JP2006010185A - Air cleaner system - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an air cleaner system capable of sending the clean air in every corner of a wide room or building even with respect to the wide room or a plurality of rooms. <P>SOLUTION: One end part of a duct 89 is mounted on a duct joint 88D of an outside air introduction opening part 88 of an air cleaner 80-5. The other end part of the duct 89 is connected to a suction grill G1 mounted on a ceiling or a wall of a living/dining room, a corridor or the like for sucking the air outside of the building. A duct joint 91 is mounted on an opening part for blowoff port 90 of the air cleaner 80-4, and one end part of a duct 92 is mounted on the duct joint 91. The other end part of the duct 92 is connected to a grill G2 for blowoff port of the other ceiling or wall of the living/dining room, the corridor or the like. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to an air purifier system having a ventilation function.

Conventionally, a building is usually provided with a ventilation fan, but an air cleaner is not necessarily provided. Therefore, the resident of the building may purchase and install an air purifier for the purpose of removing pollen or the like or removing odors. Such an air purifier is installed on an indoor floor or the like, and is usually designed to perform an air purifying process by inserting a power plug into an outlet or the like and turning on a main switch. It is.
Japanese Patent No. 2512121

  However, in the case of a conventional air purifier, since the purifier body has an air inlet and an outlet, in a large room such as a living room, it is difficult to clean up the air in every corner of the room. There was a problem.

  In addition, in order to purify the air in multiple rooms, if an air purifier is installed in each room, such as a living room or living room, many air purifiers must be purchased. In addition, there is a cost in operation, and there is also annoyance that it is necessary to manage on / off of an air cleaner switch at the installation site.

  Furthermore, when an air cleaner is installed in addition to the ventilation fan, there is a problem that the floor space of the house is taken and the living space is narrowed.

  The present invention has been made paying attention to such a problem. Even in a wide room or a plurality of rooms, the present invention can send clean air to a wide room or every corner of a building, and can also clean a wide range of air. It is an object of the present invention to provide an air purifier system that can be centralized and at a low cost even at the time of purchase and use.

  In order to solve the above-mentioned problem, an air purifier system according to claim 1 of the present application is an air distribution system in which purified air is supplied to a cleaned air outlet in a purifier body for purifying air. One end of the air duct is connected, and the other end of the air distribution duct is extended to a place away from the purifier main body and connected to an indoor outlet.

  The air cleaner system according to claim 2 of the present application connects one end of a suction duct for sucking air before cleaning to a suction port for air before cleaning in a cleaner body for purifying air, The other end of the duct is extended to a place away from the main body of the cleaner, and is connected to a suction port in the room.

The air purifier system according to claim 3 of the present application connects one end of a suction duct for sucking air before cleaning to a suction port of air before cleaning in a cleaner body for purifying air, Extend the other end of the duct to a place away from the cleaner body, connect it to the indoor suction port,
One end of an air distribution duct that supplies purified air is connected to the cleaned air outlet of the cleaner body, and the other end of the air distribution duct is connected to the cleaner body. It extends to a distant place and is connected to an indoor outlet.

  The air cleaner system according to claim 4 of the present application is the air cleaner system according to any one of claims 1 to 3, wherein at least one of the indoor air suction port or the blowout port for blowing the purified air is provided on the lower surface of the main body. It is provided.

  The air purifier system according to claim 5 of the present application is the air purifier system according to any one of claims 1 to 4, wherein at least one of the indoor air outlet or the indoor air inlet is another room. It is characterized by being connected to.

  The air purifier system according to claim 6 of the present application is the air purifier system according to any one of claims 1 to 5, wherein at least one of exhaust means for exhausting indoor air and air supply means for supplying outside air. It is provided with ventilation means.

  The air purifier system according to claim 7 of the present application is the air purifier system according to any one of claims 1 to 6, wherein the air purifier sterilizes airborne bacteria in the air or harmful substances in the air. And a decomposition processing means having a decomposition function for decomposing the liquid.

  According to the air purifier system according to claim 1 of the present application, one end of the air distribution duct that supplies the cleaned air to the cleaned air outlet of the purifier body that purifies the air is provided. Connecting and extending the other end of the air distribution duct to a place away from the purifier main body and connecting it to an indoor outlet, thereby sending purified air away from the purifier main body If air is sucked into the main body of the purifier, air flows in a large room, and even in a large room or multiple rooms, the air in every corner of the building or room can be cleaned. it can. .

  According to the air cleaner system of claim 2 of the present application, by connecting one or more collecting ducts to the suction port for collecting the air before the air supply means in the cleaner body is cleaned, the cleaner Dirty air can be sucked from a large room or a plurality of rooms away from the main body and cleaned in the main body of the cleaner, and intensive air cleaning can be performed.

  According to the air cleaner system of claim 3 of the present application, since the functions of the air cleaners of claim 1 and claim 2 are provided together, clean air circulation between a large room and a plurality of rooms is possible. Therefore, the introduction cost and the operation cost are low, and the management is easy.

  According to the air purifier system of claim 4 of the present application, the purifier main body sucks in or cleans the indoor air by providing the lower surface of the main body with the indoor air inlet or the purified air outlet. By blowing out the finished air, it is possible to inhale dirty indoor air from the entire area of the building through the undercut or gap space inside the building and exhaust it to the outside of the building or supply purified air. The air can be cleaned and ventilated.

  According to the air purifier system of claim 5 of the present application, since one of the indoor air suction ports is connected to the other room, the air in the other room is also sucked and cleaned, and then returned to the building again. The entire building can be purified.

  According to the air purifier system of claim 6 of the present application, since the ventilation means by the exhaust means or the air supply means is provided, the entire building can be ventilated in addition to the air purification.

  According to the air purifier system of claim 7 of the present application, the air purifier includes a decomposition processing means having a decomposition function for sterilizing airborne bacteria in the air or decomposing harmful substances in the air. Further, the air cleaning effect is improved.

  Hereinafter, an air cleaner according to the best mode for carrying out the present invention will be described with reference to the drawings. FIG. 1 shows an air cleaner 1 according to an embodiment, and the air cleaner 1 has a ventilation function. The air cleaner 1 shown in FIG. 1 is installed on the ceiling of a building (for example, the ceiling of a room such as a corridor, a staircase, a living room, or a bedroom in the case of a detached house or an apartment house).

