Bedroom wardrobe device control system based on big data

Abstract

The invention discloses a bedroom wardrobe device control system based on big data, which comprises a data acquisition module, a monitoring module and an output module, and is characterized in that the monitoring module is used for analyzing the storage condition of clothes at each position in a wardrobe, and the data acquisition module, the monitoring module and the output module are in mutual communication connection. The wardrobe door internal force sensor unit is analyzed, and the condition that the user stretches the wardrobe door is monitored in real time, so that on one hand, the specific behavior when the user opens the wardrobe door can be predicted; and the storage stability monitoring sub-module analyzes storage parameters of clothes in different wardrobes from magnificent and microscopic angles, so that useless consumption is greatly reduced under most use conditions of the wardrobe device control system, the monitoring accuracy of the system is improved, the power consumption of the system is reduced, and effective detection of clothes storage is realized. The system has the characteristics of high humanization degree and high temperature detection and adjustment capability.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent furniture management, and in particular to a bedroom wardrobe device control system based on big data. Background Art

[0002] With the construction of modernization, people's demand for a better life is growing, and the development of science and technology is constantly meeting people's daily needs. While various technological products are integrated into life and change life, they also make life have new changes. Smart furniture is part of smart home. Smart furniture ensures that its basic functions remain unchanged while integrating smart technology into the design process of furniture.

[0003] Wardrobe is a cabinet for storing clothes. With the continuous development of intelligence, smart wardrobes adjust the environment inside the wardrobe by installing some equipment inside the wardrobe. However, when controlling the equipment inside the smart wardrobe, it is necessary to rely on a control system. In the prior art, smart wardrobes adjust the temperature and humidity parameters in the wardrobe at a fixed time. However, if the timing is short, when the user uses the clothes in the wardrobe frequently, the storage situation in the wardrobe is stable, and the regular use of the adjustment system will lead to meaningless energy loss; if the timing is long, the wardrobe is in a humid state for a long time, which may cause damage to the clothes, and may even breed pests and affect the user. Therefore, it is very necessary to design a bedroom wardrobe device control system based on big data with a high degree of humanization and strong temperature detection and adjustment capabilities. Summary of the invention

[0004] The purpose of the present invention is to provide a bedroom wardrobe device control system based on big data to solve the problems raised in the above background technology.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: a bedroom wardrobe device control system based on big data, comprising a data acquisition module, a monitoring module and an output module, wherein the data acquisition module is used to obtain relevant information of the user's bedroom and its internal facilities; the monitoring module is used to analyze the storage conditions of clothes in various locations in the wardrobe; the output module is used to transmit the analysis results to the control terminal of the wardrobe device through adjustment instructions, and the data acquisition module, the monitoring module and the output module are communicatively connected to each other.

[0006] According to the above technical solution, the data acquisition module includes a bedroom information acquisition module and a wardrobe device information collection module. The bedroom information acquisition module is used to obtain the ground material and distance information between the bed and the wardrobe in the bedroom; the wardrobe device information collection module is used to collect relevant information of the adjustment device in the wardrobe.

[0007] According to the above technical solution, the monitoring module includes a wardrobe usage analysis module, a force sensor detection unit and a timing unit. The wardrobe usage analysis module is used to perform separate analyses on the usage and storage conditions of clothes in different layers in the wardrobe; the force sensor detection unit is used to detect the force conditions when the wardrobe door is opened; and the timing unit is used to count the time the user opens the door.

[0008] According to the above technical solution, the wardrobe usage analysis module further includes a tension analysis submodule and a storage stability monitoring submodule. The tension analysis submodule is used to monitor and analyze the process of the user opening the wardrobe; the storage stability monitoring submodule is used to monitor the storage stability of clothes stored in the wardrobe and determine whether there will be storage problems with the clothes in the wardrobe.

[0009] According to the above technical solution, the output module includes a device adjustment module and a prompt module. The device adjustment module is used to adjust the temperature and humidity through the adjustment device in the wardrobe; the prompt module is used to prompt the user to clean the wardrobe in time.

