An Internet-based environmental protection equipment monitoring system

Abstract

The present invention provides an Internet-based environmental protection equipment monitoring system, including a wireless sensor module, a wireless data terminal, a cloud server and a monitoring subsystem; the wireless data terminal and several wireless sensor modules are networked and communicated through a local area network; the cloud server is configured with a device information library, and each wireless sensor module and wireless data terminal are registered in the device information library; wherein the wireless sensor module is configured to detect the power consumption data of the environmental protection equipment and transmit it to the wireless data terminal; the wireless data terminal is configured to receive the power consumption data and upload it to the cloud server, and obtain a networking list from the cloud server and re-network with the wireless sensors on site accordingly. The present invention can monitor the operation of environmental protection equipment in real time.

Description

Technical Field

[0001] The invention relates to the field of environmental protection, and in particular to an Internet-based environmental protection equipment monitoring system. Background Art

[0002] In order to force enterprises to treat pollutants, national laws and regulations stipulate that enterprises need to install corresponding environmental protection equipment to treat wastewater, waste gas, waste and other pollutants. Since environmental protection equipment is installed in enterprises and used by enterprises, it is difficult for government departments to supervise enterprises around the clock due to limited time and supervisory personnel. Summary of the invention

[0003] In view of this, an object of the present invention is to provide an Internet-based environmental protection equipment monitoring system, which can monitor the operation status of environmental protection equipment in real time.

[0004] In order to solve the above technical problems, the technical solution of the present invention is:

[0005] An Internet-based environmental protection equipment monitoring system includes a wireless sensor module, a wireless data terminal, a cloud server and a monitoring subsystem; the wireless data terminal and several wireless sensor modules are networked and communicated through a local area network; the cloud server is configured with a device information library, and each wireless sensor module and wireless data terminal are registered in the device information library; wherein,

[0006] The wireless sensor module is configured to detect power consumption data of the environmental protection equipment and transmit it to the wireless data terminal;

[0007] The wireless data terminal is configured to receive the power consumption data and upload it to a cloud server, and to obtain a networking list from the cloud server and re-network with the wireless sensors on site accordingly; wherein the networking list includes a wireless data terminal and at least one wireless sensor module for networking with the wireless data terminal;

[0008] The cloud server is configured to receive and store power usage data from the wireless data terminal and analyze and process the power usage data to obtain corresponding power usage behavior data;

[0009] The monitoring subsystem is carried on a mobile terminal or PC, and is configured to allow the monitoring user to obtain power consumption behavior data and device information library data from the cloud server, and to create the networking list based on the device information library data and upload it to the cloud server.

[0010] Preferably, the wireless data terminal is also configured to transmit the networking result back to the cloud server.

[0011] Preferably, an enterprise subsystem is also included, and the enterprise subsystem is carried by the mobile terminal and is configured to:

[0012] Allow enterprise users to report environmental protection equipment information to the cloud server, where the environmental protection equipment information at least includes equipment name, equipment type, equipment function and equipment installation location;

[0013] Obtain electricity usage behavior data from the cloud server;

[0014] and sending a request for updating the networking list to the monitoring subsystem, wherein the update request includes increasing, decreasing, or replacing the number of wireless sensor modules;

[0015] The monitoring subsystem is also configured to review the update request and update the corresponding networking list according to the review result; the wireless data terminal obtains the latest networking list and adds or removes the corresponding wireless sensor module in the local area network accordingly.

[0016] Preferably, the monitoring subsystem is further configured to:

[0017] A monitoring user is provided with an update list, wherein the update list includes a number of wireless data terminals; wherein the number of the wireless data terminals are already in operation;

[0018] According to a preset strategy, several wireless data terminals in the same update list are exchanged in the corresponding networking list, thereby generating several new networking lists, and sending the new networking lists to the corresponding wireless data terminals;

[0019] The wireless data terminal is equipped with a camera and four rotor assemblies on the side. The wireless data terminal is equipped with a flight control system for driving the rotor assemblies to work. The wireless data terminal is also configured to confirm the exchange object according to the new networking list after receiving the new networking list, and then fly to the corresponding exchange object.

