EP2357419B1 - Ventilation control apparatus - Google Patents
Ventilation control apparatus Download PDFInfo
- Publication number
- EP2357419B1 EP2357419B1 EP11152737.0A EP11152737A EP2357419B1 EP 2357419 B1 EP2357419 B1 EP 2357419B1 EP 11152737 A EP11152737 A EP 11152737A EP 2357419 B1 EP2357419 B1 EP 2357419B1
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- EP
- European Patent Office
- Prior art keywords
- section
- air
- people
- indoor space
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- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
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- 238000009423 ventilation Methods 0.000 title claims description 29
- 238000001816 cooling Methods 0.000 claims description 20
- 238000010438 heat treatment Methods 0.000 claims description 13
- 238000001514 detection method Methods 0.000 claims description 7
- 238000005286 illumination Methods 0.000 description 18
- 238000010586 diagram Methods 0.000 description 17
- 238000004378 air conditioning Methods 0.000 description 14
- 238000007726 management method Methods 0.000 description 8
- 230000005484 gravity Effects 0.000 description 5
- 238000013500 data storage Methods 0.000 description 4
- 230000000694 effects Effects 0.000 description 3
- 238000007664 blowing Methods 0.000 description 1
- 238000004364 calculation method Methods 0.000 description 1
- 230000003247 decreasing effect Effects 0.000 description 1
- 239000000284 extract Substances 0.000 description 1
- 230000006870 function Effects 0.000 description 1
- 230000007257 malfunction Effects 0.000 description 1
Images
Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/0001—Control or safety arrangements for ventilation
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/30—Control or safety arrangements for purposes related to the operation of the system, e.g. for safety or monitoring
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/62—Control or safety arrangements characterised by the type of control or by internal processing, e.g. using fuzzy logic, adaptive control or estimation of values
- F24F11/63—Electronic processing
- F24F11/64—Electronic processing using pre-stored data
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/70—Control systems characterised by their outputs; Constructional details thereof
- F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
- F24F11/74—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling air flow rate or air velocity
- F24F11/77—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling air flow rate or air velocity by controlling the speed of ventilators
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/30—Control or safety arrangements for purposes related to the operation of the system, e.g. for safety or monitoring
- F24F11/46—Improving electric energy efficiency or saving
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F11/00—Control or safety arrangements
- F24F11/0001—Control or safety arrangements for ventilation
- F24F2011/0002—Control or safety arrangements for ventilation for admittance of outside air
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2120/00—Control inputs relating to users or occupants
- F24F2120/10—Occupancy
Definitions
- the present invention relates to a ventilation control apparatus.
- Such an air conditioner is known that a signal from an image pickup device is processed so that the presence or absence of a human in each control area is determined, and a target temperature of a limit, beyond which people feel uncomfortable, is set in an area where no person is present, while a target temperature lower than a comfortable temperature is set with an air-blow speed being increased to an allowable limit in an area where a person is present (See Japanese Patent No. 3848786 , for example).
- the present invention is made considering such circumstances and has an object to optimize the intake amount of the outside air.
- a ventilation control apparatus of an indoor ventilation system is defined by the features of appending claim 1.
- this electric equipment management system manages operations of a plurality of types of electric equipment installed in an indoor space 1 (space to be air-conditioned, space to be ventilated) of a building.
- the electric equipment installed in the indoor space 1 include a plurality of air conditioners 10, a plurality of fluorescent lamp units 20 (illumination units), a plurality of air intake devices 30, a plurality of exhaust devices 40, and a plurality of cameras 50, for example.
- the building is provided with an outdoor unit 61 and a communication adaptor 62 for the air conditioners 10, an illumination interface 70 for the florescent lamp units 20, a host computer 100, and an image processing computer 200.
- the indoor space 1 is virtually divided into a plurality of sections, and air conditioning and ventilation are controlled in each section.
- the indoor space 1 is divided horizontally in a grid manner.
- the indoor space 1 including 16 rectangular sections 1A to 1P which are obtained by vertically dividing the space into four and by horizontally dividing into four.
- the air conditioners 10 are arranged at different spots in the indoor space 1.
- 16 air conditioners 10A to 10P are provided in each of the 16 sections 1A to 1P, respectively. Then, the air conditioners 10A to 10P are operated so as to set the corresponding sections 1A to 1P at setting temperatures, respectively.
- the fluorescent lamp units 20 are also provided in the plurality of sections 1A to 1P, respectively.
- the 16 fluorescent lamp units 20A to 20P are provided in the sections 1A to 1P, respectively. And each of the fluorescent lamp units 20A to 20P can be adjusted in brightness, so that each of the sections 1A to 1P can be adjusted in brightness.
- the intake devices 30 and the exhaust devices 40 are also provided in the plurality of sections 1A to 1P, respectively.
- a plurality of inlets 31A to 31P and outlets 41A to 41P are provided in the sections 1A to 1P, respectively.
- the rotation speed of an intake motor 32 is controlled, so that the intake devices 30 can individually change the amount of outside air to be taken into the indoor space 1 through each of the inlets 31A to 31P.
- the rotation speed of an exhaust motor 42 is controlled, the exhaust devices 40 can individually change the amount of exhausted from the indoor space 1 to the outside through each of the outlets 41A to 41P.
- the intake motor 32 and the exhaust motor 42 are individually changed in rotation speed by an intake/exhaust change signal outputted from the host computer 100. That is, the host computer 100 can control an intake amount by the intake devices 30 and an exhaust amount by the exhaust devices 40.
- the camera 50 is used for taking a photograph of the indoor space 1.
- four cameras 50A to 50D are provided in the indoor space 1. That is, the camera 50A is arranged at a position at which the four sections 1A, 1B, 1E and 1F have contact one another, and the camera 50B is arranged at a position at which the sections 1C, 1D, 1G, and 1H have contact one another. Similarly, the camera 50C is arranged at a position at which the sections 1I, 1J, 1M, and 1N have contact one another, and the camera 50D is arranged at a position at which the sections 1K, 1L, 1O, and 1P have contact one another.
- a group of the camera 50, the image processing computer 200 and the host computer 100 corresponds to an air-conditioning control apparatus configured to control air conditioning in the indoor space 1. It also corresponds to a ventilation control apparatus configured to control ventilation in the indoor space 1. Also, a group of the camera 50 and the image processing computer 200 corresponds to a people detection unit (human detection unit) configured to detect the presence or absence of a person (people) in the indoor space 1 and a people count detection unit configured to determine the number of people who are present in the indoor space 1.
- a people detection unit human detection unit
- a people count detection unit configured to determine the number of people who are present in the indoor space 1.
- the host computer 100 corresponds to an adjustment unit (control unit) configured to adjust a setting temperature of each of the air conditioners 10 in accordance with the results of detecting people by the cameras 50 and the image processing computer 200, set intake/exhaust amounts for each of the intake devices 30 and the exhaust devices 40, and sets illuminance of each of the fluorescent lamp units 20.
- an adjustment unit control unit configured to adjust a setting temperature of each of the air conditioners 10 in accordance with the results of detecting people by the cameras 50 and the image processing computer 200, set intake/exhaust amounts for each of the intake devices 30 and the exhaust devices 40, and sets illuminance of each of the fluorescent lamp units 20.
- the host computer 100 includes a control unit 110, a timer 120, and an interface 130 for communication.
- the control unit 110 includes a CPU 140 and a memory 150, and the CPU 140 executes a program stored in the memory 150, so as to realize various control operations. For example, "signals for change" for changing settings are outputted to the air conditioner 10, the intake motor 32, the exhaust motor 42, and the fluorescent lamp unit 20.
- the timer 120 outputs time information which is required for control. For example, the timer 120 outputs timing information that specifies operation timing at each predetermined period of time and outputs current time information that indicates current time.
- the interface 130 for communication controls communication in the host computer 100.
- a part of areas of the memory 150 are used, as shown in Fig. 3B , as a program storage area 151, an identification information storage area 152, a people count information storage area 153, an average people count storage area 154, an air-conditioning pattern storage area 155, a ventilation pattern storage area 156, and an illumination pattern storage area 157.
- program storage area 151 In the program storage area 151, a program to be read and executed by the CPU 140 is stored.
- identification information is stored, which indicates the electric equipment capable of communicating with the host computer 100.
- unique identification information is stored, which indicates each piece of the equipment with respect to the air conditioners 10A to 10P and the fluorescent lamp units 20A to 20P. Therefore, the host computer 100 can recognize from which piece of the electric equipment the received information is transmitted by checking the identification information contained in the received information against the identification information stored in the identification information storage area 152.
- people count information (which will be described later) is stored, which is transmitted from the image processing computer 200 at predetermined intervals.
- the people count information indicating the number of people in each section at the time is transmitted every one minute. And such people count information is stored in plural sets from the latest information to the information of three minutes before (predetermined time before).
- the average people count information storage area 154 information of the average number of people in a predetermined time is stored.
- an average value thereof is calculated, so that the number of people in each of the sections 1A to 1P in the past three minutes is calculated.
- the average value of the past three minutes is calculated and is used for control, the number of people who are continuously present in each of the sections 1A to 1P can be easily grasped, and such a malfunction that the control is performed in an excessively particular manner can be suppressed.
- patterns for air conditioning for adjusting a setting temperature in each of the air conditioners 10A to 10P are stored in a plurality of types each in accordance with patterns of the presence or absence of people in each section.
- Such air-conditioning pattern includes: data for cooling for adjusting the setting temperature so that a section without a person, where a person is not detected, among the plurality of sections 1A to 1P is set at a temperature higher than a temperature in a section with a person, where a person is detected; and data for heating for adjusting the setting temperature so that the section without a person is set at a temperature lower than the temperature of the section with a person.
