Data processing method and device of internet of things energy efficiency monitoring terminal

Abstract

The application provides a data processing method and equipment of an internet of things energy efficiency monitoring terminal, generates an energy efficiency twin graph corresponding to a target park according to configuration information; classifies the energy efficiency monitoring terminals according to the relative flow direction attributes of the energy efficiency monitoring terminals to obtain first terminals with inflow attributes and second terminals with outflow attributes; generates a forward topological graph based on the forward hierarchical relationship between the first terminals, generates a reverse topological graph based on the reverse hierarchical relationship between the second terminals, generates an energy efficiency topological graph according to the forward topological graph and the reverse topological graph and sends the energy efficiency topological graph to a management end, and updates the energy efficiency topological graph in real time according to energy efficiency data; receives a viewing request of a first user end, calls a viewing strategy and first identity information of the first user end, intercepts and processes the energy efficiency twin graph and the energy efficiency topological graph to obtain viewing data and sends the viewing data to the first user end.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of internet of things energy efficiency monitoring, and in particular to a data processing method and device of an internet of things energy efficiency monitoring terminal. BACKGROUND

[0002] Energy is the material basis for the development of human society. With the development of energy efficiency work in the direction of systematization, refinement and informatization, it is inevitable to use information technology such as the Internet of Things and big data to tap the energy saving potential in the energy efficiency field.

[0003] At present, energy efficiency data is mainly collected through energy efficiency monitoring terminals, which include electric meters, water meters, gas meters and the like. For water meters, there may be multiple water meters in a park, and the production line flow and user end corresponding to each water meter may not be the same. The connection relationship between multiple water meters is complex, which makes it difficult for the park management end to intuitively view the park water meter energy efficiency data and manage it.

[0004] Therefore, how to structure and display the park water meter energy efficiency data to assist the management end in intuitive viewing and effective management has become a problem to be solved. SUMMARY

[0005] The embodiments of the present application provide a data processing method and device of an internet of things energy efficiency monitoring terminal, which can structure and display the park water meter energy efficiency data to assist the management end in intuitive viewing and effective management.

[0006] In a first aspect, the present application provides a data processing method of an internet of things energy efficiency monitoring terminal, comprising:

[0007] receiving configuration information corresponding to a target park, generating an energy efficiency twin graph corresponding to the target park according to the configuration information, the configuration information including a plurality of energy efficiency monitoring terminals with identity tags and connection relationships;

[0008] classifying the energy efficiency monitoring terminals according to their relative flow direction attributes, obtaining first terminals with inflow attributes and second terminals with outflow attributes, the relative flow direction attributes including inflow attributes and outflow attributes;

[0009] generating a forward topology graph based on the forward hierarchical relationship between a plurality of the first terminals, generating a reverse topology graph based on the reverse hierarchical relationship between a plurality of the second terminals, generating an energy efficiency topology graph according to the forward topology graph and the reverse topology graph and sending it to the management end, and updating the energy efficiency topology graph in real time according to energy efficiency data;

[0010] Upon receiving a viewing request from a first user terminal, the system retrieves the viewing policy and the first user terminal's first identity information, performs cropping processing on the energy efficiency twin map and energy efficiency topology map, and sends the resulting viewing data to the first user terminal.

[0011] Optionally, in one possible implementation of the first aspect, configuration information corresponding to a target park is received, and an energy efficiency twin map corresponding to the target park is generated based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships, including:

[0012] Construct a twin map of the target park, which includes multiple energy efficiency monitoring terminals;

[0013] The system receives configuration information corresponding to the target park from the management terminal, adds corresponding identity tags to each energy efficiency monitoring terminal in the park twin map according to the configuration information, and constructs corresponding connection relationships for each energy efficiency monitoring terminal based on the configuration information to obtain the energy efficiency twin map.

[0014] Optionally, in one possible implementation of the first aspect, generating a forward topology graph based on the forward hierarchical relationship between multiple first terminals, generating a reverse topology graph based on the reverse hierarchical relationship between multiple second terminals, and generating an energy efficiency topology graph based on the forward and reverse topology graphs and sending it to the management terminal includes:

[0015] Based on the connection relationship between multiple first terminals, the upper-level nodes and lower-level nodes corresponding to each first terminal are obtained, and a forward topology graph is generated according to the forward hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each first terminal.

[0016] Based on the connection relationship between multiple second terminals, the upper-level nodes and lower-level nodes corresponding to each second terminal are obtained, and a reverse topology graph is generated according to the reverse hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each second terminal.

[0017] Obtain the first connection node corresponding to the forward topology graph and the second connection node corresponding to the reverse topology graph. Connect the forward topology graph and the reverse topology graph according to the first connection node and the second connection node to obtain an energy efficiency topology graph and send it to the management terminal.

