JP3589495B2 - Psychological evaluation method according to living conditions and living environment control method according to living conditions - Google Patents

Abstract

PURPOSE: To properly evaluate a hot environment or the like for every living situation by converting a reply value to the hot environment for every living situation and environment into a numerically represented environment and controlling the hot environment based on the conversion value. CONSTITUTION: A researcher presents factors such as stability, peaceful feeling deemed to be suitable for evaluating a hot environment to a person to be researched by using an inquiry presenting part 1. The person to be researched inputs the hot environment of an inquired space through a reply input part 2. A reply evaluation value converting part 3 holds respective values in a data structure, reads an average value and a standard deviation from a statistical data storing part 6 stored in a statistical conversion data storing part 4, executes computation, obtains an inquiry number standardized reply value, calculates factor scores, gets an evaluation value, and outputs the calculated evaluation value to an evaluation value output part 7. Thus, the environment is evaluated. Then, the environment is controlled for every living situation based on the evaluation value.

Description

[0001]
[Industrial applications]
The present invention relates to control of a living environment, and more particularly, to control according to a living situation.
[0002]
[Prior art]
2. Description of the Related Art A conventional air conditioner control device for controlling living conditions includes an example described in, for example, Japanese Patent Application Laid-Open No. 5-149599. Hereinafter, this conventional air conditioner control device will be described with reference to the drawings.
FIG. 1 is a configuration diagram of the air conditioner control device. In the figure, reference numeral 91 denotes a sensor, 92 denotes a storage unit for storing an output value from the sensor 91, 93 denotes an image input unit, 94 denotes a feature extraction unit, and 95 denotes a remote control type or an installation type. An operation unit equipped with an operation panel, 96 is an operation time detection unit that detects the elapsed time from the start of operation, 97 is a learning unit, 98 is an operation content estimation unit, and 99 is a control signal. Reference numeral 910 denotes an air conditioner. These components are organically connected by signal lines.
[0003]
Next, the operation of the conventional device will be described.
The output from the sensor unit 91 is stored in the storage unit 92. The storage unit 92 also stores indoor and outdoor environmental conditions. Image data is input from the image input unit 93 to the feature extraction unit 94, and the feature amount is obtained. The operation time detection unit 96 obtains the elapsed time from the start of operation based on the operation content from the operation unit 95. The operation content estimation unit 98 estimates the operation content of the occupant based on inputs from the sensor unit 91, the storage unit 92, the feature extraction unit 94, the operation unit 95, and the operation time detection unit 96. For example, in the case of air conditioning in a classroom or a room in a public hall, etc., which is used during summertime, it is used from 9:00 am to 9:00 pm. The belt also has a large load.
[0004]
These are also input to the learning unit 97, and the learning unit 97 learns the occupant's current intention to input air conditioning input from the operation unit 95 as a teacher signal. The reference information is output to the operation content estimation unit 98, and the internal reference information is updated.
Almost the same is applied to light environment control in public halls, rental offices, apartment houses, and the like. For example, indoor lighting in rental rooms of public halls with large windows, lighting in school corridors, etc. should not be turned on or minimized during the day, and in large classrooms at universities, the position of teachers during class hours should be turned on even during the day. It is. Similarly, it is applied to an acoustic environment such as the volume of a speaker used by a lecturer in a large classroom, the sensitivity of a speaker and a microphone in a large conference, and the volume of background music in a dental treatment room.
[0005]
[Problems to be solved by the invention]
However, in the conventional air conditioner control device that automatically detects and controls indoor conditions, the influence of psychological factors belonging to an optimal thermal environment according to a living environment or a living condition is not considered. For this reason, the state of learning in the middle hierarchy of the neural network is not considered accurately, and the following inconvenience may occur.
[0006]
Hereinafter, a description will be given of a thermal environment as an example.
For example, when the intention indication of "hot" or "cold" is learned as a special teacher signal for a certain period, the following inconvenience occurs.
(1) When a person who enters the room from the outside operates the air conditioner, the strongest operation is performed when the air conditioner starts up, and then the room is often kept in a relatively warm state. And so on. In addition, the temperature varies from year to year, and furthermore, the operation differs depending on the situation outside the room.
[0007]
(2) Also, if a person prefers a slightly cool state and is somewhat reluctant, the room temperature tends to be set lower by all means. However, when this is within the range permitted by the other occupants, no intention display such as "hot" or "cold" is performed. Therefore, the operation is continued as it is. Moreover, the tolerance of other occupants also differs depending on the living environment.
[0008]
(3) The age of the occupants and the gender of women are often cold, so the optimal temperature and tolerance vary depending on the gender, and also vary depending on the work content such as bedtime, indoor gymnastics, studying, but these vary in a complicated manner. .
Almost the same occurs in a light environment and a sound environment.
Eventually, the shifted teacher signal may be learned. In other words, in the case of the automatic control for predicting the operation of the occupant in advance, the control decision is black-boxed or not always appropriate when learning by the neural network is performed. Insufficient or incorrect learning can occur many times. As a result, there are many cases where control is performed in a direction opposite to that for supporting life.
[0009]
Next, in order to maintain a sense of arousal, it is not desirable for the same living environment to be the same, and it is preferable that there be some fluctuation. That is, a certain kind of fluctuation is necessary for the human, the human body, and the human brain as organisms to function smoothly. To give an example that is extremely familiar but easy to understand, it is necessary to establish a desert state that does not water in January in midsummer in order to make beautiful flowers available to cacti, and to make it a beautiful and large goldfish This is similar to the need to provide a winter condition in the middle of January. In addition, the fluctuation varies depending on the work that the person is engaged in.
[0010]
However, in the related art, no consideration is given to the content of the fluctuation, especially in relation to the living situation. The present invention has been made in view of the above problems, and enables an appropriate evaluation of an environment such as heat according to a living situation, which has been difficult in the past, and a living situation that controls an optimal fluctuation in each living situation. It is an object of the present invention to provide a psychological evaluation method and a living environment control method according to living conditions.