[0020] Preferably, the wireless data terminal is equipped with a take-off and landing platform, the take-off and landing platform is equipped with a wireless charging module, the wireless data terminal is equipped with a wireless induction charging coil, and the wireless induction charging coil is electrically connected to the power module of the wireless data terminal; the take-off and landing platform is also equipped with a positioning module and a first take-off and landing guidance module, which are used to report positioning information and guide the take-off and landing of the wireless data terminal.

[0021] Preferably, it also includes a terminal storage station, which is used to store wireless data terminals in a certain area; the terminal storage station includes an annular body and an annular cover plate arranged around the annular body; a plurality of storage bins are arranged at intervals along the side of the annular body; a driving component for driving the annular cover plate to move up and down is also arranged on the annular body;

[0022] A control system is installed in the annular body, and the control system communicates with the wireless data terminal and the cloud server; the drive component is electrically connected to the control system; the control system is configured with a second take-off and landing guidance module for reporting positioning information and guiding the wireless data terminal to take off and land.

[0023] Preferably, the wireless data terminal is configured to execute a reset program after entering the storage bin, and after the execution is completed, re-acquire the networking list from the cloud server.

[0024] Preferably, the wireless data terminal is also configured to fly to a suitable location after successful networking, take photos of the environmental protection equipment according to the environmental protection equipment information reported by the enterprise user, and then upload the photographed data to the cloud server for acquisition by the monitoring subsystem.

[0025] The technical effects of the present invention are mainly reflected in the following aspects:

[0026] 1. Use wireless sensor modules to obtain power consumption data of environmental protection equipment, and analyze the power consumption behavior of environmental protection equipment based on this data, thus eliminating the need for on-site inspections by supervisors;

[0027] 2. When the environmental protection equipment is shut down for a long time, the wireless data terminal can be dispatched to the terminal storage station for temporary storage;

[0028] 3. Enterprise users can report the status of equipment within the enterprise through the enterprise subsystem, and request to update the number of wireless sensor modules. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 A schematic diagram of an environmental protection equipment monitoring system in an embodiment;

[0030] Figure 2 This is a schematic diagram of the installation of the wireless sensor module in the embodiment;

[0031] Figure 3 is a schematic diagram of the left housing in the embodiment;

[0032] Figure 4 This is a schematic diagram of the installation of the clamp core in the embodiment;

[0033] Figure 5 A schematic diagram of a terminal storage station in an embodiment;

[0034] Figure 6 FIG. 4 is a schematic diagram of a wireless data terminal in an embodiment.

[0035] Figure numerals: 100, cloud server; 200, monitoring subsystem; 300, enterprise user subsystem; 400, wireless data terminal; 410, rotor assembly; 500, wireless sensor module; 510, left shell; 511, side shell; 512, first accommodating groove; 520, right shell; 530, clamp-shaped iron core; 540, first elastic component; 550, contact sensor; 600, power supply cable; 700, terminal storage station; 710, annular body; 711, storage bin; 720, annular cover; 730, drive assembly; 800, vertical pole; 910, take-off and landing platform; 920, electric-controlled sliding cover; 930, mounting bracket; 940, drive. DETAILED DESCRIPTION

[0036] The specific implementation modes of the present invention are further described below in conjunction with the accompanying drawings to make the technical solutions of the present invention easier to understand and grasp.

[0037] Reference Figure 1 This embodiment provides an Internet-based environmental protection equipment monitoring system, including a wireless sensor module 500, a wireless data terminal 400, a cloud server 100, an enterprise user subsystem 300 and a monitoring subsystem 200.

[0038] The wireless data terminal 400 and several wireless sensor modules 500 are networked and communicated through a local area network, for example, they can be networked through wireless technologies such as LoRa and ZETA. After networking, the wireless data terminal 400 receives power consumption data from each wireless sensor module 500 in the local area network and uploads it to the cloud server 100. The cloud server 100 is configured to receive and store power consumption data from the wireless data terminal 400 and analyze and process the power consumption data to obtain corresponding power consumption behavior data.

[0039] The cloud server 100 is configured with a device information library, and each wireless sensor module 500 and wireless data terminal 400 is registered in the device information library. Specifically, the government department enters the information of the purchased wireless sensor modules 500 and wireless data terminals 400 through the monitoring subsystem 200, and each wireless sensor module 500 and wireless data terminal 400 has a unique identification code.

