Air conditioning control system and method based on temperature correction model

Abstract

The present invention discloses an air conditioning control system and method based on a temperature correction model; the system includes a date and time sensing device, N personnel sensing devices, a plurality of infrared distance measuring devices, a temperature and humidity sensing device, a timing device, an intelligent control device, and an air conditioner; the method steps are: 1) the intelligent control device controls the start of the air conditioner and controls the operation of all personnel sensing devices; the temperature value when the air conditioner is started is set by a temperature setting module; 2) when the average temperature and humidity in the room are unstable, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module; 3) when the number of indoor personnel n=0 and the time when the personnel leave the room>tmax2, the control module turns off the air conditioner. The present invention can make the operation of the air conditioning equipment more comfortable and humane, and can make full use of the cold and heat energy of the air conditioner. The present invention adjusts the working mode of the air conditioner through temperature correction, which is convenient to adjust and has a high degree of comfort.

Description

Technical Field

[0001] The present invention relates to the field of smart home technology, and in particular to an air conditioning control system and method based on a temperature correction model. Background Art

[0002] Currently, patents on air-conditioning control systems and methods mainly focus on the use of intelligent control technology, ignoring previous research, experiments and simulation expansion. This patent is based on the room temperature and humidity distribution characteristics discovered through experimental exploration and the relationship model between the set temperature and the average temperature and humidity of the working area of ​​the air-conditioned room.

[0003] Experimental studies have found that there are obvious differences in horizontal temperature and humidity in air-conditioned rooms under air-conditioned environments. The area with the most obvious horizontal temperature and humidity characteristics is the area directly facing the air conditioning. In order to make full use of the cold and heat energy prepared by air-conditioning equipment, it is crucial to energy save the air in the air-conditioned room by zoning the air supply according to the areas where people are located.

[0004] At present, the opening and status change of air-conditioning equipment are all done manually when the air conditioner is already in a thermally uncomfortable condition, and most of the time the opening and status change depends on human habits and randomness. In addition, residents do not understand the use of the function keys on the air-conditioning product panel. Therefore, it is very important to open and control indoor air-conditioning equipment conveniently, scientifically, comfortably and energy-savingly. Summary of the invention

[0005] The purpose of the present invention is to solve the problems existing in the prior art.

[0006] The technical solution adopted to achieve the purpose of the present invention is as follows: an air-conditioning control system based on a temperature correction model includes a date and time sensing device, N personnel sensing devices, a number of infrared ranging devices, a temperature and humidity sensing device, a timing device, an intelligent control device, and an air conditioner.

[0007] The date and time sensing device is preset with a node time information set and an infrared ranging start time information set.

[0008] The date and time sensing device records the current date and time in real time. If the current date and time coincides with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device. If the current date and time coincides with any element of the infrared ranging start time information set, the date and time sensing device sends an infrared ranging start signal to the intelligent control device.

[0009] The node time information set includes month, day, hour and minute. The determining factors of the node time information set include the work and rest habits of indoor personnel and the climate of the area.

[0010] The date and time sensing device includes a recording module and a node storage and sensing module.

[0011] The recording module records the current date and time and sends them to the node storage and sensing module.

[0012] The node storage and sensing module stores a preset node time information set.

[0013] After receiving the current date and time, the node storage and sensing module matches it with the node time information set. If the current date and time coincide with any element of the node time information set, the node storage and sensing module sends a monitoring start signal to the intelligent control device.

[0014] N personnel sensing devices are respectively attached to the door frame, different indoor areas and the boundaries of different indoor areas to monitor the infrared sensing signals of human bodies and send them to the intelligent control device. The infrared sensing signals of human bodies include infrared sensing signals of people entering the room and infrared sensing signals of people leaving the room. The indoor areas include living areas and non-living areas. The living area is an area where the daily activity time of people is greater than time1. The living area includes frequent activity areas and non-frequent activity areas. The frequent activity area is an area where the daily activity time of people is greater than time2. In the non-frequent activity area, the daily activity time of people meets time1.<time≤time2;time2> time1. time1 and time2 are preset time thresholds.

[0015] The non-living area is an area where the daily activity time of personnel is time≤time1;

[0016] The personnel sensing device comprises a human infrared sensor, a signal converter and a switch.

[0017] The human infrared sensor monitors the human infrared sensing signal and sends it to the intelligent control device through a signal conversion and exchanger.

[0018] The straight-line distance between every two personnel sensing devices is no greater than h.

[0019] The temperature and humidity sensing device is attached to the air return outlet of the air conditioner to monitor the temperature and humidity information of the environment where the air return outlet is located and send it to the intelligent control device. The total monitoring time is T2.

[0020] The timing device monitors the indoor personnel residence time t1, the personnel leaving time, the personnel residence time in different indoor areas, and the personnel leaving different indoor areas, and sends the information to the intelligent control device.

[0021] The timing device includes a time module for personnel leaving the room, a time module for personnel staying in the room, a time module for personnel not being in a frequent activity area, a time module for personnel being in a frequent activity area, a time module for personnel being in a non-frequent activity area, and a time module for personnel not being in a non-frequent activity area.

[0022] When the number of people in the room n=0, the person leaving the room time module records the time when the person leaves the room.

[0023] When the number of people in the room n>0, the people-in-room time module records the people-in-room time.

[0024] When the number of people in the frequent activity area>0, the people-in-frequent-activity-area time module records the time the people spend in the frequent activity area.

[0025] When the number of people in the frequent activity area=0, the people-in-frequent-activity-area time module records the time when the people are not in the frequent activity area.

[0026] When the number of people in the infrequent activity area>0, the people-in-infrequent-activity-area time module records the time the people spend in the infrequent activity area.

[0027] When the number of people in the infrequent activity area=0, the people-in-infrequent-activity-area time module records the time when the people are not in the infrequent activity area.

[0028] Several infrared distance measuring devices are installed on the air conditioner to monitor the indoor space distance infrared signals and the relative position information of the air conditioner and different indoor areas.

[0029] The infrared distance measuring device comprises an infrared distance measuring instrument, a photographing device and a signal exchanger.

[0030] The infrared rangefinders are respectively installed on the front, back, left and right walls of the air conditioner. The four infrared rangefinders are in the same horizontal plane.

[0031] The infrared rangefinders are respectively installed on the top of the two side walls of the air conditioner, and are respectively recorded as infrared rangefinder I, infrared rangefinder II, infrared rangefinder III, and infrared rangefinder IV; the four infrared rangefinders are in the same horizontal plane; infrared rangefinder I is perpendicular to the front of the air conditioner, infrared rangefinder II is perpendicular to the back of the air conditioner, infrared rangefinder III is perpendicular to the left wall of the air conditioner; infrared rangefinder IV is perpendicular to the right wall of the air conditioner; the four infrared rangefinders are all perpendicular to the ground;

[0032] When the infrared rangefinder is working, it rotates unidirectionally periodically, and each rotation angle is α;

[0033] The infrared rangefinder sends infrared rays outward and receives infrared reflection signals;

[0034] The infrared rangefinder sends the infrared reflection signal to the intelligent control device through the signal exchanger;

[0035] The photographing device is arranged indoors to take images of the indoor space including the air conditioner, and sends the images of the indoor space to the intelligent control device through a signal exchanger.

[0036] The intelligent control device uses an image recognition algorithm to identify the indoor space image to obtain a ratio X of the relative length and relative width of the air conditioner and the side wall; the relative position of the air conditioner and the indoor area includes the relative length and relative width of the air conditioner and the side wall.

[0037] The intelligent control device adds the infrared reflection signals of the infrared rangefinder I and the infrared rangefinder III in each cycle to obtain the diagonal measurement result I of the cycle, adds the infrared rangefinder II and the infrared rangefinder IV in each cycle to obtain the diagonal measurement result I of the cycle, and takes the maximum value of the diagonal measurement results I and II in all cycles as the infrared rangefinder measurement result.

[0038] The infrared rangefinder measurement result is used as the longest side of the right triangle, and the indoor area length L and indoor area width H are used as the right angles. The Pythagorean theorem is used to determine the indoor area length L and indoor area width H. When there are multiple values ​​for the indoor area length L and indoor area width H, the ratio X1 of the indoor area length L and indoor area width H, the ratio X2 of the relative length between the air conditioner and the side wall, and the relative width between the air conditioner and the side wall are calculated, and the indoor area length L and indoor area width H with the smallest ratio difference |X1-X2| are used as the relative length between the air conditioner and the side wall and the relative width between the air conditioner and the side wall.

[0039] The intelligent control device includes a receiving module, a storage module, an analysis and decision module, a calculation module and a control module.

[0040] The receiving module receives signals sent by the date and time sensing device, a plurality of personnel sensing devices, a plurality of infrared distance measuring devices, a temperature and humidity sensing device, and a timing device respectively, and stores the signals in the storage module.

[0041] The receiving module sends the received monitoring start signal I to the control module.

[0042] The receiving module sends the human infrared sensing signal, the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas to the calculation module.

[0043] The receiving module sends the indoor personnel residence time t1, the personnel leaving time, the personnel residence time in different indoor areas, the personnel leaving time in different indoor areas, and the temperature and humidity information to the analysis and decision module.

[0044] After receiving the infrared sensing signal from the human body, the calculation module calculates the number of people in the room. The indoor area where the personnel are located and the number of personnel in different indoor areas are sent to the analysis and decision module. When the calculation module receives the infrared sensing signal sent by the i-th personnel sensing device that the person enters the room, ni=ni+1 is updated. When the calculation module receives the infrared sensing signal when the person leaves the room, ni=ni-1 is updated. The initial value of ni is 0. The indoor area where the personnel are located is the indoor area where the personnel sensing device ni>0 is located.

[0045] After receiving the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas, the calculation module calculates the size of the indoor space and the relative position between the air conditioner and different indoor areas, and sends them to the analysis and decision module.

[0046] The analysis and decision module determines whether the number of indoor personnel n>0 is established, and if so, sends a timing start signal to the control module.

[0047] The analysis and decision module retrieves the residence time threshold value t stored in the storage module. max1 and compared with the indoor occupant stay time t1, when t1 ≥ t max When the temperature and humidity sensing signals are sent to the control module.

[0048] The analysis and decision module retrieves the room leaving time threshold t stored in the storage module. max2 And compared with the time when the person left the room, when the time when the person left the room ≥ t max2 When the air conditioner is turned off, a signal to shut down the air conditioner is sent to the control module.

[0049] The analysis and decision module analyzes the indoor areas where people are located, the number of people in different indoor areas, the relative positions of air conditioners and different indoor areas, the time people stay in different indoor areas, and the time people leave different indoor areas.

[0050] When the indoor area where the person is located is a frequent activity area and the person stays in the frequent activity area for longer than the time threshold tmax3, a frequent activity area wind direction control signal is sent to the control module.

[0051] When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for a time greater than the time threshold tmax4, a wind direction control signal for the non-frequent activity area is sent to the control module.

[0052] When the number of people in the frequently active area is greater than the number of people in the infrequently active area, send the wind direction adjustment signal I to the control module. When the number of people in the frequently active area is equal to the number of people in the infrequently active area, send the wind direction adjustment signal II to the control module. When the number of people in the frequently active area is less than the number of people in the infrequently active area and the residence time of people in the infrequently active area < t2, send the wind direction adjustment signal II to the control module; when the number of people in the frequently active area is less than the number of people in the infrequently active area and the residence time of people in the infrequently active area ≥ t2, send the wind direction adjustment signal III to the control module; t2 is a preset time threshold.

[0053] After receiving the indoor space size, the analysis and decision-making module retrieves the local climate information stored in the storage module, generates the temperature adjustment range at different dates and time nodes, and inputs it into the temperature setting model.

[0054] The analysis and decision-making module retrieves the average temperature and humidity calculation model stored in the storage module, inputs the temperature and humidity information into the average temperature and humidity calculation model, and calculates the indoor average temperature and humidity. The analysis and decision-making module writes the indoor average temperature into the indoor average temperature dataset and the indoor average humidity into the indoor average humidity dataset in chronological order. Indoor average temperature Indoor average humidity where n is the total number of temperature and humidity information;

[0055] When the air conditioner is turned off, the analysis and decision-making module retrieves the temperature and humidity limit judgment model stored in the storage module, and inputs the indoor average temperature dataset and the indoor average humidity dataset into the temperature and humidity limit judgment model. If at least one element in the indoor average temperature dataset is not within the temperature range of the temperature and humidity limit judgment model or at least one element in the indoor average humidity dataset is not within the humidity range of the temperature and humidity limit judgment model, send the monitoring start signal II and the air conditioner start signal to the control module.

