Smart city management strategy identification system
By designing a strategic identification system for smart city management near beaches in the seaside city, using multiple devices to determine wave height data, and sending corresponding signals based on set thresholds, the problems of limited wave height detection mechanism and insufficient accuracy are solved, and the beach is achieved Reliable identification and effective implementation of waterway entry strategies.
Patent Information
- Application Number
- CN202411587021.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Priority Date
- 2024-01-19
- Filing Date
- 2024-11-08
- Publication Date
- 2025-02-11
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
Near beaches in coastal cities, the wave height detection mechanism is limited and the accuracy is insufficient, resulting in a lack of key data on traffic environment management near beaches, which can easily lead to misjudgment of management.
Design a strategic identification system for smart city management, and determine the reference obtained from visual analysis through dynamic trigger mechanisms, top-shot imaging mechanisms, bilateral filtering equipment, maximum filtering equipment, data sharpening equipment, water body detection equipment and policy identification equipment. The height value is monotonically positively correlated with the wave height data, and a signal is sent to prohibit or allow the hull to enter according to the set wave height threshold.
Reliable identification and effective implementation of the boat entry strategy in beach waters has been achieved, the accuracy of traffic environment management near beaches has been improved, and management misjudgment has been avoided.
Abstract
Description
Technical Field
[0001] The present invention relates to the field of smart city management, and in particular to a strategy identification system for smart city management. Background Art
[0002] In the field of smart city management, the management experience of coastal cities is different from that of inland cities. Different coastal cities are different from each other. Some cities have more sand on the beach. The beach is formed by the accumulation of sand along the waterside or the flat land above the water surface in the water. Sand refers to small stones or things that look like sand. It also refers to imperfect flaws. The coarseness of sand refers to the average coarseness of sand particles of different particle sizes mixed together. Usually there are coarse sand, medium sand and fine sand. The particle grading of sand refers to the matching ratio of sand particles of different sizes. If the sand is of the same coarseness, the void is the largest. When two kinds of sand are matched, the void is reduced. When three kinds of sand are matched, the void is even smaller. It can be seen that the void ratio of sand depends on the matching degree of each grade of sand. Well-graded sand can not only save cement, but also improve the density and strength of concrete and mortar. The coarseness of sand is expressed by the fineness modulus Mx. The larger the fineness modulus, the coarser the sand. According to the range of fineness modulus, sand is divided into coarse sand, medium sand, fine sand and extra fine sand.
[0003] When the wave height near the beach exceeds the set wave height threshold, it is necessary to prohibit the hull from entering the sea area near the beach. For example, the invention application CN115541177A discloses an intelligent wave height meter system and control method that can automatically measure. The intelligent wave height meter system consists of a wireless camera, a WiFi wireless network, a wave height detection module, a wave height measurement module, and a wave height meter. When the model wave test is carried out, the intelligent wave height meter system automatically measures the wave height of the test condition, starts measuring synchronously when the wave generation starts, and stops measuring synchronously after the wave generation ends; no special personnel are required to operate the wave height measurement work during the test. It can be seen that due to the limited wave height detection mechanism near the beach, the only remaining wave height detection mechanism is not accurate enough, resulting in a lack of key data for the management of the traffic environment near the beach, which is prone to misjudgment in management. Summary of the invention
[0004] In order to solve the technical problems in related fields, the present invention provides a strategy identification system for smart city management, which can determine wave height data that is monotonically positively correlated with the reference height value obtained by visual analysis, and when the determined wave height data exceeds the set wave height threshold, a signal prohibiting the entry of the hull is issued, and when the determined wave height data does not exceed the set wave height threshold, a signal allowing the hull to enter is issued, thereby realizing reliable identification and effective execution of the ship entry strategy into the beach water area.