[0018] Optionally, in one possible implementation of the first aspect, the upper-level node and lower-level node corresponding to each first terminal are obtained based on the connection relationship between the multiple first terminals, and a forward topology graph is generated according to the forward hierarchical relationship between the upper-level node and the lower-level node corresponding to each first terminal, including:

[0019] Based on the connection relationship between each of the first terminals, the upper-level node corresponding to each of the first terminals is obtained as the upper-level node, and the lower-level node corresponding to each of the first terminals is obtained as the lower-level node.

[0020] Based on the positive hierarchical relationship of upper-level nodes above and lower-level nodes below, the first terminal is located, and the first terminal is connected to the corresponding upper-level nodes and lower-level nodes to obtain a positive topology graph.

[0021] Optionally, in one possible implementation of the first aspect, obtaining the upper-layer node and lower-layer node corresponding to each second terminal based on the connection relationship between multiple second terminals, and generating a reverse topology graph according to the reverse hierarchical relationship between the upper-layer node and the lower-layer node corresponding to each second terminal, includes:

[0022] Based on the connection relationship between multiple second terminals, the upper-level node corresponding to each second terminal is obtained as the lower-level node, and the lower-level node corresponding to each second terminal is obtained as the upper-level node.

[0023] Based on the reverse hierarchical relationship of upper-level nodes above and lower-level nodes below, the second terminal is located, and the second terminal is connected to the corresponding upper-level and lower-level nodes to obtain a reverse topology graph.

[0024] Optionally, in one possible implementation of the first aspect, obtaining the first connection node corresponding to the forward topology graph and the second connection node corresponding to the reverse topology graph, and connecting the forward and reverse topology graphs according to the first and second connection nodes to obtain an energy efficiency topology graph, which is then sent to the management terminal, includes:

[0025] The lowest-level node in the forward topology graph is taken as the first connection node, and the highest-level node in the reverse topology graph is taken as the second connection node.

[0026] Connect the first and second connection nodes according to the connection relationship of the corresponding energy efficiency monitoring terminals to obtain the energy efficiency topology map and send it to the management terminal.

[0027] Optionally, in one possible implementation of the first aspect, receiving a viewing request from a first user terminal, retrieving the viewing policy and the first identity information of the first user terminal, performing segmentation processing on the energy efficiency twin map and energy efficiency topology map, and obtaining viewing data to send to the first user terminal includes:

[0028] Upon receiving a viewing request from a first user terminal, the energy efficiency twin map and the energy efficiency topology map are obtained, and the energy efficiency monitoring terminal corresponding to the first identity information is used as the target monitoring terminal.

[0029] The target monitoring terminal located at the highest level in the positive topology graph is selected as the first viewing terminal, and the energy efficiency monitoring terminal at the same level as the first viewing terminal is selected as the second viewing terminal.

[0030] Delete the energy efficiency data corresponding to the second viewing terminal to obtain the updated second viewing terminal;

[0031] The target monitoring terminal, the first viewing terminal, and the updated second viewing terminal in the energy efficiency twin map and the energy efficiency topology map are captured and processed to obtain viewing data, which is then sent to the first user terminal.

[0032] Optionally, in one possible implementation of the first aspect, it also includes:

[0033] If the target monitoring terminal is the first terminal, then the energy efficiency data of the target monitoring terminal is verified according to the positive verification strategy to obtain the first verification data;

[0034] If the target monitoring terminal is a second terminal, then the energy efficiency data of the target monitoring terminal is verified according to the reverse verification strategy to obtain the second verification data;

[0035] Verification data is obtained based on the first verification data and the second verification data and sent to the first user terminal.

[0036] Optionally, in one possible implementation of the first aspect, if the target monitoring terminal is a first terminal, then the energy efficiency data of the target monitoring terminal is verified according to a forward verification strategy to obtain first verification data, including:

[0037] If the target monitoring terminal is the first terminal, then the total energy efficiency data of all lower-level nodes in the forward topology graph corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained.

[0038] A first data difference is obtained based on the energy efficiency data and the first total energy efficiency data. If the first data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an abnormal monitoring terminal, and first verification data is obtained based on the abnormal monitoring terminal.

[0039] If the target monitoring terminal is a second terminal, then the energy efficiency data of the target monitoring terminal is verified according to the reverse verification strategy to obtain second verification data, including:

[0040] If the target monitoring terminal is a second terminal, then the total second energy efficiency data of all upper-level nodes in the reverse topology graph corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained.

[0041] A second data difference is obtained based on the energy efficiency data and the second total energy efficiency data. If the second data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an anomaly monitoring terminal, and second verification data is obtained based on the anomaly monitoring terminal.

[0042] A second aspect of the present invention provides a data processing device for an IoT energy efficiency monitoring terminal, comprising:

[0043] A configuration module is used to receive configuration information corresponding to a target park and generate an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships.

[0044] The classification module is used to classify the energy efficiency monitoring terminals according to the relative flow direction attribute of each energy efficiency monitoring terminal, and to obtain a first terminal with an inflow attribute and a second terminal with an outflow attribute, wherein the relative flow direction attribute includes an inflow attribute and an outflow attribute;

[0045] The energy efficiency module is used to generate a forward topology map based on the forward hierarchical relationship between multiple first terminals, generate a reverse topology map based on the reverse hierarchical relationship between multiple second terminals, generate an energy efficiency topology map based on the forward topology map and the reverse topology map and send it to the management terminal, and update the energy efficiency topology map in real time based on energy efficiency data.