[0056] When the air conditioner is turned on, the analysis and decision-making module retrieves the temperature and humidity stabilization judgment model stored in the storage module, inputs the indoor average temperature dataset and the indoor average humidity dataset into the humidity stabilization judgment model, and determines whether the indoor average temperature and humidity are stable. When the indoor average temperature and humidity are unstable, the analysis and decision-making module sends the air conditioner temperature adjustment signal to the control module. When the indoor average temperature and humidity are stable, the analysis and decision-making module calculates the indoor average stable temperature T using the average stable temperature calculation model R =(a1t S +a2)W+(a3t S +a4); where the fitting coefficient a m =b 1m L 2 +b 2m L+b3m ; The coefficient serial number m = 1, 2, 3, 4; a m , b 1m , b 2m , b 3m are fitting coefficients; L is the length of the indoor space; W is the width of the indoor space; t s is the set temperature value of the air conditioner; if the indoor average stable temperature T R is not within the comfortable temperature range, then the analysis and decision-making module sends an air conditioner temperature adjustment signal to the control module;

[0057] The temperature and humidity stabilization judgment model includes temperature and humidity stabilization judgment condition I, temperature and humidity stabilization judgment condition II, and temperature and humidity stabilization judgment condition III.

[0058] Temperature and humidity stabilization judgment condition I: ΔT < ΔTmax and ΔRH < ΔRH max . ΔT is the difference between the maximum element and the minimum element in the indoor average temperature dataset. ΔRH is the difference between the maximum element and the minimum element in the indoor average humidity dataset. ΔTmax, ΔRH max are preset temperature and humidity change thresholds.

[0059] Temperature and humidity stabilization judgment condition II: T x <Tn<T s and RH x <RHn<RH s . Tn is any element in the indoor average temperature dataset. RHn is any element in the indoor average humidity dataset. T x , T s is the minimum average temperature and the maximum average temperature. RH x , RH s is the minimum average humidity and the maximum average humidity.

[0060] Temperature and humidity stabilization judgment condition III includes the following 4 types:

[0061] a) T x >T j >T1 and RH x >RH j >RH1. b) T x >T j >T1 and RH s <RH j <RH1.

[0062] c) T s <T j <T1 and RH x >RH j >RH1. d) T s <T j<T1 and RH s <RH j <RH1.

[0063] Among them, T j and T1 respectively represent the last item and the first item element in the indoor average temperature dataset. RH j and RH1 respectively represent the last item and the first item element in the indoor average humidity dataset.

[0064] When the elements in the indoor average temperature dataset and the indoor average humidity dataset do not satisfy the temperature and humidity stabilization judgment condition I, the temperature and humidity stabilization judgment condition II, and the temperature and humidity stabilization judgment condition III, the indoor average temperature and humidity are unstable.

[0065] After receiving the timing start signal, the control module controls the timing device to work.

[0066] After receiving the monitoring start signal I, the control module controls the personnel sensing devices placed on the door frame and in the frequently active areas to work.

[0067] After receiving the monitoring start signal II, the control module controls all personnel sensing devices to work.

[0068] After receiving the temperature and humidity sensing signal, the control module controls the temperature and humidity sensing device to work.

[0069] After receiving the air conditioner start signal, the control module retrieves the temperature setting model corresponding to the current date and time, controls the air conditioner temperature according to the temperature setting model, and controls the air conditioner air direction to be periodic up and down air. If the current date is summer or autumn, the air conditioner temperature is the upper limit of the temperature setting model. If the current date is spring or winter, the air conditioner temperature is the lower limit of the temperature setting model.

[0070] When the control module receives the frequently active area air direction control signal,, it controls the left and right air direction of the air conditioner to be towards the frequently active area air direction.

[0071] When the control module receives the non-frequently active area air direction control signal,, it controls the left and right air direction of the air conditioner to be towards the non-frequently active area air direction.

[0072] When the control module receives the air direction adjustment signal I, it controls the left and right air direction of the air conditioner to be periodic left and right air sweeping. Among them, the air supply time to the frequently active area is longer than the air supply time to the non-frequently active area.

[0073] When the control module receives the air direction adjustment signal II, it controls the left and right air direction of the air conditioner to be periodic left and right air sweeping. Among them, the air supply time to the frequently active area is equal to the air supply time to the non-frequently active area.

[0074] After receiving the wind direction adjustment signal III, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is shorter than the air supply time to the infrequently active area;

[0075] The control module turns off the air conditioner after receiving the air conditioner turning off signal.

[0076] After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model.

[0077] The storage module stores an average temperature and humidity calculation model, a temperature setting model, a temperature over-limit judgment model, a local climate signal, an average stable temperature calculation model and a comfortable temperature range.

[0078] The air conditioner has an independent air return port.

[0079] The method of using the air conditioning control system based on the temperature correction model comprises the following steps:

[0080] 1) The date and time sensing device records the current date and time in real time. When the current date and time coincides with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device.

[0081] 2) The intelligent control device controls the operation of the personnel sensing device attached to the door frame and the frequently active area.

[0082] 3) The personnel sensing device monitors the infrared sensing signal of the human body and sends it to the intelligent control device.

[0083] 4) When the intelligent control device receives the infrared sensing signal of the human body, it calculates the number of people in the room When the number of people in the room n>0, the control timing device works.

[0084] 5) The timing device monitors the indoor occupant's stay time t1, when t1≥t max When the temperature and humidity sensing device is turned on, the intelligent control device controls the temperature and humidity sensing device to work.

[0085] 6) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device.

[0086] 7) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity. The intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order.

[0087] 8) The intelligent control device retrieves the temperature and humidity over-limit judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the temperature and humidity over-limit judgment model. If at least one element in the indoor average temperature data set is not within the temperature range of the temperature and humidity over-limit judgment model or at least one element in the indoor average humidity data set is not within the humidity range of the temperature and humidity over-limit judgment model, a monitoring start signal II and an air conditioning start signal are sent to the control module.

[0088] 9) The control module controls the air conditioner to start and all personnel sensing devices to work. The temperature value when the air conditioner starts is set by the temperature setting module.

[0089] 10) The personnel sensing device monitors the indoor area where the personnel are located and the number of personnel in different indoor areas, and sends them to the analysis and decision-making module.

[0090] 11) The analysis and decision module analyzes the indoor areas where people are located, the number of people in different indoor areas, the relative positions of air conditioners and different indoor areas, the time people stay in different indoor areas, and the time people leave different indoor areas.

[0091] When the indoor area where the person is located is a frequent activity area and the person stays in the frequent activity area for longer than the time threshold tmax3, a frequent activity area wind direction control signal is sent to the control module.

[0092] When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for a time greater than the time threshold tmax4, a wind direction control signal for the non-frequent activity area is sent to the control module.

[0093] When the number of people in the frequent activity area is greater than the number of people in the infrequent activity area, a wind direction adjustment signal I is sent to the control module. When the number of people in the frequent activity area is equal to the number of people in the infrequent activity area, a wind direction adjustment signal II is sent to the control module.

[0094] 12) The control module receives the wind direction control signal of the frequent activity area, and controls the left and right wind directions of the air conditioner to be the wind direction towards the frequent activity area.

[0095] The control module receives a wind direction control signal for a non-frequently active area, and controls the left and right wind directions of the air conditioner to be the wind direction toward the non-frequently active area.

[0096] After receiving the wind direction adjustment signal I, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is greater than the air supply time to the infrequently active area.

[0097] After receiving the wind direction adjustment signal II, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is equal to the air supply time to the infrequently active area.

[0098] 13) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device.

[0099] 14) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity. The intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order.

[0100] 15) The analysis and decision module retrieves the temperature and humidity stabilization judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the humidity stabilization judgment model to determine whether the indoor average temperature and humidity are stable. When the indoor average temperature and humidity are unstable, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module. When the indoor average temperature and humidity are stable, return to step 13).

[0101] 16) After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model.

[0102] 17) When the number of people in the room n=0 and the time the people have been away from the room>tmax2, the control module turns off the air conditioner.

[0103] The technical effect of the present invention is unquestionable. The present invention can make the operation of air-conditioning equipment more comfortable and humanized, and can make full use of the cold and hot energy of the air-conditioning. The present invention adjusts the working mode of the air-conditioning through temperature correction, which is convenient to adjust and has a high degree of comfort. BRIEF DESCRIPTION OF THE DRAWINGS

[0104] Figure 1 It is a schematic diagram of the structure of the air conditioning control system;

[0105] Figure 2 This is a flow chart of how to use the air conditioning control system;

[0106] FIG3( a ) is a schematic diagram of room partition and zoning I;

[0107] Figure 3(b) is a schematic diagram of room separation and partitioning II;

[0108] Figure 4 It is a structural schematic diagram of an intelligent control device;

[0109] Figure 5 It is a structural schematic diagram of a personnel sensing device;

[0110] FIG6( a ) is a schematic structural diagram of a timing device I;

[0111] Fig. 6(b) is a schematic diagram II of the structure of the timing device;

[0112] Figure 7 is a schematic diagram of the structure of a date and time sensing device;

[0113] Figure 8 It is a structural schematic diagram of a temperature and humidity sensing device;

[0114] Fig. 9 It is a structural schematic diagram of an infrared distance measuring device I;

[0115] Fig.10 It is the schematic diagram of infrared distance measuring device I;

[0116] Fig.11 It is the schematic diagram of infrared ranging device III;

[0117] Fig. 12(a) is a schematic diagram of an infrared distance measuring device IV;

[0118] Fig. 12(b) is a schematic diagram of an infrared distance measuring device V;

[0119] In the figure: infrared distance measuring device 1. DETAILED DESCRIPTION

[0120] The present invention is further described below in conjunction with the embodiments, but it should not be understood that the above subject matter of the present invention is limited to the following embodiments. Without departing from the above technical ideas of the present invention, various substitutions and changes are made according to the common technical knowledge and customary means in the art, which should all be included in the protection scope of the present invention.

[0121] Embodiment 1:

[0122] See also Figure 1 to Figure 1 2. An air conditioning control system based on a temperature correction model includes a date and time sensing device, N personnel sensing devices, a number of infrared ranging devices, a temperature and humidity sensing device, a timing device, an intelligent control device, and an air conditioner.

[0123] The date and time sensing device is preset with a node time information set and an infrared ranging start time information set. The time of the infrared ranging start time information set includes the first node time in winter and the first node time in summer.

[0124] The date and time sensing device records the current date and time in real time. If the current date and time coincides with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device.

[0125] The node time information set includes month, day, hour, and minute. The determining factors of the node time information set include the work and rest habits of indoor personnel and the climate of the region where they are located.

[0126] The date and time sensing device includes a recording module and a node storage and sensing module.

[0127] The recording module records the current date and time and sends it to the node storage and sensing module.

[0128] The node storage and sensing module stores the preset node time information set.

[0129] After receiving the current date and time, the node storage and sensing module matches it with the node time information set. If any element of the current date and time coincides with any element of the node time information set, the node storage and sensing module sends a monitoring start signal to the intelligent control device. If any element of the current date and time coincides with any element of the infrared ranging start time information set, the date and time sensing device sends an infrared ranging start signal to the intelligent control device.

[0130] N personnel sensing devices are respectively attached to the door frame, different indoor areas, and the boundary positions of different indoor areas to monitor the human body infrared induction signal and send it to the intelligent control device. The human body infrared induction signal includes the infrared induction signal of personnel entering the room and the infrared induction signal of personnel leaving the room. The indoor area includes a living area and a non-living area; the living area is the area where the daily activity time of personnel is time > 10 min; the living area includes a frequently active area and a non-frequently active area; the frequently active area is the area where the daily activity time of personnel is time > 1 h; the daily activity time of personnel in the non-frequently active area satisfies 10 min < t ≤ 1 h; the non-living area is the area where the daily activity time of personnel is time ≤ 10 min;

[0131] The personnel sensing device includes a human body infrared sensor and a signal conversion and exchanger.

[0132] The human body infrared sensor monitors the human body infrared induction signal and sends it to the intelligent control device through the signal conversion and exchanger.

[0133] The straight-line distance between every two personnel sensing devices is not greater than h.