[0040] The monitoring subsystem 200 is carried on a mobile terminal or PC, and includes a monitoring module, a networking management module, and an audit module. Among them, the monitoring module is used for monitoring users to obtain electricity consumption behavior data from the cloud server 100, and the supervisory user can know whether the environmental protection equipment of the corresponding enterprise is working normally through the electricity consumption behavior data. In addition, different types of environmental protection equipment have different electrical parameters. The equipment information library stores the electrical parameter information of the corresponding environmental protection equipment. The cloud server 100 compares the actual sampling value with the value in the equipment information library to determine whether the operation of the environmental protection equipment is abnormal, and notifies the supervisory user through the monitoring module. The audit module is used to audit the update request and update the corresponding networking list according to the audit result. The wireless data terminal 400 obtains the latest networking list, and accordingly adds or removes the corresponding wireless sensor module 500 in the local area network.

[0041] The networking management module is used to retrieve data from the device information library from the cloud server 100, and to create a networking list based on the data in the device information library and upload it to the cloud server 100. Specifically, the regulatory department configures a corresponding number of wireless data terminals 400 and wireless sensor modules 500 for the enterprise according to the information of the enterprise and the number of environmental protection equipment reported, and then combines these wireless data terminals 400 and wireless sensor modules 500 in a networking list in the system; that is, the networking list includes a wireless data terminal 400 and at least one wireless sensor module 500 for networking with the wireless data terminal 400. In addition, the wireless data terminal 400 transmits the networking results back to the cloud server 100 for the monitoring subsystem 200 to retrieve the results.

[0042] The enterprise subsystem is carried by a mobile terminal, and includes a reporting module, an information module, and an update module; wherein the reporting module is used for enterprise users to report environmental protection equipment information to the cloud server 100, and the environmental protection equipment information at least includes the equipment name, equipment type, equipment function, and equipment installation location. Among them, the equipment installation location is automatically confirmed by calling the positioning function of the mobile terminal. The information module is used to obtain electricity consumption behavior data from the cloud server 100, that is, enterprise users can view the electricity consumption behavior data of their own enterprises and the working status of each wireless sensor module 500 in real time through the information module. The update module is used to send an update request for the networking list to the monitoring subsystem 200, and the update request includes the increase, decrease, and replacement of the number of wireless sensor modules 500; for example, the enterprise needs to increase or decrease the number of environmental protection equipment, and at the same time, the number of corresponding wireless sensor modules 500 must also be increased or decreased.

[0043] Referring to the figure, the wireless sensing module 500 includes a shell and a first control module, a first power module, a first wireless communication module and a current and voltage detection module installed in the shell; the shell as a whole is a hollow cylindrical shape, including a left shell 510 and a right shell 520. As an option, the main parts of the first control module, the first power module, the first wireless communication module and the current and voltage detection module are all installed in the left shell 510. The left housing 510 and the right housing 520 are fixed on both sides by bolts; a contact sensor is installed at the contact point between the left housing 510 and the right housing 520, and the contact sensor is electrically connected to the first control module; the current and voltage detection module adopts a clamp core 530, which is divided into a left core and a right core. The left housing 510 is provided with a first receiving groove 512 for the installation of the left core, and a first elastic component 540 is provided in the first receiving groove 512 to push the left core out of the first receiving groove 512 for a distance; the right housing 520 is provided with a second receiving groove for the installation of the right core, and a second elastic component is provided in the second receiving groove to push the right core out of the second receiving groove for a distance. When the left housing 510 and the right housing 520 are fixed, the ends of the left core and the right core are tightly in contact. The input end of the first power module is electrically connected to the current and voltage detection module to obtain the input voltage. Specifically, an upper connecting plate is integrally provided on the side of the left housing 510, and a lower connecting plate is integrally provided on the side of the right housing 520, and the upper connecting plate and the lower connecting plate are fixed by bolts. In addition, a contact sensor is installed on the side of the upper connecting plate facing the lower connecting plate, and the contact sensor is electrically connected to the first control module; when the upper connecting plate is separated from the lower connecting plate, the first control module recognizes this state through the output signal of the contact sensor, and then reports the alarm information.

