

[0059] The second protruding member (322a) and the second inner groove (322b) may be formed with the same structure as the first protruding member (312a) and the first inner groove (312b), except for the number of the second protruding member (322a).

[0060] The third magnet block (330) may include a third magnet receiving portion (331) and a third fitting portion (332). The third magnet block (330) may include two third protruding members (332a) and may be coupled to two frames (100) (see FIG. 5). When porous tiles (200) are arranged in 2 rows and 2 columns, the third magnet block (330) may be positioned at the corners of the frames (100) and coupled to two frames (100).

[0061] The third magnet receiving portion (331) may include a third magnet frame (331a), a third magnet groove (331b), and a third magnet hole (331c). The third magnet receiving portion (331) may be a portion in which a magnet (M) is received. The third magnet receiving portion (331) may be formed with the same structure as the first magnet receiving portion (311).

[0062] The third fitting part (332) may include a third protruding member (332a) and a third inner groove (332b). The third fitting part (332) may be coupled to the third magnet receiving part (331) and fitted into the inner hole (120).

[0063] The third protruding member (332a) and the third inner groove (332b) may be formed with the same structure as the first protruding member (312a) and the first inner groove (312b), except for the number of the third protruding member (332a).

[0064] It may be possible to form porous tile modules (40) of various structures by varying the combination of the magnet block (300) and the frame (100) described above. For example, a porous tile module (40) in which four porous tiles (200) are arranged in a 2x2 configuration or six porous tiles (200) are arranged in a 2x3 configuration may be possible.

[0065] The first heater (400) may include a heating wire (410) and a control module (420). The first heater (400) may be located in an inner hole (120) to supply heat to the porous tile (200). Since the first heater (400) is wired through the inner hole (120), which is an empty space of the frame (100), a separate space for installation may not be required.

[0066] The first heater (400) can control the temperature to prevent mold and condensation, taking into account the characteristics of the porous tile module (40) which is continuously exposed to moisture.

[0067] The heating wire (410) can be inserted into the inner hole (120) and extended in one direction. The heating wire (410) can be positioned inside the inner hole (120) along the extension direction of the frame (100). Due to the structural characteristics of the porous tile module (40) which is expected to be frequently exposed to moisture, the heating wire (410) may be wrapped in a waterproofing covering.

[0068] The heating cable (410) may be a cable that emits heat using electricity, such as a belt heater, a self-regulating heating cable, and a constant wattage heating cable. However, the type of heating cable (410) is not limited to this, and any type of heating cable (410) capable of stably supplying heat may be possible.

[0069] The control module (420) is coupled to the heating wire (410) and can control the heat supplied by the heating wire (410). The control module (420) can control the heat supplied by the heating wire (410) based on at least one of the temperature and humidity of the porous tile (200) measured by the sensor (600) described later. For example, the control module (420) can prevent this by increasing the heat supplied by the heating wire (410) if there is a possibility that moisture contained inside the pores of the porous tile (200) may solidify during winter.

[0070] The control module (420) may be located in the empty spaces of the first inner groove (312b), the second inner groove (322b), and the third inner groove (332b). However, the location of the control module (420) is not limited thereto and may be installed in various locations.

[0071] The sensor (600) may include a first sensor (610) and a second sensor (620). The sensor (600) is coupled to the porous tile (200) and can detect at least one of the temperature and humidity of the porous tile (200). The sensor (600) is connected to a control module (420) and can transmit data of at least one of the measured temperature and humidity of the porous tile (200) to the control module (420). The sensor (600) may be any type of sensor capable of measuring the temperature and humidity of the porous tile (200).

[0072] For example, the sensor (600) may be at least one sensor selected from the group consisting of a wet-bulb hygrometer, a lithium chloride humidity sensor, an electrolyte humidity sensor, a polymer membrane humidity sensor, a crystal vibration humidity sensor, an aluminum oxide humidity sensor, a ceramic humidity sensor, an infrared temperature sensor, etc.

[0073] The first sensor (610) is coupled to the back surface of the porous tile (200) and can detect at least one of the temperature and humidity of the back surface of the porous tile (200). The second sensor (620) is coupled to the front surface of the porous tile (200) and can detect at least one of the temperature and humidity of the front surface of the porous tile (200). However, the first sensor (610) and the second sensor (620) are merely exemplary representations of the sensor (600), and the number of sensors (600) may be increased or decreased or installed at different locations as needed.

[0074] Hereinafter, a porous tile module (40) according to a second embodiment of the present invention will be described.

[0075] FIG. 8 is a cross-sectional view showing a porous tile module according to a second embodiment of the present invention.

[0076] Referring to FIG. 8, the porous tile module (40) according to the second embodiment has the same structure as the porous tile module (40) according to the first embodiment, except for the second heater (500), so a redundant description of the same configuration is omitted.

[0077] According to the present embodiment, the second heater (500) may include a heating wire (510). The second heater (500) may be placed over the entire surface area of ​​the porous tile (200) on the back side of the porous tile (200) to supply heat. The second heater (500) may be driven independently of the first heater (400). The second heater (500) may be connected to a control module (420) and its operation may be controlled by the control module (420). The control module (420) may transmit separate control signals to independently control the first heater (400) and the second heater (500).