[0134] The temperature and humidity sensing device is attached to the air conditioner return air outlet to monitor the temperature and humidity information of the environment where the return air outlet is located and send it to the intelligent control device. The total monitoring time is T2.

[0135] The timing device monitors the stay time t1 of indoor personnel, the time when personnel leave the room, the stay time of personnel in different indoor areas, and the time when personnel leave different indoor areas, and sends them to the intelligent control device.

[0136] The timing device includes a time module for personnel leaving the room, a time module for personnel staying in the room, a time module for personnel not being in a frequent activity area, a time module for personnel being in a frequent activity area, a time module for personnel being in a non-frequent activity area, and a time module for personnel not being in a non-frequent activity area.

[0137] When the number of people in the room n=0, the person leaving the room time module records the time when the person leaves the room.

[0138] When the number of people in the room n>0, the people-in-room time module records the people-in-room time.

[0139] When the number of people in the frequent activity area>0, the people-in-frequent-activity-area time module records the time the people spend in the frequent activity area.

[0140] When the number of people in the frequent activity area=0, the people-in-frequent-activity-area time module records the time when the people are not in the frequent activity area.

[0141] When the number of people in the infrequent activity area>0, the people-in-infrequent-activity-area time module records the time the people spend in the infrequent activity area.

[0142] When the number of people in the infrequent activity area=0, the people-in-infrequent-activity-area time module records the time when the people are not in the infrequent activity area.

[0143] Several infrared distance measuring devices are arranged on the air conditioner to monitor the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas. The relative position can be directly filled in by the user into the intelligent control device without the need for infrared distance measuring device monitoring, and the infrared distance measuring device can be omitted.

[0144] The infrared distance measuring device comprises an infrared distance measuring instrument, a photographing device and a signal exchanger.

[0145] The infrared rangefinders are respectively installed on the front, back, left and right walls of the air conditioner. The four infrared rangefinders are in the same horizontal plane.

[0146] Referring to FIG. 12( a ), the infrared rangefinders 1 are respectively installed on the top of the two side walls of the air conditioner, and are respectively denoted as infrared rangefinder I, infrared rangefinder II, infrared rangefinder III, and infrared rangefinder IV; the four infrared rangefinders are in the same horizontal plane; the infrared rangefinder I is perpendicular to the front of the air conditioner, the infrared rangefinder II is perpendicular to the back of the air conditioner, the infrared rangefinder III is perpendicular to the left wall of the air conditioner; the infrared rangefinder IV is perpendicular to the right wall of the air conditioner; the four infrared rangefinders are all perpendicular to the ground; when the air conditioner is equivalent to a rectangle, the position of the infrared rangefinder 1 is shown in FIG. 12( b ).

[0147] When the infrared rangefinder is working, it rotates unidirectionally periodically, and each rotation angle is α;

[0148] The infrared rangefinder sends infrared rays outward and receives infrared reflection signals;

[0149] The infrared rangefinder sends the infrared reflection signal to the intelligent control device through the signal exchanger;

[0150] The photographing device is arranged indoors to take images of the indoor space including the air conditioner, and sends the images of the indoor space to the intelligent control device through a signal exchanger.

[0151] The photographing device photographs an image of the indoor space including the air conditioner, and sends the image of the indoor space to the intelligent control device through a signal exchanger.

[0152] The intelligent control device uses an existing image recognition algorithm to identify the position of the air conditioner in the indoor space, and uses it together as auxiliary information of the relative position information of the air conditioner and different indoor areas;

[0153] The recognition method is: pre-store the feature information of each indoor device (including RGB value, pixel information), use the image recognition algorithm to extract the indoor space image features, and match them with the stored feature information to obtain the location of each device in the indoor space. The devices include air conditioners, sofas, tables and other furniture.

[0154] The intelligent control device uses an image recognition algorithm to identify the indoor space image to obtain a ratio X of the relative length and relative width between the air conditioner and the side wall; the relative position of the air conditioner and the indoor area includes the relative length and relative width between the air conditioner and the side wall.

[0155] The intelligent control device adds the infrared reflection signals of the infrared rangefinder I and the infrared rangefinder III in each cycle to obtain the diagonal measurement result I of the cycle, adds the infrared rangefinder II and the infrared rangefinder IV in each cycle to obtain the diagonal measurement result I of the cycle, and takes the maximum value of the diagonal measurement results I and II in all cycles as the infrared rangefinder measurement result. When measuring, the width of the air conditioner can be added or ignored.

[0156] The measurement result of the infrared rangefinder is used as the longest side of the right triangle, and the indoor area length L and indoor area width H are used as the right angle sides. The indoor area length L and indoor area width H are determined using the Pythagorean theorem. When there are multiple values ​​for the indoor area length L and indoor area width H, the ratio X1 of the indoor area length and indoor area width H, the ratio X2 of the relative length between the air conditioner and the side wall, and the relative width between the air conditioner and the side wall are calculated, and the indoor area length L and indoor area width H with the smallest ratio difference |X1-X2| are used as the relative length between the air conditioner and the side wall and the relative width between the air conditioner and the side wall. When the Pythagorean theorem is used to determine the indoor area length L and indoor area width H, the length and width may not necessarily conform to the Pythagorean theorem. When the infrared rays are blocked by an object in the room, the sum of the squares of the length and width is not equal to the sum of the squares of the diagonals. The pre-selected length and width in the test process are the sum of the distances of the two infrared rays, and the one closest to the Pythagorean theorem (i.e., a set of L and H is selected so that it is closest to the length and width values ​​that satisfy the Pythagorean theorem) shall prevail. At the same time, photos are used to determine the normality of distance measurement, so as to filter out the final data.

[0157] The intelligent control device includes a receiving module, a storage module, an analysis and decision module, a calculation module and a control module.

[0158] The receiving module receives signals sent by the date and time sensing device, a plurality of personnel sensing devices, a plurality of infrared distance measuring devices, a temperature and humidity sensing device, and a timing device respectively, and stores the signals in the storage module.

[0159] The receiving module sends the received monitoring start signal I to the control module.

[0160] The receiving module sends the human infrared sensing signal, the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas to the calculation module.

[0161] The receiving module sends the indoor personnel residence time t1, the personnel leaving time, the personnel residence time in different indoor areas, the personnel leaving time in different indoor areas, and the temperature and humidity information to the analysis and decision module.

[0162] After receiving the infrared sensing signal from the human body, the calculation module calculates the number of people in the room. The indoor area where the personnel are located and the number of personnel in different indoor areas are sent to the analysis and decision module. When the calculation module receives the infrared sensing signal sent by the i-th personnel sensing device that the person enters the room, ni=ni+1 is updated. When the calculation module receives the infrared sensing signal when the person leaves the room, ni=ni-1 is updated. The initial value of ni is 0. The indoor area where the personnel are located is the indoor area where the personnel sensing device ni>0 is located.

[0163] After receiving the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas, the calculation module calculates the size of the indoor space and the relative position between the air conditioner and different indoor areas, and sends them to the analysis and decision module.

[0164] The analysis and decision module determines whether the number of indoor personnel n>0 is established, and if so, sends a timing start signal to the control module.

[0165] The analysis and decision module retrieves the residence time threshold tmax1 stored in the storage module and compares it with the indoor personnel residence time t1. When t1≥tmax, a temperature and humidity sensing signal is sent to the control module.

[0166] The analysis and decision module retrieves the time threshold tmax2 stored in the storage module and compares it with the time the person leaves the room. When the time the person leaves the room is ≥ tmax2, an air conditioning shutdown signal is sent to the control module.

[0167] The analysis and decision module analyzes the indoor areas where people are located, the number of people in different indoor areas, the relative positions of air conditioners and different indoor areas, the time people stay in different indoor areas, and the time people leave different indoor areas.

[0168] When the indoor area where the person is located is a frequent activity area and the person stays in the frequent activity area for longer than the time threshold tmax3, a frequent activity area wind direction control signal is sent to the control module.

[0169] When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for a time greater than the time threshold tmax4, a wind direction control signal for the non-frequent activity area is sent to the control module.

[0170] When the number of people in the frequent activity area is greater than the number of people in the infrequent activity area, a wind direction adjustment signal I is sent to the control module. When the number of people in the frequent activity area is equal to the number of people in the infrequent activity area, a wind direction adjustment signal II is sent to the control module. When the number of people in the frequent activity area is less than the number of people in the infrequent activity area and the people stay in the infrequent activity area for <30 minutes, a wind direction adjustment signal II is sent to the control module; when the number of people in the frequent activity area is less than the number of people in the infrequent activity area and the people stay in the infrequent activity area for ≥30 minutes, a wind direction adjustment signal III is sent to the control module;

[0171] After receiving the size of the indoor space, the analysis and decision module retrieves the local climate information stored in the storage module, generates the temperature adjustment range under different date and time nodes, and inputs it into the temperature setting model.

[0172] The analysis and decision module retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity. The analysis and decision module writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order.

[0173] Average indoor temperature Average indoor humidity Where n = 10, n is a positive integer; T i is the temperature at the i-th moment, and RHi is the humidity at the i-th moment. i is the moment of the previous i-th temperature and humidity monitoring with the current moment as the zero point. When the air conditioner is turned off, the analysis and decision module calls the temperature and humidity over-limit judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the temperature and humidity over-limit judgment model. If at least one element in the indoor average temperature data set is not within the temperature range of the temperature and humidity over-limit judgment model or at least one element in the indoor average humidity data set is not within the humidity range of the temperature and humidity over-limit judgment model, a monitoring start signal II and an air conditioning start signal are sent to the control module.

[0174] When the air conditioner is turned on, the analysis and decision module retrieves the temperature and humidity stabilization judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the humidity stabilization judgment model to judge whether the indoor average temperature and humidity are stable. When the indoor average temperature and humidity are unstable, the analysis and decision module sends an air conditioner temperature adjustment signal to the control module. When the indoor average temperature and humidity are stable, the analysis and decision module calculates the indoor average stable temperature T using the average stable temperature calculation model. R =(a1t S +a2)W+(a3t S +a4); where the fitting coefficient a m =b 1m L 2 +b 2m L+b 3m ; Coefficient number m = 1, 2, 3, 4; a m 、b 1m 、b 2m 、b 3m is the fitting coefficient; L is the length of the indoor space; W is the width of the indoor space; t s Set the temperature value for the air conditioner; if the average indoor temperature is stable, T R If the temperature is not within the comfortable temperature range, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module; R =AW+B; A=a1T S +a2,B=a3T S +a4.

[0175] Tables 1 and 2 show the fitting coefficients of the average stable working area temperature in the bedroom in summer and winter, respectively, which include the fitting coefficients of two typical installation positions: the wall-mounted air conditioner in the bedroom of a residential building is installed against the corner of the wall and against the middle of the wall. Tables 3 and 4 show the fitting coefficients of the average stable working area temperature in the living room in summer and winter for three types of cabinet air conditioners (center delivery, center delivery, center delivery, and center delivery). They include the fitting coefficients of two typical installation positions: the cabinet air conditioner in the living room of a residential building is installed against the TV wall and against the sofa.

[0176] Table 1 Fitting coefficients of average stable temperature in bedroom work area in summer

[0177]

[0178]

[0179] Table 2 Fitting coefficients of average stable temperature in bedroom work area in winter

[0180]

[0181] Table 3 Fitting coefficients of average stable temperature in the living room work area in summer

[0182]

[0183] Table 4 Fitting coefficients of average stable temperature in the living room work area in winter

[0184]

[0185] The temperature and humidity stabilization judgment model includes temperature and humidity stabilization judgment condition I, temperature and humidity stabilization judgment condition II, and temperature and humidity stabilization judgment condition III.

[0186] Temperature and humidity stabilization judgment condition I: ΔT<ΔTmax and ΔRH<ΔRH max . ΔT is the difference between the maximum and minimum elements in the indoor average temperature data set. ΔRH is the difference between the maximum and minimum elements in the indoor average humidity data set. ΔTmax, ΔRH max It is the preset temperature and humidity change threshold.

[0187] Temperature and humidity stabilization judgment condition II: T x <Tn<T s And RH x <RHn<RH s Tn is any element in the indoor average temperature data set. RHn is any element in the indoor average humidity data set. x , T sare the minimum average temperature and the maximum average temperature. RH x and RH s are the minimum average humidity and the maximum average humidity.

[0188] The temperature and humidity stabilization judgment condition III includes the following 4 types:

[0189] a) T x > T j > T1 and RH x > RH j > RH1. b) T x > T j > T1 and RH s < RH j < RH1.

