WO2013073372A1

WO2013073372A1 - Method for assessing comfort level distribution, system for assessing comfort level distribution, air conditioning control system, and computer program

Info

Publication number: WO2013073372A1
Application number: PCT/JP2012/078204
Authority: WO
Inventors: 多久島　朗
Original assignee: ステラグリーン株式会社
Priority date: 2011-11-15
Filing date: 2012-10-31
Publication date: 2013-05-23
Also published as: JP2013104632A

Abstract

The purpose of the present invention is to provide: a method of assessment for displaying the distribution of comfort levels in a store by using store users' respective mobile terminals and on the basis of an air conditioning controller or an air conditioning control system, so as to allow the store users to identify the current environment inside the store; and an air conditioning control system that makes it possible to change a temperature setting for an air conditioning controller or an air conditioning control system from respective store users' mobile terminals. This method for assessing a comfort level distribution comprises the following: receiving from at least one user who is located inside the store, assessment data that pertains to the user's comfort level; calculating the comfort levels of each location in a space on the basis of the assessment data; averaging the calculated comfort levels of each of the locations in the space; and displaying the data of the averaged comfort level of the user locations, the location where the averaged comfort level is most favorable and the location where the averaged discomfort level is lowest.

Description

Comfort distribution evaluation method, comfort distribution evaluation system, air conditioning control system, and computer program

The present invention relates to a method, an evaluation system, an air-conditioning control system using the evaluation system, and the evaluation, for evaluating a comfort distribution state in a space where a large number of people can freely move, such as a convenience store, a department store floor, etc. The invention relates to a computer program for carrying out the method.

Stores such as convenience stores and department store floors are equipped with air conditioners in place on the ceiling of the store, etc., in order to create a comfortable temperature environment without causing discomfort to many users entering and exiting the store. The temperature in the store is air-conditioned to a predetermined temperature.

In large-scale stores such as home centers and suburban supermarkets that sell many types of products, a huge number of products are categorized into categories such as “toiletries corner” and “stationery corner”. Etc. are arranged to form a passage for the consumer. Since such display shelves or the like affect the flow of air, there are places where it is difficult to be air-conditioned and places where air-conditioning is easily controlled depending on the position of the passage.

Furthermore, in the case of stores such as supermarkets and convenience stores, in addition to the display shelves described above, low-temperature or refrigerated open showcases for displaying fresh foods, frozen foods, etc. are installed in the stores. When not only the cold air leaks from these refrigerated or refrigerated open showcases, but also heat is discharged from a compressor such as a compressor, only a limited air conditioner installed at a predetermined position can cause a temperature difference in the store. Is likely to occur.

Air conditioners and air conditioner controls that can provide sufficient energy savings when air-conditioning the inside of stores such as supermarkets and convenience stores where open type low temperature showcases are installed, and defrosting operation of low temperature showcases A method is disclosed (see Patent Document 1).

According to the control method of Patent Document 1, the temperature in the store is set to a predetermined temperature before the inside temperature of the low temperature showcase reaches the defrost setting temperature in accordance with the defrosting operation of the open type low temperature showcase. Control is performed such that the temperature in the store is restored after the inside temperature of the low temperature showcase has returned to the set temperature in the cabinet after the defrosting operation is completed.

In Patent Document 2, the detected area is divided into a plurality of areas, the temperature of each area is detected, and the temperature information of each area that has a plurality of display areas and is detected by the temperature detection means is stored in each area. A temperature distribution display device that displays correspondingly is disclosed. According to the temperature distribution display device of Patent Document 2, the user can recognize the temperature distribution of indoor air and his / her position with respect to the temperature distribution.

However, as described above, since the degree of air conditioning control differs depending on the location where each consumer and store clerk (hereinafter referred to as “store user”) are located, there may be a temperature difference among a plurality of store users. . In general, the temperature at which the user feels uncomfortable as “hot” or “cold”, or the temperature at which the user feels comfort such as “warm” or “cool” is determined by the individual or even by the same person. It depends on the amount of clothes. As described above, the thermal sensation varies depending on each store user, and the degree of air conditioning control varies depending on the position.