  The inside of the housing 2 of the air purifier 1 is an outside air supply air passage through which clean outside air is taken from a place other than the room where the air purifier 1 is installed (for example, outside air outside the building) directly or via another room. 3, an air supply fan mechanism 4 serving as a power source for introducing clean air into the outside air supply air passage 3 and supplying air to a target room or the like, and a room (or other room or And an exhaust fan mechanism 6 for the exhaust air passage 5. The exhaust air passage 5 discharges room air to a place other than the installation location.

  On the upstream side of the air supply fan mechanism 4 in the outside air supply air passage 3, a circulation suction port 7 for introducing room air in the room at the installation location is provided. The outside air supply air passage 3 and the air supply fan mechanism 4 constitute an air supply means, and the exhaust air passage 5 and the exhaust fan mechanism 6 constitute an exhaust means. The outside air supply air passage 3 of the air cleaner 1 is provided with an air purification unit 10 having a dustproof filter 8 and a decomposition processing unit 9 (decomposition processing means).

  In this embodiment, the dustproof filter 8 of the air cleaning unit 10 has a rectangular and hollow frame with a HEPA filter attached thereto, and the HEPA filter filters the air so that dust, pollen in the air, etc. Is supposed to capture. A HEPA filter is used as the dust filter 8, but a ULPA filter or other high performance filter may be used.

  The casing 2 of the air cleaner 1 has a box shape having a rectangular planar shape, and the lower portion of the box is closed by a bottom plate portion 23. The air cleaner 1 is installed inside the opening T1 of the suspended ceiling T in the room. An attachment portion 24 is attached and fixed to the outer peripheral portion of the housing 2 of the air cleaner 1, and the attachment portion 24 is fixed to a ceiling wall (not shown) above the suspended ceiling T with an anchor bolt or the like. By this, the air cleaner 1 is fixed.

  Inside the housing 2, a filter storage chamber 11, an air supply introduction chamber 12, an air supply chamber 13, an exhaust introduction chamber 14, and an exhaust guide passage 15 are provided.

  As shown in FIG. 2, the bottom plate portion 23 sucks indoor air into the housing 2 and circulates it, and sucks indoor air into the housing 2 so that it is outside the building. An exhaust opening 25 for discharging and an air supply opening 26 for supplying the air sucked into the housing 2 and filtered into the room are formed.

  Inside the housing 2, an outside air supply air passage 3 and an exhaust air passage 5 are formed in a partitioned manner.

  The outside air supply air passage 3 includes an outside air introduction opening 30 (supply air inlet) formed in the side wall 2L of the housing 2, a circulation inlet 7 (circulation inlet) of the bottom plate 23, and a filter storage chamber. 11, a dustproof filter 8, an opening 22 of the partition wall 21, an air supply introduction chamber 12, an air supply chamber 13, and an air supply opening 26 of the bottom plate portion 23. The filter storage chamber 11, the air supply introduction chamber 12, the air supply chamber 13, and the dust filter 8 are all in communication with each other so that air can pass through.

  The side wall 2L of the filter storage chamber 11 is formed with an outside air introduction opening 30 for taking in outside air. A duct joint 31 is attached to the outside of the outside air introduction opening 30, and one end of a duct 32 is attached to the duct joint 31. In this embodiment, the other end of the duct 32 is connected to a duct joint of an opening (not shown) opened on the outer wall of a single-family house or a condominium building, and the outside air of the building is introduced into the building. ing. In addition, the other end of the duct 32 is connected to an opening such as a ceiling or wall of another room, and after taking outside air into another room or the like, fresh outside air may be introduced from the other room. is there.

  The outside air introduction opening 30 is provided with a damper D1, and the damper D1 can open and close the outside air introduction opening 30 by a power transmission mechanism such as a motor and a cam mechanism (not shown) and wind force. It is like that. The opening / closing control of the damper D1 is performed according to a control command from the control circuit 29. When only the indoor circulating air is to be cleaned, the outside air introduction opening 30 is blocked by the damper D1, and the introduction of the outside air and the room air are performed. In order to clean the air, the damper D1 is separated from the outside air introduction opening 30. In the case of wind power, the power transmission mechanism is not required.

  The filter storage chamber 11 and the air supply introduction chamber 12 are separated by a partition wall 21, and an opening 22 is formed in the partition wall 21. The partition wall 21 is attached with a dustproof filter 8 (air purification filter) that constitutes a main part of the air purification unit 10. The dust filter 8 is composed of a HEPA (High Efficiency Particulate Air) filter. The dust filter 8 is supported by a frame substantially corresponding to the outer periphery of the partition wall 21, and a gap is provided between the dust filter 8 and the partition wall 21 for allowing air that has passed through the dust filter 8 to pass through. Yes. The dust filter 8 is detachable by removing the bottom plate portion 23 that closes the lower portion of the housing 2.

  The remote controller Rc of the air cleaner 1 is provided with an odor sensor S2 and a dust sensor S1. The odor sensor S2 and the dust sensor S1 are supplied with power from the control circuit 29 and are connected to the control circuit 29 so as to transmit a detection signal to the control circuit 29.

  The control circuit 29 includes a power supply unit, a microcomputer, and an interface, and is connected to a remote controller Rc installed on the wall of the room. Based on the ON / OFF of the operation mode selection button of the remote controller Rc and the detection results of the odor sensor S2 and the dust sensor S1, the control circuit 29 supplies the air supply motor 17, the ventilation motor 18 and the decomposition processing unit 9 of the air cleaner 1. Power supply control.

  The air supply motor 17 and the air supply fan 19 also serve as a circulation motor and a circulation fan. The same or a single air supply motor 17 and the air supply fan 19 constitute a circulation motor and a circulation fan.

  The filter storage chamber 11 is connected to the supply air introduction chamber 12 through the opening 22. A fan case 20 and an air supply motor 17 are provided in the air supply introduction chamber 12. The air supply motor 17 is attached to a partition wall 16 between the air supply introduction chamber 12 and the exhaust introduction chamber 14. A sirocco fan-type air supply fan 19 (indoor circulation fan) is fixed to the rotating shaft of the air supply motor 17 so as not to rotate. The air supply motor 17 and the exhaust motor 18 are controlled by a control circuit 29. Although the fan is described as a sirocco fan, it may be another fan such as a turbo fan.

