JP2014016045A - Air conditioning controller and air conditioning system - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an air conditioning controller capable of controlling a blower according to various environments and of widening an air conditioning control range, and provide an air conditioning system.SOLUTION: One or plural blowers F are configured to enable switching between a task mode for locally blowing air in a residence room R and an ambient mode for circulating air in the residence room R. An air conditioning controller 1 includes an information acquisition unit 12 for acquiring environmental information for controlling the blower F, and a control unit 11 for operating each blower F in the task mode or the ambient mode on the basis of the environmental information acquired by the information acquisition unit 12.

Description

  The present invention relates to an air conditioning control device and an air conditioning system.

  Conventionally, in order to adjust the thermal environment in a space such as a dwelling unit, office, store, etc., a blower such as a fan or a ventilation fan has been used (for example, see Patent Document 1).

  And there exists an air-conditioning system which controls an air blower according to environment for the purpose of providing a comfortable thermal environment to the user in space (for example, refer patent document 2).

JP 2011-58753 A JP-A-62-266348

  The air blowing control includes air blowing (task mode) for the purpose of blowing air locally in a predetermined space and air blowing (ambient mode) for the purpose of circulating air in the predetermined space.

  However, in the conventional air conditioning system, it was not possible to use one air blower by switching between the task mode and the ambient mode. That is, the conventional air conditioning system uses one air blower only in the task mode or only in the ambient mode. Therefore, in the conventional air conditioning system, it is difficult to control the blower according to various environments, and the control range of the air conditioning is narrow.

  The present invention has been made in view of the above reasons, and an object thereof is to provide an air conditioning control device and an air conditioning system capable of controlling the blower according to various environments and widening the control range of the air conditioning. There is to do.

  The air conditioning control device of the present invention can switch between a first air blowing mode for the purpose of locally blowing air in a space and a second air blowing mode for the purpose of circulating air in the space. An air conditioning control device that controls each operation of one or more blowers configured in the above, an information acquisition unit that acquires environmental information including at least one of time information and space information inside and outside the space, and the information And a control unit configured to operate each of the air blowing devices in the first air blowing mode or the second air blowing mode based on the environmental information obtained by the obtaining unit.

  In this invention, the control unit operates an air conditioner having at least one of a cooling function and a heating function for adjusting a thermal environment in the space based on the environmental information acquired by the information acquisition unit. Is preferably controlled.

  In this invention, it is preferable that the said control part controls operation | movement of the window opening / closing apparatus which opens and closes the window part which makes the said space communicate outside based on the said environment information which the said information acquisition part acquired.

  In this invention, it has the storage part which memorized the correspondence of the life scene defined based on the environment information, and the operation pattern which set up each operation of the air blower, and the control part is the information acquisition part It is preferable that the life scene is selected based on the environmental information acquired by and each of the blower devices is operated with the operation pattern corresponding to the selected life scene.

  The air conditioning system of the present invention can switch between a first air blowing mode for the purpose of locally blowing air in the space and a second air blowing mode for the purpose of circulating air in the space. Based on the environmental information acquired by the information acquisition unit, the information acquisition unit that acquires environmental information including at least one of the one or more configured blowers, time information, and space information inside and outside the space, And a control unit that operates each of the air blowing devices in the first air blowing mode or the second air blowing mode.

  In this invention, it is preferable that an outside air introduction port for introducing outside air into the space is provided, and the blower is installed in the outside air introduction port or in the vicinity of the outside air introduction port.

  As described above, in the present invention, by individually switching the operation of each blower to the task mode and the ambient mode, the blower can be controlled according to various environments, and the control range of the air conditioning can be widened. There is an effect that can be done.