Therefore, since the control method of Patent Document 1 does not have a function of grasping the temperature at each position in the store, the demand for the thermal environment can be answered as the store scale increases or the store interior becomes complicated. There is no problem. Moreover, in the temperature distribution display apparatus of patent document 2, there exists a problem that it cannot grasp | ascertain how much comfort the air-conditioning system in use is providing to several shop users.

Japanese Patent Laid-Open No. 2007-024443 JP 2001-153966 A

The object of the present invention is to solve the above-mentioned problems of the prior art and allow the store user to recognize the current in-store environment from the air conditioning control device or the air conditioning control system to each store user's personal computer or mobile phone. An object is to provide an evaluation method, an evaluation system, and a program for causing a computer to execute an evaluation method for notifying a comfort distribution in a store and the comfort distribution evaluation method.

Another object of the present invention is to provide an air conditioning control system capable of changing the temperature setting of an air conditioning control device or an air conditioning control system from each personal computer or portable terminal of a store user.

To achieve the above object, the comfort distribution evaluation method according to the present invention receives evaluation data related to the user's comfort from at least one user located indoors, and based on the evaluation data, the space The comfort at each location is calculated, the comfort at each location within the calculated space is averaged, the average comfort at each location, and the average comfort is the best And the data of the location where the discomfort is the lowest calculated based on the comfort level averaged at each location is displayed.

According to the comfort distribution evaluation method described above, it is possible to monitor the distribution of comfort in a predetermined space such as a convenience store, a home center, a large-scale store such as a suburban supermarket, and a business office. As a result, it is possible to promote movement to a more comfortable environment for human beings in the space.

Further, in the above-described configuration, the comfort distribution evaluation method according to the present invention uses an indoor temperature desired by the user as the evaluation data, and the averaged comfort at each location is Based on the evaluation data, it can be configured to be calculated using at least one of the unsatisfactory rate (PPD) and the comfort index PMV value. According to this comfort distribution evaluation method, the comfort distribution in the predetermined space can be accurately evaluated regardless of the number of people in the space.

In the above configuration, the comfort distribution evaluation method according to the present invention uses the magnitude of the temperature difference between the indoor temperature desired by the user and the temperature of each place in the space as a comfort index, and the temperature As a comfort when the difference is small, the relationship between the temperature difference and the comfort can be provided with the same function characteristics as either the unsatisfactory rate (PPD) or the comfort index PMV value. According to this comfort distribution evaluation method, the comfort in the predetermined space can be meticulously evaluated regardless of the number of people in the space.

Further, in the above configuration, the comfort distribution evaluation method according to the present invention uses the indoor data desired by the user as the evaluation data, and the desired indoor temperature and each location in the space. The magnitude of the temperature difference from the temperature can be used as an index of comfort, and the relationship between the temperature difference and comfort can be linearly or nonlinearly provided as comfort when the temperature difference is small. According to this comfort distribution evaluation method, the relationship between the layout in the predetermined space and the comfort distribution can be visualized.

In the above configuration, the comfort distribution evaluation method according to the present invention uses, as the evaluation data, the comfort F _i (x _i , y _i ) at each person's location (x _i , y _i ) as It is approximated by the function F (x, y) represented, and the result can be displayed.

However, ω _i is a weighting coefficient related to the function F _i (x, y) of the comfort of the store user i; (x, y) is an arbitrary position in the same plane in the space STR.

The comfort distribution evaluation system according to the present invention comprises: receiving means for receiving evaluation data related to each comfort of the user from communication means of at least one user located indoors; and the space based on the evaluation data. Comfort calculating means for calculating comfort at each location in the location and averaging the comfort at each location within the calculated space, and comfort of the user's whereabouts averaged at each location, A comfort display means for displaying the location where the averaged comfort is the best and the data of the location where the discomfort is the lowest calculated based on the averaged comfort at each location. It is characterized by that.