[0005] According to the present invention, a strategy identification system for smart city management is provided, the system comprising: A dynamic trigger mechanism is arranged on a beach at a coastline, and is used to sense an audio signal in the environment in which it is located, and issue a first processing instruction when the amplitude of the water phonon signal parsed in the audio signal is greater than or equal to a set amplitude limit; and issue a second processing instruction when the amplitude of the water phonon signal parsed in the audio signal is less than the set amplitude limit; A bird's-eye view imaging mechanism is wirelessly connected to the dynamic trigger mechanism, and is used to perform bird's-eye view imaging processing of the sea area in front of the beach at the coastline when the first processing instruction is wirelessly received, so as to obtain and output a corresponding picture of the sea area in front; A bilateral filtering device, arranged in a control room on the beach and connected to the overhead imaging mechanism, is used to perform bilateral filtering on the received front sea area image to obtain and output a corresponding bilateral filtered image; a maximum filtering device, connected to the bilateral filtering device, for performing maximum filtering processing on the received bilateral filtering image to obtain and output a corresponding maximum filtering image; A data sharpening device, connected to the maximum filtering device, for performing a spatial differential sharpening process on the received maximum filtering image to obtain and output a corresponding data sharpened image; A water body detection device is arranged in the control room on the beach and connected to the data sharpening device, and is used to identify each water body pixel point in the received data sharpening image based on the brightness value distribution range of the water body, analyze each imaging depth of field value corresponding to each water body pixel point, and output the difference between the maximum value and the minimum value of each imaging depth of field value as a reference height value; a strategy identification device connected to the water body detection device, and used to determine wave height data that is monotonically positively correlated with the reference height value, and to issue a signal prohibiting the entry of the vessel when the determined wave height data exceeds a set wave height threshold, and to issue a signal allowing the vessel to enter when the determined wave height data does not exceed the set wave height threshold; Among them, determining wave height data that is monotonically positively correlated with the reference height value, and issuing a signal prohibiting the entry of the hull when the determined wave height data exceeds the set wave height threshold, and issuing a signal allowing the hull to enter when the determined wave height data does not exceed the set wave height threshold includes: the value of the set wave height threshold is between 1.2 meters and 1.5 meters.
[0006] Therefore, the present invention has at least the following beneficial technical effects: First, bilateral filtering equipment, maximum filtering equipment and data sharpening equipment are used in sequence to improve the image quality of the overhead imaging images of the sea area in front of the beach at the coastline, thereby providing reliable basic information for subsequent depth of field detection; Second, based on the distribution range of the brightness value of the water body, the pixels constituting the water body in the received data sharpening image are identified, the imaging depth values corresponding to the pixels constituting the water body are analyzed, and the difference between the maximum value and the minimum value of the imaging depth values is output as the reference height value; The third part: determining the wave height data that is monotonically positively correlated with the reference height value obtained by visual analysis, and issuing a signal prohibiting the entry of the hull when the determined wave height data exceeds the set wave height threshold, and issuing a signal allowing the hull to enter when the determined wave height data does not exceed the set wave height threshold, thereby realizing reliable identification and effective execution of the ship entry strategy into the beach waters.
[0007] The strategy identification system for smart city management of the present invention is compact in design and intelligent in operation. Since it can determine the wave height data that is monotonically positively correlated with the reference height value obtained by visual analysis, and send a signal prohibiting the entry of the ship when the determined wave height data exceeds the set wave height threshold, it can realize reliable identification and effective execution of the ship entry strategy for the beach water area. DETAILED DESCRIPTION
[0008] The following is a detailed description of an embodiment of the strategy identification system for smart city management of the present invention.
[0009] A. Embodiment
[0010] According to the strategy identification system for smart city management shown in embodiment A of the present invention, the system includes: A dynamic trigger mechanism is arranged on a beach at a coastline, and is used to sense an audio signal in the environment in which it is located, and issue a first processing instruction when the amplitude of the water phonon signal parsed in the audio signal is greater than or equal to a set amplitude limit; and issue a second processing instruction when the amplitude of the water phonon signal parsed in the audio signal is less than the set amplitude limit; For example, a CPLD device may be selected to implement the dynamic trigger mechanism, which is used to sense an audio signal in the environment in which it is located, and issue a first processing instruction when the amplitude of the water phonon signal parsed in the audio signal is greater than or equal to a set amplitude limit; and issue a second processing instruction when the amplitude of the water phonon signal parsed in the audio signal is less than the set amplitude limit; A bird's-eye view imaging mechanism is wirelessly connected to the dynamic trigger mechanism, and is used to perform bird's-eye view imaging processing of the sea area in front of the beach at the coastline when the first processing instruction is wirelessly received, so as to obtain and output a corresponding picture of the sea area in front; A bilateral filtering device, arranged in a control room on the beach and connected to the overhead imaging mechanism, is used to perform bilateral filtering on the received front sea area image to obtain and output a corresponding bilateral filtered image; a maximum filtering device, connected to the bilateral filtering device, for performing maximum filtering processing