[0190] c) T s < T j < T1 and RH x > RH j > RH1. d) T s < T j < T1 and RH s < RH j < RH1.

[0191] Among them, T j and T1 respectively represent the last item and the first item element in the indoor average temperature dataset. RH j and RH1 respectively represent the last item and the first item element in the indoor average humidity dataset.

[0192] When the elements in the indoor average temperature dataset and the indoor average humidity dataset do not satisfy the temperature and humidity stabilization judgment condition I, the temperature and humidity stabilization judgment condition II, and the temperature and humidity stabilization judgment condition III, the indoor average temperature and humidity are unstable.

[0193] After receiving the timing start signal, the control module controls the timing device to work.

[0194] After receiving the monitoring start signal I, the control module controls the personnel sensing device attached to the door frame and the frequently active area to work.

[0195] After receiving the monitoring start signal II, the control module controls all personnel sensing devices to work.

[0196] After receiving the wind direction adjustment signal III, the control module controls the left and right wind directions of the air conditioner to perform periodic left and right sweeping; among them, the air supply time to the frequently active area is less than the air supply time to the non-frequently active area; after receiving the temperature and humidity sensing signal, the control module controls the temperature and humidity sensing device to work.

[0197] After receiving the air conditioner start signal, the control module retrieves the temperature setting model corresponding to the current date and time, controls the air conditioner temperature according to the temperature setting model, and controls the air conditioner wind direction to be periodic up and down wind. If the current date is summer or autumn, the air conditioner temperature is the upper limit of the temperature setting model. If the current date is spring or winter, the air conditioner temperature is the lower limit of the temperature setting model.

[0198] The control module receives a wind direction control signal for a frequently active area, and controls the left and right wind directions of the air conditioner to be the wind direction toward the frequently active area.

[0199] The control module receives a wind direction control signal for a non-frequently active area, and controls the left and right wind directions of the air conditioner to be the wind direction toward the non-frequently active area.

[0200] After receiving the wind direction adjustment signal I, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is greater than the air supply time to the infrequently active area.

[0201] After receiving the wind direction adjustment signal II, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is equal to the air supply time to the infrequently active area.

[0202] After receiving the wind direction adjustment signal III, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is shorter than the air supply time to the infrequently active area;

[0203] The control module turns off the air conditioner after receiving the air conditioner turning off signal.

[0204] After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model.

[0205] The storage module stores an average temperature and humidity calculation model, a temperature setting model, a temperature over-limit judgment model, a local climate signal, an average stable temperature calculation model and a comfortable temperature range.

[0206] The air conditioner has an independent air return port.

[0207] Embodiment 2:

[0208] The method of using the air conditioning control system based on the temperature correction model comprises the following steps:

[0209] 1) The date and time sensing device records the current date and time in real time. When the current date and time coincides with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device.

[0210] 2) The intelligent control device controls the operation of the personnel sensing device attached to the door frame and the frequently active area.

[0211] 3) The personnel sensing device monitors the infrared sensing signal of the human body and sends it to the intelligent control device.

[0212] 4) When the intelligent control device receives the infrared sensing signal of the human body, it calculates the number of people in the room When the number of people in the room n>0, the control timing device works.

[0213] 5) The timing device monitors the indoor occupant's stay time t1, when t1≥t max When the temperature and humidity sensing device is turned on, the intelligent control device controls the temperature and humidity sensing device to work.

[0214] 6) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device.

[0215] 7) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity. The intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order.

[0216] 8) The intelligent control device retrieves the temperature and humidity over-limit judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the temperature and humidity over-limit judgment model. If at least one element in the indoor average temperature data set is not within the temperature range of the temperature and humidity over-limit judgment model or at least one element in the indoor average humidity data set is not within the humidity range of the temperature and humidity over-limit judgment model, a monitoring start signal II and an air conditioning start signal are sent to the control module.

[0217] 9) The control module controls the air conditioner to start and all personnel sensing devices to work. The temperature value when the air conditioner starts is set by the temperature setting module.

[0218] 10) The personnel sensing device monitors the indoor area where the personnel are located and the number of personnel in different indoor areas, and sends them to the analysis and decision-making module.

[0219] 11) The analysis and decision module analyzes the indoor areas where people are located, the number of people in different indoor areas, the relative positions of air conditioners and different indoor areas, the time people stay in different indoor areas, and the time people leave different indoor areas.

[0220] When the indoor area where the person is located is a frequent activity area and the person stays in the frequent activity area for longer than the time threshold tmax3, a frequent activity area wind direction control signal is sent to the control module.

[0221] When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for a time greater than the time threshold tmax4, a wind direction control signal for the non-frequent activity area is sent to the control module.

[0222] When the number of people in the frequent activity area is greater than the number of people in the infrequent activity area, a wind direction adjustment signal I is sent to the control module. When the number of people in the frequent activity area is equal to the number of people in the infrequent activity area, a wind direction adjustment signal II is sent to the control module.

[0223] 12) The control module receives the wind direction control signal of the frequent activity area, and controls the left and right wind directions of the air conditioner to be the wind direction towards the frequent activity area.

[0224] The control module receives a wind direction control signal for a non-frequently active area, and controls the left and right wind directions of the air conditioner to be the wind direction toward the non-frequently active area.

[0225] After receiving the wind direction adjustment signal I, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is greater than the air supply time to the infrequently active area.

[0226] After receiving the wind direction adjustment signal II, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right. The air supply time to the frequently active area is equal to the air supply time to the infrequently active area.

[0227] 13) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device.

[0228] 14) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity. The intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order.

[0229] 15) The analysis and decision module retrieves the temperature and humidity stabilization judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the humidity stabilization judgment model to determine whether the indoor average temperature and humidity are stable. When the indoor average temperature and humidity are unstable, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module. When the indoor average temperature and humidity are stable, return to step 13).

[0230] 16) After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model.

[0231] 17) When the number of people in the room n=0 and the time the people have been away from the room>tmax2, the control module turns off the air conditioner.

[0232] Embodiment 3:

[0233] The air conditioning control system structure based on temperature and humidity correction includes intelligent control device, time and date sensing device, personnel sensing device, timing device, temperature and humidity sensing device, infrared ranging device and air conditioning equipment. Based on this system structure and two models based on temperature correction, intelligent comfort control of air conditioning equipment can be realized.

[0234] The intelligent control device can be a single device similar to other devices such as routers and Tmall, or it can control air-conditioning equipment and other household appliances after merging functions with routers, Tmall, mobile phones, smart watches and other devices; the intelligent control device can receive and simultaneously receive signals from time and date sensing devices, personnel sensing devices, timing devices, temperature and humidity sensing devices, infrared ranging devices and air-conditioning equipment remote controls, and can perform corresponding processing, analysis or calculation on these signals, and finally make corresponding decisions to control the opening and closing status of corresponding modules of air-conditioning equipment and other devices or the setting status of air-conditioning equipment.

[0235] The intelligent control device can be a single device with an application or an integrated chip, or the application or integrated chip can be installed in common electronic devices in the home (routers, Tmall, mobile phones, smart watches); the application or integrated chip can include the function of identifying other electronic devices in the connected room.

[0236] The intelligent control device, the time and date sensing device and the timing device can be combined into one device; similarly, the corresponding module functions of the time and date sensing device and the timing device can be added to the corresponding application or integrated chip of the above-mentioned intelligent control device.

[0237] Indoor areas include:

[0238] Living area refers to the area where people usually live and move around. The living area of ​​a bedroom is within the bed, and the living area of ​​a living room is within the sofa and dining table.

[0239] Non-living area refers to the area where people live and move around indoors. The non-living area is the area outside the bed in the bedroom and the area outside the sofa and dining table in the living room.

[0240] Doors, which serve as boundaries between the air-conditioned room and the outdoors or other rooms;

[0241] The corridor also serves as a boundary separating the air-conditioned room from the outdoors or other rooms;

[0242] Personnel sensing device: This device is installed at the door of the room, the entrance of the corridor, and the entrance and exit of the boundary between the living area and the non-living area. The triangle facing inward represents entry, and the triangle facing outward represents entry, and entry and exit are relative.

[0243] Receiving module: used to receive information from other sensors and devices;

[0244] Storage module: used to store important information from other devices, decision logic for other devices, set temperature model and related important values ​​and calculation methods, temperature correction model and related important values ​​and calculation methods;

[0245] Calculation module: at least includes the functions of processing the addition and subtraction of signals transmitted by personnel sensing devices at the entrance and exit of the room and the boundaries of each area of ​​the air-conditioned room, recalculating relevant important values ​​in the set temperature model using the existing calculation method in the storage module when necessary and reassigning them to the storage module, calculating relevant important values ​​in the temperature correction model using the existing calculation method in the storage module when necessary and transmitting them to the decision module, and calculating the time after the air conditioner is turned on or changes state, etc.

[0246] Analysis and decision module: used to analyze the information and results from the receiving module and the calculation module, wherein the analysis results will be used to make decisions on the corresponding devices through the decision logic of other devices in the storage module;

[0247] Control module: By analyzing the decisions made in the decision module on the corresponding devices, the decisions are converted into control commands for the corresponding devices, and the corresponding devices are linked to change their states or opening and closing conditions.

[0248] Human infrared sensor: used to sense people entering and leaving rooms and areas and generate corresponding pressure signals;

[0249] Signal conversion and exchanger: converts the corresponding pressure signal generated by the human infrared sensor into a digital signal and transmits it to the intelligent control device, and can also convert the pressure signal into a signal to start other devices such as the intelligent control device and the timing device.

[0250] The personnel sensing device is specifically used for:

[0251] Install personnel sensing devices at the entrance and exit of the air-conditioned room and areas where personnel may move frequently to confirm the entry and exit of personnel in the room and the original personnel in the room;

[0252] By dividing the air-conditioned room into zones and installing personnel sensing devices, the entry and exit of personnel in each area of ​​the room can be confirmed.

[0253] Based on the above idea of ​​preventing people from staying in rooms and areas of rooms for a short time, which may cause the air conditioner to be turned on incorrectly and the setting status to be changed, an embodiment of the present invention provides a timing device, the structure of which is shown in FIG6 .

[0254] Personnel in-room time module: its function is to confirm that the personnel in the room are not staying for a short time. When the length of time in the personnel leaving the room time module exceeds the preset time, the personnel in-room time module is immediately closed and reset, and the intelligent control device is linked to shut down the indoor air-conditioning equipment. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the entrance and exit of the room and the room where the human body may frequently move is always greater than zero, the personnel in-room time is always recorded. When the length of time the personnel in the room exceeds the preset time, the intelligent control device is linked to start the temperature sensing device at the return air outlet of the air-conditioning equipment;

[0255] Personnel leaving time module: Its function is to confirm the length of time when the number of people in the room is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the entrance and exit of the room and the area where people may frequently move in the room is zero, it will be started immediately, otherwise it will be closed and cleared immediately;

[0256] Personnel in living area time module: its function is to confirm that the personnel are not staying in the living area for a short time. When the length of time that the personnel are not in the living area time module exceeds the preset time, the personnel in the living area time module will be immediately closed and reset, and the intelligent control device will be linked to change the wind direction of the air conditioning equipment;

[0257] Personnel absence time module: Its function is to confirm the length of time when the number of people in the living area is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the boundary of the living area is zero, it will be started immediately, otherwise it will be closed and cleared immediately;

[0258] Personnel in non-living area time module: its function is to confirm that the personnel are not staying in the non-living area for a short time. When the length of time that the personnel are not in the non-living area time module exceeds the preset time, the personnel in the non-living area time module will be immediately closed and reset, and the intelligent control device will be linked to change the wind direction of the air-conditioning equipment;

[0259] The personnel absence time module in the non-living area: its function is to confirm the length of time when the number of personnel in the non-living area is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the boundary of the non-living area is zero, it will be started immediately, otherwise it will be shut down and cleared immediately.

[0260] Date and time sensing devices include:

[0261] Recording module: used to record accurate date and time;

[0262] Node storage and sensing module: On the one hand, it can store dates that meet local climate standards and entertainment and rest time that meet the personalized habits of users, and users can change the stored nodes through settings.

[0263] On the other hand, when the date and time recorded by the recording module reaches the date and time node information, the module will perform a sensing action and transmit the node information to the intelligent control device.