According to the comfort distribution evaluation system, it is possible to monitor the distribution of comfort in the predetermined space, so that the person in the space can be encouraged to move to a comfortable environment.

In the above configuration, the communication means of the comfort distribution evaluation system according to the present invention has a function of transmitting the indoor temperature desired by the user to the reception means, and the evaluation data includes The user's desired indoor temperature is included, and the comfort calculation means uses the magnitude of the temperature difference between the indoor temperature desired by the user and the temperature at each location in the space as an index of comfort. It can be configured to have a function of providing a linear or non-linear relationship between the temperature difference and comfort as comfort when the temperature difference is small.

According to the above-described comfort distribution evaluation system, it is possible to monitor the distribution of comfort in a predetermined space such as a convenience store, a home center, a large-scale store such as a suburban supermarket, and a business office. Accordingly, it is possible to promote movement to a more comfortable environment for human beings in the space.

In the above configuration, the communication means of the comfort distribution evaluation system according to the present invention has a function of transmitting the indoor temperature desired by the user to the reception means, and the evaluation data includes: The user's desired indoor temperature is included, and the comfort calculation means uses at least one of a dissatisfied person rate (PPD) and a comfort index PMV value based on the evaluation data, It can be configured to have a function of calculating the average comfort at each location in the space. According to this comfort distribution evaluation system, the comfort in the predetermined space can be finely evaluated regardless of the number of people in the space.

In the above configuration, the comfort calculation means of the comfort distribution evaluation system according to the present invention uses the magnitude of the temperature difference between the desired indoor temperature and the temperature of each place in the space as a comfort index. As a comfort when the temperature difference is small, it can be configured to have a function of giving the relationship between the temperature difference and comfort with the same functional characteristics as either the unsatisfied person rate (PPD) or the comfort index PMV value. According to the comfort distribution evaluation system, the comfort evaluation function in the predetermined space can be further enhanced regardless of the number of persons in the space.

In the above configuration, the comfort calculation means of the comfort distribution evaluation system according to the present invention calculates the comfort F _i (x _i , y _i ) at each person's location (x _i , y _i ) as And the result can be displayed on the comfort display means.

However, ω _i is a weighting coefficient relating to the comfort function F _i (x, y) of the store user i; (x, y) means an arbitrary position in the same plane in the space STR.

The air conditioning control system according to the present invention includes means for calculating a new set temperature based on the following functional expression using the indoor temperature desired by the user as a variable, using the comfort distribution evaluation system having the above configuration. Have

... (4)
(However, T _set is a newly set standard temperature; T _s is a preset standard temperature; T _R is a room temperature; T _Ai is a standard temperature desired by user i; N is the total number of users or communication means Total number; ω _i is a weighting factor for user i),
A temperature control means for setting the standard temperature _Tset calculated based on the above formula is provided.

According to the air conditioning control system, the temperature setting of the air conditioning control device or the air conditioning control system can be changed from each personal computer or portable terminal of the store user. In addition, on the personal computer or mobile terminal of each store user, an image corresponding to the image or sketch in the store or office is displayed, and the comfort distribution and the set temperature desired by the store user are set in the above-described manner. It can be displayed superimposed on the image.

Further, the comfort distribution evaluation method according to the present invention can be executed using a computer program. Therefore, the air conditioning control system according to the present invention can be configured without changing the installation location or the like using existing air conditioning equipment.

1 is a conceptual diagram of an air conditioning control system according to a first embodiment of the present invention. It is a block diagram of the air-conditioning management apparatus 10 of FIG. It is a conceptual diagram which shows the control range of the air-conditioning control part 12 with respect to the said space STR. (A) It is a figure which shows one of the display methods of the display 50 of FIG. (B) It is a figure which shows the other display method of the display 50 of FIG. (A) It is a figure which shows one of the display methods of the display 50 which concerns on 2nd Embodiment of this invention. (B) It is a figure which shows the other display method of the display 50 which concerns on 2nd Embodiment of this invention. It is a flowchart which shows control of the air-conditioning control system of the 1st Embodiment of this invention.