It is a block diagram showing the whole air-conditioning system composition of this embodiment. It is the schematic which shows the specific structural example of a living room same as the above. It is a graph which shows the operation | movement pattern corresponding to a normal scene same as the above. It is a graph which shows the operation | movement pattern corresponding to a dinner scene and a supper scene same as the above. It is a graph which shows the operation | movement pattern corresponding to a morning preparation scene and a cleaning scene same as the above. It is a graph which shows the operation | movement pattern corresponding to a returning home scene same as the above. It is a graph which shows the operation | movement pattern corresponding to a sleeping scene same as the above and a nap scene. It is a graph which shows the operation | movement pattern corresponding to a bathing scene same as the above. It is a graph which shows the operation | movement pattern corresponding to a going out scene same as the above. It is a table | surface figure which shows a control mode same as the above. It is a table | surface figure which shows a ventilation mode same as the above. It is the schematic which shows operation | movement of task mode same as the above. It is the schematic which shows operation | movement of ambient mode same as the above. It is a table | surface figure which shows scene setting information same as the above. It is a table | surface figure which shows the scene-pattern corresponding | compatible information of a morning preparation scene same as the above. It is a table | surface figure which shows the scene-pattern correspondence information of a normal scene same as the above.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings.

(Embodiment)
FIG. 1 shows an overall configuration of an air conditioning system using an air conditioning control device 1 of the present embodiment. The dwelling unit H in which this system is installed has living rooms Ra, Rb, Rc. . . , Entrance E, bathroom (bathroom + washroom) B, etc.

  Then, the living rooms Ra, Rb, Rc. . . Includes a blower Fa, Fb, Fc,. . . Is installed. Thereafter, the rooms Ra, Rb, Rc. . . Is referred to as room R, and blowers Fa, Fb, Fc,. . . Is referred to as blower F. In FIG. 1, only the living rooms Ra, Rb, and Rc are shown, but the other living rooms R are configured in a similar manner.

  The air blower F has a task mode (first air blowing mode) for the purpose of locally blowing air in the living room R and an ambient mode (second air blowing) for the purpose of circulating air in the living room R. Mode). The air blower F switches between the task mode and the ambient mode by adjusting the air blowing direction and the air volume. Adjustment of the blowing direction and the air volume of the blower F is controlled by the air conditioning controller 1.

  The living rooms Ra, Rb, Rc. . . The air conditioners Ca, Cb, Cc. . . , Window opening and closing devices Ma, Mb, Mc. . . , Room temperature detectors 2a, 2b, 2c. . . , Human detection units 3a, 3b, 3c. . . , Outside air inlets 4a, 4b, 4c. . . Are installed. Thereafter, the air conditioners Ca, Cb, Cc. . . Are not referred to as the air conditioner C, and the window opening / closing devices Ma, Mb, Mc. . . Is not referred to as a window opening and closing device M. Also, the room temperature detectors 2a, 2b, 2c. . . Are not distinguished from each other, they are referred to as a room temperature detection unit 2 and human detection units 3a, 3b, 3c. . . Are not distinguished from each other, they are referred to as a human detection unit 3 and are referred to as outside air inlets 4a, 4b, 4c. . . Are referred to as the outside air inlet 4.

  The air conditioner C has a cooling function and a heating function for adjusting the thermal environment of the living room R. The air conditioner C may have at least one of a cooling function and a heating function.

  The window opening and closing device M has a function of opening and closing a window portion that allows the living room R to communicate with the outside, and is configured by a motor or the like.

  The room temperature detection unit 2 has a function of detecting the room temperature of the room R, and the person detection unit 3 detects the presence / absence of a person in the room R.

  The outside air introduction port 4 has a function of introducing outside air into the living room R, and can switch opening and closing of the outside air introduction.

  Next, at the entrance E, a lock / unlock detection unit 5 that detects locking / unlocking of the entrance door and a person detection unit 6 that detects the presence / absence of a person inside the entrance E are installed.

  Next, in the bathroom B, a lighting state detection unit 7 that detects whether the lighting of the bathroom B is turned on or off is installed. The lighting state detection unit 7 detects, for example, the operating state of the illumination switch that operates lighting on / off.

  Further, outside the dwelling unit H, an outside air temperature detection unit 8 that detects the outside air temperature is installed.