[0011]
[Means for Solving the Problems]
In order to achieve the above object, in the invention of claim 1, a question step of asking a surveyee about items to be subjected to various psychological evaluations on a living environment in each living situation using a CPT or a questionnaire; An answering step in which the surveyor answers the above question, an answering state for each question item, an average calculation, an initial calculation step of performing operations such as a statistical calculation such as determining a standard deviation, and the initial calculation step. Factor score related to the question item used to convert the result of the calculation step into an evaluation value (value obtained by multiplying standardized answer value by standardized factor load. Score of each factor, that is, factor of living comfort (evaluation value )), Factor load (coefficient for calculating a factor score from an answer value, and specifically refers to the weight of each question item for the factor), and weight of each item for each living situationStatistics includingStatistical data storage step for storing data in separate experiments (other, social surveys, or analogy from similar conditions), and the answer itself obtained in the answer stepWhen, The result of the initial calculation stepAndUsing the data stored in the statistical data storage step to evaluate each item of each living situation according to a predetermined procedure.Convert to valueThe answer value evaluation conversion step, an evaluation value output step of outputting the evaluation value converted in the answer value evaluation conversion step, and the evaluation value output in the evaluation value output step. And a statistical processing type control step for controlling the environment.
[0012]
Similarly, in the invention according to claim 2, the interrogating step includes a heating / light interrogating small step of inquiring about at least one item of the thermal environment or the light environment, and the statistical processing type control step includes: It is characterized in that it has a statistical processing type thermal light control small step for controlling items related to the light environment. Similarly, in the invention according to claim 3, a person information detecting step for obtaining various information about a person such as the number of persons in a living environment control target area such as a room or a classroom (including a case where a person inputs the information), and a living environment At least one of the outside and the inside of the control target area, the amount of heat entering and exiting, the environmental information detecting step for obtaining information about environmental conditions such as noise, and the behavior of the resident based on the information about the person is determined in advance. A living condition determining step for determining which pattern of the living condition, and the fluctuation of the living condition obtained by the experiment, experience, etc. according to the predetermined living condition are stored in the living condition control means in advance. The living environment condition fluctuation precedent storage step to be stored in the living environment condition control means, and the storage in the precedently stored living environment condition control means and the environment A fluctuation generating step of causing a fluctuation of a living environment condition corresponding to the living condition determined in the living condition determining step in the control target area while using the information obtained in the information detecting step. It is characterized by:
[0013]
Similarly, in the invention according to claim 4, the environmental information detecting step includes a thermal environment information detecting small step of obtaining information on a thermal environment, and the living situation determining step includes determining the behavior pattern of the resident as warm. The method has a thermal living condition determining small step for determining which of the related living conditions is related, and the living condition-specific fluctuation pre-storing step includes a living condition-specific thermal fluctuation preceding memory small step for storing fluctuations related to heat. Wherein the fluctuation generating step includes a thermal fluctuation generating small step of generating fluctuations in heat.
[0014]
Similarly, in the invention of claim 5, the livingStatusThe deciding step is to output a signal of "assembly" if a plurality of occupants stay in a chair / floor posture for a certain amount of time or more with an activity amount equal to or greater than a certain value. If you stay in a chair or floor for a certain amount of time or more with the following activity amount, output a signal of "hobby / learning", there are times when multiple people repeat standing and sitting positions and change positions and postures If the amount of activity exceeds the value and the amount of activity is equal to or more than a certain value, the method further includes a detailed step of determining heat and heat, which performs at least one of outputting a signal of "home party". When the condition control means outputs `` meaning '', control is performed so that the air flow is lower than the temperature at which a neutral warm feeling is obtained, and when `` hobby / learning '' is output, the output neutral warm feeling is obtained. Yura corresponding to a certain temperature lower than the set temperature Control, when the "home party" is output, has a detailed thermal storage small step of storing a predetermined fluctuation control as a temperature higher by a certain value than a temperature at which a neutral warm feeling is obtained. It is characterized by:
[0015]
[Action]
With the above configuration, the following operation is performed.
In the invention of claim 1, in the questioning step, the subject to be questioned is asked for items to be subjected to various psychological evaluations on the living environment in each living situation, for example, in each actual living situation. In the answering step, the surveyee answers the above question. In the initial calculation step, work such as total calculation such as obtaining the answer situation, average score, and standard deviation for each question item, and statistical calculation are performed. In the statistical data storage step, a factor score, a factor load, and a weight for each item for each living situation (for example, if exercising) For example, data such as a slight change in temperature and humidity and a difference are not noticed) and stored in a separate experiment. In the answer value evaluation conversion step, the answer itself obtained in the answer step, the result of the initial calculation step is used for each item of each living situation using the data stored in the statistical data storage step. Ask for an evaluation. In the evaluation value output step, the evaluation value converted in the answer value evaluation value conversion step is output. In a statistical processing type control step, the environment is controlled for each living situation based on the evaluation value output in the evaluation value output step.
[0016]
Similarly, in the second aspect of the present invention, at least one item of the thermal environment or the light environment is inquired in the heat and light inquiry small step of the inquiry step. In the statistical processing type hot light control small step of the statistical processing type control step, control relating to the inquired warm light environment is performed.
Similarly, in the invention of claim 3, in the human information detecting step, various information about the human in the living environment control target area is obtained by an infrared Fresnel lens or the like. In the environmental information detecting step, information on at least one of the external or internal environmental conditions in the control target area of the living environment is obtained. In the living situation determining step, it is determined which pattern of the living situation is predetermined based on the information on the person. In the living condition-specific fluctuation precedent storage step, the fluctuation of the living environment condition according to the predetermined living condition is stored in advance in the living environment condition control means. In the fluctuation generating step, the living environment condition control means uses the storage in the previously stored living environment control means and the information obtained in the environment information detecting step to store the living condition in the control target area. Fluctuation of the living environment condition corresponding to the living situation determined in the determining step is caused.
[0017]
Similarly, in the invention according to claim 4, information on the thermal environment is obtained in the thermal environment information detecting small step of the environmental information detecting step. In the step of determining a warm living condition in the step of determining a living condition, it is determined according to a predetermined procedure which of the living conditions related to the heat is the behavior pattern of the resident. Fluctuations related to heat are stored in the small-step-for-preservation-for-thermal-fluctuation-by-living-circumstance pre-storage step in the living-circumstance-specific fluctuation precedent storage step. In the thermal fluctuation generation small step in the fluctuation generation step, fluctuations in heat are generated.
