WO2016119751A1 - Intelligent horticulture system and external device in communication therewith - Google Patents

Abstract

The present invention relates to an intelligent horticulture system used for monitoring and controlling a horticultural apparatus in a horticultural zone. The horticulture system comprises: multiple sensors, for collecting environmental information of the horticultural zone; one or more horticultural apparatuses, for executing horticultural works according to a control instruction; a control center, for generating the control instruction on the basis of the environmental information; the sensors, the horticultural apparatuses, and the control center are in communication with each other to form Internet of things.

Description

Intelligent gardening system and external equipment in communication therewith Technical field

The invention relates to an intelligent gardening system.

The present invention relates to an external device in communication with an intelligent gardening system.

Background technique

With the development of technology, power tools are being used more and more widely, and working conditions are becoming more and more complicated. In order to design power tools that meet the needs of different working conditions, power tool manufacturers need to do a lot of on-site research. The research took a lot of time and effort, and often could not exhaust all the working conditions, resulting in the design of the power tools can not meet the needs of customers. In addition, when the power tool fails and needs to be repaired, the maintenance personnel need to go to the scene to analyze the situation, and then the diagnosis can be given, which brings inconvenience to the maintenance work.

Based on this, there is a strong need for power tools to record their own usage and pass the recorded data to the terminal device or network. Any authorized person can retrieve the required data from the network, and use this data to understand the use of the power tool and guide the related work.

Similarly, the battery pack also has the above technical problems, and the above requirements also exist in the design process of the battery pack.

With the application of Internet of Things technology in the garden, many companies have developed sensors and central control systems based on the Internet of Things. However, the current level of intelligence in the garden is still insufficient, requiring deep user intervention and lack of user habits and personalization. In-depth understanding and mining of requirements, and correspondingly provide targeted services.

Summary of the invention

The technical problem solved by the present invention is to provide an intelligent gardening system.

An intelligent gardening system for monitoring and controlling a gardening device in a gardening area, comprising: a plurality of sensors for collecting environmental information of a gardening area; one or more gardening devices, performing gardening work according to a control instruction; and a control center based on The environmental information generates the control instruction; the sensor, the gardening device, and the control center communicate with each other to form an Internet of Things.

Preferably, it also includes a self-mobile device that is capable of autonomous movement in the horticultural zone.

Preferably, at least one of the gardening devices is disposed on a self-mobile device, and the self-mobile device can It is enough to move autonomously in the gardening area.

Preferably, at least one of the sensors is located on a self-moving device that is capable of autonomous movement in a horticultural zone that moves with the self-moving device to collect environmental information for a plurality of locations.

Preferably, the sensor comprises a thermistor sensor located on the housing of the mobile device, the thermistor sensor detecting an ambient temperature value.

Preferably, the sensor comprises an environment detecting sensor for detecting humidity, temperature, wind speed, illumination, PM2.5, PM10, pollen concentration, ultraviolet intensity, rainfall, snowfall, and noise value in a horticultural environment. At least one of them.

Preferably, the sensor includes a soil detecting sensor that detects at least one of humidity, temperature, nutrient, and pH of the soil.

Preferably, the sensor comprises a vegetation detecting sensor that detects at least one of moisture, nutrients, pests, and height of the vegetation.

Preferably, the vegetation detecting sensor includes a lawn detecting sensor that detects at least one of density, distribution, grassy area, and weed of the lawn.

Preferably, the sensor includes a foreign matter detecting sensor that detects at least one of a pet, a feces, a metal object, a glass, a dead leaf, and a ground collapse in a gardening area.

Preferably, the gardening device comprises at least one of a sprinkler device, a fertilizing device, a plant trimming device, and a soil treating device.

Preferably, the intelligent gardening system further comprises a positioning device, the positioning device is located on the self-mobile device to acquire the location information of the specific location while acquiring the environmental information of the specific location, and the control module is configured according to the environment of the specific location. Information and location information, generating control commands that control the work modules at that particular location.

Preferably, the control center is located on the self-mobile device.

Preferably, the control center includes a memory that stores data monitored by the sensor and/or analysis/statistical data of the intelligent gardening system.

Preferably, the control center comprises a depth learning module, which learns user usage habits according to the input signal of at least one sensor and optimizes operating parameters of the intelligent gardening system.

Preferably, the Internet of Things transmits data in an encrypted form between at least some of the nodes.

Preferably, the control center includes a data sharing module, and the data sharing module is capable of transmitting data of the intelligent gardening system to a specific target controlled by the user.

Preferably, the specific target is a social network platform, and the data includes at least one of a gardening picture, a gardening achievement, and a gardening summary data.

Preferably, the specific target is a commercial data platform, and the data includes at least one of user horticultural condition information, user habit information, and horticultural material demand information.

Preferably, the intelligent gardening system is connected to an external Internet of Things and optimizes the working procedure of the intelligent gardening system based on data of the external Internet of Things.

Preferably, the external Internet of Things is a user's home Internet of Things.

Preferably, the intelligent gardening system has a distributed computing network comprising a plurality of sensors and/or a computing unit of a gardening device.

Preferably, the distributed computing network is connected to an external computing resource and receives a calculation result from an external computing resource.

Preferably, the intelligent gardening system comprises a D-GPS base station connected to an external IoT system and sharing signals of the D-GPS base station thereto.

Preferably, the self-mobile device is an unmanned aerial vehicle, and the unmanned aerial vehicle is provided with a camera.

Preferably, the UAV monitors the cleaning status of the user's roof and performs cleaning work accordingly.

Preferably, the unmanned aerial vehicle includes an air blowing structure that blasts the roof to perform a cleaning operation.

Preferably, the control center generates a garden design report according to the horticultural data generated in the work of the intelligent gardening system, and the garden design report includes garden vegetation distribution suggestions, gardening device layout suggestions, garden vegetation variety suggestions, and garden renovation construction plan. At least one.

Preferably, the horticultural device comprises an animal drive device that uses at least one of ultrasound, sound, and water column to drive the animal.

Preferably, the control center communicates with the user equipment.

Preferably, the control center sends at least one of reminding information, statistical information, gardening suggestion information, service information, and order information to the user.

Preferably, the control center receives control commands from the user device to perform operations required by the user.