  The supply air introduction chamber 12 and the supply air chamber 13 are partitioned by a fan case 20. The fan case 20 is installed over the partition wall 16 and the side wall portion of the housing 2 so as to surround the air supply fan 19. A portion of the fan case 20 that faces the side surface of the air supply fan 19 is formed with a suction port 20A for sucking in air supply, and a portion of the fan case 20 that faces the cylindrical outer peripheral surface of the air supply fan 19 The air is opened to guide the air to the air supply chamber 13.

  On the side wall portion 2R of the air supply guide chamber 12, a decomposition processing unit 9 (decomposition processing means) that constitutes a part of the air purification unit 10 described above is installed. As the decomposition processing unit 9, a positive / negative ion generation type is used, but a photocatalytic type may also be used.

  The decomposition processing unit 9 performs sterilization (sterilization) by simultaneously generating negative ions and positive ions, and supplies power to the ion generation unit that generates negative ions and positive ions. And a power supply unit. By supplying power to the ion generator from the power source controlled by the control circuit 29, negative ions and positive ions are generated, and bacteria and fine protein particles floating in the air are decomposed by these negative ions and positive ions. It is made harmless and cleans the air.

  When the photocatalytic method is used as the decomposition processing unit 9, the decomposition processing unit 9 may be a fluorescent lamp that mainly emits light in the ultraviolet region and purifies contaminants.

  The exhaust air passage 5 includes an exhaust opening 25 of the bottom plate 23, an exhaust introduction chamber 14 partitioned from the air supply chamber 13, and a cylindrical exhaust guide passage 15 partitioned from the supply air introduction chamber 12. ing. The exhaust opening 25 passes through the exhaust introduction chamber 14 and the exhaust guide passage 15 and is connected to the exhaust duct joint 27 and the duct 28 through an opening (not shown) formed in the right side wall 2R of the housing 2. It is connected.

  An exhaust fan 33 and a fan case 34 surrounding the exhaust fan 33 are disposed in the exhaust introduction chamber 14 of the exhaust air passage 5, and a sirocco fan type exhaust fan 33 is prevented from rotating on the rotating shaft of the exhaust motor 18. Has been fixed. The exhaust motor 18 is controlled by a control circuit 29. The fan case 34 is installed on the partition wall 16 so as to suck air from the suction port of the exhaust fan 33 and blow it to the exhaust guide passage 15, and surrounds the exhaust fan 33. A portion of the fan case 34 facing the side surface of the exhaust fan 33 is formed with a suction port 34A for sucking in air supply, and a portion of the fan case 34 facing the cylindrical outer peripheral surface of the exhaust fan 33 receives the sucked air supply. The exhaust guide passage 15 is opened.

  A damper D2 is provided inside the exhaust guide passage 15. The damper D2 can open and close the exhaust guide passage 15 by a power transmission mechanism such as a motor and a cam mechanism (not shown). ing. The opening / closing control of the damper D2 is performed according to a control command from the control circuit 29. When only the indoor circulating air is to be cleaned, the exhaust air passage 5 is blocked by the damper D2, and the exhaust of the room air and the room air are performed. In order to clean the air, the damper D2 is leveled and the exhaust guide passage 15 is opened.

  In the air cleaner 1 of this embodiment, when the air supply motor 17 is rotated based on the control of the control circuit 29, outside air outside the building passes through the duct 32, the duct joint 31, and the outside air introduction opening 30. Introduced into the filter storage chamber 11. At this time, indoor air is also introduced into the filter storage chamber 11 from the circulation suction port 7. The air introduced into the filter storage chamber 11 is filtered by the dust-proof filter 8, and dust, dust, smoke from automobiles, factories, and the like are removed. The air filtered by the dust filter 8 is introduced into the air supply fan 19 through the suction port 20 </ b> A of the fan case 20, and is sent from the outer periphery of the air supply fan 19 into the air supply chamber 13. The filtered air sent to the air supply chamber 13 is sterilized (sanitized) by the decomposition processing unit 9 installed on the inner wall of the air supply chamber 13 and supplied into the room through the air supply opening 26.

  FIG. 4 shows a list of states in which the control circuit 29 controls the air supply motor 17 and the ventilation motor 18 based on odor detection or dust detection of the dust sensor S1 and the odor sensor S2.

  When both the dust sensor S1 and the odor sensor S2 do not detect dust or odor, the rotation speed of the air supply motor 17 is reduced to make it weak, and the ventilation motor 18 also performs ventilation with a constant low air volume for 24 hours (always). Is in a weak state. This 24-hour ventilation may be operated intermittently, although there may be continuous operation.

  When the dust sensor S1 detects dust and the odor sensor S2 does not detect odor, the rotational speed of the air supply motor 17 is increased to a strong state, and the ventilation motor 18 is in a middle state where the rotational speed is slightly increased from the 24-hour ventilation. And As a result, the dust filtering force is increased to increase the air supply air volume, and the ventilation air volume is also increased from the 24-hour ventilation to quickly clean the air in the room.

  When the dust sensor S1 does not detect dust, but the odor sensor S2 detects odor, the rotation speed of the air supply motor 17 is set to a middle state located between the weak and strong, and the ventilation motor 18 further rotates than the middle state. The strength is increased. As a result, a large amount of new air is introduced from the outside to slightly increase the supply air volume, and the ventilation air volume is increased from the middle state to quickly ventilate the room air.

  When the odor sensor S1 detects odor and the dust sensor S2 detects dust, the rotation speed of the air supply motor 17 is increased to make it strong and the ventilation motor 18 is also made strong. As a result, a large amount of new air is introduced from the outside to slightly increase the supply air volume, and the ventilation air volume is increased from the middle state to quickly ventilate the room air.

  The relationship between the dust sensor S1, the odor sensor S2, the air supply motor 17, and the exhaust motor 18 may be other methods based on the dust sensor S1 and the odor sensor S2, and the motors 17 and 18 may be controlled. For example, the control content is not limited to that shown in FIG.

  5 to 8 show an air cleaner 40 according to another embodiment. The air purifier 40 includes a filter storage chamber 42, an air supply introduction chamber 43, an air supply guide chamber 44, an exhaust introduction chamber 45, an exhaust introduction chamber 45, and an exhaust guide (not shown) inside the housing 41. An exhaust duct joint 46 connected via the passage is provided.