[0018]
Similarly, in the invention according to claim 5, in the detailed heat determining step of the life scene determining step, a plurality of occupants may stay in a chair / floor seat for a predetermined time or more with an activity amount equal to or greater than a certain value. For example, if a single person stays in a chair or floor for a certain amount of time or less with a certain amount of activity below a certain value, it outputs a signal of `` hobby / learning ''. The number of times a person repeats standing and sitting changes the position and posture exceeds a certain value, and if the amount of activity is above a certain level, at least one of outputting a signal of "home party" is performed. In the heating detailed storage small step in the fluctuation preceding storage step, when the living environment condition control means outputs a `` dan '', a control is performed in which the blowing amount is lower than the temperature at which a neutral warm feeling is obtained, When "Hobbies / Learning" is output The corresponding fluctuation control is performed in combination with a temperature lower than the temperature at which the applied neutral warmth is obtained, and when the "home party" is output, the temperature is set as a temperature higher by a certain value than the temperature at which the neutral warmth is obtained. To perform the predetermined fluctuation control.
[0019]
【Example】
Hereinafter, the present invention will be described based on examples.
(First embodiment)
First, the facts and research results that are the basis of this example will be described.
The construction of psychological indices for measuring living comfort according to the life scene (pattern, situation) for the purpose of thermal environment evaluation narrows down the living style (living situation) of the living room to some typical ones, A sample is collected, and an image (impression) is evaluated by a panelist (surveyee) by an SD method (an abbreviation of Semantic Differential method), which is a method of psychological measurement proposed by CE Osgood in 1957. Language Psychological experiments using scales are intended to quantitatively clarify the structure of a certain "concept" through its analysis. There are many examples used for the purpose of finding the axis used for psychological evaluation in the space of, and this is also used in this embodiment. Image measurement by Toyohiko Iwashita Kawashima Shoten, 1983, first print) For the living comfort factors obtained by having them have a living room, the evaluation points of the sample were used as objective variables, and each factor score was used as an explanatory variable. Regression analysis (obtained as a linear (primary) relational expression using quantitative data as a variable for predicting, and obtaining a prediction expression by obtaining respective coefficients (weights) for some characteristics and factors. In order to predict an event, it is necessary to clarify the relationship with various factors. In general, Y is estimated by X by obtaining the most appropriate linear equation as shown by the equation of Y = a + bX1 + cX2 + dX3 +... + NXm. Statistical analysis method to make predictions Reference: Introduction to other variable data analysis Takakazu Sugiyama Asakura Shoten 1983 First edition First edition) Than it is. As a result of evaluating the actual thermal environment, the living comfort in each life scene as shown in FIG. 2 was evaluated. Therefore, if the temperature is within PMV (Predict Method Vote) = ± 1 in the “meeting” scene during cooling, living comfort is not affected. In the scene of “hobby / learning”, the evaluation is highest when the temperature is about PMV = −0.8, and the evaluation is even higher when the fluctuation is controlled in the fluctuation range of about ± 0.5 ° C. The “home party” is highly evaluated when the temperature is about PMV = + 0.3 and the humidity is 50% to 70%, and is further evaluated when the fluctuation is controlled in a fluctuation range of about ± 1.0 ° C. At the time of heating, in the scene of "gathering up", the living comfort is not affected if the temperature is within PMV = ± 1. In the scene of “hobby / learning”, the highest evaluation is made when the temperature is about PMV = −0.3 during cooling, and the evaluation is even higher when the fluctuation is controlled within a fluctuation range of about ± 0.5 ° C. The “home party” is highly evaluated when the temperature is about PMV = + 0.3 and the humidity is 50% to 70%, and is further evaluated when the fluctuation is controlled in a fluctuation range of about ± 1.0 ° C.
The PMV index is based on the thermal equilibrium of the human body, and is based on five elements on the environment side (radiant temperature, air temperature, wind speed, partial pressure of water vapor) and two elements on the human body side (clothes, activity) Is an index for predicting the average of thermal sensation.
[0020]
However, since this is described in the following documents and the like, further description is omitted. Reference) ISO7730 Thermal Comfort byP. O. Fanger McGraw-Hill Book Company 1972
FIG. 3 is a schematic configuration diagram of a living scene-based environment evaluation system in the present embodiment. In the figure, reference numeral 1 denotes a question presentation unit having a CRT for presenting a question item to a subject. Reference numeral 2 denotes an answer input unit in which a surveyee creates and inputs a question answer using a keyboard. Reference numeral 3 denotes a response value evaluation point conversion unit that converts a response result into an evaluation point. Reference numeral 4 denotes a statistically converted data storage unit which stores various kinds of statistical data to be converted into evaluation points after inputting them in advance. Reference numeral 5 denotes a question item storage unit that stores question items to be output to the CRT in advance. 6 shows, for each question item, the average and standard deviation of the answer values that are the aggregation results, the standardized factor load for each factor / question item, and the coefficient for each life scene related to the factor score at the time of evaluation point calculation. This is a statistical data storage unit for storing. Reference numeral 7 denotes an evaluation value output unit for displaying evaluation points. Note that the storage units 4, 5, and 6 are integrated as a hardware.
[0021]
Hereinafter, the flow of the operation will be described with reference to FIG.
The adjectives shown in the question items in the table for the five factors (factors) such as stability and tranquility shown in FIG. 5 that are considered suitable for the investigator to evaluate the thermal environment using the question presentation unit 1 A pair is presented to the subject (a1).
The subject inputs the thermal environment of the queried space to the SD (Cementic Difference) by the answer input unit 2 (a2).
[0022]
The answer value evaluation point conversion unit 3 holds each value in the data structure shown in FIG. 6 and further obtains an average from the statistical data storage unit 6 stored in the statistical conversion data storage unit 4 in the data structure shown in FIG. Value M_i(Where i = 1, 2,..., N, where n is the number of question items), the standard deviation S_iIs read (a3).
Then, the following operation is performed, and the standardized answer value A of the question number i is obtained._i(A4).
[0023]
A_i= (Q_i-M_i) / S_i
Where S_iIs the standard deviation calculated from the statistical data of question number i, and similarly M_iIs the average value calculated from the statistical data of question number i, and Q_iIs the question number
This is the answer value of i.
A_iIs calculated from the five factors shown in FIG. 5, an average value of the questions is calculated, and this is set as the factor score of each factor (a5). However, A_iThere is also a method of obtaining a factor score as a sum of values obtained by multiplying a factor load by a standardized factor load, and this may be adopted.
[0024]
A factor score of each factor is calculated, and a coefficient (weight) for each factor specific to each scene is read out from the statistical data storage unit 5 (a6, a7). Some Y_jIs obtained by the following equation (a8).
Y_j= A_jX₁+ B_jX₂+ C_jX₃+ D_jX₄+ E_jX₅+ F_j
(Where j = 1, 2, 3,..., N. N is a number indicating a life scene. In this embodiment, 1 is a group, 2 is a hobby / learn, 3 Is home party and 4 is relaxing.)