[0046] The viewing module is used to receive a viewing request from the first user terminal, retrieve the viewing policy and the first identity information of the first user terminal, perform cropping processing on the energy efficiency twin map and energy efficiency topology map, and send the viewing data to the first user terminal.

[0047] The beneficial effects of this invention are as follows:

[0048] 1. This invention can structure and display water meter energy efficiency data in a park, assisting management in intuitive viewing and effective management. First, it generates an energy efficiency twin map corresponding to the target park based on the management's configuration data. This twin map allows for the organization of the target park, facilitating the management's understanding of the identity and connection information of each energy efficiency monitoring terminal within the park. Then, it categorizes the energy efficiency monitoring terminals based on their relative flow direction attributes. Forward and reverse topology maps are generated for the first and second terminals respectively after categorization. These maps are then merged to obtain an energy efficiency topology map. This topology map allows for the organization of multiple energy efficiency monitoring terminals within the target park, enabling better management by combining the energy efficiency twin map and the energy efficiency topology map. Furthermore, this invention quickly retrieves and sends relevant viewing data to users upon request, improving the efficiency of energy efficiency data viewing for users.

[0049] 2. When generating the energy efficiency topology map, this invention obtains the corresponding upper-level and lower-level nodes based on the forward hierarchical relationship between the first terminal and other terminals. Then, it connects the first terminal with its corresponding upper-level and lower-level nodes to obtain the forward topology map. This allows for the organization of multiple first terminals with an inflow attribute. Next, this invention obtains the corresponding upper-level and lower-level nodes based on the reverse hierarchical relationship between the second terminal and other terminals. Then, it connects the second terminal with its corresponding upper-level and lower-level nodes to obtain the reverse topology map. This allows for the organization of multiple second terminals with an outflow attribute. After obtaining the forward and reverse topology maps, this invention connects the nodes with connections in the forward and reverse topology maps based on the connection relationships between the corresponding energy efficiency monitoring terminals. This allows for the fusion of the forward and reverse topology maps to obtain the energy efficiency topology map. This energy efficiency topology map is used to integrate and organize energy efficiency monitoring terminals with different flow attributes, enabling the management end to intuitively view the corresponding relationships between each energy efficiency monitoring terminal.

[0050] 3. When generating viewing data for the user terminal, this invention extracts the corresponding energy efficiency data from the energy efficiency twin map and energy efficiency topology map based on the user terminal's identity information and sends it to the user terminal for viewing. This allows for rapid extraction of energy efficiency data corresponding to the user terminal based on their identity information, improving the efficiency of users viewing energy efficiency data. Furthermore, when generating viewing data for the user terminal, this invention also sends the data to other user terminals at the same level as the user terminal for viewing, and deletes the energy efficiency data of other user terminals at the same level. This allows the user terminal to know which user terminals are at its highest level, while ensuring the privacy and security of other user terminal data. Additionally, this invention verifies the energy efficiency data of the target monitoring terminal obtained based on the user terminal's viewing request, enabling timely dispatch of the corresponding target monitoring terminal to the user terminal for appropriate processing when energy efficiency data anomalies occur. Attached Figure Description

[0051] Figure 1 A schematic diagram of an energy efficiency topology provided in an embodiment of the present invention;

[0052] Figure 2 This is a schematic diagram of the structure of a data processing device for an IoT energy efficiency monitoring terminal provided in an embodiment of the present invention. Detailed Implementation

[0053] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0054] The executing entity of this application may include, but is not limited to, at least one of the following: user equipment, network equipment, etc. User equipment may include, but is not limited to, computers, smartphones, personal digital assistants (PDAs), and the aforementioned electronic devices. Network equipment may include, but is not limited to, a single network server, a server group consisting of multiple network servers, or a cloud based on cloud computing consisting of a large number of computers or network servers. Cloud computing is a type of distributed computing, consisting of a super virtual computer composed of a group of loosely coupled computers. This embodiment does not impose any limitations on this. Steps S1 to S4 are detailed as follows:

[0055] S1, Receive configuration information corresponding to the target park, and generate an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships.

[0056] In practical applications, there may be multiple water meters installed in the target park, and these water meters may have different connection relationships. Furthermore, the user terminals corresponding to each water meter may be different. Therefore, in order to facilitate the management of multiple energy efficiency monitoring terminals in the future, this solution will generate an energy efficiency twin map corresponding to the target park based on the configuration information. This energy efficiency twin map can then be used to manage the multiple energy efficiency monitoring terminals accordingly.

[0057] Based on the above embodiments, step S1 can be implemented in the following ways:

[0058] S11, construct a twin map of the target park, the twin map of the park includes multiple energy efficiency monitoring terminals.