Hereinafter, the humidity sensor of the present invention will be specifically described based on the following Embodiment 1. However, the embodiment shown below is an example of the embodiment of the present invention, and the present invention is limited to these embodiments. Is not to be done.

[First Embodiment]
The conceptual diagram of the air-conditioning control system which concerns on 1st Embodiment of this invention is shown in FIG. Moreover, the block diagram of each component of the comfort calculation means of the air-conditioning control system which concerns on 1st Embodiment of this invention is shown in FIG. The air conditioning control system 1 shown in FIG. 1 includes air conditioners 20a to 20d including air conditioner outdoor units 21a to 21c and air conditioner indoor units 22a to 22d installed in a convenience store, a suburban supermarket, or a business office. To control.

In addition, although the four air-conditioning harmony apparatuses are described in FIG. 1, in the air-conditioning control system of this invention, what is necessary is just to install at least 1 or more, and a number is not limited. For example, it can be configured with only a single air conditioner, or can be configured with five or more air conditioners. Moreover, although only four store users are described in the space STR that is air-conditioned, the number may be one or five or more, and the number is not limited.

The air conditioning control system 1 shown in FIG. 1 mainly includes comfort management means 10, communication means 31, 32, 33, 34, air conditioner outdoor units 21a to 21d, air conditioner indoor units 22a to 22d, reception means 40, and comfort display means. The display 50 is provided. The air conditioner outdoor units 21a to 21d and the air conditioner indoor units 22a to 22d are connected to the comfort management means 10 via control lines 60a to 60d.

As shown in FIG. 2, the air conditioning management device 10 mainly includes comfort calculation means 11, an air conditioning control unit 12, and a transmission unit 13.

The store user moves freely in the space STR, and transmits the comfort evaluation in each location using the communication means 31, 32, 33, 34 owned by each person. The communication means 31, 32, 33, and 34 need only have a communication function, and each person's comfort evaluation is made to the air conditioning management apparatus 10 via a communication network such as a wired LAN line or a wireless LAN. Sent. Further, as the communication means 31, 32, 33, 34, any of a personal computer, a portable terminal, a cellular phone and the like can be used.

The receiving means 40 receives the comfort evaluation data in each person's whereabouts transmitted through the communication means 31, 32, 33, 34 (process S1 in FIG. 6). The received evaluation data is transmitted to the comfort calculation means 11 via the communication line 70.

The evaluation data is not particularly limited as long as it is information on comfort of each location of the store user and can be converted into numerical data that can be processed by a computer. For example, a stimulus for any one of human auditory sense, smell sense, and visual sense can be included as information on the comfort if it is converted into numerical data so that it can be processed by a computer. In addition, sensual information such as “wind is strong”, “comfortable wind blows”, “sunlight is strong”, and “moist” is highly related to temperature. It is also possible to include it as information for comprehensively evaluating comfort.

Further, the communication means 31, 32, 33, and 34 can transmit a request regarding the air conditioning and environment of each person's whereabouts such as a desired indoor temperature as a part of the evaluation data. When the desired indoor temperature is transmitted as a part of the evaluation data, the set temperature of the air-conditioning indoor units 22a to 22d and the vicinity of each person's location are displayed on the display 50 or each communication means 31, 32, 33, 34, etc. It is preferable to display the temperature.

The comfort calculation means 11 calculates the comfort in each person's whereabouts based on the comfort evaluation data in each person's whereabouts (process S2 of FIG. 6). The calculated comfort may be displayed on the display 50 (process S2a in FIG. 6). For example, when the desired indoor temperature is included in the evaluation data, the comfort calculation means 11 The magnitude of the temperature difference between the desired indoor temperature and the temperature of each place in the space is used as an index of comfort, and comfort is high when the temperature difference is small, and concomitant when the temperature difference is large. The relationship between temperature difference and comfort is approximated as a linear or non-linear function using an approximate curve that increases.