Where X₁Is the factor score of the first factor, and X₂Is the factor score of the second factor, and X₃Is the factor score of the third factor, and X₄Is the factor score of the fourth factor, and X₅Is the factor score of the fifth factor. Also, a_jIs a coefficient related to the first factor of the life scene number j, b_jIs a coefficient related to the second factor of the life scene number j, and c_jIs raw
The coefficient of the third factor of the active scene number j, d_jIs a coefficient (weight) concerning the fourth factor of the life scene number j, and e is_jIs a coefficient (weight) of the fifth factor of the life scene number j, and f_jIs a constant of the life scene number j.
[0025]
The evaluation points calculated by the above method are output to the evaluation value output unit 7 to evaluate the environment.
As a result, the evaluation conditions can be accurately grasped, and a living environment favorable for the occupants can be achieved. Once these data are obtained, especially for rental houses such as built-for-sale houses, condominiums, public halls, etc., if the use of the user, the number of occupants, seasonal and time information, etc. are entered, The air conditioning operation is performed using statistical data.
[0026]
In a school classroom or the like, individual selections such as individual teachers, group leaders, generals of fighters, and banchos are also excluded.
In a classroom of a school or the like, if a physical education time or the like is input, an operation such as increasing cooling may be considered in the next time of the physical education. Thereby, further comfort of the living environment can be obtained.
[0027]
Of course, in a room where office automation is advanced, a questionnaire may be taken from each occupant every time the room is used, and a kind of adjustment may be made based on the questionnaire as in the present embodiment.
(Modification of First Embodiment)
The same means can be adopted for the volume of background music in the esophagus and dentists of large companies, lighting of offices and canteens, lighting of parties at hotels and the like, and the like. As a result, the volume and lighting are statistically generalized and generalized, and personal preferences of officials, doctors, and the like are eliminated. At this time, weighting may be performed on the status and the like. In hospital rooms and the like, patients are given priority, while nurses are left behind.
[0028]
In particular, in hotels and the like, if the contents of parties such as a dance party and a welcome party, the age of the participants, and the like are known in advance, the illuminance and color tone can be adjusted accordingly. More specifically, before the start of the party, the participants are bright enough to see each other's faces, the illuminance is reduced as the party progresses, and the volume of the music is varied.
(Second embodiment)
Next, a control method of the air conditioner using the result of the first embodiment will be described. FIG. 8 is a configuration diagram of an air conditioner employing the control of the present embodiment. In this figure, 11 is a sensor (detection end), 12 is a person detecting unit that cuts out human information based on information from the sensor, and 13 is an environment that detects environmental information based on information from the sensor 11. A detection unit 14 is a living scene determination unit that determines a life scene from human information, and 15 is a PMD (Predicted Mean Vote) or the like calculated from environmental information to calculate a reference control temperature at which a neutral warm feeling can be obtained. 16 is a temperature control method determining unit that determines a temperature control method according to a life scene, 17 is a fluctuation control unit that controls temperature fluctuation, and 18 is an air conditioning control unit. , 19 are air conditioners that directly control the fan speed and the blow-out temperature.
[0029]
Hereinafter, the contents and operation procedure will be described in detail with reference to the drawings.
As the sensor 11, for example, a number of suction temperature (room temperature) sensors, humidity sensors, blow-out temperature sensors, and many pyroelectric infrared sensors are employed. And, of course, it is provided in the air conditioner body. Outputs from these sensors 11 are input to a human detection unit 12 and an environment detection unit 13. Based on these inputs, the human detection unit 12 refers to three-dimensional image information about the room that has been input in advance to create information about the human, and furthermore, the number of occupants, their posture, and their positions. , Calculate the amount of activity. At this time, the person is distinguished from other heat sources by the presence or absence of movement. The posture is determined from the height of the moving heat source. The amount of activity is estimated based on the amount of infrared rays from each person and the situation of movement of the radiation source. When many people are present in the room, the humidity, the amount of carbon dioxide, and the like are also taken into consideration. A life scene is also determined from these and life scene information. Depending on the case, the entry and exit of a person is also a determining factor. FIG. 9 shows the flow of the procedure for this.
[0030]
Then, the information is output to the environment calculation unit 15 and the life scene determination unit 14. Further, the temperature of walls and ceilings other than the person are output to the environment detection unit 13. In the environment detecting unit 13, the radiation temperature is estimated from the temperature of the wall, ceiling or the like input from the human detecting unit 12, and is output to the environment calculating unit 15 together with the environmental information such as the outside air temperature, room temperature, and humidity obtained from the sensor 11. The blowing temperature (the temperature of the air to be blown) is detected by a sensor provided in the air conditioning controller 18. The environment calculation unit 15 performs a PMV calculation from the information of the person input from the person detection unit 12 and the environment information input from the environment detection unit 13 to obtain a reference control temperature T at which PMV = 0.₀, PMV = 0.3, the control temperature Th, and PMV = −0.5.
Control temperature T−c, control temperature T + c at which PMV = 0.5, control temperature at which PMV = −1.0
Ts, a control temperature T + d at which PMV = −0.5, and a control temperature Td at which PMV = 0.5 are calculated.
Put out.
[0031]
Calculated T₀Is output to the control method determination unit 16. The control method determining unit 16 determines T based on a signal from the life scene determining unit 14.₀Is adjusted and output to the air-conditioning control unit 18 as a control temperature. The air-conditioning control unit 18 controls the opening / closing degree of a valve (automatic valve) for adjusting the fan rotation speed and the blowing air temperature based on the control target temperature and the actual blowing temperature, as well as the suction temperature. That is, the air-conditioning controller 18 controls the blow-out temperature to be equal to the control temperature by controlling the opening / closing degree of a valve (automatic valve) for adjusting the blowing temperature until the control temperature and the blow-out temperature match, and the suction temperature and the control temperature match. The rotation speed of the electric motor such as a refrigerant compressor or the air for cooling and heating is controlled and adjusted up to that.
[0032]
FIG. 10 shows the data flow in the above procedure.
Thereby, especially in a condominium-type dormitory with four persons per room, which is often used in universities and the like, it is also possible to collectively and appropriately inexpensively blow air to each room. In other words, the number of occupants and the work in the room are roughly fixed. For this reason, if the season, time, etc. are separately input, each room will be based on the statistical sense of all dormitory students or all room students. This is because one or two (including a spare machine) expensive air-conditioning units may be installed not only in each room but also in all the dormitories, so that the sending scene can be appropriately performed.