  Here, each detection result of the room temperature detection unit 2, the person detection unit 3, the locking / unlocking detection unit 5, the person detection unit 6, the lighting state detection unit 7, and the outside air temperature detection unit 8 is spatial information inside and outside the room R, The environment information of the present invention is configured. That is, the environmental information includes the room temperature of the room R detected by the room temperature detection unit 2, the presence / absence status of the room R detected by the person detection unit 3, and the locking status of the entrance E detected by the locking / unlocking detection unit 5. . Furthermore, the environmental information includes the presence / absence status of the entrance E detected by the person detection unit 6, the lighting / extinction status of the bathroom B detected by the lighting state detection unit 7, and the outside temperature detected by the outside temperature detection unit 8. It is. Further, time information described later is time information of the present invention, and this time information is also included in the environment information of the present invention.

  FIG. 2 shows a specific configuration example of the living rooms Ra to Rc.

  In the living room Ra, a sofa Xa1 and a bed Xa2 are installed, the air blower Fa1 is provided in the vicinity of the sofa Xa1, and the air blower Fa2 is provided in the vicinity of the bed Xa2. The living room Ra is provided with two window portions Wa1 and Wa2, and a window opening and closing device Ma1 for opening and closing the window portion Wa1 and a window opening and closing device Ma2 for opening and closing the window portion Wa2. Furthermore, in the living room Ra, an air conditioner Ca, a room temperature detection unit 2a, a human detection unit 3a, and an outside air introduction port 4a are installed.

  In the living room Rb, a set of a chair Xb1 and a desk Xb2 is installed, and the blower Fb1 is provided in the vicinity of the desk Xb2. The living room Rb is provided with one window Wb1 and a window opening / closing device Mb1 for opening and closing the window Wb1. Furthermore, a room temperature detection unit 2b, a person detection unit 3b, and an outside air inlet 4b are installed in the living room Rb.

  In the living room Rc, a set of a chair Xc1 and a desk Xc2 and a bed Xc3 are installed, and a blower Fc1 is provided in the vicinity of the desk Xc2. The living room Rc is provided with one window Wc1, and a window opening and closing device Mc1 for opening and closing the window Wc1 is installed. Furthermore, in the living room Rc, an air conditioner Cc, a room temperature detection unit 2c, a human detection unit 3c, and an outside air introduction port 4c are installed.

  And this air conditioning system is provided with the air-conditioning control apparatus 1 and the input part 9, and the air-conditioning control apparatus 1 and the input part 9 are installed in the dwelling unit H (refer FIG. 1).

  The air conditioning control device 1 includes a control unit 11, an information acquisition unit 12, and a storage unit 13.

  The information acquisition part 12 acquires each detection signal of the room temperature detection part 2, the person detection part 3, the locking / unlocking detection part 5, the person detection part 6, the lighting state detection part 7, and the outside air temperature detection part 8 as environmental information. Further, the information acquisition unit 12 is provided with a clock function for measuring time, and acquires this time information as environment information.

  The storage unit 13 correlates the life scene defined based on the environmental information described above with the operation patterns in which the operations of the blower F, the air conditioner C, the window opening / closing device M, and the outside air inlet 4 are set (scene -Referred to as pattern correspondence information). That is, each operation | movement of the air blower F, the air conditioner C, the window opening / closing apparatus M, and the external air introduction port 4 is set for every life scene.

  Life scenes include “normal scene”, “dinner scene”, “supper scene”, “morning preparation scene”, “cleaning scene”, “homecoming scene”, “sleeping scene”, “nap scene”, “bath rising scene” And “outing scene”. 3 is an operation pattern P1 corresponding to a normal scene, FIG. 4 is an operation pattern P2 corresponding to a dinner scene and a supper scene, FIG. 5 is an operation pattern P3 corresponding to a morning preparation scene and a cleaning scene, and FIG. Indicates an operation pattern P4 corresponding to the homecoming scene. 7 shows an operation pattern P5 corresponding to a sleeping scene and a nap scene, FIG. 8 shows an operation pattern P6 corresponding to a bathing scene, and FIG. 9 shows an operation pattern P7 corresponding to an outing scene.

