A terminal management system for the Internet of Things

Abstract

The present invention relates to the field of terminal management technology, and specifically discloses a terminal management system for the Internet of Things, which is used to solve the problems of difficulty in distinguishing the authenticity of drugs and unreasonable use of lighting by the elderly in existing home-based elderly care. The present invention gives users an identification label on a drug box, establishes a label application management program based on the identification label, downloads and installs it in a terminal management system for the Internet of Things, matches the information to be identified of the identification label through the label application management program to determine whether it is received, thereby generating and managing the identification information of the drug box, helping users to maintain a regular medication schedule and prevent health risks caused by forgetting or taking the wrong medication. Real-time video image acquisition in the room obtains the user's activity frequency, controls the switching of lighting equipment in each room, and issues an alarm when it detects that there is a problem with the user's sleep quality, thereby realizing an intelligent light switch function and avoiding energy waste caused by forgetting to turn off the lights.

Description

Technical Field

[0001] The present invention relates to the technical field of terminal management, and more specifically, to a terminal management system oriented to the Internet of Things. Background Art

[0002] The rational use of lighting by elderly people at home is not only related to the convenience of their lives, but also closely related to their safety and energy-saving needs. Due to their declining eyesight, many elderly people are prone to blurred vision at night due to insufficient light, which increases the risk of falling. For safety reasons, the elderly may frequently use or continuously turn on lighting, resulting in a waste of lighting power. In addition, due to the loss of memory of the elderly, they often forget to turn off unnecessary lights, making unnecessary electricity consumption more common. In order to solve the above problems, a technical solution is now provided. Summary of the invention

[0003] In order to overcome the above-mentioned defects of the prior art, the present invention provides a terminal management system for the Internet of Things, which is used to solve the problems of difficulty in distinguishing the authenticity of drugs in existing home-based elderly care and unreasonable use of lighting by the elderly, so as to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above object, the present invention provides the following technical solutions:

[0005] A terminal management system for the Internet of Things includes a server, a drug traceability subsystem, a lighting energy-saving monitoring subsystem, a sleep quality management subsystem, a remote interaction subsystem, and a central alarm control subsystem. The drug traceability subsystem gives a user a drug outer box identification tag, establishes a tag application management program based on the identification tag, downloads and installs it in the terminal management system for the Internet of Things, matches the information to be identified of the identification tag through the tag application management program to determine whether it is received, thereby generating and managing the drug outer box identification information; the lighting energy-saving monitoring subsystem acquires the user's activity frequency through real-time video image acquisition in the room, and controls the switch of the lighting equipment in each room; the sleep quality management subsystem acquires the user's activity frequency through the lighting energy-saving monitoring subsystem, and performs sleep quality management based on the activity frequency; acquires the first activity frequency and the second activity frequency of the user in each room, and constructs a sleep quality management model to evaluate the user's sleep quality parameters. The formula of the sleep quality management model is:

[0006] ;

[0007] Where: is the user's sleep quality parameter, is the number of rooms, is the first activity frequency in the i-th room, is the second activity frequency in the i-th room, is the first activity frequency in the jth room, is the second activity frequency in the jth room.

[0008] As a further solution of the present invention, a lighting energy-saving monitoring subsystem includes a monitoring center unit, a video monitoring unit, an image recognition unit, a primary lighting switch control unit, a secondary lighting switch control unit, and a remote monitoring unit; the monitoring center unit is organically integrated with the video monitoring unit, the image recognition unit, the primary lighting switch control unit, and the secondary lighting switch control unit through the remote monitoring unit, and the video monitoring unit is connected to the image recognition unit.

[0009] As a further solution of the present invention, the monitoring center unit is used to control the switches of lighting equipment in each room of the user, and the lighting equipment in each room is controlled separately; the video monitoring unit adopts a CCD camera and a video image acquisition card to collect real-time video images in the room; the image recognition unit sets a standard space; the area of ​​the standard space is greater than or equal to the area in the room; the video monitoring unit includes a first monitoring device, a second monitoring device, a first counter unit and a second counter unit; the first counter unit is used to record the activity frequency in the first monitoring device; the second counter unit is used to record the activity frequency in the second monitoring device; the first monitoring device and the second monitoring device are respectively arranged in opposite directions inside and outside the lighting device.

