Intelligent insulator management system on power transmission line
By designing an insulator intelligent management system including bird's eye view camera, order enhancement, coordinate processing and information forwarding mechanism, the problem of inconvenient shape deformation management on the transmission line is solved, and high-precision non-contact shape analysis and intelligent data transmission are realized.
Patent Information
- Application Number
- CN202510077318.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Priority Date
- 2024-06-20
- Filing Date
- 2025-01-17
- Publication Date
- 2025-04-11
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
The prior art is difficult to effectively manage and monitor insulators on transmission lines, especially the physical shape deformation problems that may occur after long-term use, resulting in inconvenience in management.
An insulator intelligent management system was designed, through bird's-eye camera mechanism, order enhancement mechanism, coordinate processing mechanism and information forwarding mechanism, using color imaging characteristics, SVD enhancement processing, BP neural network and binary numerical representation, intelligently analyzing the physical deformation level of the insulator, and sending the result network to the remote server.
It realizes high-precision shape analysis of insulator entities that are non-contactless, avoids the impact on the working performance of insulators, and improves management efficiency through intelligent network transmission of data analysis.
Abstract
Description
Technical Field
[0001] The present invention relates to the field of electric power facilities, and in particular to an intelligent management system for insulators on transmission lines. Background Art
[0002] Transmission facilities are one of the main types of power facilities. Transmission facilities refer to the facilities that transmit electricity from power plants to the power grid, mainly including transmission lines and substations. Transmission lines are generally divided into three types: high voltage, medium voltage and low voltage. High voltage lines are mainly used for long-distance and large-capacity transmission, while medium voltage and low voltage lines are used for power distribution in cities and villages respectively. Substations are facilities that connect high voltage, medium voltage and low voltage lines. Their main function is to transform voltage and regulate power transmission and distribution.
[0003] Insulators are a type of transmission facility that is widely used. The physical shape of insulators is standard when they leave the factory. However, insulators may have problems after long-term use in the field, which may affect their working performance. However, if insulators are managed manually, there will be great inconveniences because they are on the transmission line. Summary of the invention
[0004] In order to solve the technical problems in the prior art, the present invention provides an intelligent management system for insulators on transmission lines, which can identify the occupation pattern of the target insulator in the sequence enhancement picture based on the color imaging characteristics corresponding to the target insulator, obtain the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, and intelligently analyze the entity deformation level corresponding to the target insulator according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, the total number of each edge pixel point and the reference bird's-eye view contour pattern corresponding to the target insulator, thereby completing non-contact and high-precision shape analysis of the target insulator entity.
[0005] According to the present invention, an intelligent management system for insulators on a transmission line is provided, the system comprising: A bird's-eye view camera mechanism is arranged on a transmission line tower where a target insulator is suspended, and is used to perform a camera operation on the scene where the target insulator is located using a bird's-eye view to obtain and output an instant bird's-eye view picture corresponding to the current moment; The order enhancement mechanism is arranged in the base of the transmission line iron tower and is wiredly connected to the bird's-eye view camera mechanism, and includes a first enhancement component, a second enhancement component and a third enhancement component, which sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received real-time bird's-eye view picture to obtain and output a corresponding order enhancement picture; a coordinate processing mechanism connected to the order enhancement mechanism, configured to receive the order enhancement picture, identify an occupation pattern of the target insulator in the order enhancement picture based on a color imaging characteristic corresponding to the target insulator, the color imaging characteristic corresponding to the target insulator being a numerical distribution interval of each component of the target insulator in an RGB color space, obtain vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, and intelligently analyze the entity deformation level corresponding to the target insulator according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, the total number of each edge pixel point, and a reference bird's-eye view outline pattern corresponding to the target insulator, wherein the intelligent analysis is based on a BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator and is represented by a binary value; An information forwarding mechanism, connected to the coordinate processing mechanism, is used to send the entity deformation level corresponding to the target insulator of the intelligent analysis and the target insulator deformation excess information to a remote power facility server through a network when the entity deformation level corresponding to the target insulator of the intelligent analysis is greater than or equal to the set level threshold; Among them, the entity deformation level corresponding to the target insulator is intelligently analyzed according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupied pattern corresponding to the target insulator, the total number of each edge pixel point and the reference bird's-eye view outline pattern corresponding to the target insulator. The intelligent analysis is based on the BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator, which is represented by binary values and includes: the reference bird's-eye view outline pattern corresponding to the target insulator is an imaging pattern of the target insulator taken in a factory state with a bird's-eye view and only includes the target insulator.