  Each of the operation patterns P1 to P7 operates in one of the control modes K1 to K7 shown in FIG. 10 according to the room temperature detected by the room temperature detection unit 2 and the outside air temperature detected by the outside air temperature detection unit 8. Note that the operation patterns P1 to P7 shown in FIG. 3 to FIG. 9 indicate summer operations, and the air conditioner C performs cooling operation.

  The control mode K1 controls the blower F: off, the air conditioner C: off, the window opening / closing device M: closed, and the outside air inlet 4: open.

  The control mode K2 controls the blower F: off, the air conditioner C: off, the window opening / closing device M: open, and the outside air inlet 4: open.

  The control mode K3 controls the blower F: task mode, the air conditioner C: off, the window opening / closing device M: closed, and the outside air inlet 4: open.

  The control mode K4 controls the blower F: task mode, the air conditioner C: off, the window opening / closing device M: open, and the outside air inlet 4: open.

  The control mode K5 controls the blower F: ambient mode, the air conditioner C: on, the window opening / closing device M: closed, and the outside air inlet 4: open.

  The control mode K6 controls the blower F: task mode, the air conditioner C: on, the window opening / closing device M: closed, and the outside air inlet 4: open.

  The control mode K7 controls the blower F: ambient mode, the air conditioner C: off, the window opening / closing device M: open, and the outside air inlet 4: open.

  As shown in FIG. 3, the operation pattern P1 corresponding to the normal scene is composed of control modes K1, K2, K3, K4, and K5. The control mode K1 is used when “room temperature <T11” or “T11 ≦ room temperature <T12 and room temperature <outside temperature”. The control mode K2 is used when “T11 ≦ room temperature <T12 and room temperature ≧ outside temperature”. The control mode K3 is used when “T12 ≦ room temperature <T13 and room temperature <outside temperature”. The control mode K4 is used when “T12 ≦ room temperature <T13 and room temperature ≧ outside temperature”. The control mode K5 is used when “room temperature ≧ T13”.

  As shown in FIG. 4, the operation pattern P2 corresponding to the dinner scene and the supper scene is composed of control modes K1, K2, K3, K4, and K5. The control mode K1 is used when “room temperature <T21” or “T21 ≦ room temperature <T22 and room temperature <outside temperature”. The control mode K2 is used when “T21 ≦ room temperature <T22 and room temperature ≧ outside temperature”. The control mode K3 is used when “T22 ≦ room temperature <T23 and room temperature <outside temperature”. The control mode K4 is used when “T22 ≦ room temperature <T23 and room temperature ≧ outside temperature”. The control mode K5 is used when “room temperature ≧ T23”.

  As shown in FIG. 5, the operation pattern P3 corresponding to the morning preparation scene and the cleaning scene is composed of control modes K1, K2, and K5. The control mode K1 is used when “room temperature <T31” or “T31 ≦ room temperature <T32 and room temperature <outside temperature”. The control mode K2 is used when “T31 ≦ room temperature <T32 and room temperature ≧ outside temperature”. The control mode K5 is used when “room temperature ≧ T32”.

  As shown in FIG. 6, the operation pattern P4 corresponding to the homecoming scene is configured with control modes K1, K2, K3, K4, and K5. The control mode K1 is used when “room temperature <T41” or “T41 ≦ room temperature <T42 and room temperature <outside temperature”. The control mode K2 is used when “T41 ≦ room temperature <T42 and room temperature ≧ outside temperature”. The control mode K3 is used when “T42 ≦ room temperature <T43 and room temperature <outside temperature”. The control mode K4 is used when “T42 ≦ room temperature <T43 and room temperature ≧ outside temperature”. The control mode K5 is used when “room temperature ≧ T43”.

