Intelligent mosquito repelling device and method

Abstract

The application relates to an intelligent mosquito-repelling device and method, which comprises the following steps: establishing a communication connection with an intelligent wearable device; regularly scanning the nearby intelligent wearable device; when the nearby intelligent wearable device is scanned, reading the data of the scanned intelligent wearable device, finding a matched mosquito-repelling mode according to the read data of the intelligent wearable device, and executing the obtained mosquito-repelling mode; when no intelligent wearable device is scanned nearby, obtaining a no-one mode and executing the obtained no-one mode. The application can judge whether there is someone in the room through the intelligent wearable device, select a suitable mosquito-repelling mode for mosquito-repelling if there is someone, execute the no-one mode for mosquito-repelling if there is no one, realize intelligent switching and triggering of the mosquito-repelling method, and do not need manual setting of the traditional mosquito-repelling method. The application can also judge different states (such as activity, rest, etc.) of the personnel according to the intelligent wearable device and switch a suitable mosquito-repelling mode.

Description

Technical Field

[0001] This invention relates to the field of mosquito repellent device technology, and specifically to an intelligent mosquito repellent device and method. Background Technology

[0002] Mosquitoes breed in large numbers during autumn and summer, causing a lot of annoying bites. Mosquitoes, as vectors, can transmit diseases such as malaria, Japanese encephalitis, dengue hemorrhagic fever, and yellow fever. Common mosquito repellent (or mosquito killing) methods on the market include mosquito coils, ultraviolet lamps, ultrasonic waves, and electric shocks. Mosquito coils come in two types: incense sticks and electric mosquito coils. Incense sticks are inexpensive, but produce a lot of smoke and are generally less effective. Electric mosquito coils are quiet, but contain chemicals that can be harmful to humans. Ultraviolet lamps are effective and pollution-free, but cannot be used in bright indoor light, have a certain brightness that can affect sleep, and are relatively power-consuming. Ultrasonic waves are physical and pollution-free, but low-power versions have limited effectiveness and coverage, while high-power versions can interfere with pets. Electric shocks are physical and pollution-free, but produce noise that can disrupt sleep.

[0003] In summary, the mosquito repellent methods on the market each have their own advantages and disadvantages. Their use requires manual settings and is not very intelligent. Therefore, we will continue to provide a new intelligent solution. Summary of the Invention

[0004] The purpose of this invention is to overcome the shortcomings of the prior art and provide an intelligent mosquito repellent device and method, solving the problem that existing mosquito repellent methods require manual settings and are not very intelligent.

[0005] The technical solution to achieve the above objectives is:

[0006] This invention provides an intelligent mosquito repellent method, comprising the following steps:

[0007] Establish communication connections with smart wearable devices;

[0008] Regularly scan nearby smart wearable devices;

[0009] When a smart wearable device is detected nearby, the system reads the data from the detected smart wearable device, finds a matching mosquito repellent mode based on the read data, and executes the obtained mosquito repellent mode.

[0010] When no smart wearable devices are detected nearby, the unmanned mode is acquired and executed.

[0011] The mosquito repellent method of the present invention can determine whether there is someone in the room through a smart wearable device. If there is someone, it selects a suitable mosquito repellent mode to repel mosquitoes. If there is no one, it executes an unmanned mode to repel mosquitoes. This realizes the intelligent switching and triggering of mosquito repellent methods, eliminating the need for manual setting of traditional mosquito repellent methods, such as lighting mosquito coils, plugging in electric mosquito coils, turning on ultraviolet lamps and ultrasonic lamps, and manually swatting mosquitoes with an electric mosquito swatter.

[0012] A further improvement of the intelligent mosquito repellent method of the present invention is that it further includes:

[0013] When multiple smart wearable devices are detected nearby, data from all detected smart wearable devices is read.

[0014] Identify and execute the mosquito repellent mode corresponding to the highest priority smart wearable device from the read data.

[0015] A further improvement of the intelligent mosquito repellent method of the present invention is that it further includes:

[0016] Based on the data read from the smart wearable device, determine the state of the object wearing the smart wearable device;

[0017] Based on the determined state of the object, find the matching mosquito repellent mode and execute it.