[0059] It is understandable that the park twin map includes basic park data and basic data from energy efficiency monitoring terminals, which can be pre-configured by staff. The energy efficiency monitoring terminals can be water meter detection terminals. S12: The system receives configuration information corresponding to the target park from the management terminal, adds corresponding identity tags to each energy efficiency monitoring terminal in the park twin map based on the configuration information, and constructs corresponding connection relationships for each energy efficiency monitoring terminal based on the configuration information to obtain the energy efficiency twin map.

[0060] It is worth mentioning that, since the users of the energy efficiency monitoring terminals may change, this solution allows for data configuration of the energy efficiency monitoring terminals by inputting configuration information. If the data changes, the management terminal can update the energy efficiency twin map accordingly using the new configuration information. The aforementioned configuration information includes identity tags and connection relationships, used to configure the identity and connection relationships of the energy efficiency monitoring terminals.

[0061] Using the above method, the energy efficiency monitoring terminals in the target park can be sorted out through the energy efficiency twin map, so that the energy efficiency monitoring terminals in the target park can be viewed and managed in the future through the energy efficiency twin map.

[0062] S2, classify the energy efficiency monitoring terminals according to their relative flow direction attributes to obtain a first terminal with inflow attribute and a second terminal with outflow attribute, wherein the relative flow direction attributes include inflow attribute and outflow attribute.

[0063] Among them, the aforementioned relative flow direction attribute refers to the flow direction attribute of water relative to the production line. The inflow attribute means that the flow direction attribute of water relative to the production line is inflow. For example, when the production line needs to supply water, the first terminal (such as a water meter) needs to measure the amount of water supplied. The outflow attribute means that the flow direction attribute of water relative to the production line is outflow. For example, when the production line needs to treat wastewater, the second terminal (such as a water meter) needs to measure the amount of wastewater.

[0064] Understandably, the reason for classifying energy efficiency monitoring terminals by relative flow direction attributes is that the flow direction attributes of the water on the production line corresponding to the energy efficiency monitoring terminal are different, and the water body it treats may also be different. For example, the production line with the outflow attribute may treat wastewater. Therefore, this solution will classify energy efficiency monitoring terminals according to relative flow direction attributes, so that different treatments can be carried out on the different classifications of energy efficiency monitoring terminals in the future, which will facilitate the management end to manage multiple energy efficiency monitoring terminals more effectively.

[0065] S3, a forward topology graph is generated based on the forward hierarchical relationship between multiple first terminals, a reverse topology graph is generated based on the reverse hierarchical relationship between multiple second terminals, an energy efficiency topology graph is generated based on the forward and reverse topology graphs and sent to the management terminal, and the energy efficiency topology graph is updated in real time based on energy efficiency data.

[0066] See Figure 1 This is a schematic diagram of an energy efficiency topology diagram provided by an embodiment of the present invention. When generating the energy efficiency topology diagram, this solution first generates a forward topology diagram based on a first terminal. The topmost node in the forward topology diagram can be a park node, and below the park node can be factory nodes, such as A1, B1, and C1 in the forward topology diagram. The bottommost node can be a production line node within each factory node, such as A11, A12, and A13 below A1. Then, this solution generates a reverse topology diagram based on a second terminal. The bottommost node in the reverse topology diagram can also be a park node. Then, this solution connects the forward and reverse topology diagrams based on the corresponding connection nodes in the forward and reverse topology diagrams to obtain the energy efficiency topology diagram. For example, if the production lines corresponding to A12 and A13 require wastewater treatment, A12 can be connected to A21 in the reverse topology diagram, and A13 can be connected to A22 in the reverse topology diagram.

[0067] Using the above method, the management terminal can intuitively view the connection relationship and hierarchical relationship between various energy efficiency monitoring terminals and the energy efficiency data of each energy efficiency monitoring terminal based on the energy efficiency topology diagram, which facilitates the management terminal to manage multiple energy efficiency monitoring terminals.

[0068] It is understandable that the reason for connecting the forward and reverse topology graphs to generate the energy efficiency topology graph is that in practical applications, some water bodies, after being treated by the production line with the inflow attribute, may discharge some wastewater that needs to be treated again by the production line with the outflow attribute. For example, for radioactive water bodies, the discharged wastewater may need to be treated again before it can be discharged.

[0069] Therefore, after generating the forward topology map, the present invention will also generate the reverse topology map based on the outflow attribute of the second terminal, so as to intuitively display the relative flow direction attributes and connection relationships of each energy efficiency monitoring terminal to the management end, making it convenient for the management end to carry out targeted management based on the different attributes and connection relationships of each energy efficiency monitoring terminal.

[0070] Based on the above embodiments, step S3 can be implemented in the following ways:

[0071] S31, based on the connection relationship between multiple first terminals, obtain the upper-layer node and lower-layer node corresponding to each first terminal, and generate a forward topology graph according to the forward hierarchical relationship between the upper-layer node and the lower-layer node corresponding to each first terminal.