Preferably, the intelligent gardening system includes multiple working modes, and the working mode includes at least one of a party mode, a housekeeping mode, a vacation mode, and a home mode, and the control center configures each sensor according to the mode in which it is located. The working state of the gardening equipment, wherein the intelligent gardening system configures working parameters for the gardening area to carry out the gathering; in the housekeeping mode, the intelligent gardening system configures working parameters suitable for the user to leave the home; In the mode, the intelligent gardening system configures working parameters for the user to be away from home for many days; in the home mode, the intelligent gardening system configures working parameters suitable for the user at home.

Preferably, in the party mode, a plurality of gardening devices leave a human activity area in the gardening area Or stopping the work; in the housekeeping mode, the gardening device performs a security work; in the vacation mode, closing some facilities in the gardening area; in the home mode, the intelligent gardening system adjusts the working parameters of the gardening device to Reduce working noise.

Preferably, the intelligent gardening system communicates with an external device, and sends data generated in the work to the communicated external device, where the external device includes at least one of a manufacturer device, a dealer device, a designer device, and a service provider device. One.

An external device in communication with at least one intelligent horticultural system that acquires data generated by an intelligent horticultural system at work and generates a data application policy based on the data, the external device being a manufacturer device.

Preferably, the data comprises at least one of data detected by the sensor, work and/or fault data of the gardening device, and analytical data of the intelligent gardening system.

Preferably, the data application strategy comprises at least one of a production plan improvement strategy, a manufacturing process and or a production process improvement strategy, an intelligent gardening system configuration adjustment strategy, a product oriented sales and or a recommendation strategy, and a security strategy.

An external device in communication with at least one intelligent gardening system, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, the external device being a dealer device .

Preferably, the data application strategy includes at least one of a stocking strategy, a logistics strategy, a product recommendation strategy, a maintenance reminding strategy, and a targeted marketing strategy.

An external device in communication with at least one intelligent gardening system, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, the external device being a service provider device .

Preferably, the data application policy includes at least one of a service schedule planning policy, a directed service policy, and a neighbor resource calling policy.

An external device in communication with at least one intelligent gardening system, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, the external device being a designer device .

Preferably, the data application policy includes at least one of a product definition policy and a product design policy.

A data transmission system for a power tool is provided.

Based on this, it is necessary to provide a system capable of transmitting data of a power tool to a mobile terminal or a network terminal.

A data transmission system for a power tool, comprising: a power tool; a terminal device having a network transmission function for performing data transmission and reception; a cloud having a network transmission function, and having data processing and analysis functions; The power tool, the terminal device and the cloud are each provided with a communication device; data transmission can be performed between the power tool, the terminal device and the cloud.

The data transmission system of the above power tool can transmit data such as operating parameters and usage conditions of the power tool to the terminal device or the cloud. Any authorized person can retrieve the required data from the cloud, and use the data to understand the use of the power tool, and analyze the information required according to the usage, and guide the related work, so that no staff is required. Conduct on-site research and analysis to facilitate work and reduce costs.

In one of the embodiments, the communication device performs data transmission between wired communication, radio frequency identification, Zigbee, Bluetooth, short-range wireless communication, WiFi, Bluetooth low energy or Z-Wave.

In one embodiment, the power tool includes a power tool storage module, the power tool storage module stores data, and the data stored by the power tool storage module is transmitted to the cloud via the terminal device. The power tool includes a power tool storage module that stores data of the power tool when data transmission is impossible, and then transmits the data to the cloud if data transmission is possible.

In one embodiment, the data transmission system of the power tool further includes a battery pack, the battery pack supplies power to the power tool, the battery pack is provided with a communication device, and the battery pack and the terminal device Data can be transferred to each other.

In one embodiment, the battery pack includes a battery pack storage module, the battery pack storage module stores usage information of the battery pack, and information stored by the battery pack storage module is transmitted to the The cloud.

In one embodiment, the battery pack and the power tool are mutually capable of data transmission, and the power tool includes a power tool storage module that stores data, and the power tool storage module stores data through the battery pack. The data transfer between the power tools is transferred to the storage module of the battery pack.

In one embodiment, the power tool includes at least one sensor, the data of the power tool or the external environment acquired by the sensor is transmitted through a communication device, and the cloud analyzes the data and generates corresponding information.

In one embodiment, the power tool includes a current sensor for detecting an operating current of the power tool, and the current sensor transmits the detected signal to the cloud in real time, the cloud being The signal produces corresponding information.

In one embodiment, the battery pack includes at least one sensor, and the data of the power tool or the external environment acquired by the sensor is transmitted through a communication device, and the cloud analyzes the data and generates corresponding information.

In one embodiment, the power tool includes a GPS module, and the GPS module transmits the acquired coordinate information to the cloud in real time, and the cloud compares the acquired coordinate information with a preset coordinate range, if The acquired coordinate information exceeds the preset coordinate range, and the cloud generates early warning information. The cloud obtains the coordinate information generated by the GPS module in real time, and compares it with the preset coordinate range, which can play the role of anti-theft.

In one embodiment, the power tool includes a fault detecting module, and when the power tool fails, the fault detecting module sends fault information of the power tool to the cloud, and the cloud analyzes the The fault information, and the repair information is generated, and the repair information is sent to the terminal device.

In one embodiment, the terminal device includes a display module, and the display module is configured to display the maintenance information.

In one embodiment, the terminal device includes a video call module, and the video call module performs a video call with the cloud.

In one embodiment, the data transmission system of the power tool further includes a software update module, the software update module is disposed on the power tool or/and the terminal device, and the software update module communicates with the corresponding The device is connected, and the cloud transmits the software upgraded data to the software update module, and the software update module upgrades and updates the corresponding power tool or/and the software of the terminal device.

In one embodiment, the data transmission system of the power tool further includes a charger that supplies power to the power tool, the charger is provided with a communication device, and the charger and the terminal device Data can be transferred to each other.

The invention has the beneficial effects that the data transmission system of the power tool and the battery pack provided by the invention can record the data during the use of the power tool and the battery pack, and transmit the data to the network, so that any authorized person can obtain the data through the network. Use the data in the process to understand its use process and analyze the information it needs according to the use process.

DRAWINGS

The above described technical problems, technical solutions, and advantageous effects of the present invention can be clearly understood from the following detailed description of the preferred embodiments of the present invention. Obtained.

The same numbers and symbols in the drawings and the description are used to represent the same or equivalent elements.

