JPWO2018179350A1 - Control device, air conditioning system, air conditioning control method, and program - Google Patents

Abstract

In the control device (2), the temperature acquisition unit (201) acquires the air temperature in the first area and the air temperature in the second area different from the first area. The solar radiation amount acquisition unit (203) acquires the solar radiation amount of the first area. The temperature adjustment unit (204) includes a solar radiation shielding device (8) and a second area that shield the solar radiation entering the second area based on the air temperatures of the first area and the second area and the solar radiation amount of the first area. The air temperature in the first area is adjusted by controlling the blower (7) that sends the air to the first area.

Description

  The present invention relates to a control device, an air conditioning system, an air conditioning control method, and a program.

  In recent years, zero energy houses (ZEH) that efficiently use energy have attracted attention. In relation to this, a so-called HEMS (Home Energy Management System) that manages electric power used in general households has become widespread. In HEMS, in addition to an air conditioner and a ventilation device, a technology for automatically controlling a solar radiation shielding device such as an electric blind, an electric shutter, an electric awning, or an electric curtain is also known.

  A technique (for example, Patent Document 1) for reducing an air conditioning load such as an air conditioner or a ventilator using such a solar shading device has been proposed.

  In patent document 1, in summer, in order to reduce the energy consumption in the cooling operation of an air conditioner, introduction of sunlight into a room is restricted by adjusting the angle of the slats of the solar shading device. On the other hand, in winter, in order to reduce the energy consumption due to the heating operation of the air conditioner, the introduction of sunlight into the room is promoted by adjusting the angle of the slats.

JP 2007-277833 A

  However, for users who place importance on indoor lighting, it is against the intention that the solar shading device is controlled in a direction that restricts the introduction of sunlight into the indoors, and users who place importance on privacy protection. Therefore, it can be said that it is contrary to the intention that the solar shading device is controlled in such a direction as to promote the introduction of sunlight into the room.

  Thus, if the solar radiation shielding device that shields the solar radiation entering the air conditioning target area is simply controlled from the viewpoint of energy reduction, the comfort of the user in the air conditioning target area may be impaired.

  The present invention has been made to solve the above-described problems, and an object of the present invention is to provide a control device and the like that can achieve the effect of energy reduction without impairing the comfort of the user in the air-conditioning target area.

In order to achieve the above object, a control device according to the present invention provides:
Temperature acquisition means for acquiring an air temperature of the first area and an air temperature of a second area different from the first area;
A solar radiation amount obtaining means for obtaining the solar radiation amount of the first area;
Communication means for communicating with solar radiation shielding means for shielding solar radiation entering the second area and air blowing means for sending air in the second area to the first area;
Temperature adjustment for adjusting the air temperature of the first area by controlling the solar radiation shielding means and the air blowing means based on the air temperature of each of the first area and the second area and the amount of solar radiation of the first area. Means.

  According to the present invention, an energy reduction effect can be obtained without impairing the comfort of the user in the first area (that is, the air-conditioning target area).

The figure which shows the structure of the air conditioning system which concerns on Embodiment 1 of this invention. In Embodiment 1, the figure for demonstrating installation of an air conditioner, an air blower, and a solar radiation shielding apparatus FIG. 3 is a block diagram showing a hardware configuration of the control device according to the first embodiment. The block diagram which shows the function structure of the control apparatus which concerns on Embodiment 1. FIG. The flowchart which shows the procedure of the air-conditioning control process in Embodiment 1. The flowchart which shows the procedure of the air-conditioning control process in the modification 1 of Embodiment 1. The figure which shows an example of the approval reception screen in the modification 2 of Embodiment 1. The figure which shows the other example of the approval reception screen in the modification 2 of Embodiment 1. FIG. The figure which shows an example of the advice screen in the modification 3 of Embodiment 1. The figure which shows the other example of the advice screen in the modification 3 of Embodiment 1. FIG. The block diagram which shows the function structure of the control apparatus which concerns on Embodiment 2 of this invention. The figure for demonstrating the effect of the air-conditioning control by the control apparatus which concerns on Embodiment 2 of this invention.

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

(Embodiment 1)
An air conditioning system 1 according to Embodiment 1 of the present invention shown in FIG. 1 is a system that performs air conditioning of at least one room in a house H, and includes a control device 2, an operation terminal 3, a power generation facility 4, and an air conditioner. 5, an air conditioner 6, a blower 7, and a solar shading device 8.

  The control device 2 is installed at an appropriate place in the house H, and controls the air conditioning system 1 in an integrated manner. In the present embodiment, the control device 2 is an energy management controller that constitutes a so-called HEMS (Home Energy Management System) that manages electric power used in a general household. Details of the control device 2 will be described later.

  The operation terminal 3 includes an input device such as a push button, a touch panel, a touch pad, a display device such as an organic EL display or a liquid crystal display, and a communication interface, for example, a personal computer, a smartphone, a tablet terminal, or a wall-mounted remote controller. Etc. is a smart device. The operation terminal 3 communicates with the control device 2 in accordance with a known communication standard such as Wi-Fi (registered trademark), Wi-SUN (registered trademark), or a wired LAN. The operation terminal 3 receives an operation from the user and transmits information indicating the received operation content to the control device 2. Further, the operation terminal 3 receives the information transmitted from the control device 2 and presented to the user, and displays the received information. In this way, the operation terminal 3 plays a role as an interface (so-called user interface) with the user.

  The power generation facility 4 is a photovoltaic power generation facility including a PV (photovoltaic) panel 40 and a PV-PCS 41 that is a power conditioning system. The PV panel 40 is installed on the roof of the house H, and generates power by converting solar energy into electric energy. The PV-PCS 41 converts DC power generated by the power generation of the PV panel 40 into AC power and supplies the AC power to a distribution board (not shown) installed in the house H.