- the air-conditioning pattern will be described later in detail.
- the ventilation pattern storage area 156 stored are patterns for ventilation for setting an intake amount of the outside air or an exhaust amount of the indoor air for each of the plurality of inlets 31A to 31P and the outlets 41A to 41P (intake amount data, exhaust amount data).
- Such ventilation pattern is to make adjustment so that the amount of the outside air to be taken in through the inlet 31 far from the section with a person becomes greater than the amount of the outside air taken in through the inlet 31 close to the section with a person.
- the ventilation pattern is to make adjustment so that the amount of the indoor air exhausted through the outlet 41 far from the section with a person becomes greater than the amount of the indoor air exhausted through the outlet 41 close to the section with a person.
- the ventilation patterns are also stored in a plurality of types each in accordance with the pattern of the presence or absence of a person in each section. The ventilation pattern will also be described later in detail.
- illumination pattern storage area 157 patterns for illumination for adjusting illuminance in each of the fluorescent lamp units 20A to 20P (illuminance adjustment data) are stored in a plurality of types each in accordance with the pattern of the presence or absence of a person in each section.
- illumination pattern is to make adjustment so that the illuminance of the fluorescent lamp unit 20 far from the section with a person is set less than the illuminance of the fluorescent lamp unit 20 close to the section with a person.
- the illumination pattern will also be described later in detail.
- the image processing computer 200 includes a control unit 210, a timer 220, and an interface 230 for communication.
- the control unit 210 includes a CPU 240 and a memory 250, and the CPU 240 executes a program stored in the memory 250, so that various control operations are realized. For example, the control unit 210 performs processing of determining the number of people in each section from image data picked up by the camera 50 or processing of transmitting the people count information indicating the number of people in each section to the host computer 100.
- the timer 220 outputs time information (timing information, current time information) which is required for control.
- the interface 230 for communication controls communication in the host computer 100.
- a part of areas in the memory 250 are used, as shown in Fig. 4B , as a program storage area 251, an image data storage area 252, and a people count information storage area 253.
- the program storage area 251 a program to be read and executed by the CPU 240 is stored.
- the image data storage area 252 the image data picked up by each of the cameras 50A to 50D is stored.
- the image data stored in the image data storage area 252 is referred to when the control unit 210 performs the processing of determining the number of people in each section.
- the people count information storage area 253 the people count information obtained by the control unit 210 is stored.
- the air conditioner 10 includes a control unit 11 and an interface 12 for communication.
- the control unit 11 is a unit that includes a CPU 13 and a memory 14 and is executes various control operations.
- the interface 12 for communication controls communication in the air conditioner 10.
- a part of areas of the memory 14 are used, as shown in Fig. 5B , as a program storage area 14a, an identification information storage area 14b, and a setting temperature information storage area 14c.
- the program storage area 14a a program to be read and executed by the CPU 13 is stored.
- identification information storage area 14b unique identification information indicating the air conditioner 10 is stored. Such identification information is used when the air conditioner 10 transmits/receives information. For example, when receiving a temperature-change signal for changing a setting temperature, the air conditioner 10 receives the temperature-change signal including the corresponding identification information. As a result, the air conditioner 10 can select and receive a temperature-change signal to be targeted when receiving the temperature-change signal.
- setting temperature information storage area 14c setting temperature information indicating information such as a setting temperature and an air volume in the air conditioner 10 is stored.
- the control unit 11 refers to the setting temperature information to recognize the setting temperature and the air volume, and makes temperature adjustment in the corresponding section. Therefore, the temperature of the corresponding section can be adjusted by rewriting the contents of the setting temperature information.
- the fluorescent lamp unit 20 includes a control unit 21 and an interface 22 for communication.
- the control unit 21 is a unit that includes a CPU 23 and a memory 24 and executes various control operations.
- the interface 22 for communication controls communication in the fluorescent lamp unit 20.
- a part of areas of the memory 24 are used, as shown in Fig. 6B , as a program storage area 24a, an identification information storage area 24b, and an illuminance information storage area 24c.
- the program storage area 24a a program to be read and executed by the CPU 23 is stored.
- the identification information storage area 24b unique identification information indicating the fluorescent lamp unit 20 is stored. Such identification information is used when the fluorescent lamp unit 20 transmits/receives information. For example, when receiving an illuminance-change signal for changing illuminance in the fluorescent lamp unit 20, the fluorescent lamp unit 20 receives the illuminance-change signal including the corresponding identification information.
- the fluorescent lamp unit 20 can select and receive illuminance control information which is required when receiving the illuminance-change signal.
- illuminance information storage area 24c illuminance information indicating illuminance in the fluorescent lamp unit 20 is stored.
- the control unit 21 refers to the illuminance information to recognize a setting value of illuminance, and executes control for the fluorescent lamp. Therefore, the illuminance of the fluorescent lamp unit 20 can be changed by rewriting the contents of the illuminance information.
- the air-conditioning pattern is to adjust a setting temperature in each of the air conditioners 10A to 10P in accordance with the patterns of the presence or absence of a person in each section.
- the ventilation pattern is to set an intake amount of the outside air or an exhaust amount of the indoor air in each of the plurality of inlets 31A to 31P and the outlets 41A to 41P in accordance with the pattern of the number of people in each section. In other words, it is to set a rotation speed of each intake motor 32 or each exhaust motor 42.
- the illumination pattern is to adjust the illuminance of each of the fluorescent lamp units 20 in accordance with the pattern of the presence or absence of a person in each section.
- a control pattern example (A) is a control pattern in the case where a person is present in the section 1F which is located close to the center of the indoor space 1. That is, this is a control pattern when performing a cooling operation in the case where the predetermined number of people is present only in this section 1F and a setting temperature to be set in this section 1F is 26°C.
- temperatures are set in such a manner that a temperature gradient is provided in stages radially from the section 1F (specific area), regarded as the center, in which a person is present, toward the periphery.
- operating conditions of the air conditioners 10A to 10P are set so that the temperatures are changed in stages with two-dimensional expansion.
- each of the air conditioners 10B, 10E, 10G and 10J in the sections 1B, 1E, 1G, and 1J adjacent to the section 1F in the up-and-down and left-and-right directions in the figure is set at a temperature of 27°C, which is higher by 1°C, and at an air volume of [6], which is smaller by two stages.
- each of the air conditioners 10A, 10C, 10I, and 10K in the sections 1A, 1C, 1I, and 1K adjacent to the section 1F in the diagonal direction is set at a temperature of 28°C, which is higher by 2°C, and the at an air volume of [4], which is smaller by 4 stages.
- the intake amount and the exhaust amount of the inlet 31P and the outlet 41P in the section 1P are set at [8] in 10 stages, while the intake amounts and the exhaust amounts of the inlets 31A to 310 and the outlets 41A to 410 in other sections 1A to 1O are set at [0].
- the intake amount and the exhaust amount of the inlet 31P are determined in accordance with the number of people obtained from the determination of the number of people who are present in the section 1F. Therefore, if the number of people is increased, the intake amount and the exhaust amount thereof are set at [9] or [10], while if the number of people is decreased, the intake amount and the exhaust amount thereof are set at [5] or [6].
- the illumination of the fluorescent lamp units 20 is controlled so that, in the section 1F and the sections 1A to 1C, 1E, 1G, and 1I to 1K adjacent to the section 1F, the corresponding fluorescent lamp units 20A to 20C, 20E, 20F, 20G, and 20I to 20K are lighted, while the fluorescent lamp units 20 in other sections are not lighted.
- the fluorescent lamp unit 20F in the section 1F is set at 100%, which is the brightest, while the fluorescent lamp units 20B, 20E, 20G, and 20J in the sections 1B, 1E, 1G, and 1J are set at 80%, which is darker than the fluorescent lamp unit 20F by 20%.
- the fluorescent lamp units 20A, 20C, 20I, and 20K in the sections 1A, 1C, 1I, and 1K are set at 60%, which is darker than the fluorescent lamp unit 20F by 40%.
- a control pattern example (B) is also a control pattern of a case where a person is present in the section 1F. To be more specific, this is a control pattern when a heating operation is performed in a case where the predetermined number of people are present only in this section 1F, and a setting temperature of this section 1F is 24°C. In the control pattern example (B) as well, temperatures are set in such a manner that a temperature gradient is provided in stages radially from the section 1F regarded as the center, in which a person is present, toward the periphery.
- the air conditioner 10 in the section 1F is set at the highest temperature and air volume, and the farther the section is located from the section 1F, the lower the temperature and air volume thereof are set at.
- each of the air conditioners 10 in the sections 1B, 1E, 1G, and 1J are set at a temperature of 23°C, which is lower by 1°C, and at an air volume of [7], which is smaller by two stages.
- the air conditioners 10 in the sections 1A, 1C, 1I, and 1K are set at a temperature of 22°C, which is lower by 2°C, and at an air volume of [5], which is smaller by four stages.
- the intake amount and the exhaust amount of the inlet 31P and the outlet 41P in the section 1P are set at [5], while the intake amounts and the air exhaust amounts of the inlets 31 and the outlets 41 of other sections are set at [0].
- the intake amount and the air exhaust amount are set at [8].
- a control pattern example (C) is a control pattern of a case where a person is present in the section 1M located at a corner portion of the indoor space 1. To be more specific, this is a control pattern when a cooling operation is performed in which the predetermined number of people are present only in the section 1M and a setting temperature of the air conditioner 10M in the section 1M is 26°C.
- temperatures are set in such a manner that a temperature gradient is provided in stages radially from the section 1M regarded as the center, in which a person is present, toward the periphery.
- the air conditioners 10I and 10N in the sections 1I and 1N are set at a temperature of 27°C, which is higher by 1°C, and at an air volume of [7], which is smaller by one stage.