[0006] Therefore, the present invention has the following three outstanding technical effects: Firstly, based on the color imaging characteristics corresponding to the target insulator, the occupation pattern of the target insulator in the order enhancement picture is identified. The color imaging characteristics corresponding to the target insulator are the numerical distribution intervals of each component of the target insulator in the RGB color space. The vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator are obtained. Secondly: intelligently analyze the entity deformation level of the target insulator according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupied pattern corresponding to the target insulator, the total number of each edge pixel point and the reference bird's-eye view outline pattern corresponding to the target insulator, wherein the intelligent analysis is based on the BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator is represented by a binary value, thereby completing the non-contact shape analysis of the target insulator entity; Again: when the physical deformation level corresponding to the target insulator of the intelligent analysis is greater than or equal to the set level threshold, the physical deformation level corresponding to the target insulator of the intelligent analysis and the excessive deformation information of the target insulator are sent to the remote power facility server through the network, thereby completing the network transmission of the intelligent analysis data of the deformation degree of each insulator under the use status.
[0007] The intelligent management system for insulators on transmission lines of the present invention is intelligently designed and widely used. Since it can intelligently analyze the entity deformation level corresponding to the target insulator based on various visual data of the target insulator and the reference bird's-eye view outline pattern corresponding to the target insulator, it can complete the non-contact high-precision shape analysis of the target insulator entity to avoid affecting the working performance of the target insulator. DETAILED DESCRIPTION
[0008] The following is a detailed description of an embodiment of the intelligent management system for insulators on transmission lines of the present invention.
[0009] Embodiment 1
[0010] The intelligent management system for insulators on a transmission line according to the first embodiment of the present invention includes: A bird's-eye view camera mechanism is arranged on a transmission line tower where a target insulator is suspended, and is used to perform a camera operation on the scene where the target insulator is located using a bird's-eye view to obtain and output an instant bird's-eye view picture corresponding to the current moment; The order enhancement mechanism is arranged in the base of the transmission line iron tower and is wiredly connected to the bird's-eye view camera mechanism, and includes a first enhancement component, a second enhancement component and a third enhancement component, which sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received real-time bird's-eye view picture to obtain and output a corresponding order enhancement picture; Specifically, the order enhancement mechanism is arranged in the base of the transmission line tower and is wired to the bird's-eye view camera mechanism, including a first enhancement component, a second enhancement component and a third enhancement component, and sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received instant bird's-eye view picture to obtain and output the corresponding order enhancement picture, including: using different SOC chips to respectively implement the first enhancement component, the second enhancement component and the third enhancement component; a coordinate processing mechanism connected to the order enhancement mechanism, configured to receive the order enhancement picture, identify an occupation pattern of the target insulator in the order enhancement picture based on a color imaging characteristic corresponding to the target insulator, the color imaging characteristic corresponding to the target insulator being a numerical distribution interval of each component of the target insulator in an RGB color space, obtain vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, and intelligently analyze the entity deformation level corresponding to the target insulator according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, the total number of each edge pixel point, and a reference bird's-eye view outline pattern corresponding to the target insulator, wherein the intelligent analysis is based on a BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator and is represented by a binary value; An information forwarding mechanism, connected to the coordinate processing mechanism, is used to send the entity deformation level corresponding to the target insulator of the intelligent analysis and the target insulator deformation excess information to a remote power facility server through a network when the entity deformation level corresponding to the target insulator of the intelligent analysis is greater than or equal to the set level threshold; Among them, the entity deformation level corresponding to the target insulator is intelligently analyzed according to the vertical coordinate data and the horizontal coordinate data of each edge pixel point of the occupied pattern corresponding to the target insulator, the total number of each edge pixel point and the reference bird's-eye view outline pattern corresponding to the target insulator, and the intelligent analysis is based on the BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator. The reference bird's-eye view outline pattern corresponding to the target insulator is an imaging pattern of the target insulator taken in a factory state with a bird's-eye view and only includes the target insulator; The bird's-eye view camera mechanism is arranged on the transmission line tower where the target insulator is suspended, and is used to perform a camera operation on the scene where the target insulator is located with a bird's-eye view, so as to obtain and output a real-time bird's-eye view picture corresponding to the current moment. The bird's-eye view camera mechanism has a built-in overhead camera, a photoelectric sensor and a printed circuit board, and is used to perform a camera operation on the scene where the target insulator is located with a bird's-eye view, so as to obtain and output a real-time bird's-eye view picture corresponding to the current moment. Among them, the order enhancement mechanism is arranged in the base of the transmission line tower and is wired to the bird's-eye view camera mechanism, including a first enhancement component, a second enhancement component and a third enhancement component, which sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received real-time bird's-eye view picture to obtain and output the corresponding order enhanced picture, including: the first enhancement component, the second enhancement component and the third enhancement component are used to respectively perform image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the picture signals received respectively.