[0010] As a further solution of the present invention, a lighting switch control unit collects real-time video images after a user turns on a lighting device within a fixed period of time through a video monitoring unit, and records a first activity frequency of the first counter unit and a second activity frequency of the second counter unit, analyzes the switch of the lighting device based on the first activity frequency and the second activity frequency, obtains the first activity frequency and the second activity frequency in room 1, and subtracts the first activity frequency from the second activity frequency in room 1 to obtain a first difference; obtains the first activity frequency and the second activity frequency in the remaining rooms, and subtracts the first activity frequency from the second activity frequency in the remaining rooms to obtain a second difference group; by comparing the means of the first difference and the second difference group, if the first difference is greater than the mean of the second difference group, outputs a signal to turn on the lighting device; otherwise, outputs a signal to turn off the lighting device.

[0011] As a further solution of the present invention, a secondary lighting switch control unit is used to perform a secondary judgment on the primary signal output by the primary lighting switch control unit; the user's activity needs in the room are judged by a preset activity frequency threshold, and the first activity frequency and the second activity frequency of the users in each room are measured. If the first activity frequency and the second activity frequency are both greater than the preset activity frequency threshold, the room is marked as a high activity demand area, and a secondary signal for turning on the lighting device is output; otherwise, the room is marked as a low activity demand area, and a secondary signal for turning off the lighting device is output; the image recognition unit is connected to the remote monitoring unit, and is used to monitor the switching of the lighting devices in each room; if the room has any one of the primary signal or the secondary signal, the lighting device is turned on; otherwise, the lighting device is turned off.

[0012] As a further solution of the present invention, the drug box identification label in the drug traceability subsystem is a serial number. If the label application management program receives the identification information assigned to the user's drug box identification label, the identification information of the user's drug box identification label is compared with the identification information of the pre-registered user's drug box identification label. If the comparison result is that the identification information is the same, the user's drug box identification is successfully identified; otherwise, the user's drug box identification fails.

[0013] The technical effects and advantages of a terminal management system for the Internet of Things of the present invention are as follows: the present invention gives users identification tags on drug boxes, establishes a tag application management program based on the identification tag, downloads and installs it in the terminal management system for the Internet of Things, matches the information to be identified of the identification tag through the tag application management program to determine whether it is received, thereby generating and managing the identification information of the drug box, helping users to maintain regular medication and prevent health risks caused by forgetting or taking the wrong medicine; real-time video images in the room are collected to obtain the user's activity frequency, and the switching of lighting equipment in each room is controlled, and an alarm is issued when problems with the user's sleep quality are detected, thereby realizing the intelligent switching light function and avoiding energy waste caused by forgetting to turn off the lights. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 A hardware configuration diagram of a terminal management system for the Internet of Things provided by the present invention;

[0015] Figure 2 A schematic diagram of the structure of a terminal management system for the Internet of Things provided by the present invention. DETAILED DESCRIPTION

[0016] The following will be combined with the accompanying drawings in the present invention to clearly and completely describe the technical solution in the present invention. Obviously, the described technical solution is only a part of the present invention, not all of it. Based on the technical solution in the present invention, all other technical solutions obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0017] Figure 1 The hardware structure diagram of a terminal management system for the Internet of Things provided by the present invention is shown in FIG. Figure 1 As shown, the terminal management system 1 for the Internet of Things is connected to the server through a communication network, and the terminal management system 1 for the Internet of Things includes a plurality of user terminals 10a, 10b, , 10m, wherein a plurality of user terminals 10a, 10b, , 10m is connected to the server through a communication network.

[0018] A terminal management system for the Internet of Things in this embodiment includes a server, a drug traceability subsystem, a lighting energy-saving monitoring subsystem, a sleep quality management subsystem, a remote interaction subsystem, and a central alarm control subsystem;

[0019] The server is used to connect with several terminal management systems for the Internet of Things through a communication network;

[0020] The drug traceability subsystem provides users with drug box identification tags, establishes a tag application management program based on the identification tags, downloads and installs it in the terminal management system for the Internet of Things, and matches the identification tag's information to be identified through the tag application management program to determine whether to receive it, thereby generating and managing drug box identification information;

[0021] Lighting energy-saving monitoring subsystem, which collects real-time video images in the room to obtain the user's activity frequency and controls the switching of lighting equipment in each room;

[0022] The sleep quality management subsystem obtains the user's activity frequency through the lighting energy-saving monitoring subsystem and manages sleep quality based on the activity frequency;

[0023] Remote interaction subsystem, which can view user activities through remote access and support video calls and voice interactions;

[0024] The central alarm control subsystem is used to sound an alarm when problems with the user's sleep quality are detected.