- the air conditioners 10E, 10J, and 10O in the sections 1E, 1J, and 1O are set at a temperature of 28°C, which is higher by 2°C, and at an air volume of [5], which is smaller by three stages.
- setting is made such that the farther the section is located from the section 1F, the higher the temperature thereof becomes as well as the smaller the air volume thereof becomes.
- the intake amount and the air exhaust amount of the inlet 31D and the outlet 41D in the section 1D are set at [10]
- the intake amounts and the air exhaust amounts of the inlets 31 and the outlets 41 in other sections are set at [0].
- the intake amount and the air exhaust amount of the inlet 31P and the outlet 41P are set at [8].
- the illumination of the fluorescent lamp units 20 is controlled so that, in the section 1M and the sections 1I, 1J, and 1N adjacent to the section 1M, the corresponding fluorescent lamp units 20I, 20J, 20M, and 20N are lighted, while other fluorescent lamp units 20 are not lighted.
- the fluorescent lamp unit 20M in the section 1M is set at 100%, which is the brightest, while the fluorescent lamp units 20I and 20N in the sections 1I and 1N are set at 80%, which is darker than the fluorescent lamp unit 20Mby 20%.
- the fluorescent lamp unit 20J in the section 1J is set at 60%, which is darker than the fluorescent lamp unit 20M by 40%.
- control patterns (A) to (C) are control patterns if a person is detected in one section, but a control pattern example (D) is a control pattern if a person is detected in each of two sections.
- a diagram illustrates a control pattern when the cooling operation is performed, if a person is present in each of the sections 1E and 1O.
- a position of the center of gravity (a position of the center of gravity of a plane figure based on the distribution of people) in the indoor space 1 is obtained and the section 1 corresponding to the position of the center of gravity is used as the center, so that temperatures of the air conditioners 10A to 10P are set in such a manner that a temperature gradient is provided in stages radially from the section 1 toward the periphery.
- the center of gravity is positioned in the section 1J which is located between the section 1E and the section 1O.
- the temperatures of the air conditioners 10A to 10P are set in such a manner that a temperature gradient is provided in stages radially from the section 1J.
- each of the air conditioners 10E and 10O of the section 1E and the section 1O is set at a temperature of 26°C and an air volume at [8].
- the air conditioner 10J of the section 1J which is used as the center, is set at a temperature lower than those of the section 1E and the section 1O, and at an air volume greater than those thereof, considering that the cooling operation is performed. For example, it is set at a temperature of 25°C and at an air volume of [9].
- the air conditioners 10 of other sections 1 are set such that the farther the section is located from the section 1J, the lower the temperature thereof becomes as well as the smaller the air volume thereof becomes.
- the air conditioners 10I and 10N in the sections 1I and 1N are set at a temperature of 27°C and an air volume of [7].
- the air conditioners 10A, 10F, 10K, and 10P of the sections 1A, 1F, 1K, and 1P are set at a temperature of 27°C and an air volume of [7].
- the air conditioners 10M, 10B, 10G, and 10L of the sections 1M, 1B, 1G, and 1L are set at a temperature of 28°C and an air volume of [6].
- the intake amount and the exhaust amount of the inlet 31D and the outlet 41D in the farthest section 1D are set at [10]
- the intake amounts and the exhaust amounts of the inlets 31C and 31H and the outlets 41C and 41H in the section 1C and the section 1H, which are second farthest are set at [8].
- setting is made such that the farther the section is located from the section 1J, the greater the intake amount and the air exhaust amount thereof become.
- the fluorescent lamp units 20E, 20J, and 200 of the three sections are set at 100%, which is the brightest. Accordingly, the fluorescent lamp units 20 to be set at brightness of 80% and the fluorescent lamp units 20 to be set at brightness of 60% are increased.
- the fluorescent lamp units 20A, 20F, 20K, 20P, 20I, and 20N corresponding to the sections 1A, 1F, 1K, 1P, 1I, and 1N are set at 80%.
- the fluorescent lamp units 20B, 20G, 20L, and 20M of the sections 1B, 1G, 1L, and 1M are set at 60%.
- a control pattern example (E) is also a control pattern if a person is detected in each of two sections.
- the control pattern example (E) is different from the above-described control pattern (D) in such a respect that the air conditioners 10 are different in setting among the sections in which people are detected.
- the control pattern example (E) is a control pattern when the cooling operation is performed, if a person is present in each of the section 1I and the section 1O.
- the air conditioner 10I in the section 1I is set at a temperature of 23°C and an air volume of [9]
- the air conditioner 10O in the section 1O is set at a temperature of 25°C and an air volume of [7].
- the section 1I and the section 1O are considered as separate centers, and the temperatures and the air volumes of the air conditioners 10 in other sections are set.
- the air conditioners 10 in the other sections are set at temperatures on the basis of the closer section out of the two sections which are considered as the centers.
- the air conditioners 10A, 10B, 10E, 10F, and 10M in the sections 1A, 1B, 1E, 1F, and 1M are set at the temperatures and air volumes on the basis of the setting of the section 1I.
- the air conditioners 10D, 10G, 10H, 10K, 10L, and 10P of the sections 1D, 1G, 1H, 1K, 1L, and 1P are set at the temperatures and air volumes on the basis of the setting of the section 1O.
- the air conditioners 10J and 10N in the sections 1J and 1N, settings on the side where the setting temperature is lower and the air volume is greater are used as a basis.
- the intake amount and the air exhaust amount are set so that the intake/exhaust is performed in the section 1D, which is the farthest from the section 1J.
- the illumination by the fluorescent lamp units 20 settings are made assuming that there are two centers, i.e., the section 1I and the section 1O, and the brighter setting is employed for the section 1 with different settings in brightness. A detailed description of the settings of the illumination will be omitted.
- a control pattern example (F) is also a control pattern if a person is detected in each of two sections.
- the sections where people are detected are adjacent to each other, and the settings of the temperature and the air volume are the same therebetween.
- the control pattern example (F) is a control pattern when the cooling operation is performed, if a person is present in each of the section 1N and the section 1O.
- the air conditioners 10N and 10O of the section 1N and the section 1O are set at a temperature of 24°C and an air volume of [9]. In this case, considering the section 1I and the section 1O as one section 1, the temperatures and the air volumes in other sections are set.
- the sections, in which the intake and the exhaust are performed, and the intake amount and the exhaust amount are set considering the section 1N and the section 1O as one section 1.
- the intake and the exhaust are performed using the intake device 30 and the exhaust device 40 provided in the section 1A to the section 1D, which are the farthest from the section 1N and the section 1O.
- the outside air is taken in through the inlets 31A and 31D of the section 1A and the section 1D, and the indoor air is exhausted through the outlets 41B and 41C of the section 1B and the section 1C.
- illumination by the fluorescent lamp units 20 is set considering the section 1N and the section 1O as one section. A detailed description of the setting of the illumination will be omitted.
- the image processing computer 200 determines whether or not it is timing in obtaining the number of people (S1).
- a configuration is such that the number of people per section is obtained per minute (predetermined period).
- the image processing computer 200 determines whether or not one minute has elapsed since the previous timing in obtaining the number of people on the basis of the time information by the timer 220, and if it determines that the time has elapsed, go to processing in Step S2.
- Step S2 people count determination processing is performed. This determination processing is performed on the basis of the image data stored in the image data storage area 252.
- the image processing computer 200 extracts images of people on the basis of the image data, and obtains people count information indicating the number of people per section. Then, the obtained people count information is transmitted to the host computer 100 (S3).
- the host computer 100 receives the people count information from the image processing computer 200, and stores it in the people count information storage area 153.
- the host computer 100 determines whether or not it is timing in updating the control pattern.
- an update period is set at 1 minute (predetermined period).
- the host computer 100 determines whether or not one minute has elapsed since the previous data-update timing on the basis of the time information by the timer 120, and if it determines that the time has elapsed, go to processing in Step S12.
- Step S12 data of the corresponding control pattern is obtained.
- the host computer 100 first reads the people count information for the past three minutes, and calculates the average number of people per section. Subsequently, the host computer 100 recognizes a section with a person, in which a person is detected, and a section without a person, in which a person is not detected. Further, in the section with a person, it determines the number of people per section.
- the host computer 100 selects the most suitable control pattern in accordance with the arrangement pattern of the section with a person and the section without a person, and the number of people who are present in the indoor space 1, and reads the pattern from the air-conditioning pattern storage area 155, the ventilation pattern storage area 156, and the illumination pattern storage area 157.
- the host computer 100 determines whether or not temperature adjustment is needed for the air conditioners 10 (S13). For example, the control pattern having been used so far is compared with the newly-read control pattern in each section. Then, if there is a difference in setting temperature or air volume, a temperature change signal is transmitted to the air conditioner provided in the section 1 (S14). The air conditioner 10 having received this temperature change signal updates the setting temperature information stored in the setting temperature information storage area 14c to the one indicated by the temperature change signal (S21). As a result, the setting temperature and/or air volume in this air conditioner 10 is changed.
- the host computer 100 determines whether or not adjustment is needed for the intake device 30 and/or the exhaust device 40 (S15).
- the control pattern having been used so far is compared with the newly-read control pattern in each section, and it is determined whether or not there is a difference in intake amount and/or air exhaust amount. If there is a difference, an intake/exhaust change signal is transmitted to the intake device 30 or the exhaust device 40 provided in the section 1 (S16). Then, the intake device 30 and/or the exhaust device 40 having received the intake/exhaust change signal changes the rotation speed of the intake motor 32 or the exhaust motor 42 (S22). As a result, the intake amount or the exhaust amount in the target inlet 31 or outlet 41 is changed.
