Anti-storm surge integrated monitoring marker structure

Abstract

The utility model provides an anti-storm-surge integrated monitoring marker structure, which belongs to the technical field of anti-storm-surge monitoring markers and comprises an electro-galvanized steel pipe, a foundation structure, a heat dissipation case, a communication component and a rotatable support, the electro-galvanized steel pipe is fixed at the top of the foundation structure, the heat dissipation case is fixed at the bottom of the foundation structure, and the rotatable support is fixed at the bottom of the foundation structure. The foundation structure is fixed in an existing foundation; the rotatable bracket is fixed on the electro-galvanized steel pipe through a bidirectional hoop and is used for keeping stable under the action of external force; the heat dissipation case is fixed on the electro-galvanized steel pipe, the outer layer of the heat dissipation case adopts a shutter structure and is used for preventing water, ventilating and balancing internal and external air pressure, and the interior of the heat dissipation case adopts a separated cabin isolation design; the utility model provides an anti-storm surge integrated monitoring marker structure which can solve the problems that an existing monitoring marker is prone to loss and short in service cycle, and parts are fixedly arranged, replaced and maintained difficultly.

Description

Technical Field

[0001] This utility model belongs to the technical field of storm surge monitoring markers, specifically, it relates to an integrated storm surge monitoring marker structure. Background Technology

[0002] Integrated storm surge monitoring markers are facilities specifically designed for monitoring and responding to extreme weather disasters such as storm surges. These markers primarily function by monitoring environmental factors such as storm surges, waves, tides, water levels, and meteorological conditions in coastal areas in real time. This helps to scientifically assess the risks and impacts of storm surge disasters and provides crucial decision-making information for disaster prevention and mitigation. They are mainly used for real-time monitoring of storm surge water level changes, providing important data on the occurrence, development, and intensity of storm surges, thereby helping to predict the likelihood and extent of disasters; measuring data such as wind speed, wind direction, temperature, and humidity, which helps assess the impact of storm surges on coastal areas; detecting the height, frequency, and direction of waves, providing real-time information on changes in the marine environment; generating early warning signals; and providing real-time data support to relevant departments, thereby improving the efficiency of emergency response and decision-making capabilities for disasters such as storm surges. These markers are typically used in areas severely affected by storm surges, helping to obtain storm surge information in a timely manner and ensuring the safety of cities and ports.

[0003] Monitoring markers are exposed to harsh environments such as high salt spray and strong winds and waves for extended periods during use. Existing monitoring markers mostly use cement structures or integral stainless steel shells. Conventional cement materials are susceptible to salt spray corrosion, leading to a decrease in structural strength, while stainless steel will still rust after long-term exposure, resulting in short maintenance cycles. Furthermore, the cabinet seals rely on rubber strips, which are prone to water leakage after aging, causing internal communication modules to fail due to moisture. The high degree of component integration necessitates complete replacement upon damage, resulting in high costs. Additionally, the fixed camera angles prevent adjustments to the monitoring range based on the site conditions. Utility Model Content

[0004] In view of this, the present invention provides an integrated storm surge monitoring marker structure that can solve the problems of existing monitoring markers being easily damaged, having a short service life, having fixed components, and being difficult to replace and maintain.

[0005] This utility model is implemented as follows:

[0006] This utility model provides an integrated storm surge monitoring marker structure, comprising an electro-galvanized steel pipe, a foundation structure, a heat dissipation box, communication components, and a rotatable support. The electro-galvanized steel pipe is fixed to the top of the foundation structure and is fixed inside the existing foundation by the foundation structure. The rotatable support is fixed to the electro-galvanized steel pipe by a two-way clamp to maintain stability under external forces. The monitoring components are installed on the rotatable support. The heat dissipation box is fixed to the electro-galvanized steel pipe, and its outer layer adopts a louvered structure for waterproofing and ventilation, balancing internal and external air pressure. The interior adopts a compartmentalized isolation design to isolate the communication components from the power supply components to avoid electromagnetic interference.