  The bottom plate portion 47 shown in FIG. 6 has a circulation inlet 48 for sucking and circulating indoor air into the housing 41, and for sucking indoor air into the housing 41 and discharging it outside the building. And an air supply opening 50 for supplying the air sucked and filtered into the housing 41 into the room.

  Inside the housing 41, an air supply air passage and an exhaust air passage are formed separately. The air supply path includes a circulation suction port 48 (circulation suction port) of the bottom plate portion 47, a filter storage chamber 42, a dustproof filter 51, an opening 53 of the partition wall 52, an air supply introduction chamber 43, and an air supply. The guide chamber 44 and the air supply opening 50 of the bottom plate portion 47 are configured. The filter storage chamber 42, the air supply introduction chamber 43, the air supply guide chamber 44, and the dustproof filter 51 are all in communication so that air can pass therethrough.

  The exhaust air passage is composed of an exhaust opening 49 of the bottom plate 47, an exhaust introduction chamber 45 partitioned from the air supply guide chamber 44, and a cylindrical exhaust guide passage (not shown) partitioned from the air supply introduction chamber 45. Has been. As shown in FIG. 7, the exhaust opening 49 is connected to the exhaust duct joint 46 through an exhaust introduction chamber 45 and an exhaust guide passage and through an opening (not shown) formed in the side wall of the housing 2. Has been. In addition, a duct (not shown) is connected to the duct joint 46 so that the air cleaner 1 can suck air from a place away from the housing 41 (for example, outside the building, other rooms, etc.). Yes.

  The air supply guide chamber 44 is provided with a fan case 54, an air supply motor 55, and an air supply fan 56. The air supply motor 55 is attached to a partition wall 57 between the air supply guide chamber 44 and the exhaust introduction chamber 45. A sirocco fan-type air supply fan 56 (air supply fan; indoor circulation fan) is fixed to the rotation shaft of the air supply motor 55 so as not to rotate. The air supply motor 55 is controlled by the control circuit 29 described above.

  The fan case 54 is formed so as to surround the air supply fan 56, and a suction port 54 </ b> A for sucking air supply is formed at a portion facing the side surface of the air supply fan 56. A portion of the fan 56 facing the cylindrical outer peripheral surface is opened so that the sucked air is blown out from the air supply opening 50.

  An exhaust fan 58 and a fan case 59 are arranged in the exhaust introduction chamber 45 of the exhaust air passage, and a sirocco fan type exhaust fan 61 is fixed to the rotation shaft of the exhaust motor 60 by being prevented from rotating. . The exhaust motor 60 is controlled by the control circuit 29 described above. The fan case 59 is installed on the bottom plate portion 47 so as to suck air from the suction port of the exhaust fan 58 and blow it to the duct joint 46 via the exhaust guide passage, and surrounds the exhaust fan 58. A lower end portion of the fan case 59 is fixed to the bottom plate portion 47. The exhaust opening 49 of the bottom plate portion 47 faces the side surface of the exhaust fan 58.

  The dust filter 51 is composed of a HEPA filter in the same manner as the dust filter 8 in FIG. The dust filter 51 is supported by a frame that substantially corresponds to the cross-sectional shape of the housing 41, and a gap is provided between the dust filter 51 and the partition wall 52 for allowing air that has passed through the dust filter 51 to pass through. ing. The dust filter 51 can be pulled out and removed from the circulation suction port 48 (circulation suction port). This attachment / detachment mechanism may be a press-fitting mechanism, a mechanism of a latching claw and a latching hole, or a screw mechanism.

  An odor sensor and a dust sensor (not shown) are installed on the surface of the dust filter 51 on the filter storage chamber 42 side. The odor sensor and dust sensor are supplied with power from the control circuit 29 and are connected to the control circuit 29 so as to transmit a detection signal to the control circuit 29. The configuration of the control circuit 29 and the operation control of the air supply fan 56 and the exhaust fan 61 by the odor sensor and dust sensor are the same as those in FIGS. Omitted.

  9 and 10 show another embodiment of the air cleaner with a ventilation function. The air purifier 70 is installed on the ceiling T of the room. A circulating air introduction chamber 73 is formed below the partition wall 72 in the middle of the casing 71, and an exhaust passage is formed on the partition wall 72. 74 is formed.

  A circulating air suction port 75 is formed in the bottom plate portion 80 of the circulating air introduction chamber 73, and a dustproof filter 76 is installed on the suction port 75. Although the dustproof filter 76 is small in scale, the HEPA filter is installed in a rectangular frame, which is the same as described above.

  A motor 77 is installed on the partition wall 72, and a circulation fan 78 and an exhaust fan 79 are respectively fixed above and below the rotating shaft of the motor 77. A dust sensor S1 and an odor sensor S2 are attached to the lower surface of the partition wall 72. The motor 77 rotates based on a command from the control circuit 29, and the dust sensor S1 and the odor sensor S2 detect the odor and dust in the control circuit 29 and increase the rotational speed of the motor 77.

  As shown in FIG. 10, the bottom plate portion 80 is formed with an air outlet 81 for returning the air of the circulation fan 79 to the room again and an exhaust air inlet 82 for discharging the dirty air in the room. The dirty air in the room is introduced into the housing 71 from the exhaust suction port 82 by the exhaust fan 79, passes through the suction port 83A of the fan case 83, passes through the exhaust opening 84, and the duct joint 85 and duct. The air is exhausted outside the building via 86.

  FIG. 11 shows the case where the air purifiers 1, 40, 70 are installed in the wall part W1 of the room R1, and FIG. 12 shows the air purifiers 1, 40, 70 embedded in the wall part W1 of the room R1. This shows the case. When the air purifiers 1, 40, and 70 are installed in the wall portion W1, a duct is piped inside the wall portion W1.

  FIG. 13 shows an air purifier 80 that circulates and cleans the air in the installed room. This air purifier 80 is a circulation composed of a dustproof filter 82 and a sirocco fan inside a housing 81. A fan 83, a fan motor 84, and a fan case 83 </ b> A are provided. By rotating the fan motor 84, room air is sucked from a circulation suction port 85 formed in the bottom plate portion of the housing 81, and a dust-proof filter 82. After being filtered, the purified air is blown into the room again from the air outlet 86.