- the host computer 100 determines whether or not illuminance adjustment is needed for the fluorescent lamp units 20 (S17).
- the control pattern having been used so far is compared with the newly-read control pattern in each section, and it is determined whether or not there is a difference in illuminance. If there is a difference, an illuminance change signal is transmitted to the fluorescent lamp unit 20 provided in the section 1 (S18).
- the air conditioner 10 having received this illuminance change signal updates the illuminance information stored in the illuminance information storage area 24c to the one indicated by the illuminance change signal (S23). As a result, the brightness in the fluorescent lamp unit 20 is changed. Thereafter, the above-described processing is performed repeatedly.
- the electric equipment management system includes: the intake device 30, configured to take the outside air into the indoor space 1 and capable of changing the intake amount of the outside air; and a group of the camera 50, the image processing computer 200, and the host computer 100.
- the image processing computer 200 determines the number of people, who are present in the indoor space 1, on the basis of the image information from the camera 50, to be output as people count information.
- the host computer 100 obtains the people count information and controls the intake device so that the more the number of people, indicated by the people count information, is increased, the greater the amount of the outside air to be taken in becomes.
- the outside air of the optimal amount in accordance with the number of people who are present in the indoor space 1 can be taken into the indoor space 1.
- the above-described indoor space 1 is virtually divided into the plurality of sections 1A to 1P.
- the intake devices 30 includes the plurality of inlets 31A and 31P, which are arranged at different spots in the indoor space 1 and each of which is capable of changing the amount of the outside air to be taken into the indoor space 1, and the image processing computer 200 outputs the people count information in each section.
- the host computer 100 controls the intake device 30 so that the amount of the outside air to be taken in through the inlet 31 located farther from the section 1, where a determination is made that a person is present, becomes greater than the amount of the outside air to be taken in through the inlet 31 located closer to the section 1, where a determination is made that a person is present.
- a person who is present in the indoor space 1 hardly senses a change in the room temperature accompanied by the intake of the outside air.
- a comfortable environment can be provided for the person who is present in the indoor space.
- the outside air is taken in only through the inlet 31 located farthest from the section with a person, a change in the room temperature is hardly sensed.
- This electric equipment management system also includes the exhaust devices 40 configured to discharge air in the indoor space 1 to the outside.
- the exhaust devices 40 includes the plurality of outlets 41A to 41P, which are arranged at different spots in the indoor space 1 and each of which is capable of changing the amount of the air to be exhausted from the indoor space 1.
- the host computer 100 controls the exhaust device 40 so that the amount of the air to be exhausted through the outlet 41 located farther from the section, where a determination is made that a person is present, becomes greater than the amount of the air to be exhausted through the outlet 41 located closer to the section, where a determination is made that a person is present.
- a person who is present in the indoor space 1 hardly senses a change in the room temperature accompanied by the exhaust of the indoor air.
- a comfortable environment can be provided for the person in the indoor space. Particularly, if the air is exhausted only through the outlet 41 located farthest from the section with a person, a change in the room temperature is hardly sensed.
- the plurality of air conditioners 10A to 10P which are configured to set the corresponding sections at desired temperatures are provided, respectively.
- the temperature of the section with a person is hardly changed by the intake of the outside air, so that the reduction can be suppressed in the efficiency of the cooling/heating operation by the air conditioners 10A to 10P.
- the intake amount and the exhaust amount are set in accordance with the number of people who are present in the indoor space 1, in an embodiment described above.
- the air conditioner 10 is instructed to perform an operation opposite to the cooling/heating operation which has been performed so far, the intake amount of the outside air may be increased using the instruction as a trigger.
- the host computer 100 executes control so as to increase the intake amount of the outside air to an amount thereof which is greater than that in accordance with the number of people who are present in the indoor space 1. Also, the air conditioner 10 is switched to an air-blowing operation. As a result, the outside air at a temperature lower than that of the indoor space 1 is taken into the indoor space 1, so that the temperature of the indoor space 1 can be lowered. As a result, the same effect as the cooling operation can be achieved without switching to the cooling operation, so that energy can be saved.
- the intake amount of the outside air may be increased only in the section where the specific air conditioner 10 is provided. This is useful in a case where equipment such as a server, which generates heat, is provided in the indoor space 1.
- control pattern stored in the memory 150 is used in an embodiment described above, but the detail of control may be changed by calculation.
- the control pattern is used as in an embodiment described above, the detail of control can be changed with efficiency.
- the rectangular sections 1A to 1P divided in the horizontal direction in a grid manner are exemplified in an embodiment described above, however, a shape of the sections is not limited to a rectangular shape. For example, it may be a hexagonal shape or a triangular shape. In short, it is only necessary that the sections are divided in the planar direction.
- the detection of a person in each section when only the presence or absence of a person is to be detected, other detecting means such as an infrared sensor may be used.
- the number of people in each section can also be determined, so that precise control in consideration of the number of people can be executed. Updating cycles of the people detection timing and the control pattern can be set as appropriate.
- control patterns (C) to (F) are intended for the cooling operation, but they can also be used as the control pattern for the heating operation.
- control patterns (A) and (B) it is only necessary to set the control pattern such that the closer to the periphery the section is located, the lower the temperature thereof becomes in stages.
- upper/lower limit (during cooling /heating operation) may be set.
- the temperature is set so as not to exceed the upper limit temperature during the cooling operation, while the temperature is set so as not to fall under the lower limit temperature during the heating operation.
- Such upper/lower limit may be a fixed value or may be determined in accordance with the temperature of the outside air. If it is set in accordance with the temperature of the outside air, it is determined such that the upper limit temperature is lower than the outside air temperature during the cooling operation, while the lower limit temperature is higher than the outside air temperature during the heating operation.
- an intended unit does not have to be a fluorescent lamp. It may be other light sources as long as a light control function capable of controlling brightness is provided therein. For example, it may be an LED light or an incandescent lamp.
- the inlet 31 and the outlet 41 do not have to be provided in each section.
- they may be provided on a surface of a wall of the indoor space 1.
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Description
- The present invention relates to a ventilation control apparatus.
- Such an air conditioner is known that a signal from an image pickup device is processed so that the presence or absence of a human in each control area is determined, and a target temperature of a limit, beyond which people feel uncomfortable, is set in an area where no person is present, while a target temperature lower than a comfortable temperature is set with an air-blow speed being increased to an allowable limit in an area where a person is present (See Japanese Patent No.
3848786 - In the above-described air conditioner, intake of outside air has not been considered at all. Thus, regardless of the actual number of people who are present, it is necessary to take in the outside air of an amount in accordance with the allowable maximum number of people in the space to be air-conditioned. As a result, the smaller the number of people in the space to be air-conditioned is, the more the outside air is taken in wastefully, which reduces efficiency. A ventilation control apparatus according to the preamble of appending
claim 1 is disclosed inEP 2123986 . - The present invention is made considering such circumstances and has an object to optimize the intake amount of the outside air.
- A ventilation control apparatus of an indoor ventilation system according to the present invention. is defined by the features of appending
claim 1. - Other features of the present invention will become apparent from descriptions of this specification and of the accompanying drawings.
- For more thorough understanding of the present invention and advantages thereof, the following description should be read in conjunction with the accompanying drawings, in which:
-
Fig. 1 is a diagram illustrating a configuration of an electric equipment management system; -
Fig. 2 is a diagram schematically illustrating an arrangement of electric equipment in an indoor space; -
Fig. 3A is a block diagram illustrating a configuration of a host computer; -
Fig. 3B is a diagram illustrating a storage area included in memory; -
Fig. 4A is a block diagram illustrating a configuration of an image processing computer; -
Fig. 4B is a diagram illustrating a storage area included in memory; -
Fig. 5A is a block diagram illustrating a configuration of a control system included in an air conditioner; -
Fig. 5B is a diagram illustrating a storage area included in memory; -
Fig. 6A is a block diagram illustrating a configuration of a control system included in a fluorescent lamp unit; -
Fig. 6B is a diagram illustrating a storage area included in memory; -
Fig. 7 is a diagram illustrating a control pattern example (A); -
Fig. 8 is a diagram illustrating a control pattern example (B); -
Fig. 9 is a diagram illustrating a control pattern example (C); -
Fig. 10 is a diagram illustrating a control pattern example (D); -
Fig. 11 is a diagram illustrating a control pattern example (E) ; -
Fig. 12 is a diagram illustrating a control pattern example (F); and -
Fig. 13 is a flowchart illustrating an operation. - At least the following details will become apparent from descriptions of this specification and of the accompanying drawings.