on the received bilateral filtering image to obtain and output a corresponding maximum filtering image; A data sharpening device, connected to the maximum filtering device, for performing a spatial differential sharpening process on the received maximum filtering image to obtain and output a corresponding data sharpened image; A water body detection device is arranged in the control room on the beach and connected to the data sharpening device, and is used to identify each water body pixel point in the received data sharpening image based on the brightness value distribution range of the water body, analyze each imaging depth of field value corresponding to each water body pixel point, and output the difference between the maximum value and the minimum value of each imaging depth of field value as a reference height value; a strategy identification device connected to the water body detection device, and used to determine wave height data that is monotonically positively correlated with the reference height value, and to issue a signal prohibiting the entry of the vessel when the determined wave height data exceeds a set wave height threshold, and to issue a signal allowing the vessel to enter when the determined wave height data does not exceed the set wave height threshold; Wherein, determining the wave height data monotonically positively correlated with the reference height value, and issuing a signal prohibiting the vessel from entering when the determined wave height data exceeds a set wave height threshold, and issuing a signal allowing the vessel to enter when the determined wave height data does not exceed the set wave height threshold includes: the set wave height threshold is between 1.2 meters and 1.5 meters; The overhead imaging mechanism is further configured to stop executing the overhead imaging processing of the sea area in front of the beach at the coastline when the second processing instruction is wirelessly received.
[0011] B. Embodiment
[0012] A strategy identification system for smart city management is shown in Embodiment B of the present invention.
[0013] Different from the A embodiment, the strategy identification system for smart city management in the B embodiment may also include the following components: an operation measurement mechanism, connected to the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device, respectively, and used to measure the number of operations per unit time of the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device respectively; The operation and measurement mechanism is respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to respectively measure the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, including: the operation and measurement mechanism includes a plurality of operation and measurement units, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, so as to complete the measurement of the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device; Wherein, the operation and measurement mechanism includes a plurality of operation and measurement units, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device to complete the measurement of the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively, including: the plurality of operation and measurement units are a plurality of operation sensor circuits, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device to complete the measurement of the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively; The plurality of operation measurement units are a plurality of operation sensor circuits, which are respectively connected to the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device to respectively measure the number of unit time operations of the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device, including: the structures of the plurality of operation sensor circuits are the same; Among them, the multiple operation measurement units are multiple operation sensor circuits, which are used to be connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively to complete the respective measurements of the number of operations per unit time of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device. It also includes: the multiple operation sensor circuits have the same operation measurement upper limit value and operation measurement lower limit value.
[0014] C Example
[0015] A strategy identification system for smart city management is shown in Example C of the present invention.
[0016] Different from the A embodiment, the strategy identification system for smart city management in the C embodiment may also include the following components: A base structure is arranged below the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to provide bottom support services for the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively; Wherein, the base structure is arranged below the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to provide bottom support services for the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively, including: a plurality of slots are arranged on the base structure to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device; Among them, a plurality of slots are arranged on the base structure to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, including: the opening cross-sectional areas of the plurality of slots are the same to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device.
[0017] In addition, in the strategy identification system for smart city management, each water body constituting pixel point in the received data sharpened image is identified based on the distribution range of the brightness value of the water body, each imaging depth of field value corresponding to each water body constituting pixel point is analyzed, and the difference between the maximum value and the minimum value of each imaging depth of field value is output as a reference height value, including: taking the pixel point in the data sharpened image having a brightness value within the distribution range of the brightness value of the water body as a single water body constituting pixel point; And wherein, based on the distribution range of the brightness values of the water body, each water body pixel in the received data-sharpened image is identified, each imaging depth of field value corresponding to each water body pixel is analyzed, and the difference between the maximum and minimum values of each imaging depth of field value is output as a reference height value, including: the grayscale value corresponding to each water body pixel is between 0-255.
[0018] While embodiments of the present invention have been shown and described with reference to exemplary embodiments thereof, it will be understood by those skilled in the art that various changes in form and details may be made without departing from the spirit and scope of the embodiments of the invention as defined by the following claims.