(Third embodiment)
The present embodiment relates to fluctuation.
[0033]
With the recent sophistication of requirements regarding the living environment, etc., a fluctuation operation mode for dynamically (changing) the room temperature is provided for the purpose of maintaining a sense of arousal as well as simply maintaining the room temperature or the like at a constant temperature. Is desirable
By the way, the preferable contents of the fluctuation are roughly determined when the life scene is determined. If you reflect the season and time, it will be more accurate. In addition, the life scene itself is roughly determined if the contents of the resident are determined. Moreover, our living environment is often dominated by some important living situations. The present invention also focuses on this fact.
[0034]
Hereinafter, the configuration unique to the present embodiment will be mainly described.
When a fluctuation control start signal is input to the fluctuation control unit 17, it is confirmed that the interior of the room has completed the initial operation, and the waiting fluctuation mode is started. If the initial operation has not been completed, the operation is started after the completion.
FIG. 11 is an operation flowchart of the fluctuation operation. By the way, when the fluctuation is spectrally analyzed during the fluctuation operation, as shown in FIG. 12, a temperature fluctuation pattern having an inversely proportional relationship when the logarithm of both is taken between the integrated value of the frequency and the amplitude is stored in advance as the fluctuation pattern. A plurality is stored in the unit. The variation pattern has the same upper and lower widths as the reference temperature, and the variation pattern is determined by inputting the variation width and the reference temperature when executing the pattern. At the same time as the start signal, one pattern is selected at random from the fluctuation pattern storage unit. At this time, the occupants input three kinds of warming / cooling sensations of “hot (to lower the temperature)”, “cold (to raise the temperature)”, and “satisfactory (just right)”, and were instructed to change the control temperature. In this case, the input is counted until one fluctuation pattern ends, and the most frequent input at the end of the pattern is output to the air conditioning controller 18 as the temperature preference for this pattern.
[0035]
Further, the control method determination unit 16 that determines whether or not to perform the fluctuation control or determines the reference of the temperature setting determines the control method according to the input from the life scene determination unit 14. The life scene determining unit 14 determines which of the five preset life scenes is closest to the life scene based on the information of the person input from the person detection unit 12 and determines the life scene. The scene is estimated and a signal indicating the estimated life scene is output. Here, the life scene is a life scene in which a plurality of occupants are staying in a chair or on a floor for more than a certain amount of time with a certain amount of activity for a certain amount of time or longer, and there is a single person. "Hobbies / Learning" is a life scene in which a person spends more than a certain amount of time in a chair or floor seat for more than a certain amount of activity. A “home party” where the activity scene is over and the amount of activity is more than a certain amount, “appreciation / relaxation” where a plurality of people stay for a certain amount of time without changing their postures, or all or a single person It is composed of five life scenes of “sleep”, which is a life scene in which the room person is in the lying position, and a scene of “absence”. FIG. 13 shows the functions of each life scene.
[0036]
The procedure of the life scene estimation method shown in FIG. 14 will be described with reference to the drawings.
A signal is output to the temperature control method determination unit 16 when a certain time has elapsed since the occupant became 0 (option b1: no).
When the number of occupants fluctuates frequently (option b2: no) and when the number of occupants is less than a certain number (option b3: yes), it is regarded as a housework life scene and a signal of "hobby / learning" is given. Is output to the control mode selection unit 16.
[0037]
If the number of occupants is equal to or more than a certain value in option b3, a signal of “home party” is output to temperature control method determining section 16.
The number of occupants does not substantially fluctuate (option b2: yes), and the occupant's posture is a seat or floor (option b4: yes) and a certain (average) activity dormitory for a certain period of time is greater than or equal to a certain value ( In the case of option b5: yes), a signal of “union” is output to the temperature method determining unit 16.
[0038]
In the case where the activity amount is equal to or more than a certain value in the option b5, and when a small movement of the occupant at the same position is detected to be a certain value or more (option b6: yes), “hobby / learning” is not detected. At this time (option b6: no), a signal of “appreciation / relaxation” is output to the temperature control method determination unit 16.
When the occupant's posture is in the supine position (option b2: no) (option b7: yes), a signal of “sleep” is output to the temperature control method unit 16.
[0039]
When the standing position of the occupant is included (option b8: no), a signal of “home party” is output to the temperature control method determination unit 16.
According to the life scene selected as described above, the temperature control method determination unit 16 selects the following control mode.
FIG. 15 schematically shows a control method for each life scene of the air conditioner. FIGS. 11 to 19 show control of each scene. Further, a subroutine common to each scene will be described taking a control method during cooling in summer as an example. FIG. 20 and FIG. 21 are flowcharts thereof.
[0040]
The room temperature Tr is input from the environment information.
When the life scene is “absence”, the time delay circuit is turned on, and if the absence is continued for a certain period of time, the air conditioner is turned off. When the life scene signal is "sleep", the fan speed is reduced, the opening of the automatic valve is closed, and the amount of cold water is reduced. The air conditioner is turned off when the amount of air blown becomes zero and the amount of cold water flowing through the cold water coil becomes zero. In this case, the power is turned on upon detection of getting up. In this case, detection of time by a clock is also referred to.
[0041]
Next, a case where the life scene is "dan" will be described with reference to FIG.
The blowing temperature is assumed to be Tr. An error Tcδ depending on a preference or a situation is added to the room temperature Tc at which PMW = −1 output from the environment calculation unit 15. The initial value is T (−c) δ = T (C) δ = 0, and the value changes by learning. T (−c) = T (−c) + T (−c) δ = 0 and Tc = Tc + Tcδ = 0 to determine the minimum allowable value and the maximum allowable value at room temperature. Experiments have shown that in the case of a group, about 80% of people feel comfortable in a warm environment in the range of PMW = ± 1. Therefore, the room temperature Tr is controlled so that T (−c) ≦ Tr ≦ Tc. When Tr is too low (option xc1), a signal for controlling the opening of the automatic valve to be small to limit the amount of water supply and increase the temperature of the air is output to the air conditioning control unit 18 (c3), and Tr ' When ≧ Ts−1.0, the opening of the automatic valve is determined. If Tr is too high (c4), a signal is output to the air-conditioning control unit 18 to increase the degree of opening of the automatic valve to increase the amount of water supply and decrease the temperature of air supply, and Tr ′ ≦ Ts + 1.0 At this point, the opening of the automatic valve is determined. Further, a room temperature (suction temperature) Tr is input from the sensor 21 (c5), and if T (−c) ≦ Tr ≦ Tc is not satisfied (option c6), a control signal for increasing the number of rotations of the fan is controlled by air conditioning. The output is output to the section 18 (c7), and if it is the opposite, it is lowered (c8). When the value falls within the range of T (−c) ≦ Tr ≦ Tc, control is performed to reduce the rotation speed of the fan to the initial setting.