[0044] The input end of the first power supply module is electrically connected to the current and voltage detection module to obtain the input voltage. The induction component of the current and voltage detection module adopts a clamp core 530, which is installed at the end of the shell, and can be fixed on the end surface of the left shell 510 or the right shell 520 with screws; when installing, first separate the upper connecting plate from the lower connecting plate, so that the left shell 510 and the right shell 520 are in a relatively open state, and at the same time open the clamp core 530, and then insert the power supply cable 600 between the left shell 510 and the right shell 520, and then loosen the clamp core 530, the clamp core 530 can be naturally reset, and the structure of the clamp core 530 can adopt the structure of the current clamp ammeter, and can be kept in a closed state when not subjected to external force. Finally, the upper connecting plate and the lower connecting plate are locked with bolts.

[0045] Therefore, the current piezoelectric detection module obtains the induced current signal of the power supply cable 600 through the clamp core 530, and inputs it to the first control module after conventional processing such as amplification and filtering; the first control module sends it to the wireless data terminal 400 through the first wireless communication module.

[0046] In addition, the wireless data terminal 400 also obtains the networking list from the cloud server 100 and re-networks with the wireless sensors on site accordingly. As described above, when a new wireless sensor module 500 is to be added, the enterprise user installs the new wireless sensor module 500, and then sends a networking request through the enterprise user subsystem 300. After the supervisor receives the request through the monitoring subsystem 200, he operates (sends instructions through the monitoring subsystem 200) the wireless data terminal 400 to re-network. After receiving the instructions, the wireless data terminal 400 re-scans the wireless sensor modules 500 within the identifiable range, and then incorporates the corresponding wireless sensor modules 500 into the local area network according to the networking list.

[0047] The wireless data terminal 400 is equipped with a camera and four rotor assemblies are installed on the side. The wireless data terminal 400 is equipped with a flight control system for driving the rotor assembly. The wireless data terminal 400 is equipped with a take-off and landing platform, which is fixed to a wall or other location through a mounting frame. The take-off and landing platform is equipped with a wireless charging module, and the wireless data terminal 400 is equipped with a wireless induction charging coil, which is electrically connected to the power module of the wireless data terminal 400; the take-off and landing platform is also equipped with a positioning module and a first take-off and landing guidance module, which are used to report positioning information and guide the wireless data terminal 400 to take off and land. The first take-off and landing guidance module uses Bluetooth communication, that is, the wireless data terminal 400 and the first take-off and landing guidance module are both built-in Bluetooth modules. When the wireless data terminal 400 flies to a suitable position, accurate landing is achieved through Bluetooth positioning. An electrically controlled sliding cover that can move forward and backward is installed on the take-off and landing platform, and the electrically controlled sliding cover is driven by a driver. The control end of the driver is electrically connected to the second control module of the take-off and landing platform. The second control module communicates with the wireless data terminal via Bluetooth. When the wireless data terminal 400 is about to take off, it sends an instruction to the second control module, and the second control module immediately controls the electric-controlled sliding cover to move away; when the wireless data terminal is about to complete landing, the second control module immediately controls the electric-controlled sliding cover to reset.

[0048] In addition, in order to replace on-site monitoring by monitoring personnel, the wireless data terminal 400 is also configured to fly to a suitable location (i.e., the location information entered by the enterprise user when reporting the environmental protection equipment information) according to the environmental protection equipment information reported by the enterprise user after successful networking, and take pictures of the environmental protection equipment, and then upload the photographed data to the cloud server 100 for acquisition by the monitoring subsystem 200.

[0049] In this embodiment, a terminal storage station 700 is also provided within a certain area for storing the wireless data terminal 400. The terminal storage station 700 includes an annular body 710 and an annular cover plate 720 provided around the annular body 710; a plurality of storage bins 711 are provided at intervals along the side of the annular body 710; a driving assembly 730 for driving the annular cover plate 720 to move up and down is also provided on the annular body 710; the driving assembly 730 may be an electric push rod.

[0050] A control system is installed in the annular body 710, and the control system includes a controller, a communication module, and a power module (powered by the power grid or solar energy). The control system communicates with the wireless data terminal 400 and the cloud server 100; the above-mentioned drive assembly 730 is electrically connected to the control system; the controller is equipped with a second take-off and landing guidance module for reporting positioning information and guiding the wireless data terminal 400 to take off and land.