[0007] Based on the above technical solution, the integrated storm surge monitoring marker structure of this utility model can be further improved as follows:

[0008] The surface of the electro-galvanized steel pipe is provided with multiple grooves, the width of which matches the width of the rotatable bracket, for the purpose of stably fixing the rotatable bracket to the electro-galvanized steel pipe. The multiple grooves are used to facilitate the adjustment of the height position of the rotatable bracket.

[0009] The beneficial effects of adopting the above-mentioned improved scheme are as follows: The electro-galvanized steel pipe, as the main supporting structure, is fixed to the top of the foundation structure and firmly embedded in the ground. Its surface, treated with electro-galvanization, effectively prevents corrosion, increases durability, and allows for long-term use in harsh environments such as storm surges. Simultaneously, multiple grooves are provided on the surface to securely fix the rotatable bracket and allow for adjustment of the bracket height as needed, further enhancing the stability of the structure.

[0010] Furthermore, the foundation structure is a reinforced concrete base with a steel mesh embedded inside at a spacing of ≤200mm, and anchor bolts are fixed at its bottom. The anchor bolts penetrate deep into the existing foundation to ensure the stability of the foundation structure during installation.

[0011] The beneficial effects of adopting the above-mentioned improved scheme are as follows: the foundation structure uses a reinforced concrete base with embedded steel mesh and anchor bolts. These designs ensure that the structure is firmly fixed to the ground and can withstand the impact of storm surges and strong winds. The anchor bolts penetrate deep into the existing foundation, providing additional stability to the overall landmark and preventing the structure from shifting or tilting due to external forces.

[0012] Furthermore, the bidirectional clamp of the rotatable bracket is fixed by bolts, which is used to adjust the direction of the rotatable bracket according to different monitoring positions; the inner side of the bidirectional clamp is lined with a rubber pad to enhance the friction of the bidirectional clamp and improve the stability of the rotatable bracket.

[0013] The beneficial effects of adopting the above-mentioned improved scheme are as follows: the rotatable bracket is fixed to the electro-galvanized steel pipe by a two-way clamp, which can maintain stability under external force. A monitoring component is installed on the bracket for real-time monitoring of changes in the surrounding environment. The bolt-fixing design of the two-way clamp allows the bracket to be adjusted in direction and position as needed. At the same time, the use of rubber pads enhances the friction of the clamp, improving the stability of the bracket.

[0014] Furthermore, the outer shell of the heat dissipation chassis is made of stainless steel with a thickness of ≥5mm.

[0015] The beneficial effects of adopting the above-mentioned improved scheme are as follows: The heat dissipation chassis, fixed to electro-galvanized steel pipes, protects the internal communication components and power supply system. Its outer layer design uses a louvered structure, which effectively prevents water damage and allows for ventilation, balancing internal and external air pressure and preventing internal equipment malfunctions due to pressure differences. Furthermore, the internal heat dissipation chassis employs a compartmentalized isolation design, separating the communication components from the power supply components, reducing electromagnetic interference and ensuring the normal operation of the communication equipment. The outer shell uses stainless steel with a thickness of ≥5mm, enhancing its resistance to corrosion and external impacts such as storm surges.

[0016] Furthermore, the monitoring components on the rotatable bracket include a water level gauge and a camera.

[0017] The beneficial effects of adopting the above-mentioned improvement scheme are as follows: Water level gauges and cameras, as key monitoring components, can collect water level data and image information in real time, providing data support for early warning of natural disasters such as storm surges. Cameras can also be used for remote monitoring to obtain timely information about the situation on-site, facilitating emergency response by staff.

[0018] Furthermore, the power supply components include a UPS power supply and a solar panel. The UPS power supply is fixed inside the heat dissipation chassis, and the solar panel is fixed on the electro-galvanized steel pipe, facing south, for receiving solar energy.