[0018] A further improvement of the intelligent mosquito repellent method of the present invention is that, when establishing a communication connection with an intelligent wearable device, a corresponding mosquito repellent mode is configured for the connected intelligent wearable device.

[0019] The present invention also provides an intelligent mosquito repellent device, comprising:

[0020] A communication unit is used to periodically scan nearby smart wearable devices and establish communication connections with the scanned smart wearable devices;

[0021] The processing unit, connected to the communication unit and the scanning unit, is used to receive data from the smart wearable device through the communication unit when a smart wearable device is detected nearby, find a matching mosquito repellent mode based on the obtained data and execute it; it is also used to obtain an unmanned mode and execute it when no smart wearable device is detected nearby.

[0022] A further improvement of the intelligent mosquito repellent device of the present invention is that, when the processing unit obtains data from multiple intelligent wearable devices, it acquires and executes the mosquito repellent mode corresponding to the intelligent wearable device with the highest priority.

[0023] A further improvement of the intelligent mosquito repellent device of the present invention is that, after obtaining data from the intelligent wearable device, the processing unit determines the state of the object wearing the intelligent wearable device based on the obtained data, and finds and executes a matching mosquito repellent mode based on the determined state of the object.

[0024] A further improvement of the intelligent mosquito repellent device of the present invention is that it further includes a configuration unit, which is used to configure a corresponding mosquito repellent mode for the connected intelligent wearable device when the communication unit establishes a communication connection with the intelligent wearable device. Attached Figure Description

[0025] Figure 1 This is a system diagram of the intelligent mosquito repellent device of the present invention.

[0026] Figure 2 This is a hardware block diagram of the intelligent mosquito repellent device of the present invention.

[0027] Figure 3 This is a hardware structure diagram of the intelligent mosquito repellent device of the present invention.

[0028] Figure 4 This is a flowchart of the intelligent mosquito repellent method of the present invention.

[0029] Figure 5 This is a flowchart of the mosquito repellent mode switching process in the intelligent mosquito repellent device and method of the present invention.

[0030] Figure 6 This is a flowchart illustrating the multi-user aspect of the intelligent mosquito repellent device and method of the present invention.

[0031] Figure 7 This is a flowchart illustrating the pairing process between the intelligent mosquito repellent device and method of the present invention and an intelligent wearable device. Detailed Implementation

[0032] The present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0033] See Figure 1 This invention provides an intelligent mosquito repellent device and method to meet the diverse needs of different users for mosquito control solutions. For example, children cannot use mosquito repellent tablets or liquid electric mosquito repellents containing chemicals; pets are sensitive to ultrasonic mosquito repellent methods; young people prefer environmentally friendly and economical electric shock mosquito repellent methods; the elderly are more accustomed to electric mosquito coils and may be startled by electric shock methods; and quiet mosquito repellent methods are suitable after falling asleep. The intelligent mosquito repellent device and method of this invention can identify the user's identity through a smart wearable device and automatically switch mosquito repellent modes according to different user characteristics and lifestyles to meet the user's needs. The intelligent mosquito repellent device and method of this invention will be described below with reference to the accompanying drawings.

[0034] See Figure 1 The diagram shows a system diagram of the intelligent mosquito repellent device of the present invention. The following is in conjunction with... Figure 1 The present invention will now be described in detail.

[0035] like Figure 1As shown, the intelligent mosquito repellent device of the present invention includes a communication unit 21 and a processing unit 23, wherein the processing unit 23 is connected to the communication unit 21; wherein the communication unit 21 is used to periodically scan nearby intelligent wearable devices and establish a communication connection with the scanned intelligent wearable devices; the processing unit 23 is used to receive data from the intelligent wearable devices through the communication unit 21 when an intelligent wearable device is detected nearby, and to find and execute a matching mosquito repellent mode based on the obtained data; it is also used to obtain and execute an unmanned mode when no intelligent wearable device is detected nearby.