[0010] According to the above technical solution, the operation method of the bedroom wardrobe device control system mainly includes the following steps:

[0011] Step S1: A wardrobe device control system is connected to a wardrobe in a user's bedroom. When it is detected that the user opens the wardrobe door, a camera unit in the wardrobe is activated to detect the placement of clothes in the wardrobe;

[0012] Step S2: sharing the current user's pulling force on the wardrobe through the wardrobe door information stored in the database and the process of the user opening the wardrobe door;

[0013] Step S3: Analyze the stability of the user's use of clothing storage in the wardrobe by retrieving the total number of times the user opens the wardrobe and the time information of using the wardrobe after opening the wardrobe within the interval monitoring time period;

[0014] Step S4: The storage stability monitoring submodule monitors the stability parameters of the user's storage of clothes in the closet through the user's frequency of use of the clothes, and determines whether the time the user spends handling the clothes in the closet exceeds the maximum storage cleaning time.

[0015] According to the above technical solution, step S2 further includes:

[0016] Step S21: a force sensor unit is arranged on the door side of the wardrobe door, wherein the force sensor unit is arranged with a bidirectional force detection area in the wardrobe door, and the force direction of the wardrobe door can be detected. The direction of the wardrobe door facing the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the positive direction, and the direction of the wardrobe door facing away from the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the reverse direction. When the force sensor unit detects that the wardrobe door is subjected to force in the positive direction, the timing unit is started and starts timing. After the force sensor unit detects that the wardrobe door is subjected to force in the reverse direction, the timing unit stops, and the current elapsed time recorded by the timing unit is obtained as T seconds.

[0017] By identifying the force value of the force sensor unit as F when the force value is applied, and continuously detecting the force value, the duration of the wardrobe door when the force value is not zero is X seconds;

[0018] In particular, if TX<G, after the waiting force sensor unit detects that the wardrobe door is subjected to the first continuous reverse force, the timing unit does not stop timing until the force sensor unit detects that the wardrobe door is subjected to the reverse force for the second time, the timing unit stops, and the timing unit records the current elapsed time again, where G is the minimum interval time for the user to stretch the wardrobe door;

[0019] Step S22: The pulling force required to stretch the current wardrobe door material to the maximum angle is obtained through the big database, which is F0. If the force value of the current force sensor unit is greater than F0, and the force sensor unit still does not detect the force in the opposite direction after X seconds, the prompt instruction is transmitted to the wardrobe door control terminal through the output module, and the wardrobe door self-closing hinge is controlled to buffer the wardrobe door from continuing to move outward.

[0020] According to the above technical solution, step S3 further includes:

[0021] Step S31: According to the statistical times of the force sensor unit, the total number of times the wardrobe is opened within the monitoring time is obtained as S, where the unit of the monitoring time is day, and the value of the monitoring time value L is related to the number of times the user uses the washing machine, and the value is also affected by the current weather season;

[0022] Step S32: During the monitoring time, the storage stability monitoring submodule obtains the storage stability of the clothes in the wardrobe used by the user. When the stability parameter is lower than the preset value, the system transmits the information to the wardrobe usage analysis module to detect and analyze the storage conditions of clothing in different locations in the wardrobe.

[0023] According to the above technical solution, step S4 further includes the following steps:

[0024] Step S41: Through the wardrobe type information and wardrobe internal composition information stored in the data acquisition module, it is obtained that there are w layers of different sizes in the wardrobe, the total volume of the wardrobe is A0 cubic meters, and the volumes of the layers in the wardrobe are A1, A2...A w cubic meter;

[0025] Step S42: Storage parameter formula for layered storage in the wardrobe The calculation method of F1 is: Where α is the unit conversion parameter;

[0026] Z is the light intensity parameter in the user's bedroom. A sunlight monitoring device that can receive sunlight for the longest time is set in the bedroom. After it is turned on, it detects the sunlight collection in the bedroom all day long.

[0027] The storage parameters of the total w wardrobes in the wardrobe are calculated separately. When it is detected that the storage parameters exceed the preset value, if a storage problem is detected in the user's wardrobe, the corresponding adjustment instructions are transmitted to the wardrobe device control terminal through the output module, and the user is prompted through the mobile terminal carried by the user.