[0051] Furthermore, when the enterprise is closed for holidays, or the environmental protection equipment is shut down for a long time due to other reasons, the cloud server 100 monitors this state through the power consumption behavior data, and immediately sends a callback instruction to the corresponding wireless data terminal 400. After receiving the instruction, the wireless data terminal 400 controls the rotor assembly to work and flies to the corresponding terminal storage station 700. When it arrives at the appropriate position, the terminal storage station 700 communicates and enters one of the storage bins 711 under the guidance of the second take-off and landing guidance module. It is worth noting that when the wireless data terminal 400 arrives, the control system immediately controls the annular cover plate 720 to move up to open the storage bin 711. When all wireless data terminals 400 enter the corresponding storage bin 711, the control system controls the annular cover plate 720 to reset.

[0052] In addition, the monitoring user can also create an update list through the networking management module, and the update list includes several wireless data terminals 400; among them, several wireless data terminals 400 are already in operation, that is, they have been put into use by the enterprise. The monitoring user regards the wireless data terminals 400 in a certain area as a group in the system, establishes an update list, and then formulates a replacement strategy, such as random replacement, or replacement in a certain number sequence. After the replacement is completed, the system generates a new networking list and sends the new networking list to the corresponding wireless data terminal 400.

[0053] The wireless data terminal 400 is also configured to confirm the exchange object according to the new networking list after receiving the new networking list, and then fly to the corresponding exchange object. The specific process is that after the new networking list is confirmed, the monitoring subsystem 200 sends instructions to each wireless data terminal 400. When the set time arrives, the corresponding wireless data terminal 400 first flies into the terminal storage station 700 in the area, executes the reset program after entering, and obtains the networking list from the cloud server 100 again after the execution is completed. Finally, according to the new networking list, fly back to the take-off and landing platform in the corresponding enterprise.

[0054] Of course, the above are only typical examples of the present invention. In addition, the present invention may also have many other specific implementations. All technical solutions formed by equivalent replacement or equivalent transformation fall within the scope of protection required by the present invention.