[0072] When generating a forward topology graph, this solution connects multiple first terminals according to their forward hierarchical relationships. In some embodiments, the above-mentioned forward topology graph can be obtained through the following steps:

[0073] S311, based on the connection relationship between each of the first terminals, obtain the upper-level node corresponding to each of the first terminals as the upper-level node, and the lower-level node corresponding to each of the first terminals as the lower-level node.

[0074] It is understandable that, since the relative flow direction attribute of the first terminal is an inflow attribute, the flow direction of its production line is from the upper-level node to the lower-level node. Therefore, when generating the forward topology graph, this scheme obtains the upper-level node corresponding to each first terminal as the upper-level node, and the lower-level node corresponding to each first terminal as the lower-level node. It is worth noting that the first terminal at the top level has no upper-level node, and the first terminal at the bottom level has no lower-level node.

[0075] S312, according to the positive hierarchical relationship of upper-level nodes above and lower-level nodes below, the first terminal is located, and the first terminal is connected with the corresponding upper-level nodes and lower-level nodes to obtain a positive topology graph.

[0076] In practical applications, when locating the first terminal, it can be positioned between its corresponding upper-level and lower-level nodes, and then connected to these nodes. It's worth noting that the first terminal at the top level has no upper-level node, so it can be directly placed at the top level; similarly, the first terminal at the bottom level has no lower-level node, so it can be directly placed at the bottom level. Understandably, in the forward topology graph, all nodes correspond to incoming flows, and in the reverse topology graph, all nodes correspond to outgoing flows.

[0077] S32, based on the connection relationship between multiple second terminals, obtain the upper-layer node and lower-layer node corresponding to each second terminal, and generate a reverse topology graph according to the reverse hierarchical relationship between the upper-layer node and the lower-layer node corresponding to each second terminal.

[0078] When generating the reverse topology graph, this scheme connects multiple second terminals according to their reverse hierarchical relationships. In some embodiments, the above reverse topology graph can be obtained through the following steps:

[0079] S321, based on the connection relationship between multiple second terminals, obtain the upper-level node corresponding to each second terminal as the lower-level node, and the lower-level node corresponding to each second terminal as the upper-level node.

[0080] Understandably, since the relative flow direction attribute of the second terminal is an outflow attribute, and the flow direction of its production line is from the upper-level node to the lower-level node, this scheme will obtain the lower-level nodes corresponding to each second terminal as upper-level nodes and the upper-level nodes corresponding to the second terminals as lower-level nodes when generating the reverse topology graph. The lower-level nodes are, for example, wastewater meter nodes directly connected to the production line, such as nodes A21 and A22; the upper-level nodes can be the aggregation nodes of multiple wastewater meter nodes, summarizing the wastewater volume, such as node A2.

[0081] S322, according to the reverse hierarchical relationship of upper-level nodes above and lower-level nodes below, the second terminal is located, and the second terminal is connected with the corresponding upper-level nodes and lower-level nodes to obtain a reverse topology graph.

[0082] In practical applications, when locating the second terminal, it can be positioned between its corresponding upper-level and lower-level nodes, and then connected to the second terminal and its corresponding upper-level and lower-level nodes. S33: Obtain the first connection node corresponding to the forward topology graph and the second connection node corresponding to the reverse topology graph; connect the forward and reverse topology graphs according to the first and second connection nodes to obtain an energy efficiency topology graph, which is then sent to the management terminal.

[0083] After obtaining the forward and reverse topology maps, this solution will connect the forward and reverse topology maps based on the first and second connection nodes, thereby obtaining a complete energy efficiency topology map corresponding to the target park and sending it to the management terminal.

[0084] In some embodiments, the above energy efficiency topology diagram can be obtained through the following steps:

[0085] S331, the lower-level node at the bottom of the forward topology graph is obtained as the first connection node, and the upper-level node at the top of the reverse topology graph is obtained as the second connection node.

[0086] It is understandable that, in a forward topology graph, water flows out through the lowest-level nodes, while in a reverse topology graph, water flows in through the highest-level nodes. Therefore, when connecting forward and reverse topologies, the lowest-level nodes in the forward topology graph can be used as the first connection node, and the highest-level nodes in the reverse topology graph can be used as the second connection node. Then, the first and second connection nodes can be used to connect them.

[0087] S332, connect the corresponding first connection node and second connection node according to the connection relationship of the corresponding energy efficiency monitoring terminal, and send the energy efficiency topology map to the management terminal.

[0088] The above method allows the management terminal to intuitively view the connection relationships and relative flow attributes of each energy efficiency monitoring terminal, as well as the energy efficiency data of each terminal. This facilitates the management of multiple energy efficiency monitoring terminals within the target park. Notably, the energy efficiency data can be updated in real-time every 3 seconds, 10 seconds, etc., and displayed on the energy efficiency topology map. Furthermore, this solution also needs to display the identification information of each energy efficiency monitoring terminal on the energy efficiency topology map to assist administrators in management.