[0028] Compared with the prior art, the beneficial effects achieved by the present invention are as follows: the present invention, through the tension analysis submodule, analyzes the internal force sensor unit of the wardrobe door, and monitors the user's stretching of the cabinet door in real time. On the one hand, it can predict the specific behavior of the user when opening the cabinet door; the storage stability monitoring submodule, on the one hand, can improve the detection standard of wardrobe storage through the clothing storage stability information detected at a macro level, and while achieving the overall storage stability of the wardrobe, it can also screen a large amount of time that does not require microscopic detection, thereby reducing the operating load of the control system; on the other hand, by analyzing the storage parameters of clothes in different wardrobes from a microscopic perspective, it is determined whether the storage safety of the clothes in each layer of the wardrobe has reached the preset standard detection value, so that the useless consumption is greatly reduced in most use cases of the wardrobe device control system, which not only improves the accuracy of system monitoring, but also reduces the system power consumption, thereby realizing effective detection of clothing storage. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0030] Figure 1 It is a schematic diagram of the system module composition of the present invention. DETAILED DESCRIPTION

[0031] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0032] See also Figure 1 The present invention provides a technical solution: a bedroom wardrobe device control system based on big data, comprising:

[0033] Data acquisition module, monitoring module and output module, the data acquisition module is used to obtain relevant information about the user's bedroom and its internal facilities; the monitoring module is used to analyze the storage status of clothes in various locations in the wardrobe; the output module is used to transmit the analysis results to the control terminal of the wardrobe device through adjustment instructions, and the data acquisition module, monitoring module and output module are communicated with each other.

[0034] The present invention, through the tension analysis submodule, analyzes the internal force sensor unit of the wardrobe door, and monitors the user's stretching of the cabinet door in real time. On the one hand, it can predict the specific behavior of the user when opening the cabinet door; the storage stability monitoring submodule, on the one hand, can improve the detection standard of wardrobe storage through the clothing storage stability information detected at a macro level, and under the condition of achieving the overall storage stability of the wardrobe, it can also screen a large amount of time that does not require microscopic detection, thereby reducing the operating load of the control system; on the other hand, by analyzing the storage parameters of the underwear of different wardrobes from a microscopic perspective, it is determined whether the storage safety of the underwear of each wardrobe layer reaches the detection value of the preset standard, so that the useless consumption is greatly reduced in most use cases of the wardrobe device control system, which not only improves the accuracy of system monitoring, but also reduces the system power consumption, and realizes the effective detection of clothing storage.

[0035] The data collection module includes a bedroom information collection module and a wardrobe device information collection module. The bedroom information collection module is used to obtain the ground material and distance information between the bed and the wardrobe in the bedroom; the wardrobe device information collection module is used to collect relevant information about the adjustment device in the wardrobe.

[0036] The monitoring module includes a wardrobe usage analysis module, a force sensor detection unit and a timing unit. The wardrobe usage analysis module is used to perform separate analyses on the usage and storage conditions of clothes in different layers of the wardrobe; the force sensor detection unit is used to detect the force conditions when the wardrobe door is opened; and the timing unit is used to count the time the user takes to open the door.

[0037] The wardrobe usage analysis module further includes a tension analysis submodule and a storage stability monitoring submodule. The tension analysis submodule is used to monitor and analyze the process of the user opening the wardrobe; the storage stability monitoring submodule is used to monitor the storage stability of clothes stored in the wardrobe and determine whether there will be storage problems with the clothes in the wardrobe.

[0038] The output module includes a device adjustment module and a prompt module. The device adjustment module is used to adjust the temperature and humidity through the adjustment device in the wardrobe; the prompt module is used to remind the user to clean the wardrobe in time.

[0039] In a preferred embodiment, the operation method of the bedroom wardrobe device control system mainly includes the following steps:

[0040] Step S1: A wardrobe device control system is connected to a wardrobe in a user's bedroom. When it is detected that the user opens the wardrobe door, a camera unit in the wardrobe is activated to detect the placement of clothes in the wardrobe;

[0041] Step S2: sharing the current user's pulling force on the wardrobe through the wardrobe door information stored in the database and the process of the user opening the wardrobe door;

[0042] Step S3: Analyze the stability of the user's use of clothing storage in the wardrobe by retrieving the total number of times the user opens the wardrobe and the time information of using the wardrobe after opening the wardrobe within the interval monitoring time period;

[0043] Step S4: The storage stability monitoring submodule monitors the stability parameters of the user's storage of clothes in the closet through the user's frequency of use of the clothes, and determines whether the time the user spends handling the clothes in the closet exceeds the maximum storage cleaning time.

[0044] In this embodiment, step S2 further includes:

[0045] Step S21: a force sensor unit is arranged on the door side of the wardrobe door, wherein the force sensor unit is arranged with a bidirectional force detection area in the wardrobe door, and the force direction of the wardrobe door can be detected. The direction of the wardrobe door facing the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the positive direction, and the direction of the wardrobe door facing away from the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the reverse direction. When the force sensor unit detects that the wardrobe door is subjected to force in the positive direction, the timing unit is started and starts timing. After the force sensor unit detects that the wardrobe door is subjected to force in the reverse direction, the timing unit stops, and the current elapsed time recorded by the timing unit is obtained as T seconds.