[0036] Preferably, the communication unit 21 is a Bluetooth module, which pairs and connects with the smart wearable device via Bluetooth. Before use, the smart mosquito repellent device of this invention needs to be paired with the smart wearable device. After successful pairing via Bluetooth, when the smart wearable device appears near the communication unit 21, the communication unit 21 can establish a communication connection with the smart wearable device. The Bluetooth module can periodically scan for nearby smart wearable devices, with a preferred default time of 2 minutes. This scanning interval can be customized by the user.

[0037] Furthermore, such as Figure 2 As shown, the intelligent mosquito repellent device of the present invention also includes a storage module, which stores a correspondence table between intelligent wearable devices and mosquito repellent modes. After receiving data from the intelligent wearable device, the processing unit 23 searches for a matching mosquito repellent mode from the correspondence table between intelligent wearable devices and mosquito repellent modes, and executes the mosquito repellent mode.

[0038] In one specific embodiment of the present invention, when the processing unit 23 obtains data from multiple smart wearable devices, it acquires the mosquito repellent mode corresponding to the smart wearable device with the highest priority and executes it.

[0039] When adding smart wearable devices, their priorities are assigned according to the order in which they are added; that is, smart wearable devices added earlier have higher priority than those added later. Furthermore, the IDs of the smart wearable devices and their assigned priorities are stored in the storage module in a lookup table. The priorities of the smart wearable devices can be adjusted later in use.

[0040] In one specific embodiment of the present invention, the data of the smart wearable device includes parameters such as device ID, heart rate, respiration, and steps. The smart wearable device is preferably a smart bracelet, smartwatch, or other device worn by the human body to detect basic human information.

[0041] After obtaining data from the smart wearable device, the processing unit 23 determines the state of the object wearing the smart wearable device based on the obtained data, and then searches for and executes a matching mosquito repellent mode based on the determined state of the object.

[0042] The target of the smart wearable device is the wearer of the smart wearable device. The wearer's state is divided into an active state and a resting state. Furthermore, a corresponding mosquito repellent mode can be configured for the active state and the resting state. The processing unit 23 can intelligently switch the appropriate mosquito repellent mode according to the state of the target.

[0043] Preferably, the storage module stores a relationship table that corresponds one-to-one between the device ID, object status, and mosquito repellent mode of the smart wearable device. The processing unit reads the relationship table to obtain the mosquito repellent mode that matches the object status and executes it.

[0044] In a preferred embodiment, the processing unit 23 determines the state of the person wearing the smart wearable device based on the received data from the smart wearable device. Specifically, this determination can be based on heart rate, respiration, and step count. By analyzing the changes in heart rate, respiration, and step count over a period of time, such as analyzing changes in heart rate, respiration, and step count over 2 minutes, it can determine whether the person is in an active state or a resting state. Preferably, the storage module has a judgment range. If the changes in heart rate, respiration, and step count exceed the judgment range, it can be determined that the person is in an active state; otherwise, it can be determined that the person is in a resting state.

[0045] In another preferred embodiment, the smart wearable device has a sleep detection function. The data it sends to the communication unit includes whether the wearer is asleep. The processing unit 23 determines whether the wearer is active or resting based on the sleep data. If the wearer is asleep, the processing unit 23 determines that the wearer is resting and executes a mosquito repellent mode matching the resting state. If the wearer is not asleep, the processing unit 23 determines that the wearer is active and executes a mosquito repellent mode matching the active state.

[0046] In one specific embodiment of the present invention, the intelligent mosquito repellent device further includes a configuration unit, which is used to configure a corresponding mosquito repellent mode for the connected intelligent wearable device when the communication unit establishes a communication connection with the intelligent wearable device.

[0047] Preferably, when pairing the communication unit with the smart wearable device, the configuration unit can receive user input information to configure the corresponding mosquito repellent mode for the added smart wearable device. The mosquito repellent mode configuration is divided into a mosquito repellent mode for active periods and a mosquito repellent mode for rest periods. After configuration, the corresponding configuration information is stored in the storage module for retrieval by the processing unit 23.