  The PV-PCS 41 includes a wireless communication interface, and is connected to the control device 2 through a wireless network (not shown) built in the house H so as to be communicable. This wireless network is, for example, a network conforming to ECHONET Lite. In response to a request from the control device 2, the PV-PCS 41 periodically (for example, 1) indicates information (hereinafter referred to as power generation information) indicating power output from the power generation facility 4 (hereinafter referred to as generated power). Every minute).

  The air conditioner 5 and the air conditioner 6 are wall-hanging indoor units that are communicably connected to the same or different outdoor units (not shown) installed outdoors via a communication line (not shown), It is connected by a refrigerant pipe for circulation.

  As shown in FIG. 2, the air conditioner 5 is installed in the room A of the house H, and the air conditioner 6 is installed in the room B of the house H. The room A is an example of the first area in the present invention, and the room B is an example of the second area. A user who is a resident of the house H operates a dedicated remote controller for each of the air conditioner 5 and the air conditioner 6 (both not shown), for example, for each of the air conditioner 5 and the air conditioner 6, The start or stop of the cooling operation, the heating operation, the air blowing operation or the dehumidifying operation can be instructed, and the change of the set temperature (that is, the target temperature) or the wind force can be instructed.

  The air conditioner 5 and the air conditioner 6 include a wireless communication interface, and are communicably connected to the control device 2 via the above-described wireless network. Each of the air conditioner 5 and the air conditioner 6 may be connected to this wireless network via an external communication adapter (not shown).

  The control device 2 can instruct each of the air conditioner 5 and the air conditioner 6 by communication to start or stop the same instruction as above, that is, the cooling operation, the heating operation, the air blowing operation, or the dehumidifying operation. In addition, a change in set temperature (ie, target temperature) or wind power can be commanded.

  Further, in response to a request from the control device 2, the air conditioner 5 transmits information indicating the current operation state of the air conditioner 5 (hereinafter referred to as first air conditioning information) to the control device 2. The first air conditioning information includes an ID (identification) of the air conditioner 5, information indicating any of the cooling operation, the heating operation, the air blowing operation, the dehumidifying operation, and the operation stop, the set temperature and the wind force. The information which shows and the information which shows the air temperature of the room A measured by the temperature sensor 50 with which the air conditioner 5 is provided are contained.

  Similarly to the air conditioner 5, the air conditioner 6 also transmits information indicating the current operation state of the air conditioner 6 (hereinafter referred to as second air condition information) to the control device 2 in response to a request from the control device 2. The second air conditioning information includes the ID of the air conditioner 6, information indicating any of the cooling operation, the heating operation, the air blowing operation, the dehumidifying operation, or the operation stop, and the information indicating the set temperature and the wind force. The information which shows the air temperature of the room B measured by the temperature sensor 60 with which the air conditioner 6 is provided is contained.

  Each of the air conditioner 5 and the air conditioner 6 may spontaneously transmit the first air conditioning information and the second air conditioning information to the control device 2 at a constant time interval (for example, every one minute).

  The air blower 7 is an example of the air blowing means in the present invention, and is installed in a vent hole 90 provided in the wall 9 that partitions the room A and the room B as shown in FIG. The ventilation hole 90 allows air to flow between the room A and the room B. The blower 7 is, for example, a centrifugal fan or a multiblade fan driven by a DC fan motor or the like. The blower 7 includes a wireless communication interface and is communicably connected to the control device 2 via the above-described wireless network. The blower 7 may be connected to this wireless network via an external communication adapter (not shown). The start and stop of driving of the blower 7 are switched based on an instruction from the control device 2.

  The solar shading device 8 is an example of the solar shading means in the present invention, and is, for example, an external electric blind. The solar radiation shielding device 8 is installed to cover the window WB of the room B from the outdoor side, and is a device for shielding the solar radiation that enters through the window WB. A user operates a dedicated remote controller (not shown) of the solar shading device 8 to instruct the solar shading device 8 to change the angle of a slat (also referred to as a louver) (hereinafter referred to as a blind angle). it can. For example, the user can change the blind angle to 0 °, 45 °, or 90 ° via the remote control. When the blind angle is 0 ° (ie, fully closed), the solar radiation shielding rate is the highest, and when the blind angle is 90 ° (ie, fully open), the solar radiation shielding rate is the lowest. Thereby, the user can adjust the solar radiation which enters the room B to a favorite grade.

  The solar radiation shielding device 8 includes a wireless communication interface and is communicably connected to the control device 2 via the above-described wireless network. In addition, the solar radiation shielding apparatus 8 may be connected to this wireless network via an external communication adapter (not shown). The control apparatus 2 can instruct | indicate the instruction | indication similar to the above, ie, the change of a blind angle, with respect to the solar radiation shielding apparatus 8 by communication.

  As illustrated in FIG. 3, the control device 2 includes a processor 20, a communication interface 21, a ROM (Read Only Memory) 22, a RAM (Random Access Memory) 23, and a secondary storage device 24. These components are connected to each other via a bus 25. The processor 20 controls the control device 2 in an integrated manner. Details of the functions of the control device 2 realized by the processor 20 will be described later.

  The communication interface 21 includes a network card for wirelessly communicating with the PV-PCS 41, the air conditioner 5, the air conditioner 6, and the blower 7 via the wireless network described above, and a network card for wirelessly or wiredly communicating with the operation terminal 3. It is comprised including. The communication interface 21 is an example of a communication unit provided in the control device according to the present invention.