- An electric equipment management system (air-conditioning system, indoor ventilation system) according to an embodiment of the present invention will hereinafter be described. As shown in
Fig. 1 , this electric equipment management system manages operations of a plurality of types of electric equipment installed in an indoor space 1 (space to be air-conditioned, space to be ventilated) of a building. The electric equipment installed in theindoor space 1 include a plurality ofair conditioners 10, a plurality of fluorescent lamp units 20 (illumination units), a plurality ofair intake devices 30, a plurality ofexhaust devices 40, and a plurality ofcameras 50, for example. Further, the building is provided with anoutdoor unit 61 and a communication adaptor 62 for theair conditioners 10, anillumination interface 70 for theflorescent lamp units 20, ahost computer 100, and animage processing computer 200. - In this electric equipment management system, the
indoor space 1 is virtually divided into a plurality of sections, and air conditioning and ventilation are controlled in each section. As shown inFig. 2 , in an embodiment of the present invention, theindoor space 1 is divided horizontally in a grid manner. For convenience, a description will be given, as an example, of theindoor space 1 including 16rectangular sections 1A to 1P which are obtained by vertically dividing the space into four and by horizontally dividing into four. - The
air conditioners 10 are arranged at different spots in theindoor space 1. In an embodiment according to the present invention, 16air conditioners 10A to 10P are provided in each of the 16sections 1A to 1P, respectively. Then, theair conditioners 10A to 10P are operated so as to set thecorresponding sections 1A to 1P at setting temperatures, respectively. - The
fluorescent lamp units 20 are also provided in the plurality ofsections 1A to 1P, respectively. In an embodiment of the present invention, the 16fluorescent lamp units 20A to 20P are provided in thesections 1A to 1P, respectively. And each of thefluorescent lamp units 20A to 20P can be adjusted in brightness, so that each of thesections 1A to 1P can be adjusted in brightness. - The
intake devices 30 and theexhaust devices 40 are also provided in the plurality ofsections 1A to 1P, respectively. In an embodiment of the present invention, a plurality ofinlets 31A to 31P andoutlets 41A to 41P are provided in thesections 1A to 1P, respectively. The rotation speed of anintake motor 32 is controlled, so that theintake devices 30 can individually change the amount of outside air to be taken into theindoor space 1 through each of theinlets 31A to 31P. Similarly, the rotation speed of anexhaust motor 42 is controlled, theexhaust devices 40 can individually change the amount of exhausted from theindoor space 1 to the outside through each of theoutlets 41A to 41P. Theintake motor 32 and theexhaust motor 42 are individually changed in rotation speed by an intake/exhaust change signal outputted from thehost computer 100. That is, thehost computer 100 can control an intake amount by theintake devices 30 and an exhaust amount by theexhaust devices 40. - The
camera 50 is used for taking a photograph of theindoor space 1. In an embodiment of the present invention, as shown inFig. 2 , fourcameras 50A to 50D are provided in theindoor space 1. That is, thecamera 50A is arranged at a position at which the foursections camera 50B is arranged at a position at which thesections camera 50C is arranged at a position at which thesections sections - In such units as described above, a group of the
camera 50, theimage processing computer 200 and thehost computer 100 corresponds to an air-conditioning control apparatus configured to control air conditioning in theindoor space 1. It also corresponds to a ventilation control apparatus configured to control ventilation in theindoor space 1. Also, a group of thecamera 50 and theimage processing computer 200 corresponds to a people detection unit (human detection unit) configured to detect the presence or absence of a person (people) in theindoor space 1 and a people count detection unit configured to determine the number of people who are present in theindoor space 1. Further, thehost computer 100 corresponds to an adjustment unit (control unit) configured to adjust a setting temperature of each of theair conditioners 10 in accordance with the results of detecting people by thecameras 50 and theimage processing computer 200, set intake/exhaust amounts for each of theintake devices 30 and theexhaust devices 40, and sets illuminance of each of thefluorescent lamp units 20. - Subsequently, an electrical configuration of the electric equipment management system will be described.
- As shown in
Fig. 3A , thehost computer 100 includes acontrol unit 110, atimer 120, and aninterface 130 for communication. - The
control unit 110 includes aCPU 140 and amemory 150, and theCPU 140 executes a program stored in thememory 150, so as to realize various control operations. For example, "signals for change" for changing settings are outputted to theair conditioner 10, theintake motor 32, theexhaust motor 42, and thefluorescent lamp unit 20. Thetimer 120 outputs time information which is required for control. For example, thetimer 120 outputs timing information that specifies operation timing at each predetermined period of time and outputs current time information that indicates current time. Theinterface 130 for communication controls communication in thehost computer 100. - A part of areas of the
memory 150 are used, as shown inFig. 3B , as aprogram storage area 151, an identificationinformation storage area 152, a people countinformation storage area 153, an average people countstorage area 154, an air-conditioningpattern storage area 155, a ventilationpattern storage area 156, and an illuminationpattern storage area 157. - In the
program storage area 151, a program to be read and executed by theCPU 140 is stored. - In the identification
information storage area 152, identification information is stored, which indicates the electric equipment capable of communicating with thehost computer 100. For example, unique identification information is stored, which indicates each piece of the equipment with respect to theair conditioners 10A to 10P and thefluorescent lamp units 20A to 20P. Therefore, thehost computer 100 can recognize from which piece of the electric equipment the received information is transmitted by checking the identification information contained in the received information against the identification information stored in the identificationinformation storage area 152. - In the people count
information storage area 153, people count information (which will be described later) is stored, which is transmitted from theimage processing computer 200 at predetermined intervals. In an embodiment of the present invention, the people count information indicating the number of people in each section at the time is transmitted every one minute. And such people count information is stored in plural sets from the latest information to the information of three minutes before (predetermined time before). - In the average people count
information storage area 154, information of the average number of people in a predetermined time is stored. In an embodiment of the present invention, with reference to three sets of people count information stored in the people countinformation storage area 153, an average value thereof is calculated, so that the number of people in each of thesections 1A to 1P in the past three minutes is calculated. As such, if the average value of the past three minutes is calculated and is used for control, the number of people who are continuously present in each of thesections 1A to 1P can be easily grasped, and such a malfunction that the control is performed in an excessively particular manner can be suppressed. - In the air-conditioning
pattern storage area 155, patterns for air conditioning for adjusting a setting temperature in each of theair conditioners 10A to 10P (temperature adjustment data) are stored in a plurality of types each in accordance with patterns of the presence or absence of people in each section. Such air-conditioning pattern includes: data for cooling for adjusting the setting temperature so that a section without a person, where a person is not detected, among the plurality ofsections 1A to 1P is set at a temperature higher than a temperature in a section with a person, where a person is detected; and data for heating for adjusting the setting temperature so that the section without a person is set at a temperature lower than the temperature of the section with a person. The air-conditioning pattern will be described later in detail. - In the ventilation
pattern storage area 156, stored are patterns for ventilation for setting an intake amount of the outside air or an exhaust amount of the indoor air for each of the plurality ofinlets 31A to 31P and theoutlets 41A to 41P (intake amount data, exhaust amount data). Such ventilation pattern is to make adjustment so that the amount of the outside air to be taken in through theinlet 31 far from the section with a person becomes greater than the amount of the outside air taken in through theinlet 31 close to the section with a person. Also, the ventilation pattern is to make adjustment so that the amount of the indoor air exhausted through the outlet 41 far from the section with a person becomes greater than the amount of the indoor air exhausted through the outlet 41 close to the section with a person. And the ventilation patterns are also stored in a plurality of types each in accordance with the pattern of the presence or absence of a person in each section. The ventilation pattern will also be described later in detail. - In the illumination
pattern storage area 157, patterns for illumination for adjusting illuminance in each of thefluorescent lamp units 20A to 20P (illuminance adjustment data) are stored in a plurality of types each in accordance with the pattern of the presence or absence of a person in each section. Such illumination pattern is to make adjustment so that the illuminance of thefluorescent lamp unit 20 far from the section with a person is set less than the illuminance of thefluorescent lamp unit 20 close to the section with a person. The illumination pattern will also be described later in detail. - As shown in
Fig. 4A , theimage processing computer 200 includes acontrol unit 210, atimer 220, and aninterface 230 for communication. - The
control unit 210 includes aCPU 240 and amemory 250, and theCPU 240 executes a program stored in thememory 250, so that various control operations are realized. For example, thecontrol unit 210 performs processing of determining the number of people in each section from image data picked up by thecamera 50 or processing of transmitting the people count information indicating the number of people in each section to thehost computer 100. Thetimer 220 outputs time information (timing information, current time information) which is required for control. Theinterface 230 for communication controls communication in thehost computer 100. - A part of areas in the
memory 250 are used, as shown inFig. 4B , as aprogram storage area 251, an imagedata storage area 252, and a people countinformation storage area 253. - In the
program storage area 251, a program to be read and executed by theCPU 240 is stored. In the imagedata storage area 252, the image data picked up by each of thecameras 50A to 50D is stored. The image data stored in the imagedata storage area 252 is referred to when thecontrol unit 210 performs the processing of determining the number of people in each section. In the people countinformation storage area 253, the people count information obtained by thecontrol unit 210 is stored. - As shown in
Fig. 5A , theair conditioner 10 includes acontrol unit 11 and aninterface 12 for communication. Thecontrol unit 11 is a unit that includes aCPU 13 and amemory 14 and is executes various control operations. Theinterface 12 for communication controls communication in theair conditioner 10. - A part of areas of the
memory 14 are used, as shown inFig. 5B , as aprogram storage area 14a, an identificationinformation storage area 14b, and a setting temperatureinformation storage area 14c. - In the
program storage area 14a, a program to be read and executed by theCPU 13 is stored. In the identificationinformation storage area 14b, unique identification information indicating theair conditioner 10 is stored. Such identification information is used when theair conditioner 10 transmits/receives information. For example, when receiving a temperature-change signal for changing a setting temperature, theair conditioner 10 receives the temperature-change signal including the corresponding identification information. As a result, theair conditioner 10 can select and receive a temperature-change signal to be targeted when receiving the temperature-change signal. In the setting temperatureinformation storage area 14c, setting temperature information indicating information such as a setting temperature and an air volume in theair conditioner 10 is stored. Thecontrol unit 11 refers to the setting temperature information to recognize the setting temperature and the air volume, and makes temperature adjustment in the corresponding section. Therefore, the temperature of the corresponding section can be adjusted by rewriting the contents of the setting temperature information. - As shown in
Fig. 6A , thefluorescent lamp unit 20 includes acontrol unit 21 and aninterface 22 for communication. Thecontrol unit 21 is a unit that includes aCPU 23 and amemory 24 and executes various control operations. Theinterface 22 for communication controls communication in thefluorescent lamp unit 20. - A part of areas of the
memory 24 are used, as shown inFig. 6B , as aprogram storage area 24a, an identificationinformation storage area 24b, and an illuminanceinformation storage area 24c. In theprogram storage area 24a, a program to be read and executed by theCPU 23 is stored. In the identificationinformation storage area 24b, unique identification information indicating thefluorescent lamp unit 20 is stored. Such identification information is used when thefluorescent lamp unit 20 transmits/receives information. For example, when receiving an illuminance-change signal for changing illuminance in thefluorescent lamp unit 20, thefluorescent lamp unit 20 receives the illuminance-change signal including the corresponding identification information. As a result, thefluorescent lamp unit 20 can select and receive illuminance control information which is required when receiving the illuminance-change signal. In the illuminanceinformation storage area 24c, illuminance information indicating illuminance in thefluorescent lamp unit 20 is stored. Thecontrol unit 21 refers to the illuminance information to recognize a setting value of illuminance, and executes control for the fluorescent lamp. Therefore, the illuminance of thefluorescent lamp unit 20 can be changed by rewriting the contents of the illuminance information. - Subsequently, a plurality of types of control patterns which are stored in the memory of the
host computer 100, that is, the air-conditioning pattern, ventilation pattern, and illumination pattern will be described in detail. As described above, the air-conditioning pattern is to adjust a setting temperature in each of theair conditioners 10A to 10P in accordance with the patterns of the presence or absence of a person in each section. Also, the ventilation pattern is to set an intake amount of the outside air or an exhaust amount of the indoor air in each of the plurality ofinlets 31A to 31P and theoutlets 41A to 41P in accordance with the pattern of the number of people in each section. In other words, it is to set a rotation speed of eachintake motor 32 or eachexhaust motor 42. Further, the illumination pattern is to adjust the illuminance of each of thefluorescent lamp units 20 in accordance with the pattern of the presence or absence of a person in each section. - Since it is difficult to disclose all the control patterns that can be assumed, some typical examples will be described hereinafter.