  The installation space for the dust filter 82 and the circulation fan 83 is partitioned by a partition wall 82A, and an opening 82B is formed in the partition wall 82A. A fan case 83A is attached to the partition wall 87 for fixing the fan motor 84, and the fan case 83A has a suction port 83B for introducing air into the rotation center side of the circulation fan 83. The other end of the fan case 83 </ b> A is open, and the air discharged from the circulation fan 83 is sent out to the air outlet 86.

  A control circuit 29 is installed below the partition wall 87 for fixing the fan motor 84. The control circuit 29 is connected to a dust sensor S1 and an odor sensor S2 in addition to a commercial power source and the fan motor 84. . The dust sensor S1 and the odor sensor S2 are attached to the dust filter 82.

  In addition, a decomposition processing unit 86A that decomposes floating bacteria and harmful substances with positive ions and negative ions is installed on the inner wall surface of the air outlet 86. The decomposition processing unit 86A receives a power supply from a commercial power source according to a control command from the control circuit 29, generates a high voltage, decomposes moisture in the air to generate hydrogen ions and oxygen ions, and generates floating bacteria and harmful substances. Disassemble. The fan motor 84 rotates based on a command from the control circuit 29, and the dust sensor S1 and the odor sensor S2 detect odor and dust in the control circuit 29, and the rotation speed of the fan motor 84 increases.

  FIG. 14 shows a modification of the air cleaner 80 of FIG. This air purifier 80-2 cleans the air in the other part of the room for sucking air outside the building or in the other room or the same room having a large area (for example, a living dining room or a corridor). Therefore, an outside air introduction opening 88 is formed in the side wall 81L of the space where the circulation suction port 85 is opened. A cylindrical duct joint 88D is attached to the outside of the outside air introduction opening 88, and one end of a duct 89 is attached to the duct joint 88D.

  The other end of the duct 89 is an outside air inlet (not shown) for sucking air outside the building, or another part (for example, a living-dining room or a corridor, etc.) For example, it is connected to a suction opening of a ceiling or a wall. Other configurations are the same as the configuration and operation of the air purifier 80 of FIG.

  FIG. 15 shows an example in which the air cleaner 80-2 of FIG. 14 is further modified. In the air cleaner 80-3, the circulation suction port 85 is not opened in the bottom plate portion of the air cleaner 80-2 in FIG. 14, and the outside air is introduced into the side wall portion 81L of the space where the dustproof filter 82 is installed. An introduction opening 88 is formed.

  A cylindrical duct joint 88D is attached to the outside of the outside air introduction opening 88, and one end of a duct 89 is attached to the duct joint 88D. The other end of the duct 89 is an outside air inlet (not shown) for sucking air outside the building, or another part (for example, a living-dining room or a corridor, etc.) For example, it is connected to a suction grill G1 provided on a ceiling or a wall. Other configurations are the same as those in FIG.

  FIG. 16 shows an air purifier 80-4 for purifying the air in the installation room. This air purifier 80-4 is obtained by deforming the air purifier 80 shown in FIG. 13 so as to suck in air in the installation room and send out clean air to other distant places in the same room.

  This air purifier 80-4 has a circulation inlet 85 for sucking in indoor air, but is not formed with a blower outlet 86 for blowing out the air discharged from the circulation fan 83, instead. Moreover, the opening part 90 for blower outlets is formed in the side wall part 81R of the downstream space of the circulation fan 83 of the air cleaner 80-4.

  A cylindrical duct joint 91 is attached to the outside of the outlet opening 90, and one end of a duct 92 is attached to the duct joint 91. The other end of the duct 92 is connected to an outlet grill G2 in another room (for example, a living-dining room or a corridor) in another room (for example, a ceiling or a wall) in the same room having a large area. . Other configurations are the same as those in FIG.

  FIG. 17 is a combination of the functions of the air purifiers of FIGS. 15 and 16, and the circulation suction port 85 and the air outlet 86 are formed in the bottom plate portion of the casing 81 of the air purifier 80-5. Although not provided, an outside air introduction opening 88 is formed in the side wall 81L of the space in which the dust filter 82 is installed in the side wall 81L.

  A cylindrical duct joint 88D is attached to the outside of the outside air introduction opening 88, and one end of a duct 89 is attached to the duct joint 88D. The other end of the duct 89 is an outside air inlet (not shown) for sucking air outside the building, or another part (for example, a living-dining room or a corridor, etc.) For example, it is connected to a suction grill G1 provided on a ceiling or a wall.

  Moreover, the opening part 90 for blower outlets is formed in the side wall part 81R of the downstream space of the circulation fan 83 of the air cleaner 80-4.

  A cylindrical duct joint 91 is attached to the outside of the outlet opening 90, and one end of a duct 92 is attached to the duct joint 91. The other end of the duct 92 is connected to an outlet grill G2 in another room (for example, a living-dining room or a corridor) in another room (for example, a ceiling or a wall) in the same room having a large area. . Other configurations are the same as those in FIG. In addition, the suction port 85 for circulation and the blower outlet 86 may be formed in the baseplate part of the housing | casing 81 of the air cleaner 80-5.

  According to the air cleaner 80-5 of this embodiment, air can be sucked from a certain place in the same room and purified air can be sent out to other places in the same room. It is also possible to inhale air from a location where the resident is usually located (for example, a place such as a sofa or a table) or a corner of a room where air is likely to stay. Can be cleaned. The ducts 89 and 92 are not limited to the same room, and may be separate rooms. After the air sucked from a certain room or the air sucked from outside the building is cleaned, an intermediate duct fan or the like is used. It is possible to send purified air not only to one room but also to a plurality of rooms. The number of ducts for sucking in the air before cleaning is not necessarily one, and may be plural. In this way, the air in a plurality of rooms or the air outside the building is sucked and filtered, and further, the living organisms and harmful substances are decomposed and purified, and then clean air is provided in the corners of the plurality of rooms or large rooms. Can be sent out, and the cleaning of the living environment will be promoted.

  18 to 26 show examples of duct installation of the air purifier 1 with a ventilation function shown in FIG.