[0025] The drug traceability subsystem scans the identification label on the drug box to quickly obtain information such as the source and production batch of the drug, ensure that the drug is produced and sold through formal channels, reduce the risk of the elderly purchasing counterfeit and inferior drugs, record medication information and remind the elderly to take medicine on time, help them maintain medication rules, and prevent health risks caused by forgetting or taking the wrong medicine; the lighting energy-saving monitoring subsystem automatically adjusts the lighting equipment according to the activities of the elderly, realizes the intelligent switch function, avoids energy waste caused by forgetting to turn off the lights, and ensures that there is sufficient light in the room when necessary, reducing the discomfort caused by insufficient or excessive light; it tracks the lighting conditions of each room in real time and generates energy-saving reports so that the elderly and their families can understand the electricity usage, optimize electricity usage habits, and reduce unnecessary electricity The lighting energy-saving monitoring subsystem obtains the activity frequency to judge the nighttime activities of the elderly. If too much activity or other abnormal conditions may indicate poor sleep quality, the system will record these data and notify the family members. If the system detects obvious sleep quality problems (such as frequent getting up at night or not resting for a long time), the central alarm control subsystem will sound an alarm to remind the family members to pay attention to the health of the elderly and take timely intervention measures. The family members can view the activities of the elderly in real time through the remote interactive subsystem, make video calls and voice communication, which can provide emotional companionship and understand the living conditions of the elderly in real time. When the elderly have abnormal activities or sleep problems, the system will immediately notify the family members, so that they can take quick measures to ensure the safety and health of the elderly.

[0026] Specifically, the drug box identification label in the drug traceability subsystem is a serial number. If the label application management program receives the identification information assigned to the user's drug box identification label, the identification information of the user's drug box identification label is compared with the identification information of the pre-registered user's drug box identification label. If the comparison result is that the identification information is the same, the user's drug box identification is successful; otherwise, the user's drug box identification fails.

[0027] By comparing the identification tag with the pre-registered information in the system, the source of the medicine is ensured to be reliable. If the identification fails, the user or family member can immediately identify the counterfeit medicine, reducing the risk of taking counterfeit or inferior medicine; the medicine will be included in the management only after the identification tag is successfully matched, avoiding the misidentification or the medicine that is not registered in the system from entering the elderly's medication list, which helps to keep a clear record of medication and ensure the safety of medication; the information of each successful identification of the medicine will be recorded, and family members and caregivers can view the detailed medication history, including the source of the medicine, batch and other information, so as to facilitate the traceability of the use of the medicine when needed; after the successful identification of the medicine, it can automatically associate with the functions such as medication reminder to ensure that the elderly take the medicine as needed at the specified time, and at the same time, family members or caregivers can get system reminders to supervise the elderly's medication to avoid wrong or missed medication; it is difficult for the elderly to distinguish the packaging and authenticity of the medicine. Through automatic identification and comparison, there is no need for the elderly to check manually, making drug identification simpler and more intuitive, and improving the convenience of medication management.

[0028] Specifically, the lighting energy-saving monitoring subsystem includes a monitoring center unit, a video monitoring unit, an image recognition unit, a primary lighting switch control unit, a secondary lighting switch control unit, and a remote monitoring unit; the monitoring center unit is organically integrated with the video monitoring unit, the image recognition unit, the primary lighting switch control unit, and the secondary lighting switch control unit through the remote monitoring unit, and the video monitoring unit is connected to the image recognition unit;

[0029] The monitoring center unit is used to control the lighting switches in each room of the user, and the lighting equipment in each room is controlled separately;

[0030] The video monitoring unit uses a CCD camera and a video image acquisition card to collect real-time video images in the room; the analog video image signal is converted into a digital video signal and transmitted to the computer memory or video memory through the computer PCI interface to meet the real-time video acquisition requirements of this system. This system is a secondary development of the program based on the software package of the Daheng DH-CG400 image acquisition card. The DH-CG400 image acquisition card is a highly integrated, low-power video image acquisition card based on a high-performance PCI bus. It can convert the color analog video signal collected by the CCD into a digital image signal through the acquisition card's analog-to-digital converter, scaling, cropping, and color-space conversion, and transmit it to the computer memory for real-time storage. The acquisition and transmission can work stably without the participation of the CPU, does not occupy the CPU time, and supports real-time image acquisition;

[0031] An image recognition unit is provided, wherein a standard space is set; the area of ​​the standard space is greater than or equal to the area in the room;