The comfort of the place where the store user is absent can be calculated as follows using the comfort evaluation data in each person's whereabouts and the comfort calculated based on the evaluation data. First, out of N store users in the space STR, the location of the store user i (1 ≦ i ≦ N) is expressed in space coordinates and time (x _i , y _i , t _i ), and the store usage The comfort of the location of person i (1 ≦ i ≦ N) is defined as a function of spatial coordinates and time F _i (x _i , y _i , t _i ).

As the function F _i (x _i , y _i , t _i ), a predicted mean temperature vote (PMV), a predicted dissatisfied (PPD), a standard effective temperature (SET) Any one of Effective Temperature and Discomfort Index (DI) can be selected and used.

Then, the comfort user is calculated based on the evaluation data of the comfort in the location (x _i , y _i , t _i ) of the store user i and the evaluation data, and the store user i uses the least square method. The value of the comfort function F _i (x, y, t _i ) related to the store user i can be calculated so as to include a non-existing location.

The comfort function F _i (x, y, t _i ) can be ignored by the store user i because the influence of t _i can be ignored when the temperature distribution in the store is in a steady state. Can be defined as a function of the temperature difference between the standard temperature T _Ai (x _i , y _i ) and the room temperature T _R (x _i , y _i ) where the store user i is located. For example, the comfort function F _i (x, y, t _i ) is expressed by the standard temperature T _Ai (x _i , y _i ) desired by the store user i and the store user as shown in the following equation (1). It can be defined as a function of the power of the absolute value of the difference from the room temperature T _R (x _i , y _i ) at the location of _i .

... (1)
(Where C is a constant; n is an integer of 1 or more)

Alternatively, the comfort function F _i (x, y, t _i ) may be defined as the following equation (2).

... (2)
(However, C ₁ , C ₂ and C ₃ are constants)

In addition to the expressions (1) and (2), the comfort function F _i (x, y) may be defined as an exponential function.

The comfort calculation means 11 uses the evaluation data related to comfort, such as the temperature of each person's whereabouts, transmitted from the communication means 31, 32, 33, and 34, the expressions (1) and (2), and the like. Using this, the comfort value of each person's whereabouts in the space STR is calculated (processing S3 in FIG. 6). The calculated comfort value is transmitted from the transmission unit 13 to the display 50.

The display 50 displays the temperature comfort at the location of each person in the space STR as shown in FIG. 4A (process S3a in FIG. 6). However, it may be difficult to grasp the correlation of comfort of each person's whereabouts in the space STR. Therefore, the comfort calculation means 11 calculates the comfort F _i (x _i , y _i ) at each person's whereabouts (x _i , y _i ) by the function F (x, y) expressed by the following equation (3). (Process S4 in FIG. 6), and the result is displayed on the display 50 as shown in FIG. 4B (process S4a in FIG. 6).

... (3)
(Where ω _i is a weighting factor for the comfort function F _i (x, y) for the store user i; (x, y) is an arbitrary position in the same plane in the space STR)

In the equation (3), the weighting coefficient ω _i can be equally set to 1 / N for all store users i. However, when differentiating important customers that should be monitored from other customers, the evaluation data and comfort values sent from each store user are weighted according to the demand level of the customer segment. You can also make a comprehensive evaluation.

The comfort calculation means 11 can also obtain an ideal comfort distribution function in the space STR based on the comfort evaluation data in each person's location. In this case, the comfort calculation means 11 compares the ideal comfort distribution function with the overall comfort distribution function (step S5 in FIG. 6). The comfort calculation means 11 determines that the difference between the value of the ideal comfort distribution function and the value of the total comfort function for the same location (x, y) in the space STR is a predetermined value. It is checked whether or not the distance is exceeded (process S5 in FIG. 6).

If the difference between the value of the ideal comfort distribution function and the value of the total comfort function is more than the predetermined value, the ideal distribution curve and the total comfort The air conditioner outdoor unit and the air conditioner indoor unit are controlled so as to reduce the difference from the general distribution function (step S7 in FIG. 6). On the other hand, if the difference is within the range of the predetermined value, the air conditioner outdoor unit and the air conditioner indoor unit are controlled so as to maintain the current comfort (process S6 in FIG. 6).