[0264] The date and time node information specifically includes:

[0265] Date node information that complies with local climate standards, where the date node information at least includes the node time before and after the local winter and summer when the air conditioner is used;

[0266] Time node information that conforms to the daily life and entertainment habits of most users, where the time node information at least includes the node time before and after lunch break and evening break.

[0267] The temperature and humidity sensing device includes:

[0268] Temperature and humidity sensor: installed at the return air outlet to sense the exact temperature and humidity at the return air outlet;

[0269] Signal exchanger: On the one hand, the signal exchanger transmits the sensed temperature and humidity to the intelligent control device, and on the other hand, the intelligent control device can also transmit the start signal to the temperature and humidity sensing device through the exchanger to turn on the device.

[0270] The infrared distance measuring device includes:

[0271] Infrared rangefinder: Four unidirectional rotatable infrared rangefinders, the instrument will measure the distance once at a certain angle (5° is recommended, the maximum rotation angle is 90°) and feed back to the intelligent control device. On the one hand, its function is to test the length and width of the room and use the diagonal size of the room to calculate and confirm the length and width of the room. On the other hand, its function is to use the conversion between various distances as one of the important bases for confirming the installation position of the room air conditioning equipment;

[0272] Miniature camera device: installed on the air conditioner, its function is to determine the furniture arrangement around the current location of the air conditioner, and serve as another important basis for confirming the installation location of the room air conditioner;

[0273] Signal exchanger: On the one hand, the signal exchanger transmits the sensed distance signal and the complete picture taken by the camera to the intelligent control device. On the other hand, the intelligent control device can also transmit the start signal to the infrared distance measuring device through the exchanger to start the device.

[0274] Embodiment 4:

[0275] An air conditioning control system based on temperature correction, the system comprising:

[0276] When the intelligent control device receives the node information preset from the date and time sensing device, it will control the operation of the personnel sensing device at the entrance and exit of the air-conditioned room and the area where personnel may frequently move;

[0277] The date and time sensing device comprises:

[0278] Recording module, recording the accurate date and time based on Beijing time;

[0279] The node storage and sensing module stores the date and time node information, and senses the corresponding node information and transmits it to the intelligent control device.

[0280] The date and time node information includes:

[0281] Time node information that conforms to the daily life and entertainment habits of most users, where the time node information at least includes the node times before and after lunch break and evening break;

[0282] Date node information that complies with local climate standards, wherein the date node information at least includes the node time before and after the local winter and summer when the air conditioner is used.

[0283] When the personnel sensing device senses that there is someone in the room, the personnel sensing device will simultaneously link the intelligent control device to start the personnel presence time module in the timing device;

[0284] A personnel sensing device, comprising:

[0285] Install personnel sensing devices at the entrance and exit of the air-conditioned room and areas where personnel may move frequently to confirm the entry and exit of personnel in the room and the original personnel in the room;

[0286] By dividing the air-conditioned room into zones and installing personnel sensing devices, the entry and exit of personnel in each area of ​​the room can be confirmed;

[0287] When the time a person stays in the room is greater than the preset time, the intelligent control device is linked to start the temperature sensing device at the return air outlet to sense the return air outlet temperature. The information in the temperature sensing device at the return air outlet is received by the intelligent control device as a basis for deciding whether to turn on the air conditioning equipment;

[0288] When the intelligent control device receives a signal that the air conditioner needs to be turned on, it immediately links the infrared distance measuring device to measure each distance, and immediately feeds each distance back to the intelligent control device to calculate the room size, and obtains the installation position of the current air conditioner through distance conversion and taking pictures, and then substitutes it into the temperature model and sets the temperature model;

[0289] The intelligent control device at least comprises:

[0290] A receiving module, used to receive information from other sensors and devices;

[0291] A storage module, used to store important information from other devices, decision logic for other devices, set important values ​​and calculation methods related to temperature models, and important values ​​and calculation methods related to temperature models;

[0292] The calculation module at least includes the functions of processing the addition and subtraction of signals transmitted by personnel sensing devices at the entrance and exit of the room and the boundaries of each area of ​​the air-conditioned room, processing the addition and division of distance signals transmitted by the infrared distance measuring device, recalculating relevant important values ​​in the set temperature model using the existing calculation method in the storage module when necessary and reassigning them to the storage module, calculating relevant important values ​​in the temperature model using the existing calculation method in the storage module when necessary and transmitting them to the decision module, calculating the time after the air conditioner is turned on or changes state, etc.;

[0293] Room entry and exit, including:

[0294] The calculation module in the personnel sensing device at the entrance and exit of the air-conditioned room and the area where personnel may frequently move is linked to the intelligent control device to add or subtract the number of people at the entrance and exit based on the original number of people sensed, where the calculation operation of the people entering and leaving the room is an addition or subtraction action respectively.

[0295] The air-conditioned room partition comprises:

[0296] The room where the air-conditioning equipment is used shall be divided into zones according to the room size and the functional arrangement of furniture, wherein the zones shall include at least two areas, namely, the living area and the non-living area;

[0297] Install personnel sensing devices at the boundaries of each area in the room according to the room partition situation.

[0298] The entry and exit conditions of each area of ​​the room include:

[0299] The personnel sensing device at the boundary of each area of ​​the air-conditioned room is linked to the calculation module in the intelligent control device to add or subtract the number of people entering or leaving each area based on the original number of people in the corresponding area sensed, wherein the calculation operations for entering or leaving the boundary of each area are respectively addition or subtraction operations.

[0300] An analysis and decision module is used to analyze the information and results from the receiving module and the computing module, wherein the analysis results will be used to make decisions on corresponding devices through the decision logic for other devices in the storage module;

[0301] The control module converts the decision made by the decision module on the corresponding device into a control command for the corresponding device, thereby linking the corresponding device to change its state or opening and closing status.

[0302] When the air conditioner is initially turned on, the set temperature is the recommended boundary setting value in the initial setting temperature model (summer is the upper limit of the initial boundary value, and winter is the lower limit of the initial boundary value), but the initial default setting wind direction is horizontal, and the left and right wind direction depends on the area where the indoor personnel are located;

[0303] Whether the setting state of the air conditioning device is changed depends on whether the average temperature of the working area of ​​the room converted by the temperature model of the current setting temperature is stably within the comfort zone and whether the area where the indoor personnel are located is changed.

[0304] The infrared distance measuring device at least comprises:

[0305] Four unidirectional rotatable infrared rangefinders and a micro camera device are horizontally and characteristically installed at four corners of the outer surface of the air conditioner (where two surfaces intersect, the four equal denominators of the cylindrical side surface are assumed to be the corners of the outer surface of the air conditioner). The function is to feed back the real-time measured distance signals to the intelligent control device for processing and calculation to determine the approximate size of the room where the air conditioner is currently running (the size of the air conditioner itself is ignored) and determine the installation position of the air conditioner through distance conversion and photographed pictures;

[0306] The horizontal and characteristic installation at the four corners of the outer surface of the air conditioner includes at least:

[0307] The four corners are divided into two groups with the diagonal as reference, and the two groups of corners are assumed to be two parallel planes, one group of planes is attached to and parallel to the front and back of the air conditioner, and the other group of planes is attached to and parallel to the left and right sides of the air conditioner. The one-way infrared rangefinders are also installed in this grouping manner and bound to each other and numbered (1-4), where the four rangefinders 1 and 2 are a group (for measuring width), and 3 and 4 are a group (for measuring length);

[0308] The four one-way infrared rangefinders are respectively perpendicular to the four angular surfaces mentioned above and respectively perpendicular to the ground and are horizontally installed at the highest points of the four angular surfaces of the air conditioner relative to the ground.

[0309] The four rotatable one-way infrared rangefinders at least include:

[0310] The infrared rays are emitted unidirectionally for distance measurement. The initial emission direction is vertical and facing away from the imaginary angular surface on which it is installed. The distance measured in the initial direction will be fed back to the intelligent control device.

[0311] After measuring the distance in the initial transmission direction, the four rotatable one-way infrared rangefinders will continue to rotate and measure the distance on the surface of the air conditioner, measuring the distance at a certain angle (5° is recommended, and the maximum rotation angle is 90°), and each distance measurement will be fed back to the intelligent control device;

[0312] The intelligent control device performs processing and calculation to determine the approximate size of the room where the air conditioner is currently to be operated (ignoring the size of the air conditioner itself), including:

[0313] The distances fed back from the initial direction of the infrared distance measuring device are added diagonally and stored as the default length and width of the air-conditioned room respectively;

[0314] The intelligent control device stores, adds and stores the distance feedback from the four infrared testers in the order of testing. After a total of 18 distance measurements, the two groups of distances after addition are compared. The largest added distance is used as the diagonal distance of the air-conditioning room, and the length and width of the air-conditioning room are verified and corrected by the Pythagorean theorem to determine the final size of the air-conditioning room.

[0315] The method of determining the installation location of the air conditioner by distance conversion and photographed pictures includes:

[0316] The installation location is determined after the size of the air-conditioned room is finalized;

[0317] The distance conversion is carried out by group (the groups are divided into groups according to the distance meters, with a total of two groups). When determining the installation position, the distance conversion is mainly based on the distance of the final air-conditioned room size. The distance between the two distance meters 1 and 2 is divided by the width; the distance between the two distance meters 3 and 4 is divided by the length. The installation position of the air-conditioned room is preliminarily determined according to the calculation ratio.

[0318] The photographed picture can be used to determine the furniture arrangement around the current location of the air conditioner. For example, for a cabinet unit in the living room, it can be determined whether it is installed next to the TV or next to the sofa.

[0319] The method comprises:

[0320] When the date and time reach a point that matches the local climate and user living habits, the personnel sensing devices at indoor entrances and exits and areas where people may frequently move will be linked and activated by the intelligent control device;

[0321] The personnel sensing device will feed back to the intelligent control device whether there is someone in the room and the entry and exit of the room, and link the corresponding module of the timing device to start;

[0322] When the timer indicates that the indoor occupants have been in the room for longer than the expected time, the intelligent control device is linked to start the temperature sensing device at the return air outlet of the air conditioning equipment;

[0323] The timing device shall include at least:

[0324] The function of the personnel leaving time module is to confirm the length of time when the number of people in the room is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the entrance and exit of the room and the room where people may frequently move is zero, it will be started immediately, otherwise it will be closed and reset immediately;

[0325] The function of the personnel in-room time module is to confirm that the personnel in the room are not staying for a short time. When the length of time in the personnel leaving the room time module exceeds the preset time, the personnel in-room time module is immediately closed and reset, and the intelligent control device is linked to shut down the indoor air-conditioning equipment. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the entrance and exit of the room and the room where the human body may frequently move is always greater than zero, the personnel in-room time is always recorded. When the length of time the personnel in the room exceeds the preset time, the intelligent control device is linked to start the temperature sensing device at the return air outlet of the air-conditioning equipment;

[0326] The personnel absence time module is used to confirm the length of time when the number of personnel in the living area is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the boundary of the living area is zero, it will be started immediately, otherwise it will be closed and cleared immediately;

[0327] The function of the personnel in the living area time module is to confirm that the personnel are not staying in the living area for a short time. When the length of time that the personnel are not in the living area time module exceeds the preset time, the personnel in the living area time module is immediately closed and reset, and the intelligent control device is linked to change the wind direction of the air conditioning equipment;

[0328] The personnel absence time module is used to confirm the length of time when the number of personnel in the non-living area is zero. When the calculation result of the calculation module in the intelligent control module for the information transmitted by the personnel sensing device at the boundary of the non-living area is zero, it will be started immediately, otherwise it will be closed and cleared immediately;

[0329] The function of the personnel time module in non-living areas is to confirm that the personnel's stay in non-living areas is not short-term. When the length of time that the personnel is absent from the non-living area time module exceeds the preset time, the personnel time module in non-living areas will be immediately closed and reset, and the intelligent control device will be linked to change the wind direction set by the air-conditioning equipment.

[0330] When the temperature sensing device at the return air outlet senses that the temperature exceeds the upper and lower limits of the human body's acceptable temperature in the corresponding season, the personnel sensing devices at the boundaries of each area of ​​the linkage intelligent control device are activated;

[0331] The intelligent control device analyzes the initial default wind direction based on the comprehensive situation of all personnel sensing devices; and controls the air conditioning equipment to start according to the initial default state;

[0332] After the air conditioner is turned on, the intelligent control device will periodically decide whether to change the set wind direction of the air conditioner or turn off the air conditioner based on the feedback information from the indoor occupant sensing device and the timing device. It can also change the set wind direction of the air conditioner at irregular intervals according to the requirements of the indoor occupants and receive the stored status value.