  The air purifier 1 in FIG. 18 is provided with the ventilation mechanism as described above, and the duct joint 31 of the outside air introduction opening 30 (here, used as a circulating air suction port) of the purifier main body. Is connected to a suction duct 100 having a terminal portion branched into a plurality of portions. The terminal portion of the suction duct 100 is connected to a grill G1 (see FIG. 17) provided on the ceiling of the living rooms R2 to R5. In addition, a duct 101 having a tip branched into a plurality of parts is connected to the circulating air outlet 26 of the purifier main body in order to send clean air to the living rooms R2 to R5. An outlet grill G2 is connected to the end of the duct 101. Further, the exhaust duct 28 communicates with the outside of the building. The exhaust opening 25 of the cleaner main body 1 opens from the ceiling of the hallway toward the hallway, but is covered with a cosmetic front panel having a ventilation opening, and is sucked from the exhaust opening 25 by the exhaust fan 33. The air is discharged outside the building via the duct 28.

  According to the structure of this building, the air in the rooms of the separate rooms R2 to R5 is collected via the duct 100, intensively cleaned by the air cleaner 1, and returned to the rooms of the rooms R2 to R5 again. Air purification of the entire building can be performed intensively, and air supply and exhaust can be controlled for each room by providing opening / closing members such as shutters in the ducts 100 and 101. For this reason, it is low cost and advantageous for energy saving. Furthermore, since the entire building can be ventilated by the ventilation mechanism, not only air cleaning but also ventilation can be intensively controlled.

  The air purifier 1 in FIG. 19 is provided with a ventilation mechanism as described above. A duct 101 whose tip is branched into a plurality of parts is connected to the circulating air outlet 26 of the main body of the cleaner in order to send clean air to the living rooms R2 to R5. An outlet grill G2 is connected to the end of the duct 101. Further, the exhaust duct 28 communicates with the outside of the building.

  According to the structure of this building, the air in the rooms of the separate rooms R2 to R5 is collected via the duct 100, intensively cleaned by the air cleaner 1, and returned to the rooms of the rooms R2 to R5 again. It is possible to concentrate the air purification of the room of the whole building or to clean the air for each room of the building, which is low cost and advantageous for energy saving. Furthermore, since the entire building can be ventilated through undercuts such as the doors of the rooms R2 to R5 by the ventilation mechanism, it is possible to control intensively including not only air cleaning but also ventilation.

  FIG. 20 shows a modification of the building structure of FIG. 19, and either or both of the dust sensor S1 and the odor sensor S2 are installed on the ceilings or walls of the rooms R2 to R5. The dust sensor S1 and the odor sensor S2 are connected to a control circuit 29, and the dust sensor S1 or the odor sensor in any of the rooms R2 to R5 is added to the drive program for the air supply motor 17 and the exhaust motor 18 of the microcomputer of the control circuit 29. When S2 detects dust or odor, the rotational speed of the air supply motor 17 or the exhaust motor 18 is increased to promote air purification and ventilation.

  Further, for example, air volume adjusting means such as a damper or a shutter is provided at a branching portion of the duct 101 that branches into each of the rooms R2 to R5, and a driving mechanism (motor, gear, cam, link mechanism, etc.) is provided in the damper or the shutter. ), A relay of commercial power supply is provided in a motor such as a damper or a shutter, and this relay is controlled by the control circuit 29, and the dust sensor S1 or the odor sensor S2 in any of the rooms R2 to R5 is provided. When no dust or odor is detected, the control circuit 29 may close the duct 101 branched by a shutter or a damper for the rooms R2 to R5 where no odor or dust is detected.

  FIG. 21 shows that the main body of the air cleaner 1 is installed on the ceiling of one room R2 (for example, a living room), and the air in the room R2 is cleaned and the room air is exhausted for circulation in the bottom plate portion of the air cleaner 1. An example in which air is sucked from the suction port 7 and the exhaust opening 25 will be described.

  Here, when the air is circulated, the purified air is sent out from the part of the duct 101 of the circulation outlet 26 to the room R2. For the other room R3 (living room), the room air is sucked in by the duct 100 to clean the air, and the air cleaned by the duct 101 is sent out to the room R3. For the rooms R4 and R5 (living room) The air can be purified by sucking room air through the duct 100 or the air cleaned by the duct 101 can be sent to the room R3.

  FIG. 22 shows a configuration example when either or both of the dust sensor S1 and the odor sensor S2 are installed in the rooms R3 and R4. Since the control method of the air cleaner 1 in this case is the same as that described with reference to FIG.

  In FIG. 23, the lighting switches S3 in the rooms R2 to R5 are connected as elements for controlling the control circuit 29. As shown in FIG. 24, when the lighting switch S3 is connected to a commercial power source, the control circuit 29 transmits a part of the current that is interrupted by the lighting switch S3 to the control circuit 29, so that the control circuit 29 can control the lighting switch S3. It can be detected that is turned on or turned off. If the lighting switch S3 is ON, the air supply motor 17 that controls the air cleaning function and the exhaust motor 18 that controls the exhaust perform normal automatic operation (there is also control of the number of rotations by the sensors S1 and S2). If S3 is OFF, the air supply motor 17 and the exhaust motor 18 perform automatic operation with a reduced air volume (there is also a control of the number of rotations by the sensors S1 and S2).

  As a result, it is possible to reduce the sound of a room where there is no person or a room that has gone to sleep, and a quiet sleep state can be secured.

  FIG. 25 shows the air cleaners 1 in a plurality of rooms connected by control lines. In the air purifier system of FIG. 25, when the operation of the air purifier 1 in a certain room R2 starts, the air purifiers 1 in the other rooms R3 and R4 also start to operate and draw a wider range of air. It is configured so that it can be cleaned.

  That is, when sensors or switches such as the dust sensor S1 or the odor sensor S2 are arranged in a plurality of indoor places (rooms R2 to R5, etc.), and any of those sensors or switches is turned on or turned off. The operation of the plurality of air purifiers 1 is started or stopped. The control circuit 29 of each air cleaner 1 is connected by a control line so that control signals can be exchanged with each other. When one of the air purifiers 1 is activated or the dust sensor S1 or the odor sensor S2 is turned on, the other air purifiers 1 also enhance the air purifying function and the exhaust function to purify and ventilate the entire building. Is what you do.

  FIG. 26 is a modification of FIG. 25, in which a plurality of air purifiers 1 are connected to each other by communication lines or control lines C1, and either or both of the dust sensor S1 and the odor sensor S2 of each air purifier 1 are used. When dust or odor is detected, the detection results are transmitted to each other, and air purification and exhaust (ventilation) are simultaneously performed with predetermined operation contents.