[Second Embodiment]
In the air conditioning control system according to the second embodiment of the present invention, the comfort calculation means 11 calculates the comfort of each place in the space using at least one of the unsatisfied person rate (PPD) and the comfort index PMV value. It is characterized by having a function to calculate.

That is, the comfort calculation means 11 in the second embodiment is a method for evaluating comfort using either the set indoor temperature and the temperature at the location of each person and the indoor temperature that each person desires at the location. In addition, the comfort of each place in the space can be calculated using the PMV, PPD, SET, DI, and the like.

Moreover, the comfort calculation means 11 in 2nd Embodiment is provided with the function which calculates new preset temperature based on the following function formula which uses the indoor temperature transmitted from the user i in the space STR as a variable.

(However, T _set is a newly set standard temperature; T _s is a preset standard temperature; T _R is a room temperature; T _Ai is a standard temperature desired by user i; N is the total number of users or communication means Total number; ω _i is a weighting coefficient for user i)

The comfort calculation means 11 calculates the comfort in each person's whereabouts based on the comfort evaluation data in each person's whereabouts.

The comfort of each place in the space and the average comfort of each place in the calculated space are displayed on the display 50. In addition, the display 50 has the averaged comfort and the averaged comfort as a function of position, and the averaged comfort and discomfort. Display the place of least discomfort.

Since the thermal sensation varies among individuals, when comfort calculated based on comfort evaluation data from each person is displayed as a function of position, there is a deviation as shown in FIG. C31 to c34 in FIG. 5A are the discomfort (PMV: predicted average temperature / cooling) calculated by the comfort calculation means 11 based on the comfort evaluation data reported by each person via the communication means 31 to 34. It is a curve which shows each feeling report). FIG. 5 (B) averages and displays the discomfort at each position in the space STR transmitted from each person as shown in FIG. 5 (A) as a function AVG (X, Y) of the position. To display.

Air conditioning control unit according to the second embodiment 12, so that the standard temperature T _i which is calculated based on the temperature in the space STR equation (4), the air conditioner outdoor unit 21a through 21c and the air conditioning indoor unit 22a to 22d In contrast, a control signal for cooling or heating is transmitted via the control lines 60a to 60d. The standard temperature T _i to be newly set can be set only to the particular partition space STR. For example, as shown in FIG. 3, the space STR is partitioned into a matrix of L rows and N columns (L and N are integers of 2 or more), and only the partition in the 1st row and the nth column, or in the vicinity including the partition. as the temperature is standard temperature T _i, it is possible to control the air conditioner outdoor unit and air conditioner indoor unit.

The air conditioning control system according to the second embodiment can monitor the distribution of comfort in a predetermined space such as a convenience store, a home center, a large-scale store such as a suburban supermarket, and a business office. As a result, it is possible to promote movement to a more comfortable environment for human beings in the space. Moreover, since the store user can set the set temperature of the air-conditioning control system according to the second embodiment using each portable terminal, the store user's request can be accurately and quickly reflected.

DESCRIPTION OF SYMBOLS 1 Air-conditioning control system 10 Air-conditioning management apparatus 11 Comfort calculation means 12 Air-conditioning control part 13 Transmission part

20a Air conditioner

20b Air conditioner

20c Air conditioner

20d Air conditioner 31 Communication means 32 Communication means 33 Communication means 34 Communication means 40 Reception Means 50 Display (Comfort display means)
60a control line 60b control line 60c control line 60d control line 70 communication line