[0048] Furthermore, the intelligent mosquito repellent device of the present invention is also equipped with an operating interface for user configuration. The intelligent mosquito repellent device of the present invention is equipped with a corresponding APP or mini-program, which can be installed and accessed or directly accessed via mobile phones, tablets, PCs, and other clients. After access, the operating interface is displayed on the screen. After logging in, the user can make corresponding settings. The settings interface includes unmanned mode and manned mode options. Clicking on unmanned mode will take you to the configuration interface for unmanned mode, where you can choose to turn it on or off. After selecting to turn it on, you can further configure the mosquito repellent mode in unmanned mode. The default mosquito repellent mode is electric shock mosquito repellent mode, which can be modified by the user. The configuration interface for unmanned mode also includes an automatic on / off option. After selecting to enable the automatic on / off option, you can configure the corresponding on and off times. After configuration, the intelligent mosquito repellent device of the present invention will automatically turn on the mosquito repellent mode in unmanned mode when the on time arrives and automatically turn off the mosquito repellent mode when the off time arrives, realizing timed automatic on and off. After clicking on the "occupant mode," you can enter the configuration interface for the "occupant mode." In this configuration interface, you can select the corresponding smart wearable device and then configure the mosquito repellent mode of the smart wearable device during activity and during rest. The configuration interface also has a priority setting option, which allows you to adjust the priority of the smart wearable device.

[0049] After pairing, if you need to set the mosquito repellent mode, you can select "Smart Mosquito Killing Settings" in the operation interface to enter the settings interface and make the corresponding settings.

[0050] In one specific embodiment of the present invention, such as Figure 2 As shown, the intelligent mosquito repellent device of the present invention also includes an electrothermal mosquito repellent module 24, a high-voltage discharge module 25, an ultraviolet lamp 26, and an ultrasonic module 27 connected to the processing unit.

[0051] The mosquito repellent modes of this invention include an electric heating mosquito repellent mode, an electric shock mosquito repellent mode, an ultraviolet lamp mosquito repellent mode, and an ultrasonic mosquito repellent mode. The aforementioned electric heating mosquito repellent module 24 is used to implement the electric heating mosquito repellent mode, the high-voltage discharge module 25 is used to implement the electric shock mosquito repellent mode, the ultraviolet lamp 26 is used to implement the ultraviolet lamp mosquito repellent mode, and the ultrasonic module 27 is used to implement the ultrasonic mosquito repellent mode. It should be noted that the mosquito repellent modes of this invention include, but are not limited to, the various mosquito repellent modes described above, and may also include other mosquito repellent modes.

[0052] After obtaining the corresponding mosquito repellent mode, the processing unit controls the module corresponding to the mosquito repellent mode to run, thus realizing the execution of the corresponding mosquito repellent mode.

[0053] Furthermore, such as Figure 3As shown, the intelligent mosquito repellent device of the present invention includes a base 31 and a support ring 32 disposed on the base 31. The base 31 has a mosquito repellent liquid placement position 311 and an electric mosquito repellent pad placement position 312, wherein the mosquito repellent liquid placement position 311 is used to place mosquito repellent liquid, and the electric mosquito repellent pad placement position is used to place electric mosquito repellent pads. An electric heating mosquito repellent module 24 is respectively controlled and connected to the mosquito repellent liquid placement position 311 and the electric mosquito repellent pad placement position 312, and can control whether the corresponding mosquito repellent liquid placement position 311 and / or electric mosquito repellent pad placement position 312 is energized, thereby realizing whether the electric heating mosquito repellent mode is activated. The support ring 32 is hollow inside and has a crisscrossing electric grid 33. A high-voltage discharge module 25 is connected to the electric grid 33 and is used to control whether the electric grid 33 is energized, thereby realizing whether the electric heating mosquito repellent mode is activated. An ultraviolet lamp 26 is disposed on the support ring 32. The ultraviolet lamp 26 is ring-shaped, and the processing unit can control whether the ultraviolet lamp 26 is turned on, thereby realizing whether the ultraviolet lamp mosquito repellent mode is activated. The ultrasonic module 27 is placed inside the base 31 and can generate ultrasonic waves. The processing unit can control whether the ultrasonic module 27 is turned on, thereby realizing whether the ultrasonic mosquito repellent mode is turned on or off.