  The ROM 22 stores a plurality of firmware and data used when executing these firmware. The RAM 23 is used as a work area for the processor 20.

  The secondary storage device 24 includes a nonvolatile semiconductor memory such as an EEPROM (Electrically Erasable Programmable Read-Only Memory) or a flash memory, a HDD (Hard Disk Drive), or the like. The secondary storage device 24 stores an air-conditioning program that is a program for air-conditioning a room to be controlled (in this embodiment, room A) and data used when the air-conditioning program is executed. In addition, the secondary storage device 24 stores at least one program for managing power consumed in the home and data used when each program is executed.

  FIG. 4 is a block diagram illustrating a functional configuration of the control device 2. Functionally, the control device 2 includes an air conditioning information acquisition unit 200, a temperature acquisition unit 201, a power generation amount acquisition unit 202, a solar radiation amount acquisition unit 203, and a temperature adjustment unit 204. Each of these functional units is realized by the processor 20 executing an air conditioning program stored in the secondary storage device 24.

  The air conditioning information acquisition unit 200 requests the air conditioner 5 and the air conditioner 6 to transmit air conditioning information periodically (for example, every minute). Upon receiving such a request, the air conditioner 5 and the air conditioner 6 transmit the above-described first air conditioning information and second air conditioning information to the control device 2, respectively. When the air conditioning information acquisition unit 200 acquires the first air conditioning information from the air conditioner 5 via the communication interface 21, the operating state of the air conditioner 5 included in the first air conditioning information is associated with the current time and is not illustrated. Store in a table. Similarly, when the air conditioning information acquisition unit 200 acquires the second air conditioning information from the air conditioner 6 via the communication interface 21, the operation state of the air conditioner 6 included in the second air conditioning information is associated with the current time. Store in state table.

  The operation state table is a data table for managing the operation states of the air conditioner 5 and the air conditioner 6, and is stored in the secondary storage device 24.

  The temperature acquisition unit 201 is an example of a temperature acquisition unit provided in the control device according to the present invention. The temperature acquisition unit 201 acquires the air temperature measured by the temperature sensor 50, that is, the air temperature of the room A, from the first air conditioning information from the air conditioner 5. Further, the temperature acquisition unit 201 acquires the air temperature measured by the temperature sensor 60, that is, the air temperature of the room B, from the second air conditioning information from the air conditioner 6. The temperature acquisition unit 201 notifies the temperature adjustment unit 204 of the acquired air temperature of the room A and the air temperature of the room B.

  The power generation amount acquisition unit 202 requests the PV-PCS 41 to transmit power generation information periodically (for example, every minute). When receiving such a request, the PV-PCS 41 transmits the power generation information indicating the generated power output from the power generation facility 4 to the control device 2 as described above. When the power generation amount acquisition unit 202 acquires the power generation information from the PV-PCS 41 via the communication interface 21, the power generation amount acquisition unit 202 notifies the solar radiation amount acquisition unit 203 of the generated power included in the power generation information.

  The solar radiation amount acquisition unit 203 is an example of the solar radiation amount acquisition means provided in the control device according to the present invention. The solar radiation amount acquisition unit 203 acquires the solar radiation amount of the room A by calculating the solar radiation amount from the generated power acquired by the power generation amount acquisition unit 202. The solar radiation amount acquisition unit 203 calculates the solar radiation amount of the room A in consideration of window information such as the direction, position, size, solar radiation shielding performance, and presence / absence of the glaze of the window WA in the room A, which is input in advance by the user. .

  The temperature adjustment unit 204 is an example of a temperature adjustment unit provided in the control device according to the present invention. The temperature adjustment unit 204 adjusts the air temperature of the room A by controlling the blower 7 and the solar shading device 8 based on the air temperature of the room A, the air temperature of the room B, and the amount of solar radiation of the room A.

  FIG. 5 is a flowchart showing a procedure of air conditioning control processing executed by the temperature adjustment unit 204. The temperature adjustment unit 204 executes the air conditioning control process periodically (for example, every minute). The content of the air conditioning control process described below along the flowchart of FIG. 5 mainly corresponds to the summer when the outside air temperature is high.

  In step S <b> 101, the temperature adjustment unit 204 determines whether or not the air temperature in the room A exceeds the set temperature (that is, the target temperature) of the air conditioner 5. When the air temperature in the room A does not exceed the set temperature (step S101; NO), the temperature adjustment unit 204 ends the air conditioning control process in this cycle. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  On the other hand, when the air temperature in the room A exceeds the set temperature (step S101; YES), the temperature adjustment unit 204 has exceeded the predetermined threshold value for the amount of solar radiation in the room A acquired by the solar radiation amount acquisition unit 203. It is determined whether or not there is (step S102). This threshold value is determined based on, for example, an energy amount that can increase the air temperature in the room A by 1 ° C.

  When the amount of solar radiation in the room A does not exceed the threshold value (step S102; NO), the temperature adjustment unit 204 ends the air conditioning control process in this cycle. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  When the amount of solar radiation in the room A exceeds the threshold (step S102; YES), the temperature adjustment unit 204 instructs the solar radiation shielding device 8 to close (step S103). Specifically, the temperature adjustment unit 204 transmits shielding control information indicating an instruction to change the blind angle to 0 ° to the solar shading device 8. If the blind angle of the solar radiation shielding device 8 is already 0 °, the temperature adjustment unit 204 may not transmit the shielding control information to the solar radiation shielding device 8.