  For example, there may be a case where a plurality of air purifiers 1 perform control such as air cleaning or ventilation at the same time or at times determined at different times, air flow, or the like. Using a network device, it is also possible to command air cleaning from the outside, monitor air conditions, monitor indoor equipment, etc. In this example, a wide living room, corridor, etc. Air purification and ventilation of the room or the indoor space can be performed quickly at the same time.

  In FIG. 27, the air cleaner 1, the intermediate duct fan 110, and the pipe fan 111 are connected by control lines C1 and C2. The intermediate duct fan 110 includes a fan and a fan motor (not shown), and can suck air from the suction duct 112 and discharge the air sucked from the discharge duct 113 to the outside. In addition, the pipe fan 11 is configured to be able to discharge indoor air to the outdoors by rotating the motor to move the fan. Although the air cleaner 1 includes the exhaust duct 28, the exhaust duct 28 may be omitted. When either the dust sensor S1 or the odor sensor S2 built in the air purifier 1 senses dust or odor, the speed of the motor is increased so that the air purifier 1 also enhances the air purifying function and the exhaust function (ventilating function). At the same time, a control signal for increasing the rotational speed is also sent to the motors of the pipe fan 111 and the intermediate duct fan 110 to enhance the exhaust (ventilation) function. Therefore, the intermediate duct fan 110 and the pipe fan 111 can be connected to the microcomputer of the air purifier 1 so that these relays can be controlled without installing a microcomputer or the like by installing a relay or the like in the motor power circuit. The drive control of the intermediate duct fan 110 and the pipe fan 111 can be performed by the microcomputer control of the air purifier 1.

  In addition, the ventilation function of the air cleaner 1 is provided with a constant ventilation mode in which ventilation is performed for 24 hours (always), and in addition to the constant ventilation function of other ventilation devices of the intermediate duct fan 110 and the pipe fan 111. In total, the predetermined ventilation frequency (for example, 0.5 times / h) of the volume of the ventilation target area of the house (if the ventilation target area of the whole house or the ventilation target area for each floor when there are multiple houses) It comes to satisfy.

  When either the dust sensor S1 or the odor sensor S2 senses, the drive of the intermediate duct fan 110 and the pipe fan 111 is controlled to increase the rotation speed of the motor, but the room does not sense odor or dust. With regard to, by controlling the motor rotation speed to lower the ventilation air volume, the total ventilation is controlled so as to approach the constant ventilation volume.

  For example, when the pipe fan 111 is installed in a room where odor or dust is detected, the motor speed of the pipe fan 111 is increased to increase the ventilation amount. As the ventilation amount of the target area such as the entire house is decreased, the number of ventilations is controlled so as to satisfy a predetermined number of ventilations and to be constantly close to a constant value.

  Further, in the winter season, when the predetermined ventilation frequency (for example, 0.5 times / h) is reduced (for example, 0.3 times / h), only the intermediate duct fan 110 and the pipe fan 111 are driven, You may make it satisfy | fill predetermined ventilation frequency. Switching to the winter mode may be performed by a switch provided on the remote controller, or the date may be input to a remote controller installed in the room to automatically reduce the ventilation volume for 24-hour ventilation. . Furthermore, although the air cleaner 1 controls a plurality of ventilation devices such as the intermediate duct fan 110 and the pipe fan 111, other devices such as a ventilation device or a single device may be used. The sensor S1 or the odor sensor S2 is installed in the air cleaner 1, but may be installed in a remote controller or other room.

  FIGS. 28A and 28B show an example in which the intermediate duct fan 110 or the bathroom ventilator 120 is connected to the air cleaner 1 in the room R2. In this example, when the switch is turned on so that the air cleaner 1 is operated, or when odor or dust is detected by a sensor built in the air cleaner 1 or a sensor provided in the room, the intermediate duct fan 110 is used. Alternatively, the bathroom ventilator 120 is driven to ventilate the room air.

  In the operation of the intermediate duct fan 110, room air is sucked from the duct 114 in the room R2, and is discharged to the outside through the exhaust duct 112. In a room where the indoor air suction duct is not provided, the room air collected in the ducts 113, 114, 115 through the undercut portion U of the door is discharged indoors or outdoors. The bathroom ventilation device 120 may be a bathroom air conditioner such as a bathroom dryer having a clothes drying function or a heating function.

  FIG. 29 shows an example in which a ventilation device that is a supply / exhaust unit 116 is connected to the air cleaner 1 in the room R2. The heat exchange type ventilator 116 of FIG. 29 has the above-described 24-hour (above) ventilation function, and is provided with a heat exchanger such as a total heat exchanger, and an outside air introduction duct 117 and an outside air introduction fan (not shown). ), The outside air is taken in and supplied to the room via the air supply duct 118.

  In addition, indoor air is sucked through an undercut portion between the door and floor of each room, and an indoor air suction port provided on the lower surface of the main body of the heat exchange type ventilator installed at a predetermined position such as a hallway (Not shown) is sucked in by an exhaust fan (not shown). The indoor air sucked into the heat exchange type ventilator exchanges the outside air introduced into the heat exchange type ventilator with latent air and sensible heat by an outside air introduction fan (not shown), and is discharged to the outside. ing.

  Note that the heat exchanger of the heat exchange type ventilator does not exchange latent heat and sensible heat, but may be a sensible heat exchanger.

  When odors or dust are detected by the main body of the air cleaner 1 or a sensor provided in the room, the air cleaner 1 is operated to purify the room air, and the heat exchange type ventilator 116 is driven to remove the room air. Ventilate to exhaust and supply outside air into the room. The heat exchange type ventilator 116 may operate in conjunction with the air purifier 1 or may operate only with the ventilator 116.

  Instead of the heat exchange type ventilator 116, the air supply unit may be configured to supply outside air into the room. In this case, in conjunction with the intermediate duct fan 110 shown in FIG. 28 (a), outside air is supplied into the room by the air supply unit while operating the air cleaner 1 according to the detection result of the sensor. The indoor air may be discharged by the duct fan 110.