[0089] S4, receive the viewing request from the first user terminal, retrieve the viewing policy and the first identity information of the first user terminal, perform cropping processing on the energy efficiency twin map and energy efficiency topology map, and send the viewing data to the first user terminal.

[0090] In practical applications, users may want to view energy efficiency data related to themselves. Therefore, after receiving the viewing request from the first user, this solution will also generate viewing data corresponding to the first user and send it to the first user for viewing.

[0091] Based on the above embodiments, step S4 can be implemented in the following ways:

[0092] S41, receive the viewing request from the first user terminal, and obtain the energy efficiency twin map and the energy efficiency monitoring terminal corresponding to the first identity information in the energy efficiency topology map as the target monitoring terminal.

[0093] When acquiring a target monitoring terminal, the energy efficiency monitoring terminal corresponding to the identity tag and the first identity information can be used as the target monitoring terminal. The identity tag is pre-configured to correspond to the energy efficiency monitoring terminal.

[0094] S42, acquire the target monitoring terminal at the highest level in the forward topology graph as the first viewing terminal, and determine the energy efficiency monitoring terminal at the same level as the first viewing terminal as the second viewing terminal.

[0095] Understandably, in order to allow users to see other users at their highest level and to let them know about other users at the same level as their highest level, this solution will also obtain the second viewing terminal at the same level as the first monitoring terminal when generating the viewing data of the first user terminal.

[0096] S43, delete the energy efficiency data corresponding to the second viewing terminal to obtain the updated second viewing terminal.

[0097] Understandably, in order to protect the privacy and security of other users' data, this solution will delete the energy efficiency data of the second viewing terminal, so that when the first user views the data, they can only see who the second monitoring terminal is, but cannot see its specific energy efficiency data.

[0098] S44, the target monitoring terminal, the first viewing terminal and the updated second viewing terminal in the energy efficiency twin map and the energy efficiency topology map are captured and processed to obtain viewing data and send it to the first user terminal.

[0099] In practical applications, when processing the target monitoring terminal, the first viewing terminal, and the updated second viewing terminal in the energy efficiency twin map and the energy efficiency topology map, the data of other nodes in the energy efficiency twin map and the energy efficiency topology map, except for the target monitoring terminal, the first viewing terminal, and the updated second viewing terminal, can be deleted, and only the data corresponding to the target monitoring terminal, the first viewing terminal, and the updated second viewing terminal can be retained and sent to the first user terminal for viewing.

[0100] By using the above methods, the corresponding viewing data can be quickly extracted based on the user's viewing needs, thereby improving the efficiency of users viewing energy efficiency data.

[0101] In addition to the above embodiments, this solution also includes the following embodiments:

[0102] A1, if the target monitoring terminal is the first terminal, then the energy efficiency data of the target monitoring terminal is verified according to the positive verification strategy to obtain the first verification data.

[0103] After obtaining the target monitoring terminal, this solution verifies its energy efficiency data. This allows it to send any abnormal energy efficiency monitoring terminals to the first user terminal, enabling the first user terminal to take appropriate action based on the received verification data. The first verification data refers to the data obtained during anomaly verification when the target monitoring terminal is the first terminal.

[0104] In some embodiments, step A1 can be implemented through steps A11 to A12, as follows:

[0105] A11, if the target monitoring terminal is the first terminal, then the total energy efficiency data of the first energy efficiency of all lower-level nodes in the forward topology corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained.

[0106] It is understandable that if the target monitoring terminal is the first terminal, then it is the upper-level node of its lower-level nodes in the forward topology graph. Its energy efficiency data should be not much different from the sum of the energy efficiency data of all the lower-level nodes of the target monitoring terminal. Therefore, when judging whether the energy efficiency data of the corresponding target monitoring terminal is abnormal, the total energy efficiency data of all its lower-level nodes in the forward topology graph can be counted, and then the total energy efficiency data can be compared with its own energy efficiency data.

[0107] A12, based on the energy efficiency data and the first total energy efficiency data, a first data difference is obtained. If the first data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an anomaly monitoring terminal, and first verification data is obtained based on the anomaly monitoring terminal.

[0108] It is understandable that if the first data difference is greater than or equal to the preset data difference, it means that there is a large difference between the energy efficiency data of the target monitoring terminal and the total energy efficiency data of its lower-level nodes. The target monitoring terminal may have malfunctioned, so the corresponding target monitoring terminal can be regarded as an abnormal monitoring terminal.

[0109] A2, if the target monitoring terminal is a second terminal, then the energy efficiency data of the target monitoring terminal is verified according to the reverse verification strategy to obtain the second verification data.

[0110] The second verification data is the data used when performing anomaly verification on the target monitoring terminal, which is the second terminal.

[0111] In some embodiments, step A2 can be implemented by steps A21 to A22, as follows: A21, if the target monitoring terminal is a second terminal, then the total second energy efficiency data of all upper-level nodes in the reverse topology graph corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained.