[0011] Embodiment 2
[0012] According to the second embodiment of the present invention, an intelligent management system for insulators on a transmission line is shown.
[0013] Compared with the first embodiment, the intelligent management system for insulators on the transmission line in the second embodiment may further include: A humidity measuring mechanism, comprising a plurality of humidity measuring units, for respectively measuring current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism; Wherein, the humidity measuring mechanism comprises a plurality of humidity measuring units for respectively measuring the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, comprising: the plurality of humidity measuring units respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are a plurality of non-contact humidity sensors; Wherein, the humidity measuring mechanism comprises a plurality of humidity measuring units for respectively measuring the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and further comprises: the internal structures of the plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are the same; The humidity measuring mechanism includes a plurality of humidity measuring units for respectively measuring the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and further includes: a plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism have the same humidity measurement upper limit threshold and humidity measurement lower limit threshold; Among them, the humidity measuring mechanism includes multiple humidity measuring units, which are used to respectively measure the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism. It also includes: multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are at equal distances from the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism.
[0014] Embodiment 3
[0015] According to the third embodiment of the present invention, an intelligent management system for insulators on a transmission line is shown.
[0016] Compared with the first embodiment, the intelligent management system for insulators on the transmission line in the third embodiment may further include: An instant notification mechanism, connected to the plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, for performing corresponding humidity alarm actions based on humidity measurement results of the plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism; The instant notification mechanism is respectively connected to the plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and is used to perform corresponding humidity alarm actions based on the humidity measurement results of the plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, including: the instant notification mechanism has a built-in humidity receiving unit, a humidity judgment unit and a notification execution unit; And wherein, the instant notification mechanism is respectively connected to multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and is used to perform corresponding humidity alarm actions based on the humidity measurement results of the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism. It also includes: within the instant notification mechanism, the humidity receiving unit, the humidity judgment unit and the notification execution unit are connected in sequence.
[0017] In addition, in the intelligent management system of insulators on the transmission line, the entity deformation level corresponding to the target insulator is intelligently analyzed based on the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupied pattern corresponding to the target insulator, the total number of each edge pixel point and the benchmark bird's-eye view outline pattern corresponding to the target insulator. The intelligent analysis is based on the BP neural network and the benchmark bird's-eye view outline pattern corresponding to the target insulator is represented by binary values and also includes: the benchmark bird's-eye view outline pattern corresponding to the target insulator is in JPEG digital file format.
[0018] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present disclosure, rather than to limit them. Although the present disclosure has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or replace some or all of the technical features therein by equivalents. These modifications or replacements do not deviate the essence of the corresponding technical solutions from the scope of the technical solutions of the embodiments of the present disclosure, and they should all be included in the scope of the claims and specification of the present disclosure.