[0032] The video monitoring unit includes a first monitoring device, a second monitoring device, a first counter unit and a second counter unit; the first counter unit is used to record the activity frequency in the first monitoring device; the second counter unit is used to record the activity frequency in the second monitoring device; the first monitoring device and the second monitoring device are respectively arranged in opposite directions inside and outside the lighting device;

[0033] The primary lighting switch control unit collects real-time video images after the user turns on the lighting device within a fixed period of time through the video monitoring unit, and records the first activity frequency of the first counter unit and the second activity frequency of the second counter unit, analyzes the switch of the lighting device based on the first activity frequency and the second activity frequency, obtains the first activity frequency and the second activity frequency in room 1, and subtracts the first activity frequency from the second activity frequency in room 1 to obtain a first difference; obtains the first activity frequency and the second activity frequency in the remaining rooms, and subtracts the first activity frequency from the second activity frequency in the remaining rooms to obtain a second difference group; by comparing the means of the first difference and the second difference group, if the first difference is greater than the mean of the second difference group, outputs a primary signal to turn on the lighting device; otherwise, outputs a primary signal to turn off the lighting device;

[0034] The secondary lighting switch control unit is used to perform a secondary judgment on the primary signal output by the primary lighting switch control unit; the activity demand of the user in the room is judged by a preset activity frequency threshold, and the first activity frequency and the second activity frequency of the user in each room are compared with the preset activity frequency threshold. If both the first activity frequency and the second activity frequency are greater than the preset activity frequency threshold, the room is marked as a high activity demand area, and a secondary signal for turning on the lighting device is output at this time; otherwise, the room is marked as a low activity demand area, and a secondary signal for turning off the lighting device is output at this time;

[0035] The image recognition unit is connected to the remote monitoring unit and is used to monitor the switching of lighting equipment in each room; if the room has any one of the primary signal or the secondary signal, the lighting equipment is turned on; otherwise, the lighting equipment is turned off.

[0036] Activity frequency detection and automated analysis ensure that lighting equipment is turned on only when the elderly need it, avoiding energy waste caused by lights being on for a long time when no one is around. Compared with manual operation, automatic switching is more accurate and timely. The multi-layer judgment mechanism of primary and secondary signals is used to flexibly adjust the light switch according to the activity status of the elderly in the room, providing sufficient light when high-brightness lighting is needed, and automatically turning off or dimming the lighting in areas with low activity demand, thereby improving the adaptability and comfort of lighting. Through video monitoring and activity frequency counters, the lighting switch automatically adjusts according to the detected activity status, without the need for the elderly to frequently operate the switch or adjust the brightness. It is particularly suitable for elderly people with limited mobility, reducing energy consumption problems caused by forgetfulness or misoperation. The remote monitoring unit allows family members or caregivers to check the lighting status of each room at any time, keep abreast of the elderly's activities at home, and perform remote operations when necessary to improve the accuracy of lighting management. Through automatic switch control and multi-level judgment of lights, it can not only improve energy-saving efficiency, but also reduce electricity bills, bringing real cost savings to the elderly and their families, optimizing the elderly's electricity usage habits, reducing energy waste, and ensuring convenience and safety in life.

[0037] Example 1

[0038] If the preset activity frequency threshold is 5 times per minute, and the number of user rooms is 3, it is determined whether to output a signal for turning on the lighting device in room 1. The first activity frequency of room 1 is 6 times per minute, the second activity frequency of room 1 is 1 time per minute, and the first difference is 5; the first activity frequency of room 2 is 11 times per minute, and the second activity frequency of room 2 is 6 times per minute. At this time, the second difference of room 2 is 5; the first activity frequency of room 3 is 8 times per minute, and the second activity frequency of room 3 is 2 times per minute. At this time, the second difference of room 2 is 6; the mean of the second difference group is 5.5, and a signal for turning off the lighting device in room 1 is output at this time;

[0039] Determine whether to output a signal for turning on the lighting device in room 2. The first activity frequency of room 2 is 11 times per minute, and the second activity frequency of room 2 is 6 times per minute. At this time, the first difference value of room 2 is 5; the first activity frequency of room 1 is 6 times per minute, and the second activity frequency of room 1 is 1 time per minute. At this time, the second difference value of room 1 is 5; the first activity frequency of room 3 is 8 times per minute, and the second activity frequency of room 3 is 2 times per minute. At this time, the second difference value of room 2 is 6; the mean value of the second difference group is 5.5, and at this time, a signal for turning off the lighting device in room 2 is output;