  The air purifier 1 has a continuous (24 hours) ventilation function that is driven continuously or intermittently, and can always discharge harmful substances such as formaldehyde and VOC, which have recently become problems. Further, the intermediate duct fan 110 in FIG. 28A and the bathroom ventilator 120 in FIG. 28B also have a 24-hour (always) ventilation function, and the volume of a predetermined area is 0.5% of the volume of the entire house. The ventilation frequency of times / hour (h) is satisfied.

  In this case, only the intermediate duct fan 110 and the bathroom ventilator 120 may satisfy the ventilation frequency, but in that case, there is a possibility that the apparatus such as the fan or the motor will be enlarged. However, by using the ventilation function of the air cleaner 1, the ventilation function of the air cleaner 1, the intermediate duct fan 110, the bathroom ventilator 120, etc. can be obtained without increasing the size of the intermediate duct fan 110 and the bathroom ventilator 120. The constant ventilation function of multiple devices makes it possible to meet the required ventilation frequency of the house.

  In winter, the predetermined ventilation frequency (for example, 0.5 times / h) may be decreased (for example, 0.3 times / h). In that case, the motor speed is controlled to be lowered so that the ventilation amount during the 24-hour constant ventilation function (mode) of the intermediate fact fan 110 and the bathroom ventilation device 120 is lowered. Switching to the weak ventilation mode such as winter mode can be done with the switch provided on the remote controller. When the date is entered in the remote controller installed in the room and it becomes winter, it is automatically 24 hours. You may make it reduce the ventilation volume of ventilation.

  When the dust sensor S1 and the odor sensor S2 are detected and the ventilation amount is increased by increasing the rotation amount of the ventilation motor 18 of the air cleaner 1, the fan motors of the intermediate duct fan 110 and the bathroom ventilation device 120 are increased. Control is performed so that the rotation speed is low and the ventilation volume is reduced, so that the entire house is close to a constant air volume.

Sectional drawing which shows the structure of the air cleaner concerning embodiment of this invention. The bottom view seen from the lower side of the ceiling of the air cleaner of FIG. The block diagram which shows the connection state of the control circuit of the air cleaner of FIG. FIG. 4 is a list summarizing operations related to on / off of sensors in the control circuit of FIG. Sectional view on the AA line of the other air cleaner with a ventilation function shown in FIG. The top view of the other air cleaner with a ventilation function. The CC sectional view taken on the line of the other air cleaner with a ventilation function shown in FIG. The side view of the other air cleaner with a ventilation function shown in FIG. FIG. 9 shows another embodiment of the air cleaner with a ventilation function. FIG. 10 shows another embodiment of the air cleaner with a ventilation function. FIG. 11 shows a case where an air cleaner is installed on the wall of the room. FIG. 12 shows a case where an air purifier is installed in the wall of the room. FIG. 13 shows an air purifier 80 that circulates and cleans the air in the installed room. FIG. 14 shows a modification of the air cleaner 80 of FIG. FIG. 15 shows an example in which the air cleaner of FIG. 14 is further modified. FIG. 16 shows an air purifier for purifying the air in the installation room. FIG. 17 shows what used the function of the air cleaner of FIG. 15, FIG. 16 together. The example of duct installation of the air cleaner with a ventilation function is shown. The air cleaner of FIG. 19 shows what is provided with the ventilation mechanism. FIG. 20 shows a modification of the building structure of FIG. FIG. 21 shows an example in which an air purifier is installed in one room and air is sucked from the exhaust opening of the air purifier for air purification in other rooms and exhaust of indoor air. FIG. 22 shows a configuration example when either or both of a dust sensor and an odor sensor are installed in a room. In FIG. 23, the lighting switches S3 in the rooms R2 to R5 are connected as elements for controlling the control circuit 29. FIG. 25 is an operation mode list of the control circuit of FIG. 24. FIG. 25 shows the air cleaners 1 in a plurality of rooms connected by control lines. FIG. 26 is a modification of FIG. FIG. 27 shows an example in which an air cleaner, an intermediate duct fan, and a pipe fan are connected by a control line. FIG. 28A shows an example in which an intermediate duct fan or bathroom ventilation fan is connected to the air cleaner in the room, and FIG. 28B shows a configuration in which air is sucked from an undercut of a door partitioning the house room. FIG. 28C is a block diagram of a control circuit of the air purifier of FIG. FIG. 29 shows an example in which a ventilation device or a bathroom ventilation fan as an air supply unit is connected to an air cleaner in a room.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Air cleaner 2 Case 3 Outside air introduction air path 4 Supply air fan mechanism 5 Exhaust air path 6 Exhaust fan mechanism 7 Circulation suction port 8 Dust-proof filter S1 Dust sensor S2 Odor sensor S3 Lighting switch 9 Ion decomposition unit (decomposition processing means) )

Claims (7)

  One end of an air distribution duct that supplies purified air is connected to the cleaned air outlet of the purifier body that purifies the air, and the other end of the air distribution duct is cleaned. An air purifier system characterized in that the air purifier system extends to a place away from the machine body and is connected to an indoor outlet.   One end of a suction duct that sucks in air before cleaning is connected to the air suction port of the cleaner body that purifies air before cleaning, and the other end of the suction duct is separated from the cleaner body. The air purifier system is characterized in that it is extended to a certain place and connected to the indoor suction port. One end of a suction duct that sucks in air before cleaning is connected to the air inlet of the cleaner before purifying air, and the other end of the suction duct is separated from the cleaner body. And connect to the indoor air inlet,
One end of an air distribution duct that supplies purified air is connected to the cleaned air outlet of the cleaner body, and the other end of the air distribution duct is connected to the cleaner body. An air purifier system that extends to a distant place and is connected to an indoor outlet. In the air cleaner system in any one of Claims 1 thru | or 3,
An air purifier system, wherein at least one of an indoor air suction port or a blow-out port for blowing out purified air is provided on the lower surface of the main body. In the air cleaner system in any one of Claims 1 thru | or 4,
An air purifier system, wherein at least one of the indoor air outlet or the indoor air inlet is connected to another room. In the air cleaner system in any one of Claims 1 thru | or 5,
An air purifier system comprising a ventilation means for exhausting indoor air and / or a supply means for supplying outside air. In the air cleaner system in any one of Claims 1 thru | or 6,
The air cleaner is provided with a decomposition processing means having a decomposition function of sterilizing airborne bacteria in the air or decomposing harmful substances in the air.

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