  As shown in FIG. 7, the operation pattern P5 corresponding to the sleeping scene and the nap scene is composed of control modes K1, K2, and K5. The control mode K1 is used when “room temperature <T51” or “T51 ≦ room temperature <T52 and room temperature <outside temperature”. The control mode K2 is used when “T51 ≦ room temperature <T52 and room temperature ≧ outside temperature”. The control mode K5 is used when “room temperature ≧ T52”.

  As shown in FIG. 8, the operation pattern P6 corresponding to the bath-up scene is composed of control modes K1, K3, K4, and K6. The control mode K1 is used when “room temperature <T61”. The control mode K3 is used when “T61 ≦ room temperature <T62 and room temperature <outside temperature”. The control mode K4 is used when “T61 ≦ room temperature <T62 and room temperature ≧ outside temperature”. The control mode K6 is used when “room temperature ≧ T62”.

  As shown in FIG. 9, the operation pattern P7 corresponding to the going-out scene is composed of control modes K1, K2, and K7. The control mode K1 is used when “room temperature <T71” or “T71 ≦ room temperature and room temperature <outside temperature”. The control mode K2 is used when “T71 ≦ room temperature <T72 and room temperature ≧ outside temperature”. The control mode K7 is used when “T72 ≦ room temperature and room temperature ≧ outside temperature”.

  And each operation | movement of the task mode and ambient mode of the air blower F currently installed in each living room R is selected from eight ventilation modes S1-S8 shown in FIG. In addition, in FIG. 11, ventilation mode S1-S3 is ambient mode and ventilation mode S4-S8 is task mode.

  The air blowing mode S1 is “air blowing direction: horizontal, air volume: weak, mode: ambient mode”. The air blowing mode S2 is “the air blowing direction: 45 degrees obliquely upward, the air volume: weak, and the mode: ambient mode”. The air blowing mode S3 is controlled to “the air blowing direction: 45 degrees obliquely below, the air volume: weak, mode: ambient mode”.

  The air blowing mode S4 is “air blowing direction: horizontal, air volume: strong, mode: task mode”. The air blowing mode S5 is “the air blowing direction: obliquely downward 30 degrees, the air volume: strong, mode: task mode”. The air blowing mode S6 is “air blowing direction: 45 degrees obliquely below, air volume: strong, mode: task mode”. The air blowing mode S7 is “air blowing direction: obliquely upward 30 degrees, air volume: strong, mode: task mode”. The air blowing mode S8 is “air blowing direction: obliquely upward 45 degrees, air volume: strong, mode: task mode”.

  In the task modes of the air blowing modes S4 to S8, the air volume is strong, and the air blowing direction is a direction in which the wind directly hits the user. In each living room R of the dwelling unit H, it is considered that the user's whereabouts are determined to some extent, such as sofas, beds, chairs and the like. Therefore, when the task mode is used, a suitable mode is selected from the air blowing modes S4 to S8, and the air is blown toward the furniture X such as a sofa, a bed, and a chair in each living room R (see FIG. 12).

  Further, the ambient mode of the air blowing modes S1 to S3 has a low air volume, and the air blowing direction is a direction suitable for circulating the air in the room R. When the ambient mode is used, a mode having a suitable air blowing direction is selected from the air blowing modes S1 to S3 in consideration of the position of the air conditioner C and the direction of cool air or warm air sent out into the room R by the air conditioner C ( (See FIG. 13).

  Each setting of the task mode and the ambient mode in each room R is performed by the operation of the input unit 9 by the user, and the input unit 9 transmits the blowing mode setting information of the blowing mode to the air conditioning control device 1. In the air conditioning control device 1, the air blowing mode setting information is stored in the storage unit 13.

  For example, the air blower Fa1 [task mode: air blow mode S4, ambient mode: air blow mode S2] and air blower Fa2 [task mode: air blow mode S6, ambient mode: air blow mode S1] are set. Also, the blower Fb1 [task mode: blower mode S5, ambient mode: blower mode S2] and blower Fc1 [task mode: blower mode S6, ambient mode: blower mode S1] are set.