1 is a block diagram showing the structure of a first embodiment of the present invention;

Figure 2 is a block diagram showing the structure of a second embodiment of the present invention;

Figure 3 is a block diagram showing the structure of a third embodiment of the present invention;

Figure 4 is a block diagram showing the structure of a fourth embodiment of the present invention;

Figure 5 is a block diagram showing the structure of a fifth embodiment of the present invention;

Figure 6 is a block diagram showing the structure of a sixth embodiment of the present invention;

Figure 7 is a schematic structural view of a seventh embodiment of the present invention;

Figure 8 is a schematic view showing the structure of an eighth embodiment of the present invention.

1 power tool 30, garden

3 battery pack 31, sensor

5 charger 32, lawn mower

6 terminal equipment 33, control center

8 clouds 34, houses

10 battery pack storage module 35, intelligent gardening system

12 power tool storage module 36, user

13 terminal device storage module 37, user equipment

14 battery pack transmission module 38, neighbors

16 power tool transmission module 39, service provider

18 terminal equipment transmission module 40, manufacturer

20 battery pack receiving module 41, dealer

22 power tool receiving module 42, room Internet of Things system

24 terminal equipment receiving module 43, irrigation device

26 charger transmission module

detailed description

The detailed description and technical content of the present invention are set forth below with reference to the accompanying drawings.

First embodiment:

As shown in FIG. 1, the data transmission system of the electric power tool 1 includes a power tool 1, a terminal device 6, and a cloud 8. The power tool 1 can be a hand-held power tool, a garden power tool, etc., and the power tools include but are not limited to electric drills, electric wrenches, electric screwdrivers, electric hammers, impact drills, electric planers, lawn mowers, lawn mowers, and the like. The terminal device 6 can be an electronic device such as a mobile phone, a dedicated handheld device, or a tablet computer.

The power tool 1, the terminal device 6, and the cloud 8 are each provided with communication means for transmitting or/and receiving data, and in the present embodiment, data transmission between the above three is realized by these communication means. The power tool 1 can perform data transmission with the terminal device 6. The terminal device 6 and the cloud 8 can perform data transmission, so that the terminal device 6 can further transmit the data received from the power tool 1 to the cloud 8, and the data of the cloud 8 can also be transmitted to the power tool 1 via the terminal device 6. The data transmission between the power tool 1 and the terminal device 6, and the data transmission between the terminal device 6 and the cloud 8 can be by wire or wireless. The wired method is directly transmitted through the data interface or data line. Wireless methods include radio frequency identification, Zigbee, Bluetooth, Near Field Communication, WiFi, Bluetooth Low Energy or Z-Wave for data transmission. A person of ordinary skill in the art can select a corresponding type of communication device by using different data transmission methods.

With continued reference to FIG. 1 , the power tool 1 can also include a power tool storage module 12 . The communication device of the power tool 1 includes a power tool transmission module 16 that transmits data to/and receives data transmitted by the terminal device 6. The power tool storage module 12 is used to store data during use of the power tool 1. The data includes at least one of the following: a user, a usage environment, a frequency of use, a place of use, and operating parameters during use. The operating parameters of the power tool 1 include at least one of voltage, current, temperature, speed, torque, and the like.

Referring to FIG. 1 , the power tool transmission module 16 is electrically connected to the power tool storage module 12 , acquires information stored by the power tool storage module 12 , and transmits the stored information to the terminal device 6 .

With continued reference to FIG. 1, the terminal device 6 includes a terminal device storage module 13, a terminal device transmission module 18, and a terminal device receiving module 24. The communication device of the terminal device 6 includes a terminal device transmission module 18 and a terminal device receiving module 24. The terminal device receiving module 24 receives the data transmitted from the power tool transmission module 16 and transmits the received data to the terminal device storage module 13. The terminal device storage module 13 stores the data transmitted from the terminal device receiving module 24 and further transfers the stored data to the terminal device transmission module 18. The terminal device transmission module 18 transmits the information transmitted from the terminal device storage module 13 to the cloud 8.

In the above description, the data of the electric power tool 1 is finally delivered to the cloud 8 via the terminal device 6. Any authorized person can obtain the data of the power tool 1 from the cloud 8 and extract the required information from it.

In this embodiment, the power tool 1 may not include the power tool storage module 12, and the terminal is provided. The standby device 6 may also not include the terminal device storage module 13. In this case, the power tool 1 transmits data to the terminal device 6 in real time, and the terminal device 6 transmits data to the cloud terminal 8 in real time.

Those skilled in the art can understand that any authorized person can also publish operation information in the cloud 8. The operation information includes an operation instruction to the electric power tool 1. The operation information of the cloud 8 is transmitted to the terminal device transmission module 18, and transmitted by the terminal device receiving module 24 to the power tool 1.

The data described above can be obtained by a person skilled in the art by providing a corresponding module or device on the power tool 1. The following is a specific example.

The power tool 1 may include at least one sensor, and the sensor may be used to acquire data of a power tool or an external environment, including but not limited to a temperature sensor, a humidity sensor, a photoelectric sensor, a speed sensor, a Hall sensor, etc., through corresponding sensors Obtain the temperature and humidity of the external environment or the operating parameters during the use of the power tool. The operating parameters of the power tool can be voltage, current, temperature, speed, torque and other data. Those skilled in the art will appreciate that different sensors and corresponding locations of the sensors can be provided in order to obtain different data. The power tool 1 transmits the acquired data to the cloud 8, and the cloud 8 analyzes and processes the data, and then the cloud 8 then sends the action information of the related work. These motion information can be displayed on the terminal device 6, and then the operator manually operates the power tool 1; or the motion information is transmitted to the power tool 1 directly or through the terminal device 6, and the power tool 1 automatically adjusts the related operations.

A current sensor can be disposed on the power tool 1, and the current sensor can be used to detect the working current of the power tool. The current sensor can be a shunt, an electromagnetic current transformer, an electronic current transformer, or the like. When the operating current detected by the current sensor exceeds the threshold, it indicates that the power tool 1 is in the working state, and the current sensor sends a signal indicating that the power tool 1 is working, and the signal is transmitted to the cloud 8 through the communication device provided by the power tool 1. The cloud 8 can preset the use time limit, the use period, the use frequency, and the like of the power tool 1. When the power tool 1 exceeds the use time limit or is not in the use period or the use frequency is too high, the power tool 1 is unreasonable. In the use state, the cloud 8 sends an alert message, which can be transmitted to the terminal device 6, reminding the operator that the power tool 1 is in a corresponding unreasonable use state; or the warning signal is transmitted to the power tool 1, and the power tool 1 issues a corresponding The signal, which can be a buzzer, a flashing light, etc., to alert the user that the power tool 1 is in an unreasonable state of use.