[0112] It is understandable that if the target monitoring terminal is a second terminal, then in the reverse topology graph it is the parent node of its upper-level node. Its energy efficiency data should not differ much from the sum of the energy efficiency data of all the upper-level nodes of the target monitoring terminal. Therefore, when judging whether the energy efficiency data of the corresponding target monitoring terminal is abnormal, the total second energy efficiency data of all its upper-level nodes in the reverse topology graph can be counted, and then the total second energy efficiency data can be compared with its own energy efficiency data.

[0113] A22, based on the energy efficiency data and the second total energy efficiency data, a second data difference is obtained. If the second data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an anomaly monitoring terminal, and second verification data is obtained based on the anomaly monitoring terminal.

[0114] It is understandable that if the second data difference is greater than or equal to the preset data difference, it means that there is a large difference between the energy efficiency data of the target monitoring terminal and the total energy efficiency data of its upper-level nodes. The target monitoring terminal may have malfunctioned, so the corresponding target monitoring terminal can be regarded as an abnormal monitoring terminal.

[0115] A3, based on the first verification data and the second verification data, obtain verification data and send it to the first user terminal.

[0116] The energy efficiency data of the target monitoring terminal can be verified through the above methods, so that when the energy efficiency data is abnormal, the corresponding target monitoring terminal can be sent to the user terminal for corresponding processing in a timely manner.

[0117] See Figure 2 This is a schematic diagram of the structure of a data processing device for an IoT energy efficiency monitoring terminal provided in an embodiment of the present invention. The data processing device for the IoT energy efficiency monitoring terminal includes:

[0118] A configuration module is used to receive configuration information corresponding to a target park and generate an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships.

[0119] The classification module is used to classify the energy efficiency monitoring terminals according to the relative flow direction attribute of each energy efficiency monitoring terminal, and to obtain a first terminal with an inflow attribute and a second terminal with an outflow attribute, wherein the relative flow direction attribute includes an inflow attribute and an outflow attribute;

[0120] The energy efficiency module is used to generate a forward topology map based on the forward hierarchical relationship between multiple first terminals, generate a reverse topology map based on the reverse hierarchical relationship between multiple second terminals, generate an energy efficiency topology map based on the forward topology map and the reverse topology map and send it to the management terminal, and update the energy efficiency topology map in real time based on energy efficiency data.

[0121] The viewing module is used to receive a viewing request from the first user terminal, retrieve the viewing policy and the first identity information of the first user terminal, perform cropping processing on the energy efficiency twin map and energy efficiency topology map, and send the viewing data to the first user terminal.

[0122] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, and not to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A data processing method for an IoT energy efficiency monitoring terminal, characterized in that, include: Receive configuration information corresponding to the target park, and generate an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships. The energy efficiency monitoring terminals are classified according to their relative flow direction attributes to obtain a first terminal with an inflow attribute and a second terminal with an outflow attribute. The relative flow direction attributes include inflow and outflow attributes. A forward topology graph is generated based on the forward hierarchical relationship between multiple first terminals, and a reverse topology graph is generated based on the reverse hierarchical relationship between multiple second terminals. An energy efficiency topology graph is generated based on the forward and reverse topology graphs and sent to the management terminal. The energy efficiency topology graph is updated in real time based on energy efficiency data, including: Based on the connection relationship between multiple first terminals, the upper-level nodes and lower-level nodes corresponding to each first terminal are obtained, and a forward topology graph is generated according to the forward hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each first terminal. Based on the connection relationship between multiple second terminals, the upper-level nodes and lower-level nodes corresponding to each second terminal are obtained, and a reverse topology graph is generated according to the reverse hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each second terminal. Obtain the first connection node corresponding to the forward topology graph and the second connection node corresponding to the reverse topology graph, connect the forward topology graph and the reverse topology graph according to the first connection node and the second connection node to obtain an energy efficiency topology graph and send it to the management terminal; Receiving a viewing request from a first user terminal, retrieving the viewing policy and the first user terminal's first identity information, performing cropping processing on the energy efficiency twin map and energy efficiency topology map, and sending the resulting viewing data to the first user terminal, including: Upon receiving a viewing request from a first user terminal, the energy efficiency twin map and the energy efficiency topology map are obtained, and the energy efficiency monitoring terminal corresponding to the first identity information is used as the target monitoring terminal. The target monitoring terminal located at the highest level in the positive topology graph is selected as the first viewing terminal, and the energy efficiency monitoring terminal at the same level as the first viewing terminal is selected as the second viewing terminal. Delete the energy efficiency data corresponding to the second viewing terminal to obtain the updated second viewing terminal; The target monitoring terminal, the first viewing terminal, and the updated second viewing terminal in the energy efficiency twin map and the energy efficiency topology map are captured and processed to obtain viewing data, which is then sent to the first user terminal.