[0054] Furthermore, such as Figure 2 and Figure 3 As shown, the intelligent mosquito repellent device of the present invention also includes a sensor 28, and the processing unit is connected to the sensor 28. The sensor 28 is used to detect whether there are mosquitoes near the intelligent mosquito repellent device. If mosquitoes are detected, a mosquito detection signal is generated and sent to the processing unit. The processing unit activates the high-voltage discharge module 25 according to the received mosquito detection signal to turn on the electric shock mosquito repellent mode.

[0055] The sensor 28 is activated when the smart mosquito repellent device is not in any mosquito repellent mode. When the smart mosquito repellent device is running the corresponding mosquito repellent mode, the mosquito detection function of the sensor 28 is turned off.

[0056] Preferably, there are multiple sensors 28, which are arranged at intervals along the circumference of the support ring 32.

[0057] Furthermore, an addition port 321 is provided at the top of the support ring 32. The addition port 321 is connected to the liquid collection tank provided at the top of the support ring 32. Insect attractant can be added into the liquid collection tank through the addition port 321, and the insect attractant can attract mosquitoes.

[0058] In one specific embodiment of the present invention, such as Figure 2 As shown, the processing unit is preferably an MCU main control module, which is connected to the electric heating mosquito repellent module 24, the high voltage discharge module 25, the ultraviolet lamp 26, the storage module, the ultrasonic module 27, the power management module, the BT WIFI module, and the sensor 28.

[0059] The power management module supplies power to the MCU main control module and other modules. The BT WIFI module includes a Bluetooth module and a WIFI module; the WIFI module enables the smart mosquito repellent device of this invention to connect to the network. The Bluetooth module establishes a Bluetooth communication connection with the corresponding smart wearable device.

[0060] The working process of the intelligent mosquito repellent device of the present invention will be explained below using two application scenarios as examples.

[0061] Application Scenario 1 involves different mosquito repellent modes for different users. The number of smart mosquito repellent devices is configured according to the number of users, with one device placed in each of the children's, elderly, adult, and pet rooms. Each device in each room adapts to a different mosquito repellent mode based on the connected smart wearable device.

[0062] When the smart mosquito repellent device installed in a child's room scans the child's smart wearable device, it indicates that the child is present. The device then identifies and activates a mosquito repellent mode that matches the child's needs. The mosquito repellent mode for children can be configured before use; for example, it can be set to an electric shock mode when the child is active, and a UV lamp mode when the child is resting. The electric heating mode should not be selected for children to protect them from the harmful effects of chemical agents. Of course, this mosquito repellent mode can be changed and adjusted as needed.

[0063] When the smart mosquito repellent device installed in the elderly person's room scans their smart wearable device, it indicates that the elderly person is present. The device then locates and activates the appropriate mosquito repellent mode. The mosquito repellent mode can be configured before use; for example, it can be set to electric heating mode for both active and resting states. Since the elderly person is accustomed to the traditional electric heating mode, it can be set to that mode, as the electric shock mode might startle them. Of course, the mosquito repellent mode can be changed and adjusted as needed.

[0064] When a smart mosquito repellent device installed in an adult's room scans an adult's smart wearable device, it indicates that the adult is present. The device then identifies and activates a mosquito repellent mode that matches the adult's needs. The adult's mosquito repellent mode can be configured before use; for example, it can be set to electric shock mode for active adults and electric shock mode for resting adults. Using the electric shock mode is energy-efficient and effective. Of course, this mosquito repellent mode can be changed and adjusted according to actual needs.

[0065] When the smart mosquito repellent device in the pet's room scans the pet's smart wearable device, it indicates that the pet is in the room. The device then finds and executes the mosquito repellent mode that matches the pet's needs. The mosquito repellent mode can be configured before use; for example, the mode can be set to off when the pet is active, and the UV lamp mode can be set to off when the pet is resting. The UV lamp will be used when the pet is sleeping, and the repellent mode will not be activated when the pet is active. Of course, this mosquito repellent mode can be changed and adjusted as needed.