Claims

A comfort distribution evaluation method for monitoring comfort in a predetermined space,
Receiving evaluation data relating to the comfort of the user from at least one user located indoors;
Based on the evaluation data, calculate comfort at each location in the space,
Average the comfort at each calculated location,
Data on average comfort in each location, where the average comfort is best, and where the discomfort is lowest calculated based on the average comfort in each location Displaying,
Comfort distribution evaluation method characterized by
The evaluation data includes indoor temperatures desired by the users,
The averaged comfort in each of the places is calculated using at least one of a dissatisfied person ratio (PPD) and a comfort index PMV value based on the evaluation data. Comfort distribution evaluation method described in 1.
Using the magnitude of the temperature difference between the indoor temperature desired by the user and the temperature of each place in the space as a comfort index,
The relationship between the temperature difference and the comfort is given by the same function characteristic as either the unsatisfied person ratio (PPD) or the comfort index PMV value as comfort when the temperature difference is small. Comfort distribution evaluation method.
The evaluation data includes indoor temperatures desired by the users,
Using the magnitude of the temperature difference between the desired indoor temperature and the temperature of each place in the space as a comfort indicator,
The comfort distribution evaluation method according to claim 1, wherein the relationship between the temperature difference and the comfort is given linearly or nonlinearly as comfort when the temperature difference is small.
The evaluation data approximates the comfort F i (x i , y i ) at each person's location (x i , y i ) by a function F (x, y) expressed by the following equation, The comfort distribution evaluation method according to claim 2, wherein the comfort distribution is displayed.

(Where ω i is a weighting coefficient for the comfort function F i (x, y) of the store user i; (x, y) is an arbitrary position in the same plane in the space STR)
Receiving means for receiving evaluation data relating to each comfort of the user from communication means of at least one user located indoors;
Comfort calculation means for calculating comfort at each location in the space based on the evaluation data, and averaging the comfort at each location in the calculated space;
Data on average comfort in each location, where the average comfort is best, and where the discomfort is lowest calculated based on the average comfort in each location A comfort distribution evaluation system, comprising: a comfort display means for displaying.
The communication means has a function of transmitting the indoor temperature desired by the user to the receiving means,
The evaluation data includes indoor temperatures desired by the users,
The comfort calculation means uses the magnitude of the temperature difference between the indoor temperature desired by the user and the temperature at each location in the space as a comfort index, and when the temperature difference is small, the comfort calculation means The comfort distribution evaluation system according to claim 6, further comprising a function of linearly or nonlinearly providing a relationship between the comfort level and the comfort level.
The communication means has a function of transmitting the indoor temperature desired by the user to the receiving means,
The evaluation data includes indoor temperatures desired by the users,
The comfort calculation means has a function of calculating an averaged comfort at each location using at least one of a dissatisfaction rate (PPD) and a comfort index PMV value based on the evaluation data. The comfort distribution evaluation system according to claim 6, wherein the comfort distribution evaluation system is provided.
The comfort calculation means uses the magnitude of the temperature difference between the desired indoor temperature and the temperature of each place in the space as a comfort index, and is comfortable when the temperature difference is small. The comfort distribution evaluation system according to claim 7, further comprising a function of giving the relationship with the same function characteristic as any one of a dissatisfied person rate (PPD) and a comfort index PMV value.
The comfort calculation means approximates the comfort F i (x i , y i ) at each person's whereabouts (x i , y i ) by a function F (x, y) expressed by the following equation, 8. The comfort distribution evaluation system according to claim 7, wherein a result is displayed on the comfort display means.

(Where ω i is a weighting coefficient for the comfort function F i (x, y) of the store user i; (x, y) is an arbitrary position in the same plane in the space STR)
An air conditioning control system having the comfort distribution evaluation system according to any one of claims 6 to 10,
Based on the following function formula with the indoor temperature desired by the user as a variable, means for calculating a new set temperature,

(However, T set is a newly set standard temperature; T s is a preset standard temperature; T R is a room temperature; T Ai is a standard temperature desired by user i; N is the total number of users or communication means Total number; ω i is a weighting coefficient for user i)
An air conditioning control system comprising temperature control means for setting the standard temperature T set calculated based on the above formula.
A program for causing a computer to execute the comfort distribution evaluation method according to any one of claims 1 to 5.