[0042]
The case where the life scene is “hobby / learning” will be described with reference to FIG.
An error Tsδ depending on a preference or a situation is added to the room temperature Ts output from the environment calculation unit 5 where PMV = −0.5. The initial value is Tsδ = 0, and the value changes by learning. Ts = Ts + Tsδ and the difference in taste and the like is considered. Experiments have shown that in the case of "hobbies / learning," a slightly lower temperature environment is more comfortable, and that changing the temperature increases the sense of arousal and makes it more comfortable. Therefore, if the change is only at room temperature, it feels slightly cool (PMV = -0.5). By performing control to give an irregular change within a range of ± 0.5 ° C. based on the temperature, it is comfortable in a hobby / learning scene. Increase the degree. Therefore, the room temperature Tr is controlled so that Ts−0.5 ≦ Tr ≦ Ts + 0.5. If Tr is too low, a signal is output to the air-conditioning control unit 18 so as to reduce the opening of the automatic valve, reduce the amount of water supplied to the chilled water coil, and increase the temperature of the blown air, and Tr ′ ≧ Ts + 0.5 At this point, the opening of the automatic valve is determined. When Tr is too high, a signal is output to the air conditioner 19 to increase the amount of water supply by increasing the opening of the automatic valve and increase the temperature of the blown air to the air conditioner 19, and when Tr ′ ≦ Ts + 0.5 Determines the opening of the automatic valve. Further, when the room temperature (suction temperature) Tr is input from the sensor unit and Ts-0.5 ≦ Tr ≦ Ts + 0.5 is not in the range, a control signal for increasing the number of rotations of the fan is output to the air-conditioning control unit 18 and Ts-0. When the value falls within the range of 0.5 ≦ Tr ≦ Ts + 0.5, control is performed to reduce the rotation speed of the fan to the initial setting. After a state of Ts−0.5 ≦ Tr ≦ Ts + 0.5 is reached, a start signal is output to the fluctuation control unit 17. The fluctuation range is ± 0.5 ° C., and the reference temperature is Ts. When the signal of "hot" or "cold" is input from the occupant, when the fluctuation control ends one pattern, the input values during the pattern operation are totaled, and the most frequent input is "hot" , Tsδ = Tsδ−1, N = N0, and return to the initial circuit. When the signal of "cold" is input, Tsδ = Tsδ + 1 is performed, and the process returns to the initial circuit.
[0043]
A case where the life scene is a home party will be described with reference to FIG.
An error Thδ depending on a preference or a situation is added to the room temperature Th output from the environment calculation unit 15 where PMV = 0.3. The initial value is Thδ = 0, and the value changes by learning. Consider the difference of taste and the like by Th = Th + Thδ. Experiments have shown that in the case of a home party, fluctuating the temperature promotes communication and gives a feeling of excitement, based on a slightly warm thermal environment of about PMV = 0.3. If the change is only at room temperature, the comfort level in the scene of a home party is controlled by performing control to give an irregular change within a range of ± 1.0 ° C. based on a slightly warm temperature of 24 to 5 ° C. in the standing position. Increase. Therefore, the room temperature Tr is controlled so that Th−1.0 ≦ Tr ≦ Ts + 1.0. When Tr is too low, a signal for controlling the opening of the automatic valve to reduce the amount of water supplied to the chilled water coil and increase the air temperature is output to the air conditioner 19, and Tr ′ ≧ Ts−1.0. At this point, the opening of the automatic valve is determined. When Tr is too high, a signal for controlling the automatic valve to increase the opening degree of the automatic valve so as to increase the amount of water supply and lower the blast air temperature is output to the air conditioner 19, and when Tr ′ ≦ Ts + 1.0, the automatic valve is turned off. Determine the opening. Further, when a room temperature (suction temperature) Tr is input from the sensor unit and the condition is not in the range of Th−1.0 ≦ Tr ≦ Th + 1.0, a control signal for increasing the rotation speed of the fan is output to the air conditioning control unit 18 and Th−1 is output. When the value falls within the range of 0.0 ≦ Tr ≦ Th + 1.0, control is performed to reduce the fan speed to the initial setting. After the state of Th−1.0 ≦ Tr ≦ Th + 1.0, a start signal is output to the fluctuation control unit 17. The fluctuation range is ± 1.0 ° C., and the reference temperature is Th. The control method when the signal of "hot" or "cold" is input from the occupant during the fluctuation control is equal to the case of "hobby / learning".
[0044]
A case where the above situation does not apply will be described with reference to FIG. An error Tdδ depending on a preference or a situation is added to the room temperature T (−d) where PMV = −0.5 and Td where PMV = 0.5 output from the environment calculation unit 15. The initial value is T (−d) δ = Tdδ = 0, and the value changes by learning. T (−d) = T (−d) + T (−d) δ = 0 and Td = Td + Tdδ = 0 to determine the minimum allowable value and the maximum allowable value at room temperature. When the PMV is in the range of ± 0.5, almost 90% of the environment becomes a thermally unsatisfactory environment (“Thermal Comfort” by PO Fanger), so the room temperature Tr is controlled to T (−d) ≦ Tr ≦ Td. I do. If Tr is too low, a signal for controlling the opening of the automatic valve to be small to limit the amount of water supply and to increase the temperature of the blast air is output to the air-conditioning control unit 18, and Tr ′ ≧ T (−d) At this point, the opening is determined. When Tr is too high, a signal for increasing the opening of the automatic valve to increase the amount of water supply and decrease the temperature of the blast air is output to the air-conditioning control unit 18, and the signal is opened when Tr ′ ≦ Td. Determine the degree. Further, a room temperature (suction temperature) Tr is input from the sensor 11, and if T (−d) ≦ Tr ≦ Td, a control signal to increase the number of rotations of the fan is output to the air-conditioning control unit 18 and T (−d When the value falls within the range of ≤Tr≤Td, control is performed to reduce the rotation speed of the fan to the initial setting. When a signal of "hot" is input from a occupant in the state of T (-d) ≤Tr≤Td, Tdδ = Tdδ-1 is performed, and the process returns to the initial circuit. When a signal of “cold” is input from the occupant in the state of T (−d) ≦ Tr ≦ Td, Tdδ = Tdδ + 1 is performed, and the process returns to the initial circuit.