[0046] By identifying the force value of the force sensor unit as F when the force value is applied, and continuously detecting the force value, the duration of the wardrobe door when the force value is not zero is X seconds;

[0047] In particular, if TX<G, after the waiting force sensor unit detects that the wardrobe door is subjected to the first continuous reverse force, the timing unit does not stop timing until the force sensor unit detects that the wardrobe door is subjected to the reverse force for the second time, the timing unit stops, and the timing unit records the current elapsed time again, where G is the minimum interval time for the user to stretch the wardrobe door;

[0048] Step S22: The pulling force required to stretch the current wardrobe door material to the maximum angle is obtained through the big database, which is F0. If the force value of the current force sensor unit is greater than F0, and the force sensor unit still does not detect the force in the opposite direction after X seconds, the prompt instruction is transmitted to the wardrobe door control terminal through the output module, and the wardrobe door self-closing hinge is controlled to buffer the wardrobe door from continuing to move outward.

[0049] This technical solution solves the problem that when a household wardrobe door is opened after long-term use, the user's handle of the wardrobe door is difficult to hold, and the user's negligence in opening the wardrobe door causes the wardrobe door to have a large inertia, causing the wardrobe door to stretch beyond the maximum stretching speed of the wardrobe door connecting rod structure, resulting in large wear of the wardrobe door and affecting the service life of the wardrobe. By analyzing the internal force sensor unit of the wardrobe door, the user's stretching of the cabinet door is monitored in real time. On the one hand, the specific behavior of the user when opening the cabinet door can be predicted, and at the same time, the force of the cabinet door when opening can be adjusted through the self-closing door hinge control device, so as to achieve the beneficial effect of protecting the cabinet door switch.

[0050] In this embodiment, step S3 further includes:

[0051] Step S31: According to the statistical times of the force sensor unit, the total number of times the wardrobe is opened within the monitoring time is obtained as S, where the unit of the monitoring time is day, and the value of the monitoring time value L is related to the number of times the user uses the washing machine, and the value is also affected by the current weather season;

[0052] The counter set in the switch controller of the household washing machine is used to obtain the number of times the washing machine is turned on every day in real time and add them up. The basic monitoring days are the days after the cumulative number of times the washing machine is turned on reaches m times, and the information is remotely transmitted to the wardrobe device control system.

[0053] When the current season is a day in spring or autumn, the monitoring time is N times the basic monitoring days obtained, and the value of N is The monitoring time is proportional to 2, and the coefficient of the proportional change is determined according to the number of days in the current season. When the current season is a day in summer, the monitoring time is half of the basic monitoring days. When the current season is a day in winter, the monitoring time is twice the basic monitoring days.

[0054] Specifically, when the difference between the average temperature of at least two days in a season and the average temperature of the season is higher than the limit value, the actual monitoring time is adjusted according to the size of the temperature difference.

[0055] Step S32: During the monitoring time, the storage stability monitoring submodule obtains the storage stability of the clothes in the wardrobe used by the user. When the stability parameter is lower than the preset value, the system transmits the information to the wardrobe usage analysis module to detect and analyze the storage conditions of clothing in different locations in the wardrobe.

[0056] Since m is the number of times clothes are washed during the monitoring period, under normal circumstances, m can be converted into the number of times clothes are put into the closet, Sm represents the number of times clothes are taken out of the remaining closet when it is opened, and S-2m represents the number of times clothes are taken out more than put in. The larger the value of S-2m, the more clothes are washed after the user takes out clothes.

[0057] This technical solution solves the problem of folding clothes. In most cases, the washed clothes are placed in the upper area of ​​the folded clothes after washing. When taking clothes, it is very likely that the clothes worn last time are taken again. Therefore, some clothes may be used more frequently, while some clothes are used less frequently, which may cause storage problems, resulting in obvious differences in the storage status of clothes in the wardrobe. By detecting the number of times clothes are taken out of the wardrobe more than the number of times clothes are put in, the user's usage range of clothes in a single wardrobe can be effectively analyzed. Combined with the proportional relationship between the usage range of clothes and the stability of the storage volume of clothes, it is possible to accurately identify whether there is a storage problem in the wardrobe from a macro perspective, thereby improving the detection standard for wardrobe storage.