[0066] In the above application scenario, if a child and an elderly person are in the same room, the smart mosquito repellent device in the room will scan the smart wearable devices of the child and the elderly person. Then, based on the priority of the child and the elderly person, the mosquito repellent mode of the higher priority object will be selected and executed. The child's priority is higher than that of the elderly person. At this time, the mosquito repellent mode that matches the child can be selected and executed.

[0067] Application scenario two involves switching between different user states. Taking children as an example, the smart mosquito repellent device in a child's room uses data from a smart wearable device to determine whether the child is active or resting. For instance, it can determine whether the child is resting based on changes in the number of steps taken over a certain period. If the number of steps changes by more than 3 within a certain period, the child is considered active, and the corresponding electric mosquito repellent mode is activated. If the number of steps changes by less than 3 within a certain period, the child is considered resting, and the mosquito repellent mode switches to a UV lamp mosquito repellent mode. When no smart wearable device is detected, it means the child is not in the room, and the mosquito repellent mode switches to an unattended mode.

[0068] The beneficial effects of the intelligent mosquito repellent device of the present invention include:

[0069] It automatically identifies the user based on the smart wearable device; automatically switches mosquito repellent modes according to different group characteristics and lifestyles; uses different mosquito repellent modes for different rooms; reduces the harm of chemical agents to children, reduces the impact of ultrasound on pets, and meets the different needs of the elderly who are afraid of noise.

[0070] This invention combines a smart mosquito repellent device with a smart wearable device to determine whether someone has entered the room. Simultaneously, it acquires data such as the person's heart rate, respiration, and steps to assess their current state and operates according to a preset mosquito repellent mode. When no one is in the room, it operates based on a preset decision on whether to kill mosquitoes and the selected mosquito repellent method.

[0071] This invention allows different family members to set different mosquito repellent preferences, including repellent methods and timing. It determines whether someone has entered the room based on Bluetooth signals and identifies the person's identity and status based on parameters such as the smart wearable device's ID, heart rate, respiration, and steps. When multiple people are detected, it selects and operates the appropriate mosquito repellent method according to priority.

[0072] This invention also provides an intelligent mosquito repellent method, which is described below.

[0073] like Figure 4 As shown, this intelligent mosquito repellent method includes the following steps:

[0074] Perform step S101 to establish a communication connection with the smart wearable device; then perform step S102.

[0075] Perform step S102 to periodically scan for nearby smart wearable devices;

[0076] When a smart wearable device is detected nearby, step S103 is executed to read the data of the detected smart wearable device, find the matching mosquito repellent mode based on the read smart wearable device data, and execute the obtained mosquito repellent mode.

[0077] If no smart wearable devices are detected nearby, step S104 is executed to obtain the unmanned mode and execute the obtained unmanned mode.

[0078] In one specific embodiment of the present invention, the intelligent mosquito repellent method further includes:

[0079] When multiple smart wearable devices are detected nearby, data from all detected smart wearable devices is read.

[0080] Identify and execute the mosquito repellent mode corresponding to the highest priority smart wearable device from the read data.

[0081] In one specific embodiment of the present invention, the intelligent mosquito repellent method further includes:

[0082] Based on the data read from the smart wearable device, determine the state of the person wearing the smart wearable device;

[0083] Based on the determined state of the object, find the matching mosquito repellent mode and execute it.

[0084] In one specific embodiment of the present invention, when establishing a communication connection with a smart wearable device, a corresponding mosquito repellent mode is configured for the connected smart wearable device.

[0085] In one specific embodiment of the present invention, the mosquito repelling modes in this intelligent mosquito repelling method include electric heating mosquito repelling mode, electric shock mosquito repelling mode, ultraviolet lamp mosquito repelling mode, and ultrasonic mosquito repelling mode. It should be noted that the mosquito repelling modes of the present invention include the various mosquito repelling modes described above, but are not limited thereto; they may also include other mosquito repelling modes.

[0086] like Figure 5 As shown, the mosquito repellency mode switching process of the intelligent mosquito repellency method of the present invention is as follows:

[0087] Execute step S201, periodically collect Bluetooth signals from smart wearable devices, which can be achieved through a Bluetooth module; then execute step S202.