  The temperature adjustment unit 204 determines whether or not the air temperature in the room B is lower than the air temperature in the room A (step S104). If the air temperature in the room B is not lower than the air temperature in the room A, that is, if the air temperature in the room B is equal to or higher than the air temperature in the room A (step S104; NO), the temperature adjustment unit 204 performs air conditioning in this cycle. The control process ends. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  On the other hand, when the air temperature in the room B is lower than the air temperature in the room A (step S104; YES), the temperature adjustment unit 204 instructs the blower 7 to start driving (step S105). Specifically, the temperature adjustment unit 204 transmits drive control information indicating a drive start instruction to the blower 7. When the blower 7 is driven, that is, starts to rotate, the air in the room B is sucked into the vent hole 90 and flows into the room A. In this case, the warm air in the room A corresponding to the amount that has flowed in flows out to the outside through a ventilation port provided in the room A or a gap between doors. In addition, when the air blower 7 is already driving, the temperature adjustment unit 204 may not transmit the drive control information to the air blower 7. Thereafter, the temperature adjustment unit 204 ends the air conditioning control process in this cycle.

  Although not shown in the flowchart of FIG. 5, the temperature adjustment unit 204 instructs the blower 7 to stop driving when the air temperature in the room B becomes equal to or higher than the air temperature in the room A after the drive start instruction to the blower 7. To do. Thereby, the inflow of air from the room B to the room A is stopped.

  As described above, according to the air conditioning system 1 of the first embodiment, when the air temperature of the room A, which is the air conditioning target area, is higher than the set temperature and the influence of the solar radiation on the air temperature of the room A is large, Shield solar radiation entering room B. When the air temperature in the room B decreases and becomes lower than the room A, the air in the room B is sent to the room A. Thereby, the raise of the air temperature of the room A can be suppressed. As a result, the load during the cooling operation of the air conditioner 5 in the room A can be reduced, and an energy reduction effect can be obtained.

  Further, since the above-described temperature adjustment is realized by controlling the solar shading device 8 installed in the room B different from the air-conditioned room A, the electric blind similar to the solar shading device 8 in the room A is used. Even if it is a case where etc. are not installed, the raise of the air temperature of the room A can be suppressed.

  Further, even if an electric blind or the like similar to the solar shading device 8 is installed in the room A, the electric blind or the like is not controlled for the temperature adjustment. In other words, the closing operation is not performed even when the user blindly puts the electric blind or the like in order to positively capture sunlight and actively take in sunlight. For this reason, the lighting environment of the room A is maintained, and the user's comfort is not impaired.

  Note that, as described above, the air conditioning control process described above is executed particularly in the summer (that is, when the air conditioner 5 performs the air conditioning operation), and thus a special effect is expected as described above. You can do it. However, in addition to solar radiation, internal heat generated in the room A (due to a user or a heat generating device) may cause the winter (that is, the time when the air conditioner 5 is air-conditioned by the heating operation of the air conditioner 5) or the intermediate period (summer). Even during winter, the air temperature in the room A may exceed the set temperature. In such a case, by executing the air conditioning control process described above, it is possible to suppress the rise of the room A while suppressing the load on the air conditioner 5.

(Modification 1)
As a first modification of the first embodiment, an air conditioning control process when it is desired to increase the air temperature in the room A in winter or the like will be described.

  FIG. 6 is a flowchart illustrating a procedure of air-conditioning control processing executed by the temperature adjustment unit 204 of the control device 2 according to the first modification of the first embodiment. The temperature adjustment unit 204 executes this air conditioning control process periodically (for example, every minute).

  In step S <b> 201, the temperature adjustment unit 204 determines whether or not the air temperature in the room A is lower than the set temperature (that is, the target temperature) of the air conditioner 5. If the air temperature in the room A is not lower than the set temperature, that is, if the air temperature in the room A is equal to or higher than the set temperature (step S201; NO), the temperature adjustment unit 204 ends the air conditioning control process in this cycle. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  On the other hand, when the air temperature in the room A is lower than the set temperature (step S201; YES), the temperature adjustment unit 204 determines whether the solar radiation amount of the room A acquired by the solar radiation amount acquisition unit 203 exceeds a predetermined threshold value. Is determined (step S202). As described above, this threshold is determined based on the amount of energy that can increase the air temperature in the room A by 1 ° C., for example.

  When the solar radiation amount of the room A does not exceed the threshold value (step S202; NO), the temperature adjustment unit 204 ends the air conditioning control process in this cycle. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  When the amount of solar radiation in the room A exceeds the threshold (step S202; YES), the temperature adjustment unit 204 instructs the solar radiation shielding device 8 to open (step S203). Specifically, the temperature adjustment unit 204 transmits shielding control information indicating an instruction to change the blind angle to 90 ° to the solar shading device 8. If the blind angle of the solar radiation shielding device 8 is already 90 °, the temperature adjustment unit 204 may not transmit the shielding control information to the solar radiation shielding device 8.

  The temperature adjustment unit 204 determines whether or not the air temperature in the room B is higher than the air temperature in the room A (step S204). When the air temperature in the room B is not higher than the air temperature in the room A, that is, the air temperature in the room B is equal to or lower than the air temperature in the room A (step S204; NO), the temperature adjustment unit 204 performs air conditioning in this cycle. The control process ends. In this case, if the air conditioner 5 in the room A is in operation, the air conditioner 5 continues to air-condition the room A.

  On the other hand, when the air temperature in the room B is higher than the air temperature in the room A (step S204; YES), the temperature adjustment unit 204 instructs the blower 7 to start driving (step S205). Specifically, the temperature adjustment unit 204 transmits drive control information indicating a drive start instruction to the blower 7. When the blower 7 is driven, that is, starts to rotate, the air in the room B is sucked into the vent hole 90 and flows into the room A. In this case, the cold air in the room A corresponding to the inflow is discharged to the outside through a ventilation port provided in the room A or a gap between doors. In addition, when the air blower 7 is already driving, the temperature adjustment unit 204 may not transmit the drive control information to the air blower 7. Thereafter, the temperature adjustment unit 204 ends the air conditioning control process in this cycle.