[0019] The beneficial effects of adopting the above-mentioned improved scheme are as follows: The power supply system consists of a UPS power supply and solar panels. The UPS power supply is installed inside a heat dissipation enclosure to ensure continuous power supply in the event of a power outage, avoiding communication interruptions. The solar panels are installed on electro-galvanized steel pipes, facing south, to utilize solar energy to provide sufficient power for the system, ensuring uninterrupted operation over long periods of time.

[0020] Furthermore, the anchor bolts include 10 bolts, which are fixed in a ring at the bottom of the foundation structure, with a right-angle hook structure at the end 50mm for a secure connection with the foundation structure.

[0021] The beneficial effects of adopting the above-mentioned improved scheme are as follows: the anchor bolt is designed as a ring, fixed at the bottom of the foundation structure, and its end has a right-angle hook structure that penetrates deep into the foundation, enhancing the stable connection between the foundation and the structure. In this way, the anchor bolt effectively prevents the marker from tilting or shifting in extreme environments such as storms.

[0022] Furthermore, the electro-galvanized steel pipe is equipped with a lightning rod, and the rotatable bracket is equipped with a bird deterrent to prevent the marker structure from being struck by lightning and to prevent birds from disturbing it.

[0023] The beneficial effects of adopting the above-mentioned improvement scheme are as follows: installing bird deterrents on the electro-galvanized steel pipe lightning rod and rotatable bracket can prevent lightning from striking the marker structure, protect the equipment from lightning damage, drive away birds, and ensure the safety and normal operation of the equipment.

[0024] Furthermore, the communication component adopts a Beidou-3 data transmission terminal, which is installed on the top of the heat dissipation box, facing south.

[0025] The beneficial effects of adopting the above-mentioned improved scheme are as follows: the communication component uses a Beidou-3 data transmission terminal, which is installed on the top of the heat dissipation chassis and arranged facing south. This configuration ensures that the communication equipment can continue to operate when receiving sufficient sunlight. At the same time, the Beidou-3 data transmission terminal provides accurate real-time data transmission, facilitating monitoring and remote management.

[0026] Compared with existing technologies, the beneficial effects of the integrated storm surge monitoring marker structure provided by this utility model are:

[0027] The design of the foundation structure and electro-galvanized steel pipes ensures the stability of the marker. The electro-galvanized steel pipes are treated with anti-corrosion to increase durability, and the foundation anchors and reinforced concrete foundation ensure that the marker is not prone to tilting or displacement under extreme conditions such as strong storm surges.

[0028] The waterproof and breathable design of the heat dissipation enclosure not only protects the internal equipment from harsh weather conditions but also effectively dissipates heat, ensuring the stable operation of the communication and power supply systems. The combination of solar panels and a UPS power supply provides ample power, ensuring continuous operation of the equipment even without an external power source.

[0029] Communication components and monitoring systems provide robust support for real-time data acquisition and environmental monitoring, ensuring timely detection of potential disasters and early warning, thereby improving the efficiency of emergency response.

[0030] The entire system has extremely strong resistance to storm surges, not only resisting seawater erosion but also having lightning rod protection to ensure that the equipment is protected from lightning strikes.

[0031] The rotatable bracket and adjustable design allow the monitoring equipment to be flexibly adjusted according to needs, ensuring the equipment operates at its best in different environments and under different requirements. Attached Figure Description

[0032] To more clearly illustrate the technical solutions of the embodiments of this utility model, the drawings used in the description of the embodiments of this utility model will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0033] Figure 1 This is a schematic diagram of the structure of an integrated storm surge monitoring marker.

[0034] The attached diagram lists the components represented by each number as follows:

[0035] 10. Electro-galvanized steel pipe; 20. Foundation structure; 30. Heat dissipation enclosure; 40. Communication components; 50. Rotatable bracket. Detailed Implementation

[0036] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings.