[0045]
The air temperature control valve control means and the air volume control means according to the life scene during winter heating substantially follow the summer method, but differ in the following matters.
The reference temperature of the scene of “hobby / learning” is PMV = −0.3, and the allowable range and fluctuation width are ± 0.5. In addition, the blast temperature control valve control means adjusts the flow rate of hot water during heating, so when the temperature is "hot (to lower the temperature)", the opening of the automatic valve is reduced, and when the temperature is "cold (to lower the temperature)", Increases the opening of the automatic valve.
[0046]
By performing the above control, it is possible to propose an environment that actively supports life by producing a warm environment.
Next, the operation of the present embodiment will be described.
FIG. 20 shows a comparison between a conventional control example and a control example of the present invention. In the conventional control for keeping the PMV constant, the control is performed at PMV = 0 even though the control at a temperature at which the user originally feels cool when studying or the like promotes the study. For this reason, living support has not been provided. Furthermore, in the conventional example, the party started and the amount of activity was increased, so the room temperature was set low.However, in the control of the present embodiment, since the temperature is controlled slightly warmer by the sensed temperature, it not only supports the excitement of the party but also saves energy. You can see that it plays a part.
[0047]
In the above embodiment, the temperature of the blown air is controlled by adjusting the flow rate of the cold / hot water coil. However, the same effect can be obtained by controlling the temperature by adjusting the opening of the expansion valve.
Furthermore, when a circuit for energy saving operation is provided, the PMV controlled by each life scene calculated by the environment calculation unit 15 is shifted to a warm side during cooling and to a cool side during heating according to the degree of necessity of energy saving. Good.
(Modification of Third Embodiment)
(1) In the third embodiment, the temperature is taken as an example. However, the present invention is not limited to this, and there are cases where it is appropriate to give fluctuations to lighting and sound.
[0048]
Specifically, the volume of the background music and the content of the music itself at the dentist are determined at the start of the work for the dentist, after a certain period of time after the start, before lunch break, after the start of the afternoon, before work, etc. It is preferable to have not only the most suitable one (variation of the situation) but also a small fluctuation among these large fluctuations. Also, it may be preferable to change the order of the songs, rather than using a certain song in the same order.
[0049]
The same applies to the lighting of the dance party, changes in illuminance and color tone, and the like.
In these cases, too, based on the responses from many dentists and dental technicians, appropriate, universal, and general fluctuations are statistically obtained, and are recommended when selling background music equipment. In addition to increasing sales of equipment manufacturers, dentists, patients, and the like can obtain a comfortable acoustic environment.
[0050]
(2) In school lessons, students, especially elementary school children, are nervous at the beginning of the lesson, but they become full with the progress of the characters. It is not very preferable to keep the room temperature constant.
Therefore, it is conceivable to keep the tension as long as possible and to give fluctuations according to the content of the lesson.
[0051]
For example, if you take air conditioning as an example, at the beginning of the class you will walk to school or work in the playground and you are sweating. After that, you will have to go outside and be exposed to the open air, so keep your body warm. Furthermore, by reflecting these factors, by giving some fluctuation even in a normal state during class, a sense of arousal and tension can be maintained. In this case as well, the contents of the lesson before or after (a variation of living conditions) such as the time of physical education, science experiments while standing, as well as the season and time, are input to the control device in advance, and the Needless to say, it is an efficient class.
[0052]
Also in these cases, it is needless to say that statistically optimum values are employed in determining various values. Furthermore, in this case, since the characteristics, age, etc. of the subject are in a substantially constant range and there is a clear effect determination means such as a test score, the data will be accurate and the effect will be large.
(3) The above technology may be adopted for inpatients in hospitals. In this case, especially for bedridden persons, not only the temperature but also the background music is played for fun as well as giving a sense of awakening, and indoor lighting is considered in various ways.
[0053]
And if air conditioning is taken as an example, even if a bedridden patient takes measures such as raising the room temperature and sweating before the time of the day of taking a bath or having her body wiped, Good. In addition, the contents of the optimum fluctuation depending on when sleeping in a normal hospitalization state, when waking up, and the like are also determined based on experiments, confirmation of therapeutic effects, and the like. However, it is a matter of course that appropriate operation is appropriately performed in each case.
[0054]
As described above, the present invention has been described mainly with respect to the three embodiments, but it is needless to say that the present invention is not limited to the above embodiments. That is, the following may be performed.
(1) For the sake of implementation or the like, one of the essential items (components, components, steps) of the present invention is reduced to two, or two items are reduced to one, or these are combined as appropriate. I have.
[0055]
(2) In an air-conditioning environment, consider humidity.
(3) The optimal lighting in a museum depends on the contents of the art to be viewed. For this reason, a questionnaire is taken from viewers and artists for each type of exhibit such as Japanese painting, Western painting, abstract painting, book, etc., and it is assumed that the questionnaire corresponds to the type of exhibit. However, it is needless to say that this is not the case in each case.
[0056]
The background music of high-class restaurants also varies depending on the age of the customer and the purpose of the meal. For this reason, data is taken for each of these and the most suitable one is selected.
(4) If a resident wants to select a particular environment, priority is given to it.
[0057]
(5) In a high-grade rental study room or the like having a head and feet temperature facility, air conditioning of a room, heating of legs using electric slippers, and the like are based on statistical data based on statistical data.
(6) The fluctuation of the present invention is applied to the warming of the legs during study in each home. It should be noted that, in this case, the contents of the fluctuations are, of course, data obtained in advance from experimental data for test students such as air conditioner and electric slipper manufacturers.
[0058]
【The invention's effect】
As described above, the present invention enables the evaluation of the thermal environment according to the living conditions, and furthermore, the optimum thermal environment for each living condition is determined by the living environment based on the survey, analogy, experiments, etc. Enables the creation of an environment and suppresses unpleasant malfunctions.
[0059]
In addition, careful control can save energy resources while maintaining comfort.
In addition, by adopting the fluctuation, the sense of awakening and the nervousness can be maintained, the living environment becomes more comfortable, and the working efficiency increases.
Furthermore, it becomes good also in physical condition.
[0060]
In addition, the same evaluation and fluctuation can be given to the lighting and the sound as in the warm environment, so that a more comfortable living environment and more efficient work can be obtained.
[Brief description of the drawings]
FIG. 1 is a schematic configuration diagram of a conventional air conditioner.