Claims
1. An intelligent management system for insulators on a transmission line, characterized in that: The system comprises: A bird's-eye view camera mechanism is arranged on a transmission line tower where a target insulator is suspended, and is used to perform a camera operation on the scene where the target insulator is located using a bird's-eye view to obtain and output an instant bird's-eye view picture corresponding to the current moment; The order enhancement mechanism is arranged in the base of the transmission line iron tower and is wiredly connected to the bird's-eye view camera mechanism, and includes a first enhancement component, a second enhancement component and a third enhancement component, which sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received real-time bird's-eye view picture to obtain and output a corresponding order enhancement picture; a coordinate processing mechanism connected to the order enhancement mechanism, configured to receive the order enhancement picture, identify an occupation pattern of the target insulator in the order enhancement picture based on a color imaging characteristic corresponding to the target insulator, the color imaging characteristic corresponding to the target insulator being a numerical distribution interval of each component of the target insulator in an RGB color space, obtain vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, and intelligently analyze the entity deformation level corresponding to the target insulator according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupation pattern corresponding to the target insulator, the total number of each edge pixel point, and a reference bird's-eye view outline pattern corresponding to the target insulator, wherein the intelligent analysis is based on a BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator and is represented by a binary value; An information forwarding mechanism, connected to the coordinate processing mechanism, is used to send the entity deformation level corresponding to the target insulator of the intelligent analysis and the target insulator deformation excess information to a remote power facility server through a network when the entity deformation level corresponding to the target insulator of the intelligent analysis is greater than or equal to the set level threshold; Among them, the entity deformation level corresponding to the target insulator is intelligently analyzed according to the vertical coordinate data and horizontal coordinate data of each edge pixel point of the occupied pattern corresponding to the target insulator, the total number of each edge pixel point and the reference bird's-eye view outline pattern corresponding to the target insulator. The intelligent analysis is based on the BP neural network and the reference bird's-eye view outline pattern corresponding to the target insulator, which is represented by binary values and includes: the reference bird's-eye view outline pattern corresponding to the target insulator is an imaging pattern of the target insulator taken in a factory state with a bird's-eye view and only includes the target insulator.
2. The intelligent management system for insulators on transmission lines according to claim 1, characterized in that: The bird's-eye view camera mechanism is arranged on the transmission line tower where the target insulator is suspended, and is used to perform a camera operation on the scene where the target insulator is located by using a bird's-eye view to obtain and output a real-time bird's-eye view picture corresponding to the current moment. The bird's-eye view camera mechanism has a built-in overhead camera, a photoelectric sensor and a printed circuit board, and is used to perform a camera operation on the scene where the target insulator is located by using a bird's-eye view to obtain and output a real-time bird's-eye view picture corresponding to the current moment. Among them, the order enhancement mechanism is arranged in the base of the transmission line tower and is wired to the bird's-eye view camera mechanism, including a first enhancement component, a second enhancement component and a third enhancement component, which sequentially performs image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the received real-time bird's-eye view picture to obtain and output the corresponding order enhanced picture, including: the first enhancement component, the second enhancement component and the third enhancement component are used to respectively perform image SVD enhancement processing, guided filtering processing and edge-preserving smoothing filtering processing on the picture signals received respectively.
3. The intelligent management system for insulators on transmission lines according to claim 2, characterized in that: The system further comprises: A humidity measuring mechanism, comprising a plurality of humidity measuring units, for respectively measuring current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism; Among them, the humidity measuring mechanism includes multiple humidity measuring units, which are used to respectively measure the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, including: the multiple humidity measuring units respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are multiple non-contact humidity sensors.
4. The intelligent management system for insulators on transmission lines according to claim 3, characterized in that: The humidity measuring mechanism includes multiple humidity measuring units, which are used to respectively measure the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism. It also includes: the internal structures of multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are the same.
5. The intelligent management system for insulators on transmission lines according to claim 3, characterized in that: The humidity measuring mechanism includes a plurality of humidity measuring units for respectively measuring the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and further includes: a plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism have the same humidity measurement upper limit threshold and humidity measurement lower limit threshold.
6. The intelligent management system for insulators on a transmission line according to claim 5, characterized in that: The humidity measuring mechanism includes a plurality of humidity measuring units for respectively measuring the current surface humidity values of the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and further includes: a plurality of non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism are at equal distances from the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism.
7. The intelligent management system for insulators on transmission lines according to claim 2, characterized in that: The system further comprises: The instant notification mechanism is respectively connected to the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and is used to perform corresponding humidity alarm actions based on the humidity measurement results of the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism.
8. The intelligent management system for insulators on a transmission line according to claim 7, characterized in that: The instant notification mechanism is respectively connected to the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and is used to perform corresponding humidity alarm actions based on the humidity measurement results of the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, including: the instant notification mechanism has a built-in humidity receiving unit, a humidity judgment unit and a notification execution unit.
9. The intelligent management system for insulators on a transmission line according to claim 8, characterized in that: The instant notification mechanism is respectively connected to multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism, and is used to perform corresponding humidity alarm actions based on the humidity measurement results of the multiple non-contact humidity sensors respectively used for the first reinforcement component, the second reinforcement component, the third reinforcement component and the coordinate processing mechanism. It also includes: within the instant notification mechanism, the humidity receiving unit, the humidity judgment unit and the notification execution unit are connected in sequence.