  Although not shown in the flowchart of FIG. 6, the temperature adjustment unit 204 instructs the blower 7 to stop driving when the air temperature in the room B becomes equal to or lower than the air temperature in the room A after the drive start instruction to the blower 7. To do. Thereby, the inflow of air from the room B to the room A is stopped. In synchronism with this, the temperature adjusting unit 204 instructs the solar shading device 8 to close.

  As described above, according to the air conditioning system 1 of the first modification of the first embodiment, the air temperature in the room A that is the air conditioning target area is lower than the set temperature, and the influence of the solar radiation on the air temperature in the room A is affected. If it is larger, the solar radiation is taken into the room B. When the air temperature in the room B rises and becomes higher than the room A, the air in the room B is sent to the room A. Thereby, the fall of the air temperature of the room A can be suppressed. As a result, the load during the heating operation of the air conditioner 5 in the room A can be reduced, and an energy reduction effect can be obtained.

  Further, since the above-described temperature adjustment is realized by controlling the solar shading device 8 installed in the room B different from the air-conditioned room A, the electric blind similar to the solar shading device 8 in the room A is used. Even if it is a case where etc. are not installed, the fall of the air temperature of the room A can be suppressed.

  Further, even if an electric blind or the like similar to the solar shading device 8 is installed in the room A, the electric blind or the like is not controlled for the temperature adjustment. That is, even when the user places importance on protecting the privacy and dares to make the electric blinds fully closed, the opening operation is not performed and the user is not inconvenienced or uncomfortable. .

(Modification 2)
The control device 2 accepts a determination as to whether or not to approve the operation of the solar shading device 8 from the user before instructing the solar shading device 8 to open or close, and when the user approves, You may make it instruct | indicate an opening operation or a closing operation with respect to the solar radiation shielding apparatus 8. FIG. In this case, the control device 2 displays an approval reception screen as shown in FIGS. 7 and 8 on the operation terminal 3 or a smartphone or the like possessed by the user. When the “Yes” button on the approval reception screen is pressed by the user, the control device 2 determines that the user has approved, and instructs the solar shading device 8 to open or close.

  If it does in this way, when a person exists in the room B, the situation which a problem will arise if the solar radiation shielding apparatus 8 is controlled automatically can be avoided.

(Modification 3)
When the air temperature in the room A is higher or lower than the set temperature, the control device 2 may notify the user that the effect of energy reduction can be obtained by shielding or capturing the solar radiation in the room A. In this case, the control device 2 displays an advice screen as shown in FIGS. 9 and 10 on the operation terminal 3 or a smartphone or the like possessed by the user.

  In this way, the user can be made aware of energy reduction, and the user can determine whether or not to block or capture solar radiation. For this reason, significant information regarding energy reduction can be given to the user, and when the user agrees and executes, the air temperature in the room A can be adjusted more efficiently.

(Modification 4)
When a solar shading device such as an external electric blind similar to the solar shading device 8 is installed in the room A and the solar shading device can be controlled by the control device 2, the control device 2 obtains approval from the user. On the condition, you may make it instruct | indicate an opening operation | movement or a closing operation | movement with respect to this solar radiation shielding apparatus. Also in this case, the control apparatus 2 should just display the approval reception screen similar to FIG.7 and FIG.8 on the operation terminal 3 or the smart phone etc. which a user possesses.

  Even in this way, it is possible to prevent the operation of shielding or taking in sunlight against the user's will, and if the user approves, it will block or take in the sunlight in the room A that is the air-conditioning target area. It becomes possible to adjust the air temperature of the room A efficiently, and energy can be further reduced.

(Modification 5)
The control device 2 further includes a presence / absence determining unit (an example of a presence / absence determining unit) that determines whether or not a person in the room A, which is the air-conditioning target area, exists. You may perform the above-mentioned air-conditioning control processing (refer FIG. 5 or FIG. 6). For example, the presence / absence determining unit may determine that there is a person when the air conditioner 5 in the room A is operating. Alternatively, the presence / absence of a person in the room A may be determined based on the occupancy schedule information registered in advance in the control device 2 by the user. Alternatively, a human sensor may be installed in the room A and connected to the control device 2 via the wireless network described above so as to be communicable. In this case, the presence / absence determining unit determines the presence / absence of a person according to the detection result of the human sensor.

(Modification 6)
In the above-described embodiment and the first modification of the embodiment, the air in the room B is caused to flow into the room A by the blower 7, and further, the air in the room A is caused to flow into the room B, that is, the air in the room A. And the air in the room B may be circulated.

(Embodiment 2)
Then, the air conditioning system 1 which concerns on Embodiment 2 of this invention is demonstrated. In the following description, components and the like that are common to the first embodiment are denoted by the same reference numerals and description thereof is omitted.

  In Embodiment 2, the control apparatus 2 controls the air blower 7 and the solar radiation shielding apparatus 8 according to the schedule created previously, and air-conditions the room A which is an air-conditioning object area.

  FIG. 11 is a block diagram illustrating a functional configuration of the control device 2 according to the second embodiment. The control device 2 of the present embodiment includes a power generation amount acquisition unit 202, a solar radiation amount acquisition unit 203, a temperature adjustment unit 204, an outside air temperature acquisition unit 205, a solar radiation amount prediction unit 206, and a shielding schedule creation unit 207. The room temperature predicting unit 208 and the air blowing schedule creating unit 209 are provided.