FIG. 2 is a diagram showing the relationship between the evaluation value and the PMV for each living scene that has been verified using the method for evaluating a thermal environment for each living scene according to the present invention.
FIG. 3 is a schematic configuration diagram of an embodiment of a living environment-specific thermal environment evaluation apparatus for evaluating a living environment-specific thermal environment according to the present invention.
FIG. 4 is an operation flowchart of the thermal environment evaluation device for each living scene in the embodiment.
FIG. 5 is a table showing examples of factors of living comfort in a life scene and question items in a thermal environment evaluation for each life scene.
FIG. 6 is a diagram showing a data structure in the case where values answered by a surveyee are stored in the embodiment.
FIG. 7 is a diagram illustrating a data structure of a storage unit that stores various statistics, which are the results of market research at the time of creating an evaluation formula in the embodiment.
FIG. 8 is a schematic configuration diagram of an embodiment of an air conditioner that performs thermal environment control for each living scene according to the present invention.
FIG. 9 is an operation flowchart for detecting human information and the like in the embodiment.
FIG. 10 is a diagram showing a data flow in the embodiment.
FIG. 11 is a flowchart showing a control procedure when the air-conditioning apparatus according to the embodiment performs a cooling operation and a fluctuation mode is selected according to a life scene.
FIG. 12 is an explanatory diagram of a fluctuation mode in the embodiment.
FIG. 13 is a table showing actions in each life scene.
FIG. 14 is an algorithm of a life scene estimation method according to the embodiment.
FIG. 15 is a diagram showing a flow of control when the air-conditioning apparatus according to the embodiment performs a cooling operation.
FIG. 16 is a diagram showing a control flow (state) in a case where the air-conditioning apparatus of the embodiment is operated in a cooling mode and a life scene signal is “gathering”.
FIG. 17 is a diagram illustrating a control flow (state) in a case where the air-conditioning apparatus according to the above-described embodiment performs a cooling operation and a life scene signal is “hobby / learning”.
FIG. 18 is a diagram showing a control flow (state) in a case where the air-conditioning apparatus of the embodiment is operated for cooling and a life scene signal is “home party”.
FIG. 19 is a diagram showing a control flow (state) in a case where the air-conditioning apparatus according to the embodiment performs a cooling operation and a life scene signal is neither of the above.
FIG. 20 is a diagram illustrating a state of control when the air-conditioning apparatus according to the above-described embodiment performs a cooling operation and an input of a control temperature change is received from a room occupant.
FIG. 21 is a diagram showing a state of control when an occupant inputs a control temperature change during the cooling operation of the air conditioner of the embodiment and in the fluctuation (room temperature fluctuation) mode.
FIG. 22 is a diagram of an example for explaining an operation when the air-conditioning apparatus of the embodiment is operated.
[Explanation of symbols]
1 Question presentation section
2 Answer input section
3 Response value evaluation point conversion section
5 Question item storage
6. Statistical data storage
7 Statistical conversion data storage
11 sensors
12 person detection unit
13 Environment detector
14 Life scene decision section
15 Environment calculation unit
16 Temperature control method determination unit
17 Fluctuation control unit
18 Air conditioning control unit
19 air conditioner

Claims (5)

A question step of asking the subject about items to be subjected to various psychological evaluations on the living environment in each living situation;
An answer step in which the surveyee answers the above question;
Answer context of each question item, the average point, the initial calculation step of performing aggregate calculation including calculation of the standard deviation, the work of the statistical calculations,
A factor scores there related to the questions to be used for converting the results of the initial computation step in the evaluation value, and the factor loadings, in separate experimental statistical data including the weights for each item for each life situation Storing and storing statistical data;
Answers itself obtained in said answer step, converted and results of the initial computation step, the evaluation value for each item of each life situation using statistical data stored in the statistical data storing step and the answer value evaluation in terms of the step of,
An evaluation value output step of outputting the evaluation value converted in the answer value evaluation conversion step,
A statistical processing type control step of controlling the environment for each living situation based on the evaluation value output in the evaluation value output step. The questioning step includes a heating light question sub-step for asking an item for at least one of the thermal environment and the light environment,
2. The psychological evaluation method according to each living situation according to claim 1, wherein the statistical processing type control step includes a statistical processing type hot light control small step for performing control on an item of the inquired warm light environment. A human information detecting step of obtaining various information about a person in the living environment control target area, and an environmental information detecting step of obtaining information about at least one of external or internal environmental conditions in the living environment control target area,
A living situation determining step of determining which pattern of the living situation the resident's behavior is based on the information about the person,
A living environment-specific fluctuation pre-storing step of storing the fluctuation of the living environment condition according to the predetermined living condition in advance in the living environment condition control means,
The living environment condition control means determines in the living condition determination step in the control target area while using the storage in the previously stored living environment condition control means and the information obtained in the environment information detecting step. And a fluctuation generating step for generating fluctuations in the living environment conditions corresponding to the set living conditions. The environment information detection step has a thermal environment information detection small step for obtaining information about the thermal environment,
The living situation determining step has a warm living situation determining small step of determining which living situation is related to heat as the behavior pattern of the resident,
The living situation-based fluctuation prior storage step includes a living situation-based thermal fluctuation preceding storage small step in which fluctuations related to heat are stored.
4. The living environment control method according to each living situation according to claim 3, wherein the fluctuation generation step includes a thermal fluctuation generation small step for generating fluctuations in heat. The living situation determination step includes the step of outputting a signal of "assembly" if a plurality of occupants stay in a chair / floor position for a certain amount of time or more with a certain amount of activity or more. If a person stays in a chair or floor for a certain amount of time with a certain amount of activity less than a certain value, a signal of "hobby / learning" is output, and multiple people repeat standing and sitting positions and change positions and postures If the amount of activity exceeds a certain value and the amount of activity is equal to or greater than a certain value, the method has a detailed heat determination step for performing at least one of outputting a signal of “home party”,
In the living environment condition fluctuation preceding storage step, when the living environment condition control means outputs a "dan", the control is performed such that the amount of air blow is inferior to a temperature at which a neutral warm feeling can be obtained. '' Is output, a temperature lower than the temperature at which the output neutral warm feeling is obtained is performed by a certain value, and the corresponding fluctuation control is performed.When `` Home Party '' is output, the temperature is more constant than the temperature at which the neutral warm feeling is obtained. 4. The living environment control method according to each living situation according to claim 3 , further comprising a thermal detailed storage small step for storing the predetermined fluctuation control as the high temperature.

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