[0037] like Figure 1 The diagram shows an embodiment of an integrated storm surge monitoring marker structure provided by this utility model. In this embodiment, it includes an electro-galvanized steel pipe 10, a foundation structure 20, a heat dissipation box 30, a communication component 40, and a rotatable support 50. The electro-galvanized steel pipe 10 is fixed to the top of the foundation structure 20 and is fixed to the existing foundation via the foundation structure 20. The rotatable support 50 is fixed to the electro-galvanized steel pipe 10 by a two-way clamp to maintain stability under external forces. The monitoring component is mounted on the rotatable support 50. The heat dissipation box 30 is fixed to the electro-galvanized steel pipe 10, and its outer layer adopts a louvered structure for waterproofing and ventilation, balancing internal and external air pressure. The interior adopts a compartmentalized isolation design to isolate the communication component 40 from the power supply component, avoiding electromagnetic interference.

[0038] In the above technical solution, the surface of the electro-galvanized steel pipe 10 is provided with multiple grooves, the width of which matches the width of the rotatable bracket 50, for the purpose of stably fixing the rotatable bracket 50 on the electro-galvanized steel pipe 10. The multiple grooves are used to facilitate the adjustment of the height position of the rotatable bracket 50.

[0039] Furthermore, in the above technical solution, the foundation structure 20 is a reinforced concrete base with a steel mesh embedded inside at a spacing of ≤200mm. Anchor bolts are fixed at its bottom, and the anchor bolts penetrate deep into the existing foundation to ensure the stable installation of the foundation structure 20.

[0040] Furthermore, in the above technical solution, the bidirectional clamp of the rotatable bracket 50 is fixed by bolts and is used to adjust the direction of the rotatable bracket 50 according to different monitoring positions; the inner side of the bidirectional clamp is lined with a rubber pad to enhance the friction of the bidirectional clamp and improve the stability of the rotatable bracket 50.

[0041] Furthermore, in the above technical solution, the outer shell of the heat dissipation chassis 30 is made of stainless steel with a thickness of ≥5mm.

[0042] Furthermore, in the above technical solution, the monitoring components on the rotatable bracket 50 include a water level gauge and a camera.

[0043] Furthermore, in the above technical solution, the power supply components include a UPS power supply and a solar panel. The UPS power supply is fixed inside the heat dissipation box 30, and the solar panel is fixed on the electro-galvanized steel pipe 10, facing south, for receiving solar energy.

[0044] Furthermore, in the above technical solution, the anchor bolts include 10 bolts, which are fixed in a ring at the bottom of the foundation structure 20, and the ends of the bolts are bent into right angle hooks at 50mm for secure connection with the foundation structure 20.

[0045] Furthermore, in the above technical solution, lightning rods are installed on the electro-galvanized steel pipes 10, and bird deterrents are installed on the rotatable brackets 50 to prevent the marker structure from being struck by lightning and to prevent birds from disturbing it.

[0046] Furthermore, in the above technical solution, the communication component 40 adopts a Beidou-3 data transmission terminal, which is installed on the top of the heat dissipation box 30, facing south.

[0047] Specifically, the principle of this utility model is as follows: First, a detailed survey of the installation location of the marker is required to ensure a solid foundation. Installers should construct the foundation at the predetermined location according to the design drawings, including pouring the concrete base, and ensure that the anchor bolts are correctly fixed within the foundation. Install the electro-galvanized steel pipe and securely fix it to the foundation structure. Ensure the verticality and stability of the electro-galvanized steel pipe to avoid instability of subsequent monitoring equipment due to installation deviations. Connect the heat dissipation enclosure to the support frame on the electro-galvanized steel pipe, ensuring that communication equipment such as Beidou-3 data transmission terminals and the power supply system can be smoothly connected. The rotatable bracket and its monitoring equipment are installed on the bracket, ensuring the bracket is firmly fixed and can be adjusted as necessary. Use two-way clamps to firmly fix the bracket, ensuring it does not loosen in strong winds. Install solar panels, ensuring they are correctly installed facing south to maximize the use of sunlight for charging. The UPS power supply needs to be installed inside the heat dissipation enclosure to ensure a stable power supply.