2. The method according to claim 1, characterized in that, The system receives configuration information corresponding to a target park and generates an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identification tags and connection relationships, including: Construct a twin map of the target park, which includes multiple energy efficiency monitoring terminals; The system receives configuration information corresponding to the target park from the management terminal, adds corresponding identity tags to each energy efficiency monitoring terminal in the park twin map according to the configuration information, and constructs corresponding connection relationships for each energy efficiency monitoring terminal based on the configuration information to obtain the energy efficiency twin map.

3. The method according to claim 1, characterized in that, Based on the connection relationships between multiple first terminals, upper-level nodes and lower-level nodes corresponding to each first terminal are obtained. A forward topology graph is generated according to the forward hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each first terminal, including: Based on the connection relationship between each of the first terminals, the upper-level node corresponding to each of the first terminals is obtained as the upper-level node, and the lower-level node corresponding to each of the first terminals is obtained as the lower-level node. Based on the positive hierarchical relationship of upper-level nodes above and lower-level nodes below, the first terminal is located, and the first terminal is connected to the corresponding upper-level nodes and lower-level nodes to obtain a positive topology graph.

4. The method according to claim 1, characterized in that, Based on the connection relationships between multiple second terminals, the upper-level nodes and lower-level nodes corresponding to each second terminal are obtained. A reverse topology graph is generated according to the reverse hierarchical relationship between the upper-level nodes and lower-level nodes corresponding to each second terminal, including: Based on the connection relationship between multiple second terminals, the upper-level node corresponding to each second terminal is obtained as the lower-level node, and the lower-level node corresponding to each second terminal is obtained as the upper-level node. Based on the reverse hierarchical relationship of upper-level nodes above and lower-level nodes below, the second terminal is located, and the second terminal is connected to the corresponding upper-level and lower-level nodes to obtain a reverse topology graph.

5. The method according to claim 3 or 4, characterized in that, Obtain the first connection node corresponding to the forward topology graph and the second connection node corresponding to the reverse topology graph; connect the forward and reverse topology graphs according to the first and second connection nodes to obtain an energy efficiency topology graph, and send it to the management terminal, including: The lowest-level node in the forward topology graph is taken as the first connection node, and the highest-level node in the reverse topology graph is taken as the second connection node. Connect the first and second connection nodes according to the connection relationship of the corresponding energy efficiency monitoring terminals to obtain the energy efficiency topology map and send it to the management terminal.

6. The method according to claim 1, characterized in that, Also includes: If the target monitoring terminal is the first terminal, then the energy efficiency data of the target monitoring terminal is verified according to the positive verification strategy to obtain the first verification data; If the target monitoring terminal is a second terminal, then the energy efficiency data of the target monitoring terminal is verified according to the reverse verification strategy to obtain the second verification data; Verification data is obtained based on the first verification data and the second verification data and sent to the first user terminal.

7. The method according to claim 6, characterized in that, If the target monitoring terminal is the first terminal, then the energy efficiency data of the target monitoring terminal is verified according to the forward verification strategy to obtain the first verification data, including: If the target monitoring terminal is the first terminal, then the total energy efficiency data of all lower-level nodes in the forward topology graph corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained. A first data difference is obtained based on the energy efficiency data and the first total energy efficiency data. If the first data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an abnormal monitoring terminal, and first verification data is obtained based on the abnormal monitoring terminal. If the target monitoring terminal is a second terminal, then the energy efficiency data of the target monitoring terminal is verified according to the reverse verification strategy to obtain second verification data, including: If the target monitoring terminal is a second terminal, then the total second energy efficiency data of all upper-level nodes in the reverse topology graph corresponding to the target monitoring terminal is counted, and the energy efficiency data corresponding to the target monitoring terminal is obtained. A second data difference is obtained based on the energy efficiency data and the second total energy efficiency data. If the second data difference is greater than or equal to a preset data difference, the target monitoring terminal is designated as an anomaly monitoring terminal, and second verification data is obtained based on the anomaly monitoring terminal.

8. A data processing device for an IoT energy efficiency monitoring terminal according to any one of claims 1-7, characterized in that, include: A configuration module is used to receive configuration information corresponding to a target park and generate an energy efficiency twin map corresponding to the target park based on the configuration information. The configuration information includes multiple energy efficiency monitoring terminals with identity tags and connection relationships. The classification module is used to classify the energy efficiency monitoring terminals according to the relative flow direction attribute of each energy efficiency monitoring terminal, and to obtain a first terminal with an inflow attribute and a second terminal with an outflow attribute, wherein the relative flow direction attribute includes an inflow attribute and an outflow attribute; The energy efficiency module is used to generate a forward topology map based on the forward hierarchical relationship between multiple first terminals, generate a reverse topology map based on the reverse hierarchical relationship between multiple second terminals, generate an energy efficiency topology map based on the forward topology map and the reverse topology map and send it to the management terminal, and update the energy efficiency topology map in real time based on energy efficiency data. The viewing module is used to receive a viewing request from the first user terminal, retrieve the viewing policy and the first identity information of the first user terminal, perform cropping processing on the energy efficiency twin map and energy efficiency topology map, and send the viewing data to the first user terminal.

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