[0088] Execute step S202 to determine if there is anyone inside;

[0089] If yes, proceed to step S203; otherwise, proceed to step S204.

[0090] Perform step S203 to acquire data from the smart wearable device; then perform step S205.

[0091] Execute step S204 to enter unmanned mode;

[0092] Execute step S205 to determine member identity, specifically by identifying the member's identity based on the ID of the smart wearable device. Then execute step S206;

[0093] Execute step S206 to determine the current status of the member. Specifically, the member's status can be determined based on the data from the smart wearable device, whether the member is in an active state or a resting state. Then execute step S207.

[0094] Execute step S207 to determine and switch the mosquito repellent mode. If the user is in an active state, switch to the mosquito repellent mode corresponding to the active state. If the user is in a resting state, switch to the mosquito repellent mode corresponding to the resting state.

[0095] like Figure 6 As shown, the multi-user usage process of the intelligent mosquito repellent method of the present invention is as follows:

[0096] Perform step S301, Bluetooth periodically scans for indoor IDs; then perform step S302.

[0097] Execute step S302, select a signal strength ID that meets the requirements. The signal strength is determined by the distance between the smart wearable device and the smart mosquito repellent device. When the distance is far, the signal strength is weak, and it can be assumed that the object is not indoors. A standard value can be preset for this signal strength, and the signal strength is judged to meet the requirements based on this standard value. Then execute step S303;

[0098] Execute step S303 to read data from the smart wearable device; then execute step S304.

[0099] Execute step S304 to determine if there is an ID sleeping. If yes, proceed to step S305; otherwise, proceed to step S306.

[0100] Perform step S305 to set up mosquito control using the sleep ID;

[0101] Perform step S306 to set the mosquito control function with the highest priority.

[0102] like Figure 7 As shown, the process of pairing the intelligent mosquito repellent method of the present invention with an intelligent wearable device is as follows:

[0103] Step S401 is executed, a smart wearable device is paired, then step S402 is executed;

[0104] Execute step S402 to determine whether Bluetooth pairing is successful. If yes, proceed to step S403; otherwise, proceed to step S404.

[0105] Execute step S403, assigning priorities according to the pairing order; then execute step S405.

[0106] Perform step S404 to re-pair, then perform step S401.

[0107] Perform step S405 to set the mosquito repellent mode; then perform step S406.

[0108] Execute step S406: Do you want to continue adding Bluetooth smart wearable devices? If yes, continue to step S401; otherwise, end.

[0109] The present invention has been described in detail above with reference to the accompanying drawings and embodiments. Those skilled in the art can make various modifications to the present invention based on the above description. Therefore, certain details in the embodiments should not be construed as limiting the present invention, and the scope of protection of the present invention shall be defined by the appended claims.

Claims

1. A smart mosquito repellent method, characterized in that, Includes the following steps: Establish communication connections with smart wearable devices; Regularly scan nearby smart wearable devices; When a smart wearable device is detected nearby, the system reads the data from the detected smart wearable device, finds a matching mosquito repellent mode based on the read data, and executes the obtained mosquito repellent mode. When no smart wearable devices are detected nearby, the unmanned mode is acquired and executed. Also includes: When multiple smart wearable devices are detected nearby, data from all detected smart wearable devices is read. Find the mosquito repellent mode corresponding to the highest priority smart wearable device from the read data and execute it; establish a correspondence table between smart wearable devices and mosquito repellent modes; when adding a smart wearable device, establish and store a correspondence table between the smart wearable device ID and the assigned priority. Also includes: Based on the data read from the smart wearable device, determine the state of the object wearing the smart wearable device; The system finds and executes a matching mosquito repellent mode based on the determined state of the object; the state of the object wearing the smart wearable device includes an active state and a resting state, and each active state and resting state is configured with a corresponding mosquito repellent mode. When establishing a communication connection with a smart wearable device, configure the corresponding mosquito repellent mode for the connected smart wearable device; Configure the corresponding start and stop times for the unmanned mode; The intelligent mosquito repellent device includes a base and a support ring on the base. The base is provided with a mosquito repellent liquid placement position and an electric mosquito repellent pad placement position for placing mosquito repellent liquid and electric mosquito repellent pad. The electric heating mosquito repellent module is connected to the mosquito repellent liquid placement position and the electric mosquito repellent pad placement position respectively, and can control whether the corresponding mosquito repellent liquid placement position and / or electric mosquito repellent pad placement position is powered on. The support ring is hollow inside and has a crisscrossing power grid. The high-voltage discharge module is connected to the power grid to control whether the power grid is energized. The ultraviolet lamp is mounted on the support ring, which controls whether the ultraviolet lamp is turned on, thereby enabling the activation or deactivation of the ultraviolet lamp mosquito repellent mode. The ultrasonic module is placed inside the base and can generate ultrasonic waves. The ultrasonic module can be turned on or off, thereby enabling or disabling the ultrasonic mosquito repellent mode. It also includes multiple sensors arranged at intervals along the circumference of the support ring to detect whether there are mosquitoes near the smart mosquito repellent device. When mosquitoes are detected, the high-voltage discharge module is activated to turn on the electric shock mosquito repellent mode. The sensor's function is activated when the smart mosquito repellent device is not in any mosquito repellent mode. The top of the support ring is equipped with an inlet, which connects to a liquid collection tank on the top of the support ring. Insect attractant can be added to the liquid collection tank through the inlet.