[0078] The second heater (500) is located on the back side of the porous tile (200), so that it may not be exposed to the outside when the porous tile module (40) is attached to the wall. Additionally, the second heater (500) is located on the back side of the porous tile (200) in a recessed area where the frame (100) is not attached, rather than in a protruding area where the frame is attached, so that it may not interfere when the porous tile module (40) is attached to the wall (10).

[0079] The second heater (500) can control the temperature to prevent mold and condensation, taking into account the characteristics of the porous tile module (40) which is continuously exposed to moisture.

[0080] The heating wire (510) can be arranged in a zigzag shape over the entire surface of the back of the porous tile (200). The heating wire (510) may be wrapped in a waterproof covering due to the structural characteristics of the porous tile module (40), which is expected to be frequently exposed to moisture.

[0081] The heating cable (510) may be a cable that emits heat using electricity, such as a belt heater, a self-regulating heating cable, and a constant wattage heating cable. However, the shape and type of the heating cable (510) are not limited to this and may have various shapes and types.

[0082] Hereinafter, a porous tile module (40) according to the third embodiment of the present invention will be described.

[0083] FIG. 9 is a cross-sectional view showing a porous tile module according to a third embodiment of the present invention.

[0084] Referring to FIG. 9, the porous tile module (40) according to the third embodiment is made of the same structure as the porous tile module (40) according to the first embodiment, except for the combined structure of the frame (100) and the magnet block (300), so a redundant description of the same configuration is omitted.

[0085] According to the present embodiment, six porous tile modules (40) of the porous tile module (40) can be arranged in a 3-row, 2-column configuration. Two first magnet blocks (310) in the center can be combined with four frames (100). Six second magnet blocks (320) in the center of the side can be combined with three frames (100). Four third magnet blocks (330) in the corners can be combined with two frames (100).

[0086] In this way, a porous tile module (40) of various shapes can be configured to replace or remove multiple porous tiles (200) at once according to the combined structure of the frame (100) and the magnet block (300).

[0087] Although an embodiment of the present invention has been described above, those skilled in the art may modify and change the present invention in various ways by adding, changing, deleting, or adding components, etc., without departing from the spirit of the present invention as described in the claims, and such modifications and changes are also to be included within the scope of the rights of the present invention. Explanation of the symbols

[0088] 1 Humidifying wall using porous tile modules 10 walls 20 water storage device 30 water supply devices 40 porous tile modules 100 frames 200 porous tiles 300 Magnetic Blocks 400 1st heater 500 2nd heater 600 sensor

Claims

Claim 1 A humidifying wall using a porous tile module comprising: a wall containing metal; a porous tile module detachably coupled to the wall; a water storage device for storing water supplied to the porous tile module; and a water supply device connected to the water storage device and supplying water to the front surface of the porous tile module, wherein the porous tile module comprises: a plurality of frames having internal holes extending in one direction therein; a porous tile having pores coupled to the plurality of frames; and a magnet block connecting the plurality of frames to each other and having a magnet detachably attached to the frame. Claim 2 delete Claim 3 A humidifying wall using a porous tile module according to claim 1, wherein the magnet block comprises a magnet receiving portion in which the magnet is received and a fitting portion coupled to the magnet receiving portion and fitted into the inner hole. Claim 4 In claim 3, the magnet receiving portion comprises a magnet frame surrounding the magnet and a magnet groove formed in the magnet frame and receiving the magnet, a humidifying wall using a porous tile module. Claim 5 In claim 3, the above-mentioned fitting portion comprises a protruding member that protrudes from the magnet receiving portion and is fitted into the internal hole, a humidifying wall using a porous tile module. Claim 6 In claim 5, the above-mentioned magnetic block comprises: a first magnetic block capable of being coupled to four frames, comprising four of the above-mentioned protrusions; a second magnetic block capable of being coupled to three frames, comprising three of the above-mentioned protrusions; and a third magnetic block capable of being coupled to two frames, comprising two of the above-mentioned protrusions, a humidifying wall using a porous tile module. Claim 7 A humidifying wall using a porous tile module according to claim 3, wherein the porous tile module further comprises a first heater located in the inner hole and supplying heat to the porous tile. Claim 8 A humidifying wall using a porous tile module, wherein the first heater comprises a heating wire inserted into the inner hole and extended in one direction, and a control module coupled to the heating wire and controlling the heat supplied by the heating wire. Claim 9 A humidifying wall using a porous tile module according to claim 3, wherein the porous tile module further comprises a second heater disposed over the entire surface area of ​​the porous tile on the back surface of the porous tile to supply heat. Claim 10 A humidifying wall using a porous tile module according to claim 8, wherein the porous tile module further comprises a sensor coupled to the porous tile to detect at least one of the temperature and humidity of the porous tile. Claim 11 In claim 10, the control module controls the heat supplied by the heating wire based on at least one of the temperature and humidity of the porous tile measured by the sensor, in a humidifying wall using a porous tile module.

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