  The outside air temperature acquisition unit 205 acquires the outside air temperature. Specifically, the measured value of the outside air temperature sensor, that is, the outside air temperature is acquired through communication with an outside air temperature sensor (not shown) that measures the outside air temperature. This outside air temperature sensor is installed on the roof of the house H, for example, and is communicably connected to the control device 2 via the wireless network described above.

  The outside air temperature acquisition unit 205 stores the acquired outside air temperature in the outside air temperature history table 210 in association with the current time. The outside air temperature history table 210 is a data table for managing the outside air temperature history, and is stored in the secondary storage device 24.

  The solar radiation amount prediction unit 206 is an example of the solar radiation amount prediction means provided in the control device according to the present invention. The solar radiation amount predicting unit 206 refers to the solar radiation amount history table 211 and predicts the transition of the solar radiation amount in a predetermined period of the room A (for example, from 6 am to 6 pm on that day). The solar radiation amount history table 211 is a data table for managing the solar radiation amount history, and is stored in the secondary storage device 24. In the present embodiment, when the solar radiation amount acquisition unit 203 calculates the solar radiation amount by the same method as in the first embodiment, the solar radiation amount acquisition unit 203 stores the calculated solar radiation amount in the solar radiation amount history table 211 in association with the current time.

  For example, the solar radiation amount predicting unit 206 predicts the transition of the solar radiation amount in the above period from the history of the solar radiation amount on the previous day. At that time, the solar radiation amount prediction unit 206 may predict the transition of the solar radiation amount in consideration of the weather forecast acquired by communicating with an external server via a wide area network such as the Internet. The solar radiation amount prediction unit 206 stores the predicted solar radiation amount transition in the secondary storage device 24 or the RAM 23.

  The shielding schedule creation unit 207 refers to the occupancy schedule table 212, and schedules to block the solar radiation in the room B, that is, a schedule for controlling the blind angle of the solar radiation shielding device 8 to 0 ° (hereinafter referred to as a shielding schedule). Create The occupancy schedule table 212 is a data table in which the occupancy schedules of the room A and the room B are registered, and is stored in the secondary storage device 24. The user can register the occupancy schedule of the room A or the room B in the occupancy schedule table 212 by operating the operation terminal 3 and specifying the room and the time zone.

  The shielding schedule creation unit 207 detects the absence period of the user by referring to the occupancy schedule in the occupancy schedule table 212 in a predetermined period of the room B (for example, from 6 am to 6 pm on that day). And the shielding schedule preparation part 207 produces the shielding schedule scheduled so that the blind angle of the solar radiation shielding apparatus 8 may be controlled to 0 degree (namely, fully closed) in the detected absent period. The shielding schedule creation unit 207 stores the created shielding schedule in the secondary storage device 24 or the RAM 23.

  The room temperature predicting unit 208 is an example of a temperature predicting unit included in the control device according to the present invention. The room temperature predicting unit 208 predicts the transition of the room temperature (that is, the air temperature) in each of the room A and the room B in a predetermined period (for example, from 6 am to 6 pm on that day). The room temperature transition of the room A is an example of a first temperature transition in the present invention, and the room temperature transition of the room B is an example of a second temperature transition in the present invention. For example, the room temperature prediction unit 208 predicts the change in the room temperature of the room A from the change in the solar radiation amount predicted by the solar radiation amount prediction unit 206 and the history of the outside temperature on the previous day. In addition, the room temperature prediction unit 208 predicts a change in the room temperature of the room B based on, for example, the change in the solar radiation amount predicted by the solar radiation amount prediction unit 206, the history of the outside air temperature on the previous day, and the shielding schedule. The room temperature prediction unit 208 stores the predicted room temperature transitions of the room A and the room B in the secondary storage device 24 or the RAM 23.

  The air blow schedule creation unit 209 drives the air blower 7 based on the predicted transition of the room temperature of each of the room A and the room B and the latest set temperature of the air conditioner 5 in the room A (hereinafter referred to as the air blow schedule). ). Specifically, when it is predicted that the air temperature in the room A will be higher than both the set temperature and the air temperature in the room B at a certain time, the air blowing schedule creation unit 209 determines a predetermined time from the time. Schedule to drive the blower 7 before. The blow schedule creation unit 209 stores the created blow schedule in the secondary storage device 24 or the RAM 23.

  The shielding schedule creation unit 207 and the air blowing schedule creation unit 209 are examples of schedule creation means provided in the control device of the present invention. Moreover, said shielding schedule is an example of the 1st schedule in this invention, and said air blowing schedule is an example of the 2nd schedule in this invention.

  The temperature adjustment unit 204 controls the solar shading device 8 according to the shielding schedule, and executes an air conditioning control process for controlling the blower 7 according to the blowing schedule.

  Thus, according to the present embodiment, the control device 2 predicts the change in the amount of solar radiation in the room A, the change in the air temperature in the room A, and the change in the air temperature in the room B, and these prediction results. The blower 7 and the solar shading device 8 are controlled according to a schedule created in advance based on the above. For this reason, the cooling load of the air conditioner 5 in the room A can be efficiently reduced.

  FIG. 12 is a diagram for explaining the effect of air conditioning control by the control device 2 according to the second embodiment. In FIG. 12, the broken line indicates an example of the transition of the air temperature in the room A when the air conditioning control process is not performed by the temperature adjustment unit 204. The thin line indicates an example of the transition of the air temperature in the room B when the air conditioning control process is performed by the temperature adjustment unit 204, and the thick line indicates an example of the transition of the air temperature in the room A when the air conditioning control process is performed. Is shown.

  As shown in FIG. 12, the air temperature in the room A is reduced to around room temperature in the time zone (12:00 to 18:00) in which the user is present in the room A in the solar radiation time zone (for example, 6:00 to 18:00) in summer. Can be lowered.