- A control pattern example (A) is a control pattern in the case where a person is present in the
section 1F which is located close to the center of theindoor space 1. That is, this is a control pattern when performing a cooling operation in the case where the predetermined number of people is present only in thissection 1F and a setting temperature to be set in thissection 1F is 26°C. - In the air-conditioning pattern of the control pattern example (A), temperatures are set in such a manner that a temperature gradient is provided in stages radially from the
section 1F (specific area), regarded as the center, in which a person is present, toward the periphery. In short, with the air-conditioning pattern of the control pattern example (A), operating conditions of theair conditioners 10A to 10P are set so that the temperatures are changed in stages with two-dimensional expansion. - For example, as shown in
Fig. 7 , assuming that theair conditioner 10F in thesection 1F is set at a temperature of 26°C and at an air volume of [8] in 10 stages, each of theair conditioners sections section 1F in the up-and-down and left-and-right directions in the figure is set at a temperature of 27°C, which is higher by 1°C, and at an air volume of [6], which is smaller by two stages. Also, each of theair conditioners sections section 1F in the diagonal direction, is set at a temperature of 28°C, which is higher by 2°C, and the at an air volume of [4], which is smaller by 4 stages. The same applies to theair conditioners 10 in other sections, and setting is made such that the farther the section is located from thesection 1F, the higher the temperature thereof becomes as well as the smaller the air volume thereof becomes. - Setting is made such that the intake of the outside air and the exhaust of the indoor air are performed only by the
intake device 30 and theexhaust device 40 of thesection 1P, which is located farthest from thesection 1F. To be more specific, the intake amount and the exhaust amount of theinlet 31P and theoutlet 41P in thesection 1P are set at [8] in 10 stages, while the intake amounts and the exhaust amounts of theinlets 31A to 310 and theoutlets 41A to 410 inother sections 1A to 1O are set at [0]. The intake amount and the exhaust amount of theinlet 31P are determined in accordance with the number of people obtained from the determination of the number of people who are present in thesection 1F. Therefore, if the number of people is increased, the intake amount and the exhaust amount thereof are set at [9] or [10], while if the number of people is decreased, the intake amount and the exhaust amount thereof are set at [5] or [6]. - The illumination of the
fluorescent lamp units 20 is controlled so that, in thesection 1F and thesections 1A to 1C, 1E, 1G, and 1I to 1K adjacent to thesection 1F, the correspondingfluorescent lamp units 20A to 20C, 20E, 20F, 20G, and 20I to 20K are lighted, while thefluorescent lamp units 20 in other sections are not lighted. To be more specific, thefluorescent lamp unit 20F in thesection 1F is set at 100%, which is the brightest, while thefluorescent lamp units sections fluorescent lamp unit 20F by 20%. Also, thefluorescent lamp units sections fluorescent lamp unit 20F by 40%. - A control pattern example (B) is also a control pattern of a case where a person is present in the
section 1F. To be more specific, this is a control pattern when a heating operation is performed in a case where the predetermined number of people are present only in thissection 1F, and a setting temperature of thissection 1F is 24°C. In the control pattern example (B) as well, temperatures are set in such a manner that a temperature gradient is provided in stages radially from thesection 1F regarded as the center, in which a person is present, toward the periphery. However, in the control pattern example (B), since this is a control pattern when the heating operation is performed, theair conditioner 10 in thesection 1F is set at the highest temperature and air volume, and the farther the section is located from thesection 1F, the lower the temperature and air volume thereof are set at. - As shown in
Fig. 8 , assuming that theair conditioner 10 in thesection 1F is set at a temperature of 24°C and an air volume of [9], each of theair conditioners 10 in thesections air conditioners 10 in thesections - Setting is made such that the intake of the outside air and the exhaust of the indoor air are performed only by the
intake device 30 and theexhaust device 40 of thesection 1P, which is located farthest from thesection 1F. To be more specific, the intake amount and the exhaust amount of theinlet 31P and theoutlet 41P in thesection 1P are set at [5], while the intake amounts and the air exhaust amounts of theinlets 31 and the outlets 41 of other sections are set at [0]. Here, in the control pattern example (A), the intake amount and the air exhaust amount are set at [8]. Such a difference is caused by the fact that the number of people in thesection 1F in the control pattern example (B) is smaller than the number of people in thesection 1F in the control pattern example (A). - Since there is no difference in the illumination by the
fluorescent lamp units 20 between the control pattern example (B) and the control pattern example (A), the description will be omitted. - A control pattern example (C) is a control pattern of a case where a person is present in the
section 1M located at a corner portion of theindoor space 1. To be more specific, this is a control pattern when a cooling operation is performed in which the predetermined number of people are present only in thesection 1M and a setting temperature of theair conditioner 10M in thesection 1M is 26°C. In the control pattern example (C) as well, temperatures are set in such a manner that a temperature gradient is provided in stages radially from thesection 1M regarded as the center, in which a person is present, toward the periphery. - As shown in
Fig. 9 , assuming that theair conditioner 10M in thesection 1M is set at a temperature of 26°C and an air volume of [8], theair conditioners 10I and 10N in thesections air conditioners sections other air conditioners 10 as well, setting is made such that the farther the section is located from thesection 1F, the higher the temperature thereof becomes as well as the smaller the air volume thereof becomes. - Setting is made such that the intake of the outside air and the exhaust of the indoor air are performed only by the
intake device 30 and theexhaust device 40 of thesection 1D, which is located farthest from thesection 1M. To be more specific, the intake amount and the air exhaust amount of theinlet 31D and theoutlet 41D in thesection 1D are set at [10], while the intake amounts and the air exhaust amounts of theinlets 31 and the outlets 41 in other sections are set at [0]. In the control pattern example (A), the intake amount and the air exhaust amount of theinlet 31P and theoutlet 41P are set at [8]. Such a difference is caused by the fact that the number of people in thesection 1M in the control pattern example (C) is greater than the number of people in thesection 1F in the control pattern example (A). - The illumination of the
fluorescent lamp units 20 is controlled so that, in thesection 1M and thesections section 1M, the correspondingfluorescent lamp units fluorescent lamp units 20 are not lighted. To be more specific, thefluorescent lamp unit 20M in thesection 1M is set at 100%, which is the brightest, while thefluorescent lamp units 20I and 20N in thesections lamp unit 20Mby 20%. Also, thefluorescent lamp unit 20J in thesection 1J is set at 60%, which is darker than thefluorescent lamp unit 20M by 40%. - The above-described control patterns (A) to (C) are control patterns if a person is detected in one section, but a control pattern example (D) is a control pattern if a person is detected in each of two sections. To be more specific, a diagram illustrates a control pattern when the cooling operation is performed, if a person is present in each of the
sections 1E and 1O. In the control pattern example (D), a position of the center of gravity (a position of the center of gravity of a plane figure based on the distribution of people) in theindoor space 1 is obtained and thesection 1 corresponding to the position of the center of gravity is used as the center, so that temperatures of theair conditioners 10A to 10P are set in such a manner that a temperature gradient is provided in stages radially from thesection 1 toward the periphery. - As shown in
Fig. 10 , in the control pattern example (D), since a person is detected in each of thesection 1E and the section 1O, the center of gravity is positioned in thesection 1J which is located between thesection 1E and the section 1O. Thus, with thissection 1J being used as the center, the temperatures of theair conditioners 10A to 10P are set in such a manner that a temperature gradient is provided in stages radially from thesection 1J. - In the control pattern example (D), each of the
air conditioners 10E and 10O of thesection 1E and the section 1O is set at a temperature of 26°C and an air volume at [8]. In this case, theair conditioner 10J of thesection 1J, which is used as the center, is set at a temperature lower than those of thesection 1E and the section 1O, and at an air volume greater than those thereof, considering that the cooling operation is performed. For example, it is set at a temperature of 25°C and at an air volume of [9]. Then, theair conditioners 10 ofother sections 1 are set such that the farther the section is located from thesection 1J, the lower the temperature thereof becomes as well as the smaller the air volume thereof becomes. For example, theair conditioners 10I and 10N in thesections air conditioners sections air conditioners sections - Setting is made such that the intake of the outside air and the exhaust of the indoor air are performed in the three
sections section 1J. The intake amount and the exhaust amount of theinlet 31D and theoutlet 41D in thefarthest section 1D are set at [10], and the intake amounts and the exhaust amounts of theinlets outlets section 1C and thesection 1H, which are second farthest, are set at [8]. To be more specific, setting is made such that the farther the section is located from thesection 1J, the greater the intake amount and the air exhaust amount thereof become. - As for illumination by the
fluorescent lamp units 20, thefluorescent lamp units sections fluorescent lamp units 20 to be set at brightness of 80% and thefluorescent lamp units 20 to be set at brightness of 60% are increased. To be more specific, thefluorescent lamp units sections fluorescent lamp units sections - A control pattern example (E) is also a control pattern if a person is detected in each of two sections. The control pattern example (E) is different from the above-described control pattern (D) in such a respect that the
air conditioners 10 are different in setting among the sections in which people are detected. - As shown in
Fig. 11 , the control pattern example (E) is a control pattern when the cooling operation is performed, if a person is present in each of thesection 1I and the section 1O. In the control pattern example (E), the air conditioner 10I in thesection 1I is set at a temperature of 23°C and an air volume of [9], and the air conditioner 10O in the section 1O is set at a temperature of 25°C and an air volume of [7]. In this example, thesection 1I and the section 1O are considered as separate centers, and the temperatures and the air volumes of theair conditioners 10 in other sections are set. Theair conditioners 10 in the other sections are set at temperatures on the basis of the closer section out of the two sections which are considered as the centers. Also, for theair conditioners 10 in the sections at an equal distance from the bothsections 1I and 1O, a lower temperature setting takes effect, considering that the cooling operation is performed. Therefore, theair conditioners sections section 1I. On the other hand, theair conditioners sections air conditioners sections - Setting is made such that the intake of the outside air and the exhaust of the indoor air are performed, in the control pattern example (E) as well, on the basis of the
section 1J including the center of gravity of thesection 1I and the section 1O. Therefore, the intake amount and the air exhaust amount are set so that the intake/exhaust is performed in thesection 1D, which is the farthest from thesection 1J. Also, as for the illumination by thefluorescent lamp units 20, settings are made assuming that there are two centers, i.e., thesection 1I and the section 1O, and the brighter setting is employed for thesection 1 with different settings in brightness. A detailed description of the settings of the illumination will be omitted. - A control pattern example (F) is also a control pattern if a person is detected in each of two sections. In the control pattern example (F), the sections where people are detected are adjacent to each other, and the settings of the temperature and the air volume are the same therebetween.