Claims
1. A strategy identification system for smart city management, characterized in that: The system comprises: A dynamic trigger mechanism is arranged on a beach at a coastline, and is used to sense an audio signal in the environment in which it is located, and issue a first processing instruction when the amplitude of the water phonon signal parsed in the audio signal is greater than or equal to a set amplitude limit; and issue a second processing instruction when the amplitude of the water phonon signal parsed in the audio signal is less than the set amplitude limit; A bird's-eye view imaging mechanism is wirelessly connected to the dynamic trigger mechanism, and is used to perform bird's-eye view imaging processing of the sea area in front of the beach at the coastline when the first processing instruction is wirelessly received, so as to obtain and output a corresponding picture of the sea area in front; A bilateral filtering device, arranged in a control room on the beach and connected to the overhead imaging mechanism, is used to perform bilateral filtering on the received front sea area image to obtain and output a corresponding bilateral filtered image; a maximum filtering device, connected to the bilateral filtering device, for performing maximum filtering processing on the received bilateral filtering image to obtain and output a corresponding maximum filtering image; A data sharpening device, connected to the maximum filtering device, for performing a spatial differential sharpening process on the received maximum filtering image to obtain and output a corresponding data sharpened image; A water body detection device is arranged in the control room on the beach and connected to the data sharpening device, and is used to identify each water body pixel point in the received data sharpening image based on the brightness value distribution range of the water body, analyze each imaging depth of field value corresponding to each water body pixel point, and output the difference between the maximum value and the minimum value of each imaging depth of field value as a reference height value; a strategy identification device connected to the water body detection device, and used to determine wave height data that is monotonically positively correlated with the reference height value, and to issue a signal prohibiting the entry of the vessel when the determined wave height data exceeds a set wave height threshold, and to issue a signal allowing the vessel to enter when the determined wave height data does not exceed the set wave height threshold; Among them, determining wave height data that is monotonically positively correlated with the reference height value, and issuing a signal prohibiting the entry of the hull when the determined wave height data exceeds the set wave height threshold, and issuing a signal allowing the hull to enter when the determined wave height data does not exceed the set wave height threshold includes: the value of the set wave height threshold is between 1.2 meters and 1.5 meters.
2. The smart city management strategy identification system as claimed in claim 1, characterized in that: The overhead imaging mechanism is also used to stop executing the overhead imaging processing of the sea area in front of the beach at the coastline when the second processing instruction is wirelessly received.
3. The smart city management strategy identification system as claimed in claim 2, characterized in that: The system further comprises: an operation measurement mechanism, connected to the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device, respectively, and used to measure the number of operations per unit time of the bilateral filtering device, the maximum value filtering device, the data sharpening device and the water body detection device respectively; Among them, the operation and measurement mechanism is respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to respectively measure the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device. The operation and measurement mechanism includes: the operation and measurement mechanism includes multiple operation and measurement units, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device to complete the measurement of the number of unit time operations of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device.
4. The smart city management strategy identification system as claimed in claim 3, characterized in that: The operation and measurement mechanism includes a plurality of operation and measurement units, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device to complete the respective measurement of the number of operations per unit time of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, including: the plurality of operation and measurement units are a plurality of operation sensor circuits, which are respectively connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device to complete the respective measurement of the number of operations per unit time of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device.
5. The smart city management strategy identification system as claimed in claim 4, characterized in that: The multiple operation measurement units are multiple operation sensor circuits, which are used to be connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively to complete the respective measurements of the number of operations per unit time of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, including: the structures of the multiple operation sensor circuits are the same.
6. The smart city management strategy identification system as claimed in claim 5, characterized in that: The multiple operation measurement units are multiple operation sensor circuits, which are used to be connected to the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively to complete the respective measurements of the number of operations per unit time of the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device. It also includes: the multiple operation sensor circuits have the same operation measurement upper limit value and operation measurement lower limit value.
7. The smart city management strategy identification system according to any one of claims 3 to 6, characterized in that: The system further comprises: The base structure is arranged below the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to provide bottom support services for the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively.
8. The smart city management strategy identification system as claimed in claim 7, characterized in that: The base structure is arranged below the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, and is used to provide bottom support services for the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device respectively, including: a plurality of slots are arranged on the base structure to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device.
9. The smart city management strategy identification system as claimed in claim 8, characterized in that: A plurality of slots are arranged on the base structure to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device, including: the opening cross-sectional areas of the plurality of slots are the same to respectively accommodate the bilateral filtering device, the maximum filtering device, the data sharpening device and the water body detection device.
Citation Information
Patent Citations
Intelligent wave height meter system capable of automatically measuring and control method
CN115541177A