The power tool 1 may further include a GPS module that will acquire coordinate information of the power tool 1 to confirm the position of the power tool 1. The cloud 8 stores a preset coordinate range. If the acquired coordinate information exceeds the preset coordinate range, the cloud 8 sends an early warning message, and the warning information can be transmitted to the terminal device 6 to remind the operator that the power tool 1 may be stolen; Or the warning message When it is delivered to the power tool 1, the power tool 1 sends a corresponding signal, which can be a buzzer, a flashing light, etc., thereby achieving the function of anti-theft.

The power tool 1 may further include a fault detecting module. When the power tool fails, the fault detecting module sends the fault information of the power tool 1 to the cloud 8, and the cloud 8 analyzes the fault information, generates maintenance information, and sends the repair information to the Terminal device 6. The terminal device 6 is provided with a display module, and the maintenance information can be displayed in the display module in the form of text or video or picture, so that the maintenance information can be easily obtained by the repairer. Of course, the maintenance information can also be obtained by the repairer in the form of sound or the like, and those skilled in the art can understand that the above display module is also replaced by the corresponding module.

The terminal device 6 may further include a video call module that performs a video call with the cloud 8 through a communication device provided on the terminal device 6. When the repairer cannot repair the power tool 1 through the maintenance information sent by the cloud, the technician can remotely instruct the repairer to repair the power tool by making a video call with the repairer holding the terminal device 6 in the cloud.

The data transfer system of the power tool may further include a software update module, which may be provided on the power tool 1 or/and the terminal device 6. When the power tool 1 sets the software update module, the software update module is connected to the power tool transmission module 16, and the cloud 8 transmits the software upgrade data to the software update module, and the software update module upgrades and updates the control on the power tool 1. The program of the motherboard or other devices such as sensors, so that the program can be adjusted according to different needs. When the terminal device 6 sets the software update module, the software update module is connected to the terminal device transmission module 18, and the cloud 8 transmits the software upgrade data to the software update module, and the software update module upgrades and updates the application on the terminal device 6. Programs, which can update applications based on different needs, such as patching bugs, adding new features, and more. Of course, the power tool 1 and the terminal device 6 can each be provided with a software update module for updating the corresponding programs on the power tool 1 and the terminal device 6, respectively, to obtain a good user experience.

The power transmission system of the power tool can obtain the user usage information by using various sensors or modules or combinations of devices set on various power tools described above, and send the information to the cloud 8 and the cloud 8 pairs. After analyzing this information, the ratio of garden area, garden area of various types, and the like are obtained. The power tool supplier as the authorized person can obtain corresponding information from the cloud 8 to recommend the corresponding power tool to the user, and the information can be displayed in the display module in the terminal device 6.

With continued reference to FIG. 1, the data transmission system of the power tool further includes a battery pack 3 that can perform data transmission with the power tool 1, and a charger 5 that can perform data transmission with the battery pack 3. It will be understood by those skilled in the art that the data transmission system of the power tool may not include at least one of the battery pack 3 or the charger 5.

The battery pack 3 includes a battery pack storage module 10, a battery pack transport module 14, and a battery pack receiving module 20. The communication device of the battery pack 3 includes a battery pack transfer module 14 and a battery pack receiving module 20. The charger 5 includes a charger transmission module 26. The charger transmission module 26 transmits the usage information during use of the charger 5 to the battery pack receiving module 20 of the battery pack 3.

These usage information can be obtained by setting a corresponding sensor on the battery pack 3 to obtain the battery pack's power, the number of times of charging, the temperature, the full charge, and the like. The battery pack receiving module 20 transmits the received information to the battery pack storage module 10. The battery pack storage module 10 stores usage information during use of the battery pack 3, and also stores usage information of the charger 5 received by the battery pack receiving module 20. The battery pack storage module 10 further transfers the stored information to the battery pack transfer module 14. The battery pack transmission module 14 communicates the received information to the power tool receiving module 22. The power tool receiving module 22 passes the received information to the power tool storage module 12 and stores it. All of the information stored by the power tool storage module 12 can be further passed to the power tool transmission module 16 for subsequent further outward transfer to the cloud 8. The cloud 8 analyzes the data. When the cloud 8 judges that the battery pack 3 is aging, the user is prompted to replace the battery pack 3 on the terminal device 6.

When the cloud 8 issues the operation information, the reverse process described above can be transmitted to the terminal device 6, the power tool 1, the battery pack 3, and the charger 5 one by one. I will not repeat them here.

Second embodiment:

Referring to FIG. 2, the data transmission system of the power tool 1 includes a power tool 1 and a terminal device 6. The structure of the electric power tool 1 and the data transfer between it and the terminal device 6 are the same as those of the first embodiment. Different from the first embodiment, in this embodiment, the data of the terminal device 6 does not need to be further transmitted to the cloud 8.

Third embodiment:

Referring to FIG. 3, the data transmission system of the power tool 1 includes a power tool 1 and a cloud 8. The structure of the electric power tool 1 is the same as that of the embodiment shown in Fig. 1. Different from the embodiment shown in FIG. 1 , in the present embodiment, the power transmission module of the power tool 1 directly transmits data to the cloud 8 . The data transfer between the power tool 1 and the cloud 8 is performed wirelessly. Wireless methods include radio frequency identification, Zigbee, Bluetooth, Near Field Communication, WiFi, Bluetooth Low Energy or Z-Wave.

Fourth embodiment:

Referring to FIG. 4, the data of the data transmission system of the power tool 1 is transmitted by the battery pack 3 and the terminal device 6, and the terminal device 6 transmits data with the cloud 8. The battery pack 3 can perform data transfer with the terminal device 6. The terminal device 6 and the cloud 8 can perform data transmission, so that the terminal device 6 can further transmit the data received from the battery pack 3 to the cloud 8, and the data of the cloud 8 can also be transmitted to the battery pack 3 via the terminal device 6. Data transmission between the battery pack 3 and the terminal device 6, and the terminal The data transmission between the device 6 and the cloud 8 can be by wire or wireless. The wired method is directly transmitted through the data interface or data line. Wireless methods include radio frequency identification, Zigbee, Bluetooth, Near Field Communication, WiFi, Bluetooth Low Energy or Z-Wave.