[0333] When the air conditioning equipment is turned off, all other devices except date and time sensors, room entrances and exits, and personnel sensors in areas where people may move frequently must be turned off at the same time;

[0334] The intelligent control device will periodically request the return air outlet temperature and humidity sensing device to transmit a temperature signal according to the time after the air conditioning equipment changes the on / off or setting state and the time length meets the requirements within a period of time, so as to comprehensively determine whether the room temperature and humidity in the air-conditioned environment are in a stable state;

[0335] When the intelligent control device determines that the room temperature and humidity under the air-conditioning environment are in a stable state, the corresponding temperature model is immediately selected according to the current air-conditioning equipment type, air-conditioning use season, air-conditioning room size and air-conditioning installation location) and the average temperature of the current room working area is estimated through the setting temperature of the current air-conditioning equipment stored in the intelligent control device. If so, the current setting state is maintained; if not, the air-conditioning setting temperature is adjusted to the current median value of the setting temperature model, and the boundary value and median value of the setting temperature model are reassigned;

[0336] When the intelligent control device determines that the room temperature and humidity in the air-conditioned environment are in an unstable state, it immediately requires the return air outlet temperature sensing device to transmit temperature and humidity signals according to the previous period of time and converts the temperature and humidity correction model to determine whether the room temperature and humidity in the air-conditioned environment are close to the comfortable temperature and humidity range. If so, the current setting state is maintained and it is required to determine whether the room temperature and humidity in the air-conditioned environment are in a stable state at regular intervals and repeat the action after determining the stability. If not, the air-conditioning set temperature is adjusted to the current median value of the set temperature model, and the boundary value and median value of the set temperature model are reassigned. It is still required to determine whether the room temperature and humidity in the air-conditioned environment are in a stable state at regular intervals and repeat the action after determining the stability.

[0337] The temperature model at least includes:

[0338] The temperature model refers to the relationship model between the set temperature of the air-conditioning equipment and the average stable temperature of the room working area under the winter and summer operation modes of the bedroom wall-mounted air conditioner (upper delivery and upper return) and the living room cabinet air conditioner (central delivery side and lower return, central delivery positive and lower return, central delivery and rear central return) of the residential building. The form of the relationship model and the correlation coefficient in the form are shown in Appendix 1;

[0339] The intelligent control device will select and select the temperature model that matches the current air-conditioning room environment according to the current air-conditioning equipment type, air-conditioning use season, air-conditioning room size and air-conditioning installation location, and estimate the average stability of the room working area according to the set temperature of the current room air-conditioning equipment;

[0340] Setting the temperature model and setting the temperature-related boundary values ​​and median values ​​includes at least:

[0341] The components of the set temperature model are the set temperature boundary value and the median value of the established air-conditioned room. Since the set temperature model is further calculated based on the established temperature model of the current air-conditioned room, the components of the set temperature model are jointly determined by objective factors such as the form of the air-conditioning equipment, the season in which the air-conditioning is used, the size of the air-conditioned room, and the installation location of the air-conditioning;

[0342] The boundary value and median value of the set temperature model will be adjusted as the current set temperature changes. When the air conditioner set temperature is adjusted to the current median value of the set temperature model as needed, the boundary value in the set temperature model is reassigned to the median value and one of the boundary values ​​in the previous step of the set temperature model (the lower limit of the boundary value in the previous step in summer and the upper limit of the boundary value in the previous step in winter);

[0343] The intelligent control device calculates the initial temperature boundary value and median value of the current room setting based on the average stable temperature comfort range of the room working area, thereby forming an initial setting temperature model. The average stable temperature comfort range of the room working area is between 24-28℃ in summer and between 18-24℃ in winter.

[0344] The four corners are divided into two groups with the diagonal of the air conditioner as a reference, and the two groups of corners are assumed to be two parallel planes, one group of planes is attached to and parallel to the front and back of the air conditioner, and the other group of planes is attached to and parallel to the left and right sides of the air conditioner. The one-way infrared rangefinders are also installed in this grouping manner and bound to each other and numbered (1-4), where the four rangefinders 1 and 2 are a group (for measuring width), and 3 and 4 are a group (for measuring length);

[0345] The four one-way infrared rangefinders are respectively perpendicular to the four angular surfaces mentioned above and respectively perpendicular to the ground and are horizontally installed at the highest points of the four angular surfaces of the air conditioner relative to the ground.

[0346] Four rotatable one-way infrared rangefinders, including at least:

[0347] The infrared rays are emitted unidirectionally for distance measurement. The initial emission direction is vertical and facing away from the imaginary angular surface on which it is installed. The distance measured in the initial direction will be fed back to the intelligent control device.

[0348] After measuring the distance in the initial transmission direction, the four rotatable one-way infrared rangefinders will continue to rotate and measure the distance on the surface of the air conditioner, measuring the distance at a certain angle (5° is recommended, and the maximum rotation angle is 90°), and each distance measurement will be fed back to the intelligent control device;

[0349] The intelligent control device performs processing and calculation to determine the approximate size of the room where the air conditioner is currently to be operated (ignoring the size of the air conditioner itself), including:

[0350] The distances fed back from the initial direction of the infrared distance measuring device are added diagonally and stored as the default length and width of the air-conditioned room respectively;

[0351] The intelligent control device stores, adds and stores the distance feedback from the four infrared testers in the order of testing. After a total of 18 distance measurements, the two groups of distances after addition are compared. The largest added distance is used as the diagonal distance of the air-conditioning room, and the length and width of the air-conditioning room are verified and corrected by the Pythagorean theorem to determine the final size of the air-conditioning room.

[0352] The method of determining the installation location of the air conditioner by distance conversion and photographed pictures includes:

[0353] The installation location is determined after the size of the air-conditioned room is finalized;

[0354] The distance conversion is carried out by group (the groups are divided into groups according to the distance meters, with a total of two groups). When determining the installation position, the distance conversion is mainly based on the distance of the final air-conditioned room size. The distance between the two distance meters 1 and 2 is divided by the width; the distance between the two distance meters 3 and 4 is divided by the length. The installation position of the air-conditioned room is preliminarily determined according to the calculation ratio.

[0355] The pictures taken can determine the furniture arrangement around the current air conditioner location. For example, for a cabinet in the living room, it can be determined whether it is installed next to the TV or the sofa. The general idea is as follows:

[0356] The purpose of diagonal conversion is to prevent certain distances from being blocked by furniture when measuring distance (the blue line in the figure is the initial length when there is no furniture blocking it, and the red line is the diagonal length). The infrared rangefinder (orange circle) should be installed at the top of the air conditioner where the furniture blocks less infrared rays.

[0357] Embodiment 5:

[0358] The method of using the air conditioning control system based on the temperature correction model comprises the following steps:

[0359] 1) Determine whether the air conditioner on information node has been reached through the date and time sensing device. If so, proceed to step 2; otherwise, proceed to step 4.

[0360] The date and time sensing device makes a judgment and response at the information node based on the preset date and time node information. If it is judged that the preset date and time node that meets the requirements for turning on the air conditioner is reached, the intelligent control device is turned on and the signal is transmitted to the intelligent control device and the process proceeds to step 2. Otherwise, the process proceeds to step 4.

[0361] 2) Comprehensively judge whether there is a person in the room through the personnel sensing device and timing device in the corresponding area. If so, go to step 3; otherwise, go to step 4.

[0362] Through the personnel sensing devices and timing devices at the entrances and exits of the room and areas where personnel may frequently move, it is comprehensively judged whether there are people in the room for a long time. If so, the signal is transmitted to the intelligent control device and the process goes to step 3. Otherwise, the process goes to step 4.

[0363] 3) Use the temperature sensing device at the return air outlet to sense whether the room temperature reaches the upper and lower limits. If so, proceed to step 5; otherwise, proceed to step 4.

[0364] When the intelligent control device obtains the node information from the date and time sensing device through step 1, and comprehensively determines that there are people in the room outside the time through the information from the personnel sensing device and the timing device in step 2, it immediately controls the temperature sensing device at the return air outlet to sense the current room temperature. If the current room temperature is received and it is determined that the current room temperature reaches the upper or lower limit of the local area and the season, it goes to step 5; otherwise, it goes to step 4.

[0365] 4) Keep the air conditioner off or turn it off.

[0366] 5) Integrate the information from the infrared distance measuring device, the personnel sensing device and the timing device to determine the size of the air-conditioned room, the installation location of the air-conditioning equipment and the situation of personnel in each area.

[0367] When the intelligent control device determines through step 3 that the current room temperature has reached the upper or lower limit, it controls the activation of the infrared ranging device and the personnel sensing devices at the boundaries of each area, and each personnel sensing device will also link the timing device to the corresponding module timing; the intelligent control device comprehensively determines the size of the air-conditioned room, the installation location of the air-conditioning equipment, the number of people in the room, and the situation of people in each area by receiving information from the infrared ranging device, the personnel sensing device and the timing device.

[0368] 6) The air conditioner is turned on in the default setting state (the set temperature is the boundary setting value recommended by the current set temperature model, and the initial air direction of the air conditioner is set according to the situation of personnel in each area).

[0369] The default setting temperature is the recommended boundary setting value in the current setting temperature model, where the default setting temperature in summer is the upper limit of the boundary value of the setting temperature model, the default setting temperature in winter is the lower limit of the boundary value of the setting temperature model, and the default setting wind speed is low speed. The air conditioning wind direction setting requires that the air conditioning equipment can at least sweep the wind, and it is recommended that the wind direction of the air conditioning equipment can be customized; on this basis, the intelligent control device is set according to the proportion of people in each area.

[0370] If the room is only divided into living area and non-living area. And the location information of living area and non-living area can be entered into the intelligent control device through the application or the initial setting of the device; when there are people in both the living area and the non-living area, but the number of people in the living area is greater than that in the non-living area, the air-conditioning equipment sweeping mode is turned on, and it is recommended that the wind direction stay in the living area for more than 1 / 3 of the non-living area per cycle; when there are people in both the living area and the non-living area and the number of people is equal, the air-conditioning equipment sweeping mode starts and it is recommended that the wind direction stay in the living area for the same time as the non-living area per cycle; when there are people in only one area of ​​the living area and the non-living area, the air supply of the air-conditioning equipment needs to be directed to the area with people.

[0371] 7) Check and update the boundary values ​​and median values ​​recommended by the current model, and decide on the start and stop and setting status of the air conditioner based on the comprehensive feedback information of each personnel sensing device and timing device or based on the irregular requirements of indoor personnel (the feedback requirements of indoor personnel have priority). After the air conditioner is turned off, except for some necessary personnel sensing devices, date and time sensing devices, all other devices will immediately stop analyzing and be turned off.

[0372] After turning on the air conditioner according to the initial setting state through step 6, the current model boundary value and median value remain unchanged temporarily; when the indoor personnel request the air conditioner to start or close and change the setting state through the remote control device or application, the intelligent control device immediately receives the signal and changes it, and still operates according to the control method after the change. However, since the personnel sensing device will convert the signal and transmit it to the intelligent control device according to the change of the indoor personnel, the personnel sensing device will also link the corresponding module of the timing device to start or close and time accordingly, and the timing node signal will also be transmitted to the intelligent control device; in other words, the intelligent control device will always receive the indoor personnel change situation and the indoor and outdoor time node information, the time in each area and the time node information of the absence in each area, and comprehensively judge whether the air conditioner is turned on or off based on this information; if it remains on, the wind direction will be changed if the indoor personnel situation changes, and the wind direction setting is still set according to the current proportion of personnel in each area; when the air conditioner is turned off according to the control logic and human requirements, except for the personnel sensing device at the entrance and exit of the air-conditioned room and the personnel sensing device in the area where personnel may frequently exist, the other devices will immediately stop analyzing and turn off.

[0373] When a person in the room requests a change in the setting state twice in a short period of time, the intelligent control device will receive the signal and immediately change the setting state according to the person's request, and request to stop the operation of the current control method.

[0374] 8) Determine whether the room temperature and humidity are stable based on the time and return air outlet temperature and humidity signals. If so, proceed to step 9; otherwise, proceed to step 210.