(Modification 1)
When it is desired to increase the air temperature in the room A in winter or the like, the shielding schedule creation unit 207 performs scheduling so as to control the blind angle of the solar shading device 8 to 90 ° (that is, fully open) in the absence period of the user in the room B. Create an occlusion schedule. In addition, when it is predicted that the air temperature in the room A will be lower than both the set temperature and the air temperature in the room B at a certain time, the air blowing schedule creation unit 209 may be a predetermined time before the time. By scheduling so as to drive the blower 7, a blow schedule is created.

(Modification 2)
The blow schedule creation unit 209 may create a blow schedule in consideration of the user's occupancy schedule in the room A. Specifically, in the summer season, the air blowing schedule creation unit 209 predicts that the air temperature at a certain time will be higher than both the set temperature and the air temperature in the room B on condition that the user is in the room A. In the case of being performed, the air blowing schedule is created by scheduling the air blower 7 to be driven before the predetermined time.

  In the winter season, the air blowing schedule creation unit 209 predicts that the air temperature at a certain time will be lower than both the set temperature and the air temperature in the room B on condition that the user is in the room A. In this case, the air blowing schedule is created by scheduling the air blower 7 to be driven before the predetermined time.

(Modification 3)
The shielding schedule creation unit 207 sets the blind angle of the shielding device 8 to 0 ° (in the case of summer) during the above period (for example, from 6 am to 6 pm on that day) regardless of the user's occupancy schedule in the room B. Or you may create the shielding schedule scheduled so that it may control to 90 degrees (in the case of winter).

  The present invention is not limited to the above-described embodiments, and various modifications can be made without departing from the scope of the present invention.

  For example, the solar radiation shielding device 8 may be an electric shutter, an electric awning, an electric curtain, or the like.

  There are also various methods for acquiring the amount of solar radiation in the room A. For example, a solar radiation amount sensor that measures the solar radiation amount may be installed on the outside of the house H, and may be connected to the control device 2 via the wireless network described above. In this case, the solar radiation amount acquisition unit 203 has the measurement result of the solar radiation amount sensor and the window information such as the direction, position, size, solar radiation shielding performance, or presence / absence of wrinkles input in advance by the user in the room A. Based on the above, the amount of solar radiation in the room A can be calculated. Alternatively, the solar radiation amount acquisition unit 203 may calculate the solar radiation amount of the room A based on the outdoor solar radiation amount acquired by communicating with an external server via a wide area network such as the Internet and the above window information. Good. As described above, when the solar radiation amount is not calculated using the generated power, the power generation equipment 4 can be excluded from the configuration of the air conditioning system 1, and the power generation amount acquisition unit 202 can be excluded from the functional configuration of the control device 2.

  In addition, the air-conditioning target area and other areas that send air to the air-conditioning target area are not necessarily partitioned by a wall or the like. In this case, the blower 7 is installed on a ceiling, a horizontal wall, a back wall, or the like in the other area.

  Moreover, you may make it the structure which can flow in with respect to the room A which is an air-conditioning object area not only from the room B but from one or several other rooms. In this case, the control device 2 may send air to the room A from all the rooms satisfying the conditions of step S104 in FIG. 5 or step S204 in FIG. Alternatively, air may be sent to the room A from a plurality of rooms. For example, the control device 2 may send air to the room A from a room where the user is not present. Alternatively, the control device 2 changes the room temperature from the room where the air temperature is lower than the air temperature of the room A by a predetermined temperature or more in the summer, to the room A from the room where the air temperature is higher than the air temperature of the room A by the winter. You may make it send air.

  Further, the air-conditioning target area does not need to be fixed. For example, in the case where a solar shading device similar to the solar shading device 8 such as an electric blind is installed in the room A and can be controlled by the control device 2, the room A or the room B may be appropriately selected as the air conditioning target area. . For example, the control device 2 may select the room where the user is present as the air-conditioning target area, or may select the time zone. In this case, it is possible to switch the air flow direction between the room A and the room B by switching the rotation direction of the blower 7 (that is, forward rotation or reverse rotation). Alternatively, a ventilation hole different from the ventilation hole 90 is provided in the wall 9, and a blower different from the blower 7 is installed in the ventilation hole, and the blower is driven so that air flows from the room A to the room B. It may be.

  Further, the control device 2 may further include at least one of an input device for accepting an operation from the user and a display device for presenting information to the user.

  Moreover, you may transfer at least one part of each function part (refer FIG. 4 or FIG. 11) of the control apparatus 2 mentioned above to the cloud server connected so that communication with the control apparatus 2 via the internet is possible. In this case, the control apparatus 2 should just acquire the process result of the said function part by communication from a cloud server.

  In each of the above-described embodiments, each function unit (see FIG. 4 or FIG. 11) of the control device 2 is realized by executing the air conditioning program stored in the secondary storage device 24 by the processor 20. However, all or part of the functional units of the control device 2 may be realized by dedicated hardware. The dedicated hardware is, for example, a single circuit, a composite circuit, a programmed processor, an application specific integrated circuit (ASIC), a field-programmable gate array (FPGA), or a combination thereof.

  In each of the above-described embodiments, the air conditioning program includes a CD-ROM (Compact Disc Read Only Memory), a DVD (Digital Versatile Disc), a magneto-optical disc (Magneto-Optical Disc), a USB (Universal Serial Bus) memory, and a memory card. It is also possible to store and distribute in a computer-readable recording medium such as an HDD. And it is also possible to make the said computer function as the control apparatus 2 in each said embodiment by installing the air conditioning program distributed in this way in the specific or general purpose computer.