With continued reference to FIG. 4, the battery pack 3 includes a battery pack storage module 10 and a battery pack transport module 14. The battery pack storage module 10 is used to store usage information during use of the battery pack 3. The usage information includes the user, the usage environment, the frequency of use, the place of use, and operating parameters during use. The operating parameters of the battery pack 3 include voltage, current, temperature, and the like. The battery pack transmission module 14 is electrically connected to the battery pack storage module 10, acquires information stored in the battery pack storage module 10, and transmits the stored information to the terminal device 6.

With continued reference to FIG. 4, the terminal device 6 includes a terminal device storage module 13, a terminal device transmission module 18, and a terminal device receiving module 24. The terminal device receiving module 24 receives the information transmitted from the battery pack transmission module 14 and transmits the received information to the terminal device storage module 13. The terminal device storage module 13 stores the information transmitted from the terminal device receiving module 24 and further transfers the stored information to the terminal device transmission module 18. The terminal device transmission module 18 transmits the information transmitted from the terminal device storage module 13 to the cloud 8.

In the above description, the usage information of the battery pack 3 is finally delivered to the cloud 8 via the terminal device 6. Any authorized person can obtain the usage information of the power tool 1 from the cloud 8 and extract the required information from it.

In the present embodiment, the battery pack 3 may not include the battery pack storage module 10, and the terminal device 6 may not include the terminal device storage module 13. In this case, the battery pack 3 transmits data to the terminal device 6 in real time, and the terminal device 6 transmits data to the cloud 8 in real time.

Those skilled in the art can understand that any authorized person can also publish operation information in the cloud 8. The operation information includes an operation instruction for the battery pack 3. The operation information of the cloud 8 is transmitted to the battery pack 3 via the terminal device 6.

Referring to FIG. 4, the data transmission system of the electric power tool 1 can also be a charger 5 for data transmission with the battery pack 3.

The charger 5 includes a charger transmission module 26. The charger transmission module 26 transmits the usage information during use of the charger 5 to the battery pack receiving module 20 of the battery pack 3. The battery pack receiving module 20 transmits the received information to the battery pack storage module 10. The battery pack storage module 10 stores usage information during use of the battery pack 3, and also stores usage information of the charger 5 received by the battery pack receiving module 20. The battery pack storage module 10 further transfers the stored information to the battery pack transfer module 14. The battery pack transmission module 14 passes the received information to the terminal device receiving module 24 and finally to the cloud 8. When the cloud 8 issues the operation information, the reverse process can be transmitted to the terminal device 6, the battery pack 3, and the Charger 5. I will not repeat them here.

The power tool 1 includes a power tool storage module 12 and a power tool transmission module 16. The power tool 1 only includes a transmitter for a communication device for transmitting data. The power tool storage module 12 stores usage information during use of the power tool 1 and transmits it to the power tool transmission module 16. The power tool transmission module 16 transmits the received information to the battery pack receiving module 20 of the battery pack 3. The battery pack receiving module 20 transmits the received information to the battery pack storage module 10. The battery pack storage module 10 stores usage information during use of the battery pack 3, and also stores usage information of the power tool 1 received by the battery pack receiving module 20. The battery pack storage module 10 further transfers the stored information to the battery pack transfer module 14. The battery pack transmission module 14 passes the received information to the terminal device receiving module 24 and finally to the cloud 8. When the cloud 8 issues the operation information, the reverse process described above can be transmitted to the terminal device 6, the battery pack 3, and the charger 5 one by one. I will not repeat them here.

Fifth embodiment:

As shown in FIG. 5, the data transmission system of the electric power tool 1 compared with the fourth embodiment includes a power tool 1, a battery pack 3, a charger 5, and a terminal device 6. The structure of the battery pack 3 and the data transfer between it and the terminal device 6 are the same as those shown in FIG. Different from the embodiment shown in FIG. 4, in the present embodiment, the data of the terminal device 6 does not need to be further transmitted to the cloud 8.

Sixth embodiment:

As shown in FIG. 6, the data transmission system of the electric power tool 1 compared with the fourth embodiment includes a power tool 1, a battery pack 3, a charger 5, and a cloud 8. The structure of the battery pack 3 is the same as that of the battery pack 3 in the fourth embodiment. Different from the fourth embodiment, in the embodiment, the data package module of the battery pack 3 directly transmits the data to the cloud 8. The data transfer between the battery pack 3 and the cloud 8 is performed wirelessly.

The above embodiments are equally applicable to data transmission between the charger 5 and the terminal device 6, and data transmission between the charger 5 and the cloud 8 directly. I will not repeat them here.

Seventh embodiment:

As shown in FIG. 7, this embodiment discloses an intelligent gardening system based on the Internet of Things.

The intelligent gardening system is disposed in the garden 30, including a sensor 31 that detects various types of data in the garden 30; a gardening device that performs gardening work, such as a lawn mower 32 and an irrigation device 43; and control of receiving information of the sensor 31 and the gardening device Center 33 and so on. The intelligent gardening system may further include a self-moving device, and the aforementioned sensor 31 may be installed on the mobile device; the self-moving device may also install various gardening devices to form a smart lawn mower, a smart sprinkler, a smart ripper, etc. . The intelligent horticultural system can also communicate with the room Internet of Things in the user's house 34 to further collaborate and interact with each other to further optimize user experience.

The control center 33 may be arranged on the self-mobile device, or in the docking station of the mobile device, or in a fixed location in the user's home or in the garden, or on a remote server in the cloud. In one embodiment, the sensor and the gardening device are connected to the self-mobile device or the docking station, transmit sensor-detected data and usage data of the gardening device, collect aggregated received data from the mobile device or the docking station, and perform preliminary analysis. After processing, it is transmitted to the control center, which can save network resources and reduce the load of the cloud server. The Internet of Things transmits data in encrypted form between at least some of the nodes.

The aforementioned various sensors, gardening devices, control centers, and the like constitute an Internet of Things, and the Internet of Things has various communication methods, for example, zigbee, wifi, cellular mobile networks such as 4G networks, etc., and different node paths may be transmitted in the same manner or different.

The intelligent gardening system further includes a positioning device, the positioning device is located on the self-mobile device to acquire the location information of the specific location while acquiring the environmental information of the specific location, and the control module is configured according to the environmental information and the location information of the specific location. A control command is generated that controls the work module at that particular location.

The control center includes a memory that stores sensor monitored data and/or analysis/statistic data of the intelligent gardening system.

The sensors in this system are described below.