[0375] Whether the temperature and humidity in the air-conditioned room are stable depends on the intelligent control device's comprehensive judgment based on the time and the temperature and humidity signals fed back from the return air outlet within a period of time after the time length is met; the time length refers to the time when the timing starts after the air conditioner is turned on or changes its state. The timing of this time is completed by the calculation module of the intelligent control device, which means that once the intelligent control device receives a signal that the air conditioner is turned on or the setting state is changed, the receiving module will remind the calculation module in the device to start timing; when the timing time reaches 30 minutes, the intelligent control device will require the temperature and humidity sensing device at the return air outlet to feedback the temperature and humidity at the return air outlet every 1 minute within 10 minutes, and use this as the basis for judging whether the temperature and humidity in the room are stable.

[0376] When the timing time of the calculation module of the intelligent sensing device reaches 30 minutes and the temperature and humidity sensed at the return air outlet within 10 minutes are received, it will judge whether the room temperature and humidity are stable according to the following logic: the intelligent control device will perform pairwise difference calculations on the 10 air temperatures sensed within 10 minutes and temporarily store them in the storage module, and analyze the extreme values ​​of the air temperature within 10 minutes, that is, the maximum and minimum values, and calculate the difference between the maximum and minimum values. If the absolute values ​​of the calculation results within 10 minutes are all less than 2°C, it can be considered that the indoor air temperature is stable; similarly, the 10 air humidities sensed within 10 minutes are performed pairwise difference calculations and temporarily stored in the storage module, and analyze the extreme values ​​of the air humidity within 10 minutes, that is, the maximum and minimum values, and calculate the difference between the maximum and minimum values. If the absolute values ​​of the calculation results within 10 minutes are all less than 3%, it can be considered that the indoor air humidity is stable.

[0377] 9) The intelligent control device comprehensively analyzes whether the room temperature is within the comfort zone based on the temperature correction model. If so, it proceeds to step 11, otherwise, it proceeds to step 12.

[0378] When the intelligent control device determines that the room temperature and humidity are in a stable state, the calculation module will use the temperature correction model in the storage module and the current feedback of the air-conditioning equipment setting temperature to estimate the current room average temperature and humidity, and then compare it with the local temperature comfort zone range of the season in the storage module; if the room average temperature is within the local temperature comfort zone range of the season, go to step 11, otherwise go to step 12.

[0379] 10) The intelligent control device comprehensively analyzes whether the room temperature and humidity are close to the comfort zone based on the return air outlet temperature and humidity fed back within the current 10 minutes. If so, it proceeds to step 213, otherwise, it proceeds to step 14.

[0380] When the intelligent control device determines that the room temperature and humidity are not in a stable state temporarily, the calculation module will use the temperature and humidity of 10 return air vents that have been fed back within the current 10 minutes in the storage module as the average stable temperature and humidity in the room working area temporarily to compare with the existing local temperature and humidity comfort zone range in the storage module; if the intelligent control device judges that the average room temperature and humidity are close to the local temperature and humidity comfort zone range according to a certain logic, it will transfer to step 213, otherwise it will transfer to step 214.

[0381] The intelligent control device will judge whether the average room temperature is close to the local temperature comfort zone range according to the following logic:

[0382] If T x >T1>T2>T3>T4>T5>T6>T7>T8>T9>T 10 Or T S <T1<T2<T3<T4<T5<T6<T7<<T8<T9<T 10 , it is judged that the current average room temperature deviates from the temperature comfort zone range; if T1>T2>T3>T4>T5>T6>T7>T8>T9>T 10 >T s Or T1<T2<T3<T4<T5<T6<T7<T8<T9<T 10 <T x , it is judged that the current average room temperature is close to the temperature comfort zone range; if the air temperature shows an irregular trend within 10 minutes, but Tx>T1>T 10 Or T S <T1<T 10 , it is also judged that the current average room temperature deviates from the temperature comfort zone range; if the air temperature shows an irregular trend within 10 minutes, but T x >T 10 >T1 or T s <T 10 <T1, it is also judged that the current average room temperature is close to the temperature comfort zone range; if the air temperature shows irregular phenomena within 10 minutes but there is T n Within the comfortable temperature range, that is, there is T x <Tn<T s , it is first considered that the average room temperature is close to the temperature comfort zone range; where T n (n = 1, 2, 3, 4, 5, 6, 7, 8, 9, 10) is the average room temperature at the nth minute, T x Is the lower limit of the local temperature comfort zone in the current season, T s Is the upper limit of the local temperature comfort zone in the current season.

[0383] Alternatively, the intelligent control device will judge whether the average room humidity is within the humidity comfort zone range close to the local season according to the following logic:

[0384] If RH x >RH1>RH2>RH3>RH4>RH5>RH6>RH7>RH8>RH9>RH 10 or RH S <RH1<RH2<RH3<RH4<RH5<RH6<RH7<RH8<RH9<RH 10 , it is judged that the current average room humidity is outside the humidity comfort zone range;

[0385] If RH1>RH2>RH3>RH4>RH5>RH6>RH7>RH8>RH9>RH 10 >RH s or RH1<RH2<RH3<RH4<RH5<RH6<RH7<RH8<RH9<RH 10 <RH x , it is judged that the current average room humidity is within the range close to the humidity comfort zone; If the air humidity shows an irregular trend within 10 minutes, but RHx>RH1>RH 10 or RH S <RH1<RH 10 , then it is also judged that the current average room humidity is outside the humidity comfort zone range; If the air humidity shows an irregular trend within 10 minutes, but RH x >RH 10 >RH1 or RH s <RH 10 <RH1, then it is also judged that the current average room humidity is within the range close to the humidity comfort zone; If the air humidity is irregular within 10 minutes but there is RH n within the comfortable humidity range, that is, there is RH x <RHn<RH s , then it is first considered that the average room humidity is within the range close to the humidity comfort zone; where RH n (n = 1, 2, 3, 4, 5, 6, 7, 8, 9, 10) is the average room humidity at the nth minute, RH x is the lower limit of the local seasonal humidity comfort zone, and RH s is the upper limit of the local seasonal humidity comfort zone.

[0386] 11) Maintain the existing setting state, but the on / off state and setting state of the air-conditioning equipment shall be determined according to the comprehensive feedback information of the personnel sensing device and the timing device or according to the occasional requirements of the indoor personnel (the feedback requirements of the indoor personnel have priority). After the air-conditioning is turned off, all devices except some necessary personnel sensing devices, date and time sensing devices will immediately stop analyzing and shut down.

[0387] 12) Set the temperature to the current set temperature model value.

[0388] 13) Keep the current settings.

[0389] 14) The set temperature is adjusted to the current set temperature model median value.

[0390] After any of steps 12, 13, and 14, the process will return to step 7, and the process will be carried out in sequence according to the process after step 7.

[0391] Based on the above-mentioned technical concept of sensing and counting the people entering and leaving the air-conditioned rooms and each area of ​​the room, making full use of the cold and heat energy generated by the air-conditioning equipment and performing zoned air supply, an embodiment of the present invention proposes to separate and zone the air-conditioned rooms using a personnel sensing device. As shown in FIG3 , a schematic diagram of a room separation and zoning method provided in this embodiment, since common air-conditioned rooms are bedrooms and living rooms, this method simply divides the air-conditioned rooms into two areas based on the common functions of bedrooms and living rooms. It should be noted that room separation and zoning may be divided into other types according to their functions and needs.

Claims

1. An air conditioning control system based on a temperature correction model, characterized in that: It includes date and time sensing devices, N personnel sensing devices, several infrared distance measuring devices, temperature and humidity sensing devices, timing devices, intelligent control devices and air conditioners; The date and time sensing device is preset with a node time information set and an infrared ranging start time information set; The date and time sensing device records the current date and time in real time; if the current date and time coincide with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device; if the current date and time coincide with any element of the infrared ranging start time information set, the date and time sensing device sends an infrared ranging start signal to the intelligent control device; N personnel sensing devices are respectively attached to the door frame, different indoor areas and the boundaries of different indoor areas to monitor infrared sensing signals of human bodies and send them to the intelligent control device; the infrared sensing signals of human bodies include infrared sensing signals of people entering the room and infrared sensing signals of people leaving the room; the indoor areas include living areas and non-living areas; The living area is an area where the daily activity time of the personnel is time>time1; the living area includes frequent activity areas and infrequent activity areas; the frequent activity area is an area where the daily activity time of the personnel is time>time2; the daily activity time of the personnel in the infrequent activity area meets time1<time≤time2;time2> time1; time1 and time2 are preset time thresholds; the non-living area is an area where the daily activity time of personnel is time≤time1; The temperature and humidity sensing device is attached to the return air outlet of the air conditioner to monitor the temperature and humidity information of the environment where the return air outlet is located, and send it to the intelligent control device; the total monitoring time is T2; The timing device monitors the indoor personnel stay time t1, the personnel leave time, the personnel stay time in different indoor areas, the personnel leave different indoor areas time, and sends it to the intelligent control device; Several infrared distance measuring devices are arranged on the air conditioner to monitor the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas; The intelligent control device includes a receiving module, a storage module, an analysis and decision module, a calculation module and a control module; The receiving module receives signals sent by the date and time sensing device, the plurality of personnel sensing devices, the plurality of infrared distance measuring devices, the temperature and humidity sensing device, and the timing device respectively, and stores them in the storage module; The receiving module sends the received monitoring start signal I to the control module; The receiving module sends the human infrared sensing signal, the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas to the calculation module; The receiving module sends the indoor personnel stay time t1, the personnel leaving time, the personnel stay time in different indoor areas, the personnel leaving time in different indoor areas, and the temperature and humidity information to the analysis and decision module; After receiving the infrared sensing signal from the human body, the calculation module calculates the number of people in the room. The indoor area where the personnel are located and the number of personnel in different indoor areas are sent to the analysis and decision-making module; when the calculation module receives the infrared sensing signal sent by the i-th personnel sensing device that a person enters the room, update ni=ni+1; When the calculation module receives the infrared sensing signal when a person leaves the room, ni=ni-1 is updated; the initial value of ni is 0; the indoor area where the person is located is the indoor area where the person sensing device where ni>0 is located; After receiving the indoor space distance infrared signal and the relative position information between the air conditioner and different indoor areas, the calculation module calculates the indoor space size and the relative position between the air conditioner and different indoor areas, and sends them to the analysis and decision-making module; The analysis and decision-making module determines whether the number of indoor people n>0 holds. If so, it sends a timing start signal to the control module; The analysis and decision module retrieves the residence time threshold value t stored in the storage module. max1 and compared with the indoor occupant stay time t1, when t1 ≥ t max When the temperature and humidity sensing signals are sent to the control module; The analysis and decision module retrieves the room leaving time threshold t stored in the storage module. max2 And compared with the time when the person left the room, when the time when the person left the room ≥ t max2 When the air conditioner is turned off, a signal to turn off the air conditioner is sent to the control module; The analysis and decision-making module analyzes the indoor area where people are located, the number of people in different indoor areas, the relative position between the air conditioner and different indoor areas, the staying time of people in different indoor areas, and the leaving time of people from different indoor areas; When the indoor area where the person is located is a frequent activity area and the time the person stays in the frequent activity area is greater than the time threshold t max3 When the wind direction control signal of the frequently active area is sent to the control module; When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for a time greater than the time threshold t max4 When the wind direction control signal of the non-frequently active area is sent to the control module; When the number of people in the frequently active area is greater than the number of people in the infrequently active area, it sends a wind direction adjustment signal I to the control module; when the number of people in the frequently active area is equal to the number of people in the infrequently active area, it sends a wind direction adjustment signal II to the control module; when the number of people in the frequently active area is less than the number of people in the infrequently active area and the staying time of people in the infrequently active area <t2, it sends a wind direction adjustment signal II to the control module; when the number of people in the frequently active area is less than the number of people in the infrequently active area and the staying time of people in the infrequently active area ≥t2, it sends a wind direction adjustment signal III to the control module; After receiving the indoor space size, the analysis and decision-making module retrieves the local climate information stored in the storage module, generates the temperature adjustment range at different dates and time nodes, and inputs it into the temperature setting model; The analysis and decision-making module retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity; The analysis and decision module writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order; the indoor average temperature Average indoor humidity Where n is the total number of temperature and humidity information; When the air conditioner is turned off, the analysis and decision-making module retrieves the temperature and humidity limit judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the temperature and humidity limit judgment model; if at least one element in the indoor average temperature data set is not within the temperature range of the temperature and humidity limit judgment model or at least one element in the indoor average humidity data set is not within the humidity range of the temperature and humidity limit judgment model, it sends a monitoring start signal II and an air conditioner start signal to the control module; When the air conditioner is turned on, the analysis and decision module retrieves the temperature and humidity stabilization judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the humidity stabilization judgment model to judge whether the indoor average temperature and humidity are stable; when the indoor average temperature and humidity are unstable, the analysis and decision module sends an air conditioner temperature adjustment signal to the control module; when the indoor average temperature and humidity are stable, the analysis and decision module calculates the indoor average stable temperature T using the average stable temperature calculation model R =(a1t S +a2)W+(a3t S +a4); where the fitting coefficient a m =b 1m L 2 +b 2m L+b 3m ; Coefficient number m = 1, 2, 3, 4; a m , b 1m , b 2m , b 3m is the fitting coefficient; L is the length of the indoor space; W is the width of the indoor space; t s Set the temperature value for the air conditioner; if the average indoor temperature is stable, T R If the temperature is not within the comfortable temperature range, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module; After receiving the timing start signal, the control module controls the timing device to work; After receiving the monitoring start signal I, the control module controls the personnel sensing devices attached to the door frame and in the frequently active area to work; After receiving the monitoring start signal II, the control module controls all personnel sensing devices to work; After receiving the temperature and humidity sensing signal, the control module controls the temperature and humidity sensing device to work; After receiving the air conditioner start signal, the control module retrieves the temperature setting model corresponding to the current date and time, controls the air conditioner temperature according to the temperature setting model, and controls the air conditioner wind direction to be periodic up and down wind; if the current date is summer or autumn, the air conditioner temperature is the upper limit of the temperature setting model; if the current date is spring or winter, the air conditioner temperature is the lower limit of the temperature setting model; After receiving the frequently active area wind direction control signal, the control module controls the left and right wind directions of the air conditioner to be the wind direction towards the frequently active area; The control module receives a wind direction control signal for a non-frequently active area and controls the left and right wind directions of the air conditioner to be the wind direction toward the non-frequently active area; After receiving the wind direction adjustment signal I, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is greater than the air supply time to the infrequently active area; After receiving the wind direction adjustment signal II, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is equal to the air supply time to the infrequently active area; After receiving the wind direction adjustment signal III, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is shorter than the air supply time to the infrequently active area; After receiving the air conditioner shut-off signal, the control module shuts down the air conditioner; After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model; The storage module stores an average temperature and humidity calculation model, a temperature setting model, a temperature over-limit judgment model, a local climate signal, an average stable temperature calculation model, and a comfortable temperature range; The air conditioner has an independent air return port.

2. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The node time information set includes month, day, hour, and minute; the determining factors of the node time information set include the work and rest habits of indoor personnel and the climate of the area.

3. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The personnel sensing device includes a human infrared sensor, a signal converter and a switch; The human infrared sensor monitors the human infrared sensing signal and sends it to the intelligent control device through a signal conversion and exchanger; The straight-line distance between every two personnel sensing devices is no greater than h.

4. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The date and time sensing device includes a recording module and a node storage and sensing module; The recording module records the current date and time and sends it to the node storage and sensing module; The node storage and sensing module stores a preset node time information set; After receiving the current date and time, the node storage and sensing module matches it with the node time information set. If the current date and time coincide with any element of the node time information set, the node storage and sensing module sends a monitoring start signal to the intelligent control device.

5. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The infrared distance measuring device comprises four infrared distance measuring instruments (1), a camera device and a signal exchanger; The infrared rangefinders (1) are respectively installed on the top of the two side walls of the air conditioner, and are respectively denoted as infrared rangefinder I, infrared rangefinder II, infrared rangefinder III, and infrared rangefinder IV; the four infrared rangefinders (1) are in the same horizontal plane; infrared rangefinder I is perpendicular to the front of the air conditioner, infrared rangefinder II is perpendicular to the back of the air conditioner, and infrared rangefinder III is perpendicular to the left side wall of the air conditioner; The infrared rangefinder IV is perpendicular to the right wall of the air conditioner; the four infrared rangefinders (1) are perpendicular to the ground; When the infrared rangefinder (1) is working, it rotates unidirectionally periodically, and each rotation angle is α; The infrared rangefinder (1) sends infrared rays outward and receives infrared reflection signals; The infrared rangefinder (1) sends the infrared reflection signal to the intelligent control device via a signal exchanger; The camera device is arranged indoors to capture images of the indoor space including the air conditioner, and sends the images of the indoor space to the intelligent control device via a signal exchanger; The intelligent control device uses an image recognition algorithm to recognize the indoor space image, and obtains the ratio X of the relative length and the relative width of the air conditioner and the side wall; the relative position of the air conditioner and the indoor area includes the relative length and the relative width of the air conditioner and the side wall; The intelligent control device adds the infrared reflection signals of the infrared rangefinder I and the infrared rangefinder III in each cycle to obtain the diagonal measurement result I of the cycle, adds the infrared rangefinder II and the infrared rangefinder IV in each cycle to obtain the diagonal measurement result I of the cycle, and takes the maximum value of the diagonal measurement results I and II in all cycles as the infrared rangefinder measurement result.

6. The air conditioning control system based on the temperature correction model according to claim 5, characterized in that: The measurement result of the infrared rangefinder is used as the longest side of the right triangle, and the indoor area length L and the indoor area width H are used as the right angles. The indoor area length L and the indoor area width H are determined using the Pythagorean theorem. When there are multiple values ​​of the indoor area length L and the indoor area width H, the ratio X1 of the indoor area length L and the indoor area width H, the ratio X2 of the relative length between the air conditioner and the side wall, and the relative width between the air conditioner and the side wall are calculated, and the indoor area length L and the indoor area width H with the smallest ratio difference |X1-X2| are used as the relative length between the air conditioner and the side wall, and the relative width between the air conditioner and the side wall.

7. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The temperature and humidity stabilization judgment model includes temperature and humidity stabilization judgment condition I, temperature and humidity stabilization judgment condition II, and temperature and humidity stabilization judgment condition III; Temperature and humidity stabilization judgment condition I: ΔT<ΔTmax and ΔRH<ΔRH max ; ΔT is the difference between the maximum and minimum elements in the indoor average temperature data set; ΔRH is the difference between the maximum and minimum elements in the indoor average humidity data set; ΔTmax, ΔRH max is the preset temperature and humidity change threshold; Temperature and humidity stabilization judgment condition II: T x <Tn<T s And RH x <RHn<RH s ; Tn is any element in the indoor average temperature data set; RHn is any element in the indoor average humidity data set; T x , T s is the minimum and maximum average temperature; RH x RH s is the minimum and maximum average humidity; The temperature and humidity stabilization judgment conditions III include the following 4 types: a)T x >T j >T1 and RH x >RH j >RH1; b)T x >T j >T1 and RH s <RH j <RH1; c) T s <T j <T1 and RH x > RH j > RH1; d) T s <T j <T1 and RH s <RH j <RH1; Among them, T j T1 and T2 represent the last and first elements in the indoor average temperature data set respectively; RH j , RH1 represent the last and first elements in the indoor average humidity data set respectively; When the elements in the indoor average temperature data set and the indoor average humidity data set do not meet the temperature and humidity stabilization judgment condition I, temperature and humidity stabilization judgment condition II, and temperature and humidity stabilization judgment condition III, the indoor average temperature and humidity are unstable.

8. The air conditioning control system based on the temperature correction model according to claim 1, characterized in that: The timing device includes a time module for personnel leaving the room, a time module for personnel staying in the room, a time module for personnel not being in a frequent activity area, a time module for personnel being in a frequent activity area, a time module for personnel being in a non-frequent activity area, and a time module for personnel not being in a non-frequent activity area; When the number of people in the room n=0, the personnel leaving the room time module records the time when the personnel leave the room; When the number of people in the room n>0, the person-in-room time module records the time the person is in the room; When the number of people in the frequent activity area is greater than 0, the time module for people in the frequent activity area records the time people spend in the frequent activity area; When the number of people in the frequent activity area = 0, the people in the frequent activity area time module records the time when the people are not in the frequent activity area; When the number of people in the infrequent activity area is greater than 0, the time module for people in the infrequent activity area records the time people spend in the infrequent activity area; When the number of people in the infrequent activity area=0, the people-in-infrequent-activity-area time module records the time when the people are not in the infrequent activity area.

9. A method for using an air conditioning control system based on a temperature correction model according to any one of claims 1 to 8, characterized in that: The following steps are involved: 1) The date and time sensing device records the current date and time in real time; when the current date and time coincides with any element of the node time information set, the date and time sensing device sends a monitoring start signal I to the intelligent control device; 2) The intelligent control device controls the operation of the personnel sensing device attached to the door frame and the frequently active area; 3) The personnel sensing device monitors the infrared sensing signal of the human body and sends it to the intelligent control device; 4) When the intelligent control device receives the infrared sensing signal of the human body, it calculates the number of people in the room When the number of people in the room n>0, the control timing device works; 5) The timing device monitors the indoor personnel stay time t1, when t1 ≥ tmax, the intelligent control device controls the temperature and humidity sensing device to work; 6) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device; 7) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the average temperature and humidity in the room; The intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order; 8) The intelligent control device retrieves the temperature and humidity over-limit judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the temperature and humidity over-limit judgment model; if at least one element in the indoor average temperature data set is not within the temperature range of the temperature and humidity over-limit judgment model or at least one element in the indoor average humidity data set is not within the humidity range of the temperature and humidity over-limit judgment model, a monitoring start signal II and an air conditioning start signal are sent to the control module; 9) The control module controls the start-up of the air conditioner and the operation of all personnel sensing devices; the temperature value when the air conditioner is started is set by the temperature setting module; 10) The personnel sensing device monitors the indoor area where the personnel are located and the number of personnel in different indoor areas, and sends the information to the analysis and decision-making module; 11) The analysis and decision module analyzes the indoor area where the personnel are located, the number of personnel in different indoor areas, the relative position of the air conditioner and different indoor areas, the time the personnel stay in different indoor areas, and the time the personnel leave different indoor areas; When the indoor area where the person is located is a frequent activity area and the person stays in the frequent activity area for longer than the time threshold tmax3, a frequent activity area wind direction control signal is sent to the control module; When the indoor area where the person is located is a non-frequent activity area and the person stays in the non-frequent activity area for longer than the time threshold tmax4, a wind direction control signal for the non-frequent activity area is sent to the control module; When the number of people in the frequent activity area is greater than the number of people in the infrequent activity area, a wind direction adjustment signal I is sent to the control module; when the number of people in the frequent activity area is equal to the number of people in the infrequent activity area, a wind direction adjustment signal II is sent to the control module; 12) The control module receives the wind direction control signal of the frequent activity area and controls the left and right wind directions of the air conditioner to be the wind direction toward the frequent activity area; The control module receives a wind direction control signal for a non-frequently active area and controls the left and right wind directions of the air conditioner to be the wind direction toward the non-frequently active area; After receiving the wind direction adjustment signal I, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is greater than the air supply time to the infrequently active area; After receiving the wind direction adjustment signal II, the control module controls the left and right wind directions of the air conditioner to periodically sweep the air left and right; wherein the air supply time to the frequently active area is equal to the air supply time to the infrequently active area; 13) The temperature and humidity sensing device periodically monitors the temperature and humidity information of the environment where the return air outlet is located, and sends it to the intelligent control device; 14) The intelligent control device retrieves the average temperature and humidity calculation model stored in the storage module, and inputs the temperature and humidity information into the average temperature and humidity calculation model to calculate the indoor average temperature and humidity; the intelligent control device writes the indoor average temperature into the indoor average temperature data set and the indoor average humidity into the indoor average humidity data set in chronological order; 15) The analysis and decision module retrieves the temperature and humidity stabilization judgment model stored in the storage module, and inputs the indoor average temperature data set and the indoor average humidity data set into the humidity stabilization judgment model to judge whether the indoor average temperature and humidity are stable; when the indoor average temperature and humidity are unstable, the analysis and decision module sends an air conditioning temperature adjustment signal to the control module; when the indoor average temperature and humidity are stable, return to step 13); 16) After receiving the air conditioner temperature adjustment signal, the control module adjusts the air conditioner to the median value of the temperature setting model; 17) When the number of people in the room n=0 and the time the people have been away from the room>tmax2, the control module turns off the air conditioner.

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