  Further, the user operates the input unit 9 to define a life scene, and inputs a necessary target time and target place (scene setting information) for each life scene. The input unit 9 transmits this scene setting information to the air conditioning control device 1. In the air conditioning control device 1, scene setting information is stored in the storage unit 13.

  FIG. 14 shows the contents of the scene setting information. In the dinner scene, the target time: “18:00 to 19:00”, the target place: “dining” is input, and in the supper scene, the target time: “22:00 to 23:00”, and the target place: “living room” is input. . Further, in the morning preparation scene, the target time: “7 o'clock to 8 o'clock” and the target place: “living room” are input, and in the cleaning scene, the target time: “10 o'clock to 12 o'clock” is input. Further, for the sleeping scene, the target time “24:00 to 6 o'clock” and the target place “bedroom, child room” are input, and for the nap scene, the target time “13:00 to 16:00” and the target place “living room” are input. The target time “20:00 to 23:00” is input to the bath rising scene. It should be noted that the input of the target location in the scene setting information is omitted for a life scene (for example, a cleaning scene, a bathing scene, etc.) in which the target location is determined in advance.

  Then, the control unit 11 of the air conditioning control device 1 reflects the target time and the target place for each life scene in the scene-pattern correspondence information in the storage unit 13. The life scene may be defined based on other environmental information in addition to the above-described target time and target location. Hereinafter, the definition and operation of each life scene will be described.

  First, the control unit 11 determines that a dinner scene occurs in the dining from 18:00 to 19:00, and the operations of the blower F, the air conditioner C, the window opening and closing device M, and the outside air inlet 4 of the dining are illustrated in FIG. Control is performed according to the operation pattern P2 shown in FIG. However, if the dining person detection unit 3 does not detect a person at 18:00 to 19:00, the control unit 11 controls each operation of the dining blower F and the air conditioner C to be off.

  Further, the control unit 11 determines that a supper scene occurs in the living room from 22:00 to 23:00, and the operations of the air blower F, the air conditioner C, the window opening / closing device M, and the outside air inlet 4 in the dining room are illustrated in FIG. Control is performed according to the operation pattern P2 shown in FIG. However, if the living person detection unit 3 does not detect a person at 22:00 to 23:00, the control unit 11 controls each operation of the air blower F and the air conditioner C in the living room to be off.

  Further, the control unit 11 determines that a morning preparation scene occurs in the living room from 7:00 to 8:00, and illustrates operations of the blowing device F, the air conditioning device C, the window opening and closing device M, and the outside air inlet 4 in the living room. Control is performed according to an operation pattern P3 shown in FIG. However, if the living person detection unit 3 does not detect a person at time 7:00 to 8:00, the control unit 11 controls each operation of the air blower F and the air conditioner C in the living room to be turned off. FIG. 15 shows the scene-pattern correspondence information of the morning preparation scene, and the operation pattern P3 shown in FIG. 5 is associated with environment information such as time information.

  Moreover, the control part 11 judges that a cleaning scene generate | occur | produces in all living rooms R from the time of 10:00 to 12:00, and each operation | movement of the air blower F of all the living rooms R, the air conditioner C, the window opening / closing apparatus M, and the external air inlet 4 is carried out. Is controlled according to the operation pattern P3 shown in FIG.

  Further, the control unit 11 reads, “Within 15 seconds after the person detecting unit 6 detects the presence of a person in the entrance E, the locking / unlocking detecting unit 5 detects unlocking, and then within 300 seconds, When the person detecting unit 3 in the living room R detects the presence of a person, it is determined that a return home scene will occur for 20 minutes thereafter in the living room R where the living room and the person exist. And the control part 11 controls each operation | movement of the ventilation apparatus F of the dining room, the air conditioner C, the window opening / closing apparatus M, and the external air introduction port 4 according to the operation pattern P4 shown in FIG.