As mentioned earlier, the sensor can be fixedly placed in the garden, or it can be carried by the mobile device and moved in the garden to collect data at various locations. For example, a temperature sensor, a humidity sensor, a photoelectric sensor, etc. can be provided on the intelligent lawn mower. The temperature sensor can be used to detect the temperature of the lawn or the air, the humidity sensor can be used to detect the humidity of the lawn or the air, and the photoelectric sensor can be used to detect the lawn. the height of. The temperature sensor can be a thermistor placed on the mower housing to accurately detect the ambient temperature in real time. The above sensors transmit the acquired data to the cloud 8 or the control center, and the cloud 8 or the control center processes and analyzes the data through the built-in software, and sends the action information of the relevant work to the terminal device 6 or the intelligent lawn mower and the like. The gardening device reminds the operator to perform fertilization, watering or adjusting the cutting height of the intelligent mower.

More specifically, the sensor may include an environmental detection sensor that detects at least humidity, temperature, wind speed, illumination, PM2.5, PM10, pollen concentration, ultraviolet intensity, rainfall, snowfall, and noise value in the horticultural environment. One. Based on the test data, the control center develops appropriate strategies to control the work of the horticultural system. For example, control irrigation and mowing systems work when temperature, humidity, wind speed, and illumination meet predetermined conditions. When PM2.5, PM10, pollen concentration, UV intensity, etc. exceed the preset threshold, send information to the user equipment to remind the user to avoid entering the garden or taking protection. Measures. When the rain and snow noise meets the preset conditions, the user is reminded to take protective measures, such as taking out an umbrella and wearing more clothes.

The sensor may include a soil detecting sensor that detects at least one of humidity, temperature, nutrient, and pH of the soil. Similarly, based on the test data, the control center develops strategies to control the work of the horticultural system. For example, control irrigation and mowing systems, such as fertilization or irrigation, when temperature, humidity, nutrients, and pH meet predetermined conditions.

The sensor may include a vegetation detecting sensor that detects at least one of moisture, nutrients, pests, and height of the vegetation. Similarly, based on the test data, the control center develops strategies to control the work of the horticultural system. For example, when the vegetation is undernourished, the targeted fertilization is watered, or an alert message is sent to the user.

The sensor may include a vegetation detecting sensor that detects at least one of moisture, nutrients, pests, and height of the vegetation. The vegetation detecting sensor includes a lawn detecting sensor that detects at least one of density, distribution, grassy area, and weed of the lawn. Similarly, based on the test data, the control center develops strategies to control the work of the horticultural system. For example, the lower density portion of grass increases the frequency of irrigation and fertilization, reduces the frequency of mowing, and the like. Remind users to weed in specific areas and sow in specific areas.

The sensor may also include a camera that may be located on the self-mobile device or in a fixed position in the garden, such as height. The camera can collect vegetation information and provide the control center with analysis of the growth health of the vegetation. Before the vegetation, a specific identifier such as a QR code or label can be placed. After the camera collects the vegetation and the identification information, the control center can connect the plant to the specific location. Get up and order the horticultural device for directional maintenance. The camera can also collect intrusion information, such as people or animals entering the garden.

The gardening apparatus of the present embodiment will be described below.

As previously mentioned, the gardening device can be a self-mobile device, such as an unmanned aerial vehicle, with a camera on the unmanned aerial vehicle. The UAV monitors the cleanliness of the user's roof and performs cleaning work accordingly. Specifically, the unmanned aerial vehicle includes an air blowing structure that blasts the roof to perform a cleaning operation. The self-moving device may also be the aforementioned lawn mower, sprinkler, or the like.

The horticultural device can also provide irrigation equipment, including water sources, valves, and pipelines, to supply irrigation to specific areas.

The horticultural device can also include an animal repellent device that uses at least one of ultrasound, sound, and water column to drive the animal.

The control center of this embodiment will be described below.

The control center has a self-learning function that can be based on historical data, work conditions, user habits, etc. Adjust the working parameters of the intelligent gardening system to optimize the experience. For example, the control center includes a deep learning module, and the deep learning module learns the change state of the garden after being processed, and the user's use based on the received sensor signal and based on the spatial distribution of the sensor and the time distribution of the signal. Habits, etc., improve working parameters. The deep learning module can also be learned using a neural network.

The control center has a data sharing module that can release information to a specific platform if the user allows it.

For example, data is sent to a social networking platform, including horticultural pictures, horticultural achievements, horticultural summary data, and the like. Specifically, it can publish photos such as gardens, garden rankings in the community, some statistics of the garden such as greening rate, flowering time, and some other information, such as gardening time saved for the user, energy saving and emission reduction data of the gardening system. and many more.

For another example, the data is sent to the commercial data platform, and the data includes user horticultural status information, user habit information, horticultural material demand information, and the like. For example, when the horticultural system lacks fertilizer or grass flowers, the information is sent to the corresponding dealer, and the dealer can provide the corresponding service.

The control center can also control the horticultural system to realize distributed computing and form a distributed computing network. Specifically, the control center summarizes the idle computing power of the MCU and CPU of each device in the horticultural system for data processing and analysis. Even the control center connects the distributed computing network to external computing resources and receives calculations from external computing resources.

The control center generates a garden design report according to the horticultural data generated in the work of the intelligent gardening system, and the garden design report includes at least one of a garden vegetation distribution suggestion, a gardening device layout suggestion, a garden vegetation variety suggestion, and a garden renovation construction plan.

The intelligent gardening system includes a D-GPS base station that is connected to an external IoT system and shares signals of the D-GPS base station thereto.

As shown in FIG. 8, the control center of the present embodiment is connected to an external Internet of Things, and the working program of the intelligent gardening system is optimized based on the data of the external Internet of Things. The intelligent gardening system 35 can be connected to external devices such as the user device 37 of the user 36, the service provider 39, the manufacturer 40, the dealer 41, the user's own home Internet of Things 42, and the neighboring community of the community 38 of the gardening Internet of Things or home. Internet of Things and more. In this way, the intelligent gardening system communicates with the external device to transmit data generated in the work to the external device to be communicated, and the external device includes at least one of a manufacturer device, a dealer device, a designer device, and a service provider device. The external device acquires data generated by the intelligent gardening system at work and generates a data application policy based on the data. The data includes at least one of data detected by the sensor, work and/or failure data of the gardening device, and analytical data of the intelligent gardening system.