[0048] After installation, start all equipment and ensure the cooling and power systems are functioning properly. Pay particular attention to communication equipment, ensuring the BeiDou terminal can connect and transmit data correctly. Test the operation of water level gauges, cameras, and other monitoring equipment to ensure normal data acquisition and remote monitoring capabilities. Adjust the angle and position of the rotatable brackets to ensure the monitoring equipment covers the required area and operates stably under different weather conditions. Ensure all equipment communication links are unobstructed, data is accurately transmitted to the remote monitoring center, and test the backup power system to ensure continuous power supply during power outages.

[0049] During normal operation, the marker's monitoring system continuously collects environmental data. Operators can view the monitoring data and on-site conditions in real time through a remote monitoring platform, enabling necessary analysis and judgment. A continuous and stable power supply from the solar panels and UPS is ensured.

Claims

1. A storm surge integrated monitoring marker structure, characterized in that, The utility model provides a kind of communication marker structure, including galvanized steel pipe (10), foundation structure (20), heat dissipation cabinet (30), communication component (40) and rotatable support (50), the galvanized steel pipe (10) is fixed on the top of the foundation structure (20), is fixed inside existing foundation by the foundation structure (20);Rotatable support (50) is fixed on the galvanized steel pipe (10) by two-way hoop, for keeping stable under external force;Heat dissipation cabinet (30) is fixed on the galvanized steel pipe (10), and its outer layer adopts louver structure, for waterproof ventilation, balance internal and external air pressure, inside adopts the design of warehouse isolation, for the communication component (40) is isolated with power supply component, avoid electromagnetic interference.

2. The storm surge monitoring integrated marker structure according to claim 1, wherein, The surface of the galvanized steel pipe (10) is provided with a plurality of grooves, the width of the groove matches the width of the rotatable support (50), for stably fixing the rotatable support (50) on the galvanized steel pipe (10), and a plurality of grooves are used to facilitate the height position adjustment of the rotatable support (50).

3. The storm surge monitoring integrated marker structure according to claim 2, wherein, The foundation structure (20) is a reinforced concrete base, a steel mesh with a spacing of ≤200mm is embedded inside, and an anchor bolt is fixed at the bottom of the foundation structure (20), the anchor bolt penetrates into the existing foundation, to ensure the installation stability of the foundation structure (20).

4. The storm surge monitoring integrated marker structure according to claim 3, wherein, The two-way hoop of the rotatable support (50) is fixed by bolts, to adjust the direction of the rotatable support (50) according to the monitoring position; the inside of the two-way hoop is lined with rubber pads, to enhance the friction of the two-way hoop, to improve the stability of the rotatable support (50).

5. The storm surge integrated monitoring marker structure according to claim 4, wherein, The shell of the heat dissipation cabinet (30) is made of stainless steel material, with a thickness of ≥5mm.

6. The storm surge monitoring integrated marker structure according to claim 5, wherein, The rotatable support (50) is provided with a monitoring component, including a water level gauge and a camera.

7. The storm surge monitoring integrated marker structure according to claim 6, wherein, The power supply component includes a UPS power supply and a solar panel, the UPS power supply is fixed inside the heat dissipation cabinet (30), and the solar panel is fixed on the galvanized steel pipe (10) and placed southward to receive solar energy.

8. The storm surge monitoring integrated marker structure according to claim 7, wherein, The anchor bolt includes 10 pieces, is fixed in a ring shape at the bottom of the foundation structure (20), and is bent at right angles at the end 50mm, to be stably connected with the foundation structure (20).

9. The storm surge monitoring integrated marker structure according to claim 8, wherein, A lightning rod is installed on the galvanized steel pipe (10), and a bird repeller is installed on the rotatable support (50), to avoid lightning strike and bird interference on the marker structure.

10. The storm surge monitoring integrated marker structure according to claim 9, wherein, The communication component (40) uses a Beidou third-generation data transmission terminal, and is installed on the top of the heat dissipation cabinet (30) and faces south.

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