Claims

1. An Internet-based environmental protection equipment monitoring system, characterized by , comprising a wireless sensor module (500), a wireless data terminal (400), a cloud server (100) and a monitoring subsystem (200); the wireless data terminal (400) and a plurality of wireless sensor modules (500) are networked and communicated through a local area network; the cloud server (100) is configured with a device information library, and each wireless sensor module (500) and wireless data terminal (400) are registered in the device information library; wherein, The wireless sensor module is configured to detect the power consumption data of the environmental protection equipment and transmit it to the wireless data terminal (400); The wireless data terminal (400) is configured to receive the power consumption data and upload it to the cloud server (100), and to obtain a networking list from the cloud server (100) and re-network with the wireless sensors on site accordingly; wherein the networking list includes a wireless data terminal (400) and at least one wireless sensor module (500) for networking with the wireless data terminal (400); The cloud server (100) is configured to receive and store power usage data from the wireless data terminal (400) and analyze and process the power usage data to obtain corresponding power usage behavior data; The monitoring subsystem (200) is carried on a mobile terminal or a PC, and is configured to allow a monitoring user to obtain power consumption behavior data and data from a device information library from a cloud server (100), and to create the networking list based on the data in the device information library and upload it to the cloud server (100); The wireless sensor module (500) comprises a shell and a first control module, a first power module, a first wireless communication module and a current and voltage detection module installed in the shell; the shell is in the shape of a hollow cylinder as a whole and comprises a left shell (510) and a right shell (520). As an option, the main parts of the first control module, the first power module, the first wireless communication module and the current and voltage detection module are all installed in the left shell (510); both sides of the left shell (510) and the right shell (520) are fixed by bolts; a contact sensor (550) is installed at the contact point between the left shell (510) and the right shell (520), and the contact sensor (550) is electrically connected to the first control module; the current and voltage detection module adopts a clamp-shaped iron core (530), which is divided into a left core body and a right core body, and a first receiving groove (512) for installing the left core body is opened inside the left shell (510), and a first elastic component (540) is arranged in the first receiving groove (512). ) to push the left core body out of the first receiving groove (512) for a certain distance; a second receiving groove for installing the right core body is provided inside the right shell (520), and a second elastic component is provided in the second receiving groove to push the right core body out of the second receiving groove for a certain distance; when the left shell (510) and the right shell (520) are fixed, the ends of the left core body and the right core body are tightly in contact; the input end of the first power supply module is electrically connected to the current and voltage detection module to obtain the input voltage; specifically, an upper connecting plate is integrally provided on the side of the left shell (510), and a lower connecting plate is integrally provided on the side of the right shell (520), and the upper connecting plate and the lower connecting plate are fixed by bolts; a contact sensor (550) is installed on the side of the upper connecting plate facing the lower connecting plate, and the contact sensor (550) is electrically connected to the first control module; when the upper connecting plate and the lower connecting plate are separated, the first control module recognizes this state through the output signal of the contact sensor (550), and then reports the alarm information; The enterprise subsystem is also included, and the enterprise subsystem is carried by the mobile terminal and is configured to: For enterprise users to report environmental protection equipment information to the cloud server (100), the environmental protection equipment information at least including equipment name, equipment type, equipment function and equipment installation location; Acquiring electricity usage behavior data from a cloud server (100); and sending a request for updating the networking list to the monitoring subsystem (200), wherein the update request includes an increase, decrease, or replacement of the number of wireless sensor modules (500); The monitoring subsystem (200) is further configured to review the update request and update the corresponding networking list according to the review result; the wireless data terminal (400) obtains the latest networking list and adds or removes the corresponding wireless sensor module (500) in the local area network accordingly; The monitoring subsystem (200) is also configured to: A monitoring user creates an update list, wherein the update list includes a plurality of wireless data terminals (400); wherein the plurality of wireless data terminals (400) are already in operation; According to a preset strategy, several wireless data terminals (400) in the same update list are exchanged in the corresponding networking list, thereby generating several new networking lists, and sending the new networking lists to the corresponding wireless data terminals (400); The wireless data terminal (400) is equipped with a camera and four rotor assemblies are installed on the side. The wireless data terminal (400) is equipped with a flight control system for driving the rotor assemblies to work. The wireless data terminal (400) is also configured to confirm the exchange object according to the new networking list after receiving the new networking list, and then fly to the corresponding exchange object; The wireless data terminal (400) is equipped with a take-off and landing platform, the take-off and landing platform is equipped with a wireless charging module, the wireless data terminal (400) is equipped with a wireless induction charging coil, and the wireless induction charging coil is electrically connected to the power module of the wireless data terminal (400); the take-off and landing platform is also equipped with a positioning module and a first take-off and landing guidance module, which are used to report positioning information and guide the wireless data terminal (400) to take off and land; The device also comprises a terminal storage station (700), wherein the terminal storage station (700) is used to store wireless data terminals (400) in a certain area; the terminal storage station (700) comprises an annular body (710) and an annular cover plate (720) arranged around the annular body (710); a plurality of storage bins (711) are arranged at intervals along the side of the annular body (710); and a driving assembly (730) for driving the annular cover plate (720) to move up and down is also arranged on the annular body (710); A control system is installed in the annular body (710), and the control system communicates with the wireless data terminal (400) and the cloud server (100); the drive component (730) is electrically connected to the control system; the control system is equipped with a second take-off and landing guidance module for reporting positioning information and guiding the wireless data terminal (400) to take off and land; The wireless data terminal (400) is configured to execute a reset program after entering the storage bin (711), and after the execution is completed, re-acquire the networking list from the cloud server (100); after the new networking list is confirmed, the monitoring subsystem (200) sends instructions to each wireless data terminal (400), and when the set time arrives, the corresponding wireless data terminal (400) first flies into the terminal storage station (700) in the area, executes the reset program after entering, and after the execution is completed, re-acquires the networking list from the cloud server (100); finally, according to the new networking list, it flies back to the take-off and landing platform in the corresponding enterprise.

2. The Internet-based environmental protection equipment monitoring system according to claim 1 is characterized in that , the wireless data terminal (400) is also configured to transmit the networking result back to the cloud server (100).

3. The Internet-based environmental protection equipment monitoring system according to claim 1 is characterized in that The wireless data terminal (400) is also configured to fly to a suitable location after successful networking, take photos of the environmental protection equipment according to the environmental protection equipment information reported by the enterprise user, and then upload the photographed data to the cloud server (100) for acquisition by the monitoring subsystem (200).

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