When the intelligent gardening system 35 is connected to the user equipment 37, at least one of reminder information, statistical information, gardening suggestion information, service information, and order information may be transmitted to the user. For example, an intelligent gardening system can alert users to specific problems in the garden and require certain maintenance operations, such as spraying pesticides when pests occur. Statistics include statistics on irrigation water in the garden, statistics on mowing counts, grass height, and flowering data. The service information includes suggestions for providing specific products or services to the user, such as informing the user of the purchase information and location of the appropriate pesticide or grass species, or what equipment the user needs to add, such as alerting the user when the user is found to have a hard soil. Buy a ripper, and remind the user to buy a lawn mower when the grass grows faster. The order information includes the logistics information of the items purchased by the user.

At the same time, the control center of the intelligent gardening system 35 receives control commands from the user device to perform the operations required by the user. For example, according to the user's specific instructions and user preferences, the grassland is more lush or tidy, and the specific flowers are fertilized.

As another example, a specific mode is entered according to a user instruction. The intelligent gardening system includes a plurality of working modes, and the working mode includes at least one of a party mode, a housekeeping mode, a vacation mode, and a home mode, and the control center configures the working states of the respective sensors and the gardening devices according to the mode in which they are located. In the party mode, the intelligent gardening system configures working parameters for a meeting in the gardening area. For example, a plurality of gardening devices, such as a person moving away from a human activity area in the gardening area or stopping work, the irrigation device stops watering. In the housekeeping mode, the intelligent gardening system configures working parameters suitable for the user to leave home. For example, the gardening device includes performing security work from the mobile device, patrolling and photographing at home, alarming or notifying the user when someone enters. In the vacation mode, the intelligent gardening system configures operating parameters for the user to be away from home for many days, for example, turning off some of the water and electricity facilities in the gardening area, but maintaining the necessary garden maintenance actions. In the home mode, the intelligent gardening system configures working parameters for the user to be at home. For example, the intelligent gardening system adjusts the operating parameters of the gardening device to reduce operating noise, avoiding users, and the like.

When the external device is a manufacturer device. The data application strategy includes at least one of a production plan improvement strategy, a manufacturing process and or a production process improvement strategy, an intelligent gardening system configuration adjustment strategy, a product oriented sales and or recommendation strategy, and a security strategy. Specifically, for example, when the manufacturer device receives a user who frequently uses a certain type of gardening device without using other devices, or frequently uses certain functions, adjusts the yield of the related gardening device, improves its configuration, cancels unnecessary functions, and the like. Produce specific goods or distributions for the region when certain regional preferences of the product are discovered.

When the external device is a dealer device, the data application strategy includes at least one of a stocking strategy, a logistics strategy, a product recommendation strategy, a maintenance reminding strategy, and a targeted marketing strategy. Specifically, for example, the dealer receives a targeted stocking and logistics strategy when the user receives a certain type of gardening tool in a particular season. When it is found that a certain type of tool is lacking in a certain garden system, marketing is directed to the area. Receiving the garden When the damage of the art device is damaged, provide a reminder for the repair and prepare in advance.

When the external device is a service provider device, the data application policy includes at least one of a service schedule planning policy, a directed service policy, and a neighbor resource calling policy. For example, after receiving the service demand information of several garden systems, the service provider arranges the service schedule and provides targeted services; even when a certain garden device is missing in a garden, the user is temporarily called with the consent of the user. The neighbor's device is working for it.

When the external device is a designer device, the data application policy includes at least one of a product definition policy and a product design strategy. For example, after receiving user preferences and garden data for a particular region, product definitions and market segments are precisely defined to define a product definition strategy. Targeted product design strategies, etc., when certain gardening devices are easily damaged or other user feedback is received.

When the external device is a community other IoT system, the intelligent gardening system can network multiple IoT systems to share resources and information, such as sharing Dgps base stations, sharing part of gardening devices such as mowing robots.

When the external device is the user's own indoor Internet of Things, it can share all kinds of data in the home and realize intelligent work and work together. For example, according to the PM2.5 information detected by the sensors in the garden, the windows are automatically switched, according to the owner's indoor work and rest. Adjust the working hours of the gardening equipment in the garden, avoiding the rest time of the owner.

The technical features of the above-described embodiments may be arbitrarily combined. For the sake of brevity of description, all possible combinations of the technical features in the above embodiments are not described. However, as long as there is no contradiction between the combinations of these technical features, All should be considered as the scope of this manual.

The above-described embodiments are merely illustrative of several embodiments of the present invention, and the description thereof is more specific and detailed, but is not to be construed as limiting the scope of the invention. It should be noted that a number of variations and modifications may be made by those skilled in the art without departing from the spirit and scope of the invention. Therefore, the scope of the invention should be determined by the appended claims.

Claims (44)

1. An intelligent horticultural system for monitoring and controlling horticultural devices in a horticultural area, including:

   Multiple sensors to collect environmental information of the gardening area;

   One or more gardening devices that perform gardening work in accordance with control instructions;