[0040] Determine whether to output a signal for turning on the lighting equipment in room 3. The first activity frequency of room 3 is 8 times per minute, and the second activity frequency of room 3 is 2 times per minute. At this time, the first difference value of room 2 is 6; the first activity frequency of room 2 is 11 times per minute, and the second activity frequency of room 2 is 6 times per minute. At this time, the first difference value of room 2 is 5; the first activity frequency of room 1 is 6 times per minute, and the second activity frequency of room 1 is 1 time per minute. At this time, the second difference value of room 1 is 5; the mean value of the second difference group is 5, and at this time, a signal for turning on the lighting equipment in room 3 is output;

[0041] By comparing the first activity frequency and the second activity frequency of room 1 with the preset activity frequency threshold, it can be seen that the first activity frequency of room 1 is greater than the preset activity frequency threshold, and the second activity frequency of room 1 is less than the preset activity frequency threshold. At this time, room 1 outputs a secondary signal to turn off the lighting device; by comparing the first activity frequency and the second activity frequency of room 2 with the preset activity frequency threshold, it can be seen that both the first activity frequency and the second activity frequency of room 2 are greater than the preset activity frequency threshold. At this time, room 2 outputs a secondary signal to turn on the lighting device; by comparing the first activity frequency and the second activity frequency of room 3 with the preset activity frequency threshold, it can be seen that the first activity frequency of room 3 is greater than the preset activity frequency threshold, and the second activity frequency of room 3 is less than the preset activity frequency threshold. At this time, room 3 outputs a secondary signal to turn off the lighting device;

[0042] In summary, the primary lighting switch control unit outputs a primary signal for turning off the lighting equipment in room 1, a primary signal for turning off the lighting equipment in room 2, and a primary signal for turning on the lighting equipment in room 3; the secondary lighting switch control unit outputs a secondary signal for turning off the lighting equipment in room 1, a secondary signal for turning on the lighting equipment in room 2, and a secondary signal for turning off the lighting equipment in room 3; it can be seen that if room 1 does not have either the primary signal or the secondary signal, the lighting equipment will be turned off; if room 2 has either the primary signal or the secondary signal, the lighting equipment will be turned on; if room 3 has either the primary signal or the secondary signal, the lighting equipment will be turned on.

[0043] The sleep quality management subsystem obtains the user's activity frequency through the lighting energy-saving monitoring subsystem and performs sleep quality management based on the activity frequency; obtains the first activity frequency and the second activity frequency of the user in each room, and constructs a sleep quality management model to evaluate the user's sleep quality parameters. The formula of the sleep quality management model is:

[0044] ;

[0045] Where: is the user's sleep quality parameter, is the number of rooms, is the first activity frequency in the i-th room, is the second activity frequency in the i-th room, is the first activity frequency in the jth room, is the second activity frequency in the jth room.

[0046] Extract the user sleep quality parameter, and compare the user sleep quality parameter with the preset user sleep quality parameter. If the user sleep quality parameter is greater than or equal to the preset user sleep quality parameter, there is a problem with the user's sleep quality; if the user sleep quality parameter is less than the preset user sleep quality parameter, there is no problem with the user's sleep quality.

[0047] By recording and analyzing the activity frequency in the room, sleep quality parameters are automatically generated, avoiding the subjective errors caused by the traditional method of relying on user self-reporting, and reflecting the sleep quality more accurately. The activity frequency is collected and calculated. If the sleep quality parameter is detected to be greater than the preset value, an alarm can be automatically issued to promptly remind caregivers or family members to pay attention to the elderly's sleep problems, which is helpful for early detection and intervention of sleep disorders. By monitoring the frequency of nighttime activities, it can be analyzed whether there are environmental factors interfering with sleep, and automatically optimize room lighting when necessary to help the elderly maintain a stable sleeping environment, thereby improving sleep quality. The long-term accumulation of activity data is helpful to establish a personal sleep quality profile, and by analyzing the changing trends of daily activity frequency and sleep patterns, it provides users with more personalized health management suggestions and auxiliary sleep improvement plans. Sleep monitoring is achieved based on the frequency of room activity, without the need for wearable devices or additional monitoring instruments. It is suitable for elderly people who do not want to wear equipment, reducing the burden of monitoring and improving user experience.

[0048] The embodiment of the present invention gives the user an identification tag on the outer box of medicine, establishes a tag application management program based on the identification tag, downloads and installs it in a terminal management system oriented to the Internet of Things, and matches the information to be identified of the identification tag through the tag application management program to determine whether it is received, thereby generating and managing the identification information of the outer box of medicine, helping the user to maintain a regular medication schedule and prevent health risks caused by forgetting or taking the wrong medicine; real-time video image acquisition in the room obtains the user's activity frequency, controls the switching of lighting equipment in each room, and issues an alarm when problems with the user's sleep quality are detected, thereby realizing the intelligent switching light function and avoiding energy waste caused by forgetting to turn off the lights.