  The air conditioning program may be stored in a disk device or the like of a server on a network such as the Internet, and the air conditioning program may be downloaded from the server to the computer.

  Various embodiments and modifications can be made to the present invention without departing from the spirit and scope of the broad sense. The above-described embodiments are for explaining the present invention and do not limit the scope of the present invention. In other words, the scope of the present invention is shown not by the embodiments but by the claims. Various modifications within the scope of the claims and within the scope of the equivalent invention are considered to be within the scope of the present invention.

  The present invention can be suitably employed in a system for efficiently using energy in a home.

  DESCRIPTION OF SYMBOLS 1 Air conditioning system, 2 Control apparatus, 3 Operation terminal, 4 Power generation equipment, 5 and 6 Air conditioner, 7 Blower, 8 Solar radiation shielding apparatus, 9 Wall, 20 Processor, 21 Communication interface, 22 ROM, 23 RAM, 24 Secondary storage Device, 25 bath, 40 PV panel, 41 PV-PCS, 50, 60 Temperature sensor, 90 Ventilation holes, 200 Air conditioning information acquisition unit, 201 Temperature acquisition unit, 202 Power generation amount acquisition unit, 203 Solar radiation amount acquisition unit, 204 Temperature adjustment Unit, 205 outside air temperature acquisition unit, 206 solar radiation amount prediction unit, 207 shielding schedule creation unit, 208 room temperature prediction unit, 209 air blowing schedule creation unit, 210 outside air temperature history table, 211 solar radiation amount history table, 212 occupancy schedule table

In order to achieve the above object, a control device according to the present invention provides:
Air temperature of the first room, the temperature obtaining means for obtaining the air temperature of the different second chamber from said first chamber,
A solar radiation amount acquiring means for acquiring the solar radiation amount of the first room ;
Communication means for communicating with the blowing means for sending air solar radiation shielding means and said second chamber to shield the solar radiation entering the said second chamber to said first chamber,
Said first chamber and said second chamber of each air temperature, the based on the solar radiation amount of the first room, the solar radiation shielding means and the air temperature of the air blowing means is controlled to the first room Temperature adjusting means for adjusting.

Claims (11)

Temperature acquisition means for acquiring an air temperature of the first area and an air temperature of a second area different from the first area;
A solar radiation amount obtaining means for obtaining the solar radiation amount of the first area;
Communication means for communicating with solar radiation shielding means for shielding solar radiation entering the second area and air blowing means for sending air in the second area to the first area;
Temperature adjustment for adjusting the air temperature of the first area by controlling the solar radiation shielding means and the air blowing means based on the air temperature of each of the first area and the second area and the amount of solar radiation of the first area. And a control device.   2. The temperature adjusting means instructs the air blowing means to drive when the air temperature in the first area is higher than a target temperature and the air temperature in the second area is lower than the air temperature in the first area. The control device described in 1.   The temperature adjusting means instructs the solar radiation shielding means to close when the air temperature in the first area is higher than a target temperature and the amount of solar radiation in the first area exceeds a predetermined threshold. The control device according to 1 or 2.   2. The temperature adjusting means instructs the air blowing means to drive when the air temperature in the first area is lower than a target temperature and the air temperature in the second area is higher than the air temperature in the first area. The control device described in 1.   The temperature adjustment means instructs the solar radiation shielding means to open when the air temperature in the first area is lower than a target temperature and the amount of solar radiation in the first area exceeds a predetermined threshold. 5. The control device according to 1 or 4. A presence / absence determining means for determining presence / absence of a person in the first area;
The control device according to claim 1, wherein the temperature adjusting unit adjusts an air temperature in the first area when a person is present in the first area.   The temperature adjustment means further receives a determination as to whether or not to approve the operation of the solar shading means from a user, and when the user approves, instructs the solar shading means to perform the operation. The control device described. Solar radiation amount predicting means for predicting the transition of solar radiation amount in the first area;
A temperature prediction means for predicting a first temperature transition that is a transition of the air temperature of the first area and a second temperature transition that is a transition of the air temperature of a second area different from the first area;
Communication means for communicating with solar radiation shielding means for shielding solar radiation entering the second area and air blowing means for sending air in the second area to the first area;
Based on the transition of the amount of solar radiation, the first temperature transition, and the second temperature transition, a first schedule that is a control schedule of the solar radiation shielding means in a predetermined period, and a control schedule of the blower means A schedule creation means for creating a second schedule;
And a temperature adjusting unit that controls the solar radiation shielding unit according to the first schedule and controls the air blowing unit according to the second schedule to adjust the air temperature of the first area. A control device according to any one of claims 1 to 8,
Solar radiation shielding means for shielding solar radiation entering the second area;
An air conditioning system comprising: air blowing means for sending air in the second area to the first area. Obtaining the air temperature of the first area and the air temperature of the second area different from the first area;
Obtaining the amount of solar radiation in the first area;
Based on the air temperature of each of the first area and the second area and the amount of solar radiation in the first area, the solar radiation shielding means for shielding the solar radiation entering the second area and the air in the second area as the first area. The air-conditioning control method which controls the air temperature of the said 1st area by controlling the ventilation means sent to an area. Computer
Temperature acquisition means for acquiring an air temperature of the first area and an air temperature of a second area different from the first area;
A solar radiation amount acquiring means for acquiring the solar radiation amount of the first area;
Based on the air temperature of each of the first area and the second area and the amount of solar radiation in the first area, the solar radiation shielding means for shielding the solar radiation entering the second area and the air in the second area as the first area. A program for controlling air blowing means to be sent to an area to function as temperature adjusting means for adjusting the air temperature in the first area.

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