   The control center generates the control command based on the environmental information; and the sensor, the gardening device, and the control center communicate with each other to form an Internet of Things.
2. The intelligent gardening system of claim 1 further comprising a self-mobile device capable of autonomous movement in the horticultural zone.
3. The intelligent gardening system of claim 2 wherein at least one of said gardening devices is disposed on a self-mobile device that is capable of autonomous movement in a horticultural zone.
4. The intelligent gardening system according to claim 2, wherein at least one of said sensors is located on a self-moving device capable of autonomous movement in a horticultural zone, said sensor being moved from the mobile device to collect more Environmental information for each location.
5. The intelligent gardening system of claim 4 wherein said sensor comprises a thermistor sensor located on the housing of the mobile device, said thermistor sensor detecting an ambient temperature value.
6. The intelligent gardening system according to claim 1, wherein the sensor comprises an environmental detecting sensor, and the environment detecting sensor detects humidity, temperature, wind speed, illumination, PM2.5, PM10, pollen concentration in a horticultural environment. At least one of ultraviolet intensity, rainfall, snowfall, and noise value.
7. The intelligent gardening system according to claim 1, wherein said sensor comprises a soil detecting sensor that detects at least one of humidity, temperature, nutrient, and pH of the soil.
8. The intelligent gardening system according to claim 1, wherein the sensor comprises a vegetation detecting sensor that detects at least one of moisture, nutrients, pests, and height of the vegetation.
9. The intelligent gardening system according to claim 8, wherein the vegetation detecting sensor comprises a lawn detecting sensor that detects at least one of a density, a distribution, a grassy area, and a weed of the lawn.
10. The intelligent gardening system according to claim 1, wherein the sensor comprises a foreign matter detecting sensor that detects at least at least a pet, a feces, a metal object, a glass, a dead leaf, and a ground collapse in a gardening area. One.
11. The intelligent gardening system according to claim 1, wherein said gardening device comprises a spray At least one of a irrigation device, a fertilizer application device, a plant trimming device, and a soil treatment device.
12. The intelligent gardening system according to claim 2, wherein the intelligent gardening system further comprises a positioning device located on the self-mobile device to acquire the environmental information of the specific location while acquiring the specific location. Position information, the control module generates a control instruction for controlling the working module at the specific location according to the environmental information and the location information of the specific location.
13. The intelligent gardening system of claim 2 wherein said control center is located on a self-mobile device.
14. The intelligent gardening system of claim 1 wherein said control center includes a memory that stores sensor monitored data and/or analytical/statistical data of an intelligent gardening system.
15. The intelligent gardening system according to claim 1, wherein said control center comprises a depth learning module, said depth learning module learning user usage habits according to signals input from at least one sensor, and optimizing work of the intelligent gardening system parameter.
16. The intelligent gardening system according to claim 1, wherein said Internet of Things transmits data in an encrypted form between at least some of the nodes.
17. The intelligent gardening system of claim 1 wherein said control center includes a data sharing module, said data sharing module being operative to transmit data of the intelligent gardening system to a particular target.
18. The intelligent gardening system according to claim 17, wherein said specific target is a social networking platform, and said data comprises at least one of a gardening picture, a gardening achievement, and a gardening summary data.
19. The intelligent gardening system according to claim 17, wherein the specific target is a commercial data platform, and the data includes at least one of user horticultural condition information, user habit information, and horticultural material demand information.
20. The intelligent gardening system of claim 1 wherein said intelligent gardening system is coupled to an external Internet of Things and optimizes the working program of the intelligent gardening system based on data from the external Internet of Things.
21. The intelligent gardening system according to claim 20, wherein said external Internet of Things is a user's home Internet of Things.
22. The intelligent gardening system of claim 1 wherein said intelligent gardening system has a distributed computing network comprising a plurality of sensors and/or a computing unit of a gardening device.
23. The intelligent gardening system of claim 22 wherein said distributed computing network is coupled to external computing resources to receive computing results from external computing resources.
24. The intelligent gardening system according to claim 1, wherein said intelligent gardening system package Including a D-GPS base station, the intelligent gardening system is connected to an external IoT system and shares signals of the D-GPS base station.
25. The intelligent gardening system according to claim 2, wherein the self-mobile device is an unmanned aerial vehicle, and the unmanned aerial vehicle is provided with a camera.
26. The intelligent gardening system according to claim 25, wherein said unmanned aerial vehicle monitors a cleaning state of a user's roof and performs a cleaning operation accordingly.
27. The intelligent gardening system according to claim 26, wherein said unmanned aerial vehicle comprises an air blast structure that blasts the roof to perform a cleaning operation.
28. The intelligent gardening system according to claim 1, wherein the control center generates a garden design report based on gardening data generated in the work of the intelligent gardening system, the garden design report including garden vegetation distribution suggestions, gardening device layout suggestions At least one of the garden vegetation variety proposal and the garden renovation construction plan.
29. The intelligent horticultural system according to claim 1, wherein said horticultural device comprises an animal squirting device that uses at least one of ultrasonic waves, sounds, and water columns to drive the animals.
30. The intelligent gardening system of claim 1 wherein said control center is in communication with a user device.
31. The intelligent gardening system according to claim 30, wherein the control center transmits at least one of reminder information, statistical information, gardening suggestion information, service information, and order information to the user.
32. The intelligent gardening system of claim 30 wherein said control center receives control commands from the user device to perform operations required by the user.
33. The intelligent gardening system according to claim 1, wherein the intelligent gardening system comprises a plurality of working modes, the working mode comprising at least one of a party mode, a housekeeping mode, a vacation mode, and a home mode. The control center configures the working states of the various sensors and gardening equipment according to the mode in which the intelligent gardening system configures working parameters for the gardening area to carry out the gathering; in the housekeeping mode, the intelligent gardening system is It is suitable for the user to configure the working parameters when leaving home; in the vacation mode, the intelligent gardening system is configured to be suitable for the user to leave the home for many days; in the home mode, the intelligent gardening system configures the working parameters for the user to be at home.
34. The intelligent gardening system according to claim 33, wherein in the party mode, a plurality of gardening devices leave a human activity area in the gardening area or stop working; in the housekeeping mode, the gardening device performs security Working; in the vacation mode, closing some of the facilities in the gardening area; in the home mode, the intelligent gardening system adjusts the operating parameters of the gardening apparatus to reduce operating noise.
35. The intelligent gardening system according to claim 1, wherein said intelligent gardening system communicates with an external device to transmit data generated during the work to the external device to be communicated, said external device comprising a manufacturer device, a distributor At least one of a device, a designer device, and a service provider device.
36. An external device in communication with at least one intelligent gardening system according to claim 1, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, The external device is a manufacturer device.
37. The external device according to claim 36, wherein the data comprises at least one of sensor-detected data, work and/or failure data of the gardening device, and analysis data of the intelligent gardening system.
38. The external device according to claim 36, wherein said data application policy comprises a production plan improvement strategy, a manufacturing process and or a production process improvement strategy, an intelligent gardening system configuration adjustment strategy, a product oriented sales and or recommendation strategy, and security At least one of the strategies.
39. An external device in communication with at least one intelligent gardening system according to claim 1, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, The external device is a dealer device.
40. The external device according to claim 39, wherein the data application policy comprises at least one of a stocking strategy, a logistics strategy, a product recommendation strategy, a maintenance reminding strategy, and a targeted marketing strategy.
41. An external device in communication with at least one intelligent gardening system according to claim 1, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, The external device is a service provider device.
42. The external device according to claim 41, wherein the data application policy comprises at least one of a service schedule policy, a directed service policy, and a neighbor resource invocation policy.
43. An external device in communication with at least one intelligent gardening system according to claim 1, wherein the external device acquires data generated by an intelligent gardening system at work, and generates a data application policy based on the data, The external device is a designer device.
44. The external device according to claim 43, wherein the data application policy comprises at least one of a product definition policy and a product design policy.

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