  Further, the control unit 11 determines that a sleeping scene occurs in the bedroom and the child room from 24:00 to 6:00, and the air blower F, the air conditioner C, the window opening and closing device M, and the outside air inlet 4 of the bedroom and the child room are set. Each operation is controlled according to an operation pattern P5 shown in FIG. When operating in the control mode K2 in the sleeping scene, it is necessary to perform the opening control by the window opening and closing device M in consideration of the security surface.

  In addition, after the person detection unit 3 in the living room detects the presence of a person at the time from 13:00 to 16:00, when the control unit 11 does not detect the movement of the person for 30 minutes or more, a nap scene occurs in the living room. Judge that For example, when a pyroelectric element is used for the human detection unit 3, the control unit 11 determines that a nap scene has occurred if there is no response for 30 minutes after the human detection unit 3 has reacted. And the control part 11 controls each operation | movement of the ventilation apparatus F of the living room, the air conditioning apparatus C, the window opening / closing apparatus M, and the external air introduction port 4 according to the operation pattern P5 shown in FIG. 7 in a nap scene. When the nap scene is generated and the person detection unit 3 in the living room detects the movement of the person, the process returns to the normal scene described later. In addition, when operating in the control mode K2 in a nap scene, it is necessary to perform the opening control by the window opening and closing device M in consideration of the security surface.

  In addition, the control unit 11 performs the following 20 minutes in the living room R where the human detection unit 3 detects the presence of a person within 30 seconds after the lighting of the bathroom B is switched from on to off at 20:00 to 23:00. Therefore, it is determined that a bathing scene has occurred. Then, in the bathing scene, the control unit 11 performs the operations of the air blower F, the air conditioner C, the window opening / closing device M, and the outside air inlet 4 in the living room R where the person exists in an operation pattern P6 illustrated in FIG. Therefore, control.

  Further, the controller 11 detects that the outing scene occurs when the person detection units 3 and 6 do not detect the presence of a person for 30 minutes after the locking / unlocking detection unit 5 detects the locking of the entrance door. Judge that And the control part 11 controls each operation | movement of the air blower F of all the living rooms R, the air conditioner C, the window opening / closing apparatus M, and the external air inlet 4 in the going-out scene according to the operation pattern P7 shown in FIG. In addition, when operating in the control mode K2 in an outing scene, it is necessary to perform the opening control by the window opening and closing device M with sufficient consideration of the security surface.

  In this outing scene, when “T72 ≦ room temperature and room temperature ≧ outside air temperature”, the operation is performed in the control mode K7, the window opening and closing device M opens the window portion, and the outside air introduction port 4 is controlled to open. Operate F in ambient mode. Therefore, when the user is not in the dwelling unit H, ventilation using outside air is promoted so that heat is not accumulated in the dwelling unit H.

  Furthermore, by disposing the blower F in the outside air inlet 4 or in the vicinity of the outside air inlet 4, the introduction of outside air when going out is further promoted, and the ventilation effect is improved. As a result, the discomfort of the user who came home to the hot house D is reduced, leading to an improvement in comfort. Furthermore, the improvement of the ventilation effect increases the time during which cooling (cooling and heating depending on the situation) is unnecessary, leading to energy saving.

  In addition, the control unit 11 performs the above-mentioned “dinner scene”, “supper scene”, “morning preparation scene”, “cleaning scene”, “homecoming scene”, “sleeping scene”, “nap scene”, “bath rising scene”. If no “outing scene” or the like has occurred, it is determined that a normal scene has occurred. And the control part 11 controls each operation | movement of the air blower F of all the living rooms R, the air conditioner C, the window opening / closing apparatus M, and the external air inlet 4 in the normal scene according to the operation pattern P1 shown in FIG. However, the control unit 11 controls each operation of the air blower F and the air conditioner C in the living room R where the human detection unit 3 does not detect a person in a normal scene. FIG. 16 shows scene-pattern correspondence information of a normal scene, and the operation pattern P1 shown in FIG. 3 is associated with environment information such as time information.