- As shown in
Fig. 12 , the control pattern example (F) is a control pattern when the cooling operation is performed, if a person is present in each of thesection 1N and the section 1O. In the control pattern example (F), theair conditioners 10N and 10O of thesection 1N and the section 1O are set at a temperature of 24°C and an air volume of [9]. In this case, considering thesection 1I and the section 1O as onesection 1, the temperatures and the air volumes in other sections are set. - Then, as for the intake of the outside air and the exhaust of the indoor air as well, the sections, in which the intake and the exhaust are performed, and the intake amount and the exhaust amount are set considering the
section 1N and the section 1O as onesection 1. In this control pattern example (F), the intake and the exhaust are performed using theintake device 30 and theexhaust device 40 provided in thesection 1A to thesection 1D, which are the farthest from thesection 1N and the section 1O. To be more specific, the outside air is taken in through theinlets section 1A and thesection 1D, and the indoor air is exhausted through theoutlets section 1B and thesection 1C. - Also, illumination by the
fluorescent lamp units 20 is set considering thesection 1N and the section 1O as one section. A detailed description of the setting of the illumination will be omitted. - Subsequently, an operation of the electric equipment management system will be described. As shown in
Fig. 13 , in this system, first of all, theimage processing computer 200 determines whether or not it is timing in obtaining the number of people (S1). In an embodiment of the present invention, a configuration is such that the number of people per section is obtained per minute (predetermined period). Thus, theimage processing computer 200 determines whether or not one minute has elapsed since the previous timing in obtaining the number of people on the basis of the time information by thetimer 220, and if it determines that the time has elapsed, go to processing in Step S2. - In Step S2, people count determination processing is performed. This determination processing is performed on the basis of the image data stored in the image
data storage area 252. To be more specific, theimage processing computer 200 extracts images of people on the basis of the image data, and obtains people count information indicating the number of people per section. Then, the obtained people count information is transmitted to the host computer 100 (S3). Thehost computer 100 receives the people count information from theimage processing computer 200, and stores it in the people countinformation storage area 153. - The
host computer 100 determines whether or not it is timing in updating the control pattern. In an embodiment of the present invention, an update period is set at 1 minute (predetermined period). Thus, thehost computer 100 determines whether or not one minute has elapsed since the previous data-update timing on the basis of the time information by thetimer 120, and if it determines that the time has elapsed, go to processing in Step S12. - In Step S12, data of the corresponding control pattern is obtained. In this case, the
host computer 100 first reads the people count information for the past three minutes, and calculates the average number of people per section. Subsequently, thehost computer 100 recognizes a section with a person, in which a person is detected, and a section without a person, in which a person is not detected. Further, in the section with a person, it determines the number of people per section. Thereafter, thehost computer 100 selects the most suitable control pattern in accordance with the arrangement pattern of the section with a person and the section without a person, and the number of people who are present in theindoor space 1, and reads the pattern from the air-conditioningpattern storage area 155, the ventilationpattern storage area 156, and the illuminationpattern storage area 157. - Once the corresponding control pattern has been read, the
host computer 100 determines whether or not temperature adjustment is needed for the air conditioners 10 (S13). For example, the control pattern having been used so far is compared with the newly-read control pattern in each section. Then, if there is a difference in setting temperature or air volume, a temperature change signal is transmitted to the air conditioner provided in the section 1 (S14). Theair conditioner 10 having received this temperature change signal updates the setting temperature information stored in the setting temperatureinformation storage area 14c to the one indicated by the temperature change signal (S21). As a result, the setting temperature and/or air volume in thisair conditioner 10 is changed. - Subsequently, the
host computer 100 determines whether or not adjustment is needed for theintake device 30 and/or the exhaust device 40 (S15). Here again, the control pattern having been used so far is compared with the newly-read control pattern in each section, and it is determined whether or not there is a difference in intake amount and/or air exhaust amount. If there is a difference, an intake/exhaust change signal is transmitted to theintake device 30 or theexhaust device 40 provided in the section 1 (S16). Then, theintake device 30 and/or theexhaust device 40 having received the intake/exhaust change signal changes the rotation speed of theintake motor 32 or the exhaust motor 42 (S22). As a result, the intake amount or the exhaust amount in thetarget inlet 31 or outlet 41 is changed. - Subsequently, the
host computer 100 determines whether or not illuminance adjustment is needed for the fluorescent lamp units 20 (S17). Here again, the control pattern having been used so far is compared with the newly-read control pattern in each section, and it is determined whether or not there is a difference in illuminance. If there is a difference, an illuminance change signal is transmitted to thefluorescent lamp unit 20 provided in the section 1 (S18). Theair conditioner 10 having received this illuminance change signal updates the illuminance information stored in the illuminanceinformation storage area 24c to the one indicated by the illuminance change signal (S23). As a result, the brightness in thefluorescent lamp unit 20 is changed. Thereafter, the above-described processing is performed repeatedly. - As described above, the electric equipment management system according to an embodiment of the present invention includes: the
intake device 30, configured to take the outside air into theindoor space 1 and capable of changing the intake amount of the outside air; and a group of thecamera 50, theimage processing computer 200, and thehost computer 100. Theimage processing computer 200 determines the number of people, who are present in theindoor space 1, on the basis of the image information from thecamera 50, to be output as people count information. Thehost computer 100 obtains the people count information and controls the intake device so that the more the number of people, indicated by the people count information, is increased, the greater the amount of the outside air to be taken in becomes. Thus, the outside air of the optimal amount in accordance with the number of people who are present in theindoor space 1 can be taken into theindoor space 1. - The above-described
indoor space 1 is virtually divided into the plurality ofsections 1A to 1P. Theintake devices 30 includes the plurality ofinlets indoor space 1 and each of which is capable of changing the amount of the outside air to be taken into theindoor space 1, and theimage processing computer 200 outputs the people count information in each section. Thehost computer 100 controls theintake device 30 so that the amount of the outside air to be taken in through theinlet 31 located farther from thesection 1, where a determination is made that a person is present, becomes greater than the amount of the outside air to be taken in through theinlet 31 located closer to thesection 1, where a determination is made that a person is present. Thus, a person who is present in theindoor space 1 hardly senses a change in the room temperature accompanied by the intake of the outside air. As a result, a comfortable environment can be provided for the person who is present in the indoor space. Particularly, if the outside air is taken in only through theinlet 31 located farthest from the section with a person, a change in the room temperature is hardly sensed. - This electric equipment management system also includes the
exhaust devices 40 configured to discharge air in theindoor space 1 to the outside. And theexhaust devices 40 includes the plurality ofoutlets 41A to 41P, which are arranged at different spots in theindoor space 1 and each of which is capable of changing the amount of the air to be exhausted from theindoor space 1. Thehost computer 100 controls theexhaust device 40 so that the amount of the air to be exhausted through the outlet 41 located farther from the section, where a determination is made that a person is present, becomes greater than the amount of the air to be exhausted through the outlet 41 located closer to the section, where a determination is made that a person is present. Thus, a person who is present in theindoor space 1 hardly senses a change in the room temperature accompanied by the exhaust of the indoor air. As a result, a comfortable environment can be provided for the person in the indoor space. Particularly, if the air is exhausted only through the outlet 41 located farthest from the section with a person, a change in the room temperature is hardly sensed. - In the
sections 1A to 1P of theindoor space 1, the plurality ofair conditioners 10A to 10P which are configured to set the corresponding sections at desired temperatures are provided, respectively. Thus, the temperature of the section with a person is hardly changed by the intake of the outside air, so that the reduction can be suppressed in the efficiency of the cooling/heating operation by theair conditioners 10A to 10P. - With regard to the control of the intake amount and the exhaust amount, the intake amount and the exhaust amount are set in accordance with the number of people who are present in the
indoor space 1, in an embodiment described above. Here, if theair conditioner 10 is instructed to perform an operation opposite to the cooling/heating operation which has been performed so far, the intake amount of the outside air may be increased using the instruction as a trigger. - For example, if a switching instruction for switching to the cooling operation is outputted to the