2. A smart mosquito repellent device, characterized in that, include: A communication unit is used to periodically scan nearby smart wearable devices and establish communication connections with the scanned smart wearable devices; The processing unit, connected to the communication unit, is used to receive data from the smart wearable device through the communication unit when a smart wearable device is detected nearby, find a matching mosquito repellent mode based on the obtained data, and execute it; it is also used to obtain an unmanned mode and execute it when no smart wearable device is detected nearby. When the processing unit obtains data from multiple smart wearable devices, it acquires the mosquito repellent mode corresponding to the smart wearable device with the highest priority and executes it. The ID of the smart wearable device and the assigned priority are stored in the storage module in the form of a mapping table. The storage module also stores a mapping table between smart wearable devices and mosquito repellent modes. After obtaining data from the smart wearable device, the processing unit determines the state of the object wearing the smart wearable device based on the obtained data, and then searches for and executes a matching mosquito repellent mode based on the determined state of the object. The state of the person wearing the smart wearable device includes an active state and a resting state, and each of the active and resting states is configured with a corresponding mosquito repellent mode. It also includes a configuration unit, which is used to configure the corresponding mosquito repellent mode for the connected smart wearable device when the communication unit establishes a communication connection with the smart wearable device; The unmanned mode can be configured with corresponding on / off times; The intelligent mosquito repellent device includes a base and a support ring on the base. The base is provided with a mosquito repellent liquid placement position and an electric mosquito repellent pad placement position for placing mosquito repellent liquid and electric mosquito repellent pad. The electric heating mosquito repellent module is connected to the mosquito repellent liquid placement position and the electric mosquito repellent pad placement position respectively, and can control whether the corresponding mosquito repellent liquid placement position and / or electric mosquito repellent pad placement position is powered on. The support ring is hollow inside and has a crisscrossing power grid. The high-voltage discharge module is connected to the power grid to control whether the power grid is energized. The ultraviolet lamp is mounted on the support ring, and the processing unit can control whether the ultraviolet lamp is turned on; The ultrasound module is placed inside the base and can generate ultrasound waves. The processing unit can control whether the ultrasound module is turned on. The processing unit is also connected to the electric heating mosquito repellent module and the high-voltage discharge module; It also includes multiple sensors arranged at intervals along the circumference of the support ring, which are connected to the processing unit to detect whether there are mosquitoes near the smart mosquito repellent device. When mosquitoes are detected, a mosquito detection signal is generated and sent to the processing unit. The processing unit activates the high-voltage discharge module based on the received mosquito detection signal to turn on the electric shock mosquito repellent mode. The sensor's function is activated when the smart mosquito repellent device is not in any mosquito repellent mode. The top of the support ring is equipped with an inlet, which connects to a liquid collection tank on the top of the support ring. Insect attractant can be added to the liquid collection tank through the inlet.

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