  Thus, in this embodiment, since the operation of each blower F can be individually switched between the task mode and the ambient mode, the user can enjoy a more comfortable thermal environment suitable for a living scene. . The task mode is intended to blow air locally in the living room R, and directs air to the users in the living room R to control the local thermal environment. On the other hand, the ambient mode is intended to circulate air in the living room R, and makes the thermal environment of the entire living room R uniform to control the thermal environment of the entire living room R. Therefore, by individually switching the operation of each blower F to the task mode and the ambient mode, the blower F can be controlled according to various environments, and the control range of the air conditioning can be widened.

  In addition, the control unit 11 includes the “normal scene”, “dinner scene”, “supper scene”, “morning preparation scene”, “cleaning scene”, “homecoming scene”, “sleeping scene”, “nap scene”, In the “bath-up scene”, when the room temperature is higher than the predetermined temperature, the control mode K5 or K6 is used. That is, by using the control mode K5 or K6 to link the air blower F and the air conditioner C, in the ambient mode, the cool air of the air conditioner C can reach the entire space, and the user's comfort Improves. Further, by linking the blower F and the air conditioner C, in the task mode, it is possible to suppress wasteful air conditioning of the space heat accumulation, leading to energy saving.

  Moreover, the control part 11 has the window opening-and-closing apparatus M controlling opening of a window part, when using control mode K2, K4 in each above-mentioned life scene. In other words, the use of outside air can be promoted by interlocking the blower F and the window opening and closing device M. As a result, the user can obtain a cool feeling without causing the air-conditioning apparatus C to perform the cooling operation, and both of ensuring comfort and saving energy can be achieved.

  Further, by performing air conditioning control for each living scene based on the environment information, a comfortable thermal environment can be provided to the user in various environments without impairing energy saving performance.

  Further, the winter operation in which the air conditioner C performs the heating operation can be controlled in substantially the same manner based on the technical idea of the present invention, and the air blower F can be controlled according to various environments in the winter. The control range can be increased.

DESCRIPTION OF SYMBOLS 1 Air-conditioning control apparatus 11 Control part 12 Information acquisition part 13 Storage part H Dwelling unit R (Ra, Rb, ...) Living room F (Fa, Fb, ...) Blower

Claims (6)

One or more configured to be switchable between a first blowing mode for the purpose of blowing air locally in the space and a second blowing mode for the purpose of circulating air in the space. An air conditioning control device for controlling each operation of the blower,
An information acquisition unit that acquires environmental information including at least one of time information and space information inside and outside the space;
An air conditioning control device comprising: a control unit that operates each of the blower devices in the first blow mode or the second blow mode based on the environmental information acquired by the information acquisition unit.   The control unit controls the operation of an air conditioner having at least one of a cooling function and a heating function for adjusting a thermal environment in the space based on the environmental information acquired by the information acquisition unit. The air-conditioning control apparatus according to claim 1.   The said control part controls operation | movement of the window opening / closing apparatus which opens and closes the window part which makes the said space communicate outside based on the said environmental information which the said information acquisition part acquired. Air conditioning control device. A storage unit storing a correspondence relationship between a life scene defined based on the environment information and an operation pattern in which each operation of the blower is set;
The control unit selects the life scene based on the environment information acquired by the information acquisition unit, and operates each of the blower devices with the operation pattern corresponding to the selected life scene. The air conditioning control device according to any one of claims 1 to 3. One or more configured to be switchable between a first blowing mode for the purpose of blowing air locally in the space and a second blowing mode for the purpose of circulating air in the space. A blower;
An information acquisition unit that acquires environmental information including at least one of time information and space information inside and outside the space;
An air conditioning system comprising: a control unit that operates each of the blower devices in the first blow mode or the second blow mode based on the environmental information acquired by the information acquisition unit. An outside air introduction port for introducing outside air into the space;
The air conditioning system according to claim 5, wherein the blower is installed in the outside air inlet or in the vicinity of the outside air inlet.

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