air conditioner 10 which has been performing the heating operation so far, thehost computer 100 executes control so as to increase the intake amount of the outside air to an amount thereof which is greater than that in accordance with the number of people who are present in theindoor space 1. Also, theair conditioner 10 is switched to an air-blowing operation. As a result, the outside air at a temperature lower than that of theindoor space 1 is taken into theindoor space 1, so that the temperature of theindoor space 1 can be lowered. As a result, the same effect as the cooling operation can be achieved without switching to the cooling operation, so that energy can be saved. - If a switching instruction for switching to the heating operation is outputted to the
air conditioner 10 which has been performing the cooling operation so far, as well, the same effect can be achieved by increasing the intake amount of the outside air. - Further, if the operation of a
specific air conditioner 10 among the plurality ofair conditioners 10A to 10P is switched, the intake amount of the outside air may be increased only in the section where thespecific air conditioner 10 is provided. This is useful in a case where equipment such as a server, which generates heat, is provided in theindoor space 1. - With regard to the change in the detail of control, the control pattern stored in the
memory 150 is used in an embodiment described above, but the detail of control may be changed by calculation. Here, if the control pattern is used as in an embodiment described above, the detail of control can be changed with efficiency. - With regard to the sections, the
rectangular sections 1A to 1P divided in the horizontal direction in a grid manner are exemplified in an embodiment described above, however, a shape of the sections is not limited to a rectangular shape. For example, it may be a hexagonal shape or a triangular shape. In short, it is only necessary that the sections are divided in the planar direction. - With regard to the detection of a person in each section, when only the presence or absence of a person is to be detected, other detecting means such as an infrared sensor may be used. Here, if a person is detected in each section by the
camera 50 and theimage processing computer 200 as in an embodiment of the present invention, the number of people in each section can also be determined, so that precise control in consideration of the number of people can be executed. Updating cycles of the people detection timing and the control pattern can be set as appropriate. - With regard to the control pattern, in an embodiment described above, the control patterns (C) to (F) are intended for the cooling operation, but they can also be used as the control pattern for the heating operation. In this case, as in the relationship between the control patterns (A) and (B), it is only necessary to set the control pattern such that the closer to the periphery the section is located, the lower the temperature thereof becomes in stages.
- With regard to the setting temperature in the control pattern, upper/lower limit (during cooling /heating operation) may be set. To be more specific, the temperature is set so as not to exceed the upper limit temperature during the cooling operation, while the temperature is set so as not to fall under the lower limit temperature during the heating operation. Such upper/lower limit may be a fixed value or may be determined in accordance with the temperature of the outside air. If it is set in accordance with the temperature of the outside air, it is determined such that the upper limit temperature is lower than the outside air temperature during the cooling operation, while the lower limit temperature is higher than the outside air temperature during the heating operation.
- With regard to the
fluorescent lamp units 20, an intended unit does not have to be a fluorescent lamp. It may be other light sources as long as a light control function capable of controlling brightness is provided therein. For example, it may be an LED light or an incandescent lamp. - With regard to the
intake device 30 and theexhaust device 40, theinlet 31 and the outlet 41 do not have to be provided in each section. For example, they may be provided on a surface of a wall of theindoor space 1. In short, it is only necessary that a plurality of lamps are arranged at different positions in theindoor space 1.
Claims (5)
- A ventilation control apparatus of an indoor ventilation system including an intake device (30) configured to take outside air into an indoor space (1), the intake device (30) capable of changing an intake amount of the outside air, the ventilation control apparatus comprising:a people count detection unit configured to determine the number of people who are present in the indoor space (1), to be outputted as people count information; anda control unit (110) configured to obtain the people count information and control the intake device (30) so that the more the number of people indicated by the people count information is increased, the greater an amount of the outside air to be taken in becomes,wherein the indoor space (1) includes a plurality of virtually divided sections (1A-1P),
wherein the people count detection unit is configured to output the people count information in each of the plurality of sections (1A-1P), and
wherein the intake device (30) includes a plurality of inlets (31, 31A-31P) arranged at different spots in the indoor space (1), the plurality of inlets (31, 31A-31P) each capable of changing an amount of the outside air to be taken into the indoor space (1),
characterized in that the control unit (110) is configured to control the intake device (30) so that the outside air to be taken in through an inlet (31, 31A-31P) located farther from a section (1A-1P) where a determination is made that a person is present is greater in amount than the outside air to be taken in through an inlet (31, 31A-31P) located closer to the section (1A-1P) where a determination is made that a person is present. - The ventilation control apparatus according to claim 1, wherein
the control unit (110) is configured to control the intake device (30) so that the outside air is taken in only through an inlet (31, 31A-31P) located farthest from the section (1A-1P) where a determination is made that a person is present. - The ventilation control apparatus according to claim 1, wherein
the indoor ventilation system includes an exhaust device (40) including a plurality of outlets (41, 41A-41P) arranged at different spots in the indoor space (1), the plurality of outlets (41, 41A-41P) each capable of changing an amount of air to be exhausted from the indoor space (1), the exhaust device (40) configured to exhaust the air in the indoor space (1) to the outdoor, and wherein
the control unit (110) is configured to control the exhaust device (40) so that the air to be exhausted through an outlet (41, 41A-41P) located farther from the section (1A-1P) where a determination is made that a person is present is greater in amount than the air to be exhausted through an outlet (41, 41A-41P) closer to the section (1A-1P) where a determination is made that a person is present. - The ventilation control apparatus according to claim 1, wherein
the indoor ventilation system includes a plurality of air conditioners (10, 10A-10P) provided respectively in the plurality of sections (1A-1P), the plurality of air conditioners (10, 10A-10P) configured to set the plurality of sections (1A-1P) at desired temperatures, respectively. - The ventilation control apparatus according to claim 1, wherein
the indoor ventilation system is provided in the indoor space (1) and includes an air conditioner (10, 10A-10P) configured to set the indoor space (1) at a desired temperature, and wherein
the control unit (110) is configured to take into the indoor space (1) an amount of the outside air greater than an amount thereof corresponding to the number of people indicated by the people count information, if such a switching instruction is outputted that instructs the air conditioner (10, 10A-10P) performing a heating operation to be switched to a cooling operation or if such a switching instruction is outputted that instructs the air conditioner (10, 10A-10P) performing a cooling operation to be switched to a heating operation.
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JP2010019534A JP5528833B2 (en) | 2010-01-29 | 2010-01-29 | Ventilation control device |
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JP2007107782A (en) * | 2005-10-12 | 2007-04-26 | Daikin Ind Ltd | Air conditioning control system and air conditioning control device |
US20070149109A1 (en) * | 2005-12-23 | 2007-06-28 | Yuandong Gu | Occupancy based ventilation system |
US7758407B2 (en) * | 2006-09-26 | 2010-07-20 | Siemens Industry, Inc. | Ventilation control based on occupancy |
CA2606878A1 (en) * | 2006-10-16 | 2008-04-16 | Ross Sinclaire | Ventilation system for high-rise structures |
KR20090104063A (en) * | 2007-01-17 | 2009-10-05 | 다이킨 고교 가부시키가이샤 | Air conditioning control system |
US20090065596A1 (en) * | 2007-05-09 | 2009-03-12 | Johnson Controls Technology Company | Systems and methods for increasing building space comfort using wireless devices |
US8146376B1 (en) * | 2008-01-14 | 2012-04-03 | Research Products Corporation | System and methods for actively controlling an HVAC system based on air cleaning requirements |
US8364318B2 (en) * | 2010-04-21 | 2013-01-29 | Honeywell International Inc. | Demand control ventilation with fan speed control |
US8442694B2 (en) * | 2010-07-23 | 2013-05-14 | Lg Electronics Inc. | Distribution of airflow in an HVAC system to optimize energy efficiency and temperature differentials |
-
2010
- 2010-01-29 JP JP2010019534A patent/JP5528833B2/en active Active
-
2011
- 2011-01-21 CN CN2011100237032A patent/CN102141286B/en active Active
- 2011-01-31 US US13/018,133 patent/US20110189938A1/en not_active Abandoned
- 2011-01-31 EP EP11152737.0A patent/EP2357419B1/en active Active
Also Published As
Publication number | Publication date |
---|---|
CN102141286B (en) | 2013-09-04 |
EP2357419A2 (en) | 2011-08-17 |
JP2011158157A (en) | 2011-08-18 |
CN102141286A (en) | 2011-08-03 |
US20110189938A1 (en) | 2011-08-04 |
JP5528833B2 (en) | 2014-06-25 |
EP2357419A3 (en) | 2012-10-03 |
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