[0058] This technical solution can also improve the problem that the system cannot accurately obtain the specific circumstances of the user's use of the wardrobe by monitoring the frequency of wardrobe opening during the monitoring time. While achieving the overall storage stability of the wardrobe, it can also screen out a large amount of time that does not require microscopic detection, thereby reducing the operating load of the control system.

[0059] In this embodiment, step S3 further includes the following steps:

[0060] Step S31: Through the wardrobe type information and wardrobe internal composition information stored in the data acquisition module, it is obtained that there are w layers of different sizes in the wardrobe, the total volume of the wardrobe is A0 cubic meters, and the volumes of the layers in the wardrobe are A1, A2...A w cubic meter;

[0061] Step S32: Storage parameter formula for layered storage in the wardrobe The calculation method of F1 is: Where α is the unit conversion parameter;

[0062] Z is the light intensity parameter in the user's bedroom. A sunlight monitoring device that can receive sunlight for the longest time is set in the bedroom. After it is turned on, it detects the sunlight collection in the bedroom all day long.

[0063] The storage parameters of the total w wardrobes in the wardrobe are calculated separately. When it is detected that the storage parameters exceed the preset value, if a storage problem is detected in the user's wardrobe, the corresponding adjustment instructions are transmitted to the wardrobe device control terminal through the output module, and the user is prompted through the mobile terminal carried by the user.

[0064] TX is the time it takes for the user to open the door and close it. The time it takes to take or try on clothes is related to the quality of the clothes. The longer the time, the higher the quality of the clothes in the closet; the shorter the time, the lower the quality of the clothes in the closet.

[0065] Through this technical solution, the problem that not all clothes can be hung up due to insufficient space is solved, and only some foldable clothes can be stored in small layers in the wardrobe. However, since the distance between the folded clothes is small and the ductility is low, if the clothes are not used frequently and relevant clothing maintenance measures are not taken, it is likely to cause storage problems for these clothes.

[0066] By analyzing the storage parameters of clothes in different wardrobes from a microscopic perspective, taking into account various influencing reference factors such as the time when users take or put clothes, the strength of the user's opening the cabinet door, the volume of the internal layers of the wardrobe, etc., and combining the influencing factors of the environment near the user's wardrobe and the user's use of the clothes in the wardrobe, it is judged whether the storage safety of the clothes in each layer of the wardrobe has reached the preset standard detection value. If not, there is no need to start the relevant detection of the temperature and humidity in the wardrobe. This can greatly reduce useless consumption in most cases of use of the wardrobe device control system, which not only improves the accuracy of system monitoring, but also reduces the system power consumption, and realizes effective detection of clothing storage.

[0067] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0068] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A bedroom wardrobe device control system based on big data, characterized in that: It includes a data acquisition module, a monitoring module and an output module. The data acquisition module is used to obtain relevant information about the user's bedroom and its internal facilities; the monitoring module is used to analyze the storage status of clothes in various locations in the wardrobe; the output module is used to transmit the analysis results to the control terminal of the wardrobe device through adjustment instructions. The data acquisition module, the monitoring module and the output module are communicatively connected to each other.

2. According to the big data-based bedroom wardrobe device control system of claim 1, it is characterized by: The data acquisition module includes a bedroom information acquisition module and a wardrobe device information collection module. The bedroom information acquisition module is used to obtain the ground material and distance information between the bed and the wardrobe in the bedroom; the wardrobe device information collection module is used to collect relevant information of the adjustment device in the wardrobe.

3. According to the big data-based bedroom wardrobe device control system of claim 2, it is characterized by: The monitoring module includes a wardrobe usage analysis module, a force sensor detection unit and a timing unit. The wardrobe usage analysis module is used to perform separate analyses on the usage and storage conditions of clothes in different layers in the wardrobe; the force sensor detection unit is used to detect the force conditions when the wardrobe door is opened; and the timing unit is used to count the time the user opens the door.

4. According to the big data-based bedroom wardrobe device control system of claim 3, it is characterized by: The wardrobe usage analysis module further includes a tension analysis submodule and a storage stability monitoring submodule. The tension analysis submodule is used to monitor and analyze the process of the user opening the wardrobe; the storage stability monitoring submodule is used to monitor the storage stability of clothes stored in the wardrobe and determine whether there will be storage problems with the clothes in the wardrobe.

5. A bedroom wardrobe device control system based on big data according to claim 4, characterized in that: The output module includes a device adjustment module and a prompt module. The device adjustment module is used to adjust the temperature and humidity through the adjustment device in the wardrobe; the prompt module is used to prompt the user to clean the wardrobe in time.