[0049] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

[0050] Finally: The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A terminal management system for the Internet of Things, comprising a server, a drug traceability subsystem, a lighting energy-saving monitoring subsystem, a sleep quality management subsystem, a remote interaction subsystem and a central alarm control subsystem, characterized in that: The drug traceability subsystem gives users identification tags on drug boxes, establishes a tag application management program based on the identification tag, downloads and installs it in the terminal management system for the Internet of Things, and matches the identification tag's information to be identified through the tag application management program to determine whether it is received, thereby generating and managing drug box identification information; the lighting energy-saving monitoring subsystem acquires real-time video images in the room to obtain the user's activity frequency and controls the switching of lighting equipment in each room; The sleep quality management subsystem obtains the user's activity frequency through the lighting energy-saving monitoring subsystem and performs sleep quality management based on the activity frequency; obtains the first activity frequency and the second activity frequency of the user in each room, and constructs a sleep quality management model to evaluate the user's sleep quality parameters. The formula of the sleep quality management model is: Where: α c is the user's sleep quality parameter, n is the number of rooms, f ia is the first activity frequency in the i-th room, f ib is the second activity frequency in the i-th room, f ja is the first activity frequency in the jth room, f jb is the second activity frequency in the jth room; The lighting energy-saving monitoring subsystem includes a monitoring center unit, a video monitoring unit, an image recognition unit, a primary lighting switch control unit, a secondary lighting switch control unit, and a remote monitoring unit; the monitoring center unit is organically integrated with the video monitoring unit, the image recognition unit, the primary lighting switch control unit, and the secondary lighting switch control unit through the remote monitoring unit, and the video monitoring unit is connected to the image recognition unit; The monitoring center unit is used to control the lighting switches in each room of the user, and the lighting equipment in each room is controlled separately; the video monitoring unit uses a CCD camera and a video image acquisition card to collect real-time video images in the room; the image recognition unit is set in a standard space; The area of ​​the standard space is greater than or equal to the area in the room; the video monitoring unit includes a first monitoring device, a second monitoring device, a first counter unit and a second counter unit; the first counter unit is used to record the activity frequency in the first monitoring device; The second counter unit is used to record the activity frequency in the second monitoring device; the first monitoring device and the second monitoring device are respectively arranged in opposite directions inside and outside the lighting device; The primary lighting switch control unit collects real-time video images after the user turns on the lighting device within a fixed period of time through the video monitoring unit, and records the first activity frequency of the first counter unit and the second activity frequency of the second counter unit, analyzes the switch of the lighting device based on the first activity frequency and the second activity frequency, obtains the first activity frequency and the second activity frequency in room 1, and subtracts the first activity frequency from the second activity frequency in room 1 to obtain a first difference; obtains the first activity frequency and the second activity frequency in the remaining rooms, and subtracts the first activity frequency from the second activity frequency in the remaining rooms to obtain a second difference group; By comparing the first difference and the mean of the second difference group, if the first difference is greater than the mean of the second difference group, a signal for turning on the lighting device is output; otherwise, a signal for turning off the lighting device is output; The secondary lighting switch control unit is used to perform a secondary judgment on the primary signal output by the primary lighting switch control unit; the activity demand of the user in the room is judged by a preset activity frequency threshold, and the first activity frequency and the second activity frequency of the user in each room are calculated. If both the first activity frequency and the second activity frequency are greater than the preset activity frequency threshold, the room is marked as a high activity demand area, and a secondary signal for turning on the lighting device is output; otherwise, the room is marked as a low activity demand area, and a secondary signal for turning off the lighting device is output; the image recognition unit is connected to the remote monitoring unit, and is used to monitor the switch of the lighting device in each room; if the room has any one of the primary signal or the secondary signal, the lighting device is turned on; Otherwise, turn off the lighting.

2. A terminal management system for the Internet of Things according to claim 1, characterized in that: The drug box identification label in the drug traceability subsystem is a serial number. If the label application management program receives the identification information assigned to the user's drug box identification label, it compares the identification information of the user's drug box identification label with the identification information of the pre-registered user's drug box identification label. If the comparison result is that they have the same identification information, the user's drug box identification is successful; otherwise, the user's drug box identification fails.

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