6. A bedroom wardrobe device control system based on big data according to claim 5, characterized in that: The operating method of the bedroom wardrobe device control system mainly includes the following steps: Step S1: A wardrobe device control system is connected to a wardrobe in a user's bedroom. When it is detected that the user opens the wardrobe door, a camera unit in the wardrobe is activated to detect the placement of clothes in the wardrobe; Step S2: sharing the current user's pulling force on the wardrobe through the wardrobe door information stored in the database and the process of the user opening the wardrobe door; Step S3: Analyze the stability of the user's use of clothing storage in the wardrobe by retrieving the total number of times the user opens the wardrobe and the time information of using the wardrobe after opening the wardrobe within the interval monitoring time period; Step S4: The storage stability monitoring submodule monitors the stability parameters of the user's storage of clothes in the closet through the user's frequency of use of the clothes, and determines whether the time the user spends handling the clothes in the closet exceeds the maximum storage cleaning time.

7. A bedroom wardrobe device control system based on big data according to claim 6, characterized in that: The step S2 further comprises: Step S21: a force sensor unit is arranged on the door side of the wardrobe door, wherein the force sensor unit is arranged with a bidirectional force detection area in the wardrobe door, and the force direction of the wardrobe door can be detected. The direction of the wardrobe door facing the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the positive direction, and the direction of the wardrobe door facing away from the inside of the wardrobe relative to the extension direction of the wardrobe door connecting rod is set as the reverse direction. When the force sensor unit detects that the wardrobe door is subjected to force in the positive direction, the timing unit is started and starts timing. After the force sensor unit detects that the wardrobe door is subjected to force in the reverse direction, the timing unit stops, and the current elapsed time recorded by the timing unit is obtained as T seconds. By identifying the force value of the force sensor unit as F when the force value is applied, and continuously detecting the force value, the duration of the wardrobe door when the force value is not zero is X seconds; In particular, if TX<G, after the waiting force sensor unit detects that the wardrobe door is subjected to the first continuous reverse force, the timing unit does not stop timing until the force sensor unit detects that the wardrobe door is subjected to the reverse force for the second time, the timing unit stops, and the timing unit records the current elapsed time again, where G is the minimum interval time for the user to stretch the wardrobe door; Step S22: The pulling force required to stretch the current wardrobe door material to the maximum angle is obtained through the big database, which is F0. If the force value of the current force sensor unit is greater than F0, and the force sensor unit still does not detect the force in the opposite direction after X seconds, the prompt instruction is transmitted to the wardrobe door control terminal through the output module, and the wardrobe door self-closing hinge is controlled to buffer the wardrobe door from continuing to move outward.

8. The bedroom wardrobe device control system based on big data according to claim 7 is characterized by: The step S3 further comprises: Step S31: According to the statistical times of the force sensor unit, the total number of times the wardrobe is opened within the monitoring time is obtained as S, where the unit of the monitoring time is day, and the value of the monitoring time value L is related to the number of times the user uses the washing machine, and the value is also affected by the current weather season; Step S32: During the monitoring time, the storage stability monitoring submodule obtains the storage stability of the clothes in the wardrobe used by the user. When the stability parameter is lower than the preset value, the system transmits the information to the wardrobe usage analysis module to detect and analyze the storage conditions of clothing in different locations in the wardrobe.

9. A bedroom wardrobe device control system based on big data according to claim 8, characterized in that: The step S4 further comprises the following steps: Step S41: Through the wardrobe type information and wardrobe internal composition information stored in the data acquisition module, it is obtained that there are w layers of different sizes in the wardrobe, the total volume of the wardrobe is A0 cubic meters, and the volumes of the layers in the wardrobe are A1, A2...A w cubic meter; Step S42: Storage parameter formula for layered storage in the wardrobe The calculation method of F1 is Where α is the unit conversion parameter; Z is the light intensity parameter in the user's bedroom. A sunlight monitoring device that can receive sunlight for the longest time is set in the bedroom. After it is turned on, it detects the sunlight collection in the bedroom all day long. The storage parameters of the total w wardrobes in the wardrobe are calculated separately. When it is detected that the storage parameters exceed the preset value, if a storage problem is detected in the user's wardrobe, the corresponding adjustment instructions are transmitted to the wardrobe device control terminal through the output module, and the user is prompted through the mobile terminal carried by the user.

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