A network power supply monitoring device

Abstract

This invention relates to the field of monitoring equipment technology and discloses a networked power supply monitoring device, comprising: a housing, a rotating component, a pneumatic lifting cylinder, a wind direction and speed detection component, and a data processing center. The upper end of the housing has a through hole for connection, connecting the housing to the external environment. The rotating component is located inside the housing and includes a rotating base and a first rotation drive mechanism. The transmission part of the first rotation drive mechanism drives and connects to the rotating base. The pneumatic lifting cylinder includes a cylinder body and a telescopic rod, with the cylinder body's lifting drive connected to the telescopic rod. The cylinder body is mounted on the rotating base and rotates with it. The telescopic rod passes through the through hole and connects to the monitoring component. The telescopic rod has an elliptical cross-section. The wind direction and speed detection component detects changes in the wind field of the external environment. The data processing center is electrically connected to the pneumatic lifting cylinder, the first rotation drive mechanism, the monitoring component, and the wind direction and speed detection component. This reduces the risk of the rod bending and breaking.

Description

Technical Field

[0001] This invention relates to the field of monitoring equipment technology, and in particular to a network power supply monitoring device. Background Technology

[0002] With the increasing demand for mobile monitoring devices in scenarios such as outdoor emergency security, field patrols, and temporary deployment, multi-stage pneumatic lifting monitoring devices with advantages such as rapid deployment and adjustable height are widely used. By raising the monitoring module and power supply module through multi-stage telescopic poles, they can achieve blind-spot-free monitoring coverage and adapt to the flexible deployment needs of mobile scenarios.

[0003] In existing network power supply monitoring devices, the multi-stage lifting masts are generally made of cylindrical poles. When operating outdoors, the raised mast has a large wind-exposed area, distributes force evenly, and lacks wind-guiding buffers, making it susceptible to significant swaying from wind impacts. This not only causes blurred images and reduced data acquisition accuracy from the top monitoring module but also exacerbates fatigue wear at the connection between the mast and the base. Long-term use can lead to mast bending, breakage, and even the entire device tipping over. In short, the mast is prone to bending and breakage. Summary of the Invention

[0004] In order to overcome the shortcomings of the prior art, the purpose of this invention is to provide a network power supply monitoring device that reduces the risk of pole bending and breaking.

[0005] The objective of this invention is achieved through the following technical solution:

[0006] A network power supply monitoring device, comprising:

[0007] The box body has an annular positioning support protrusion on the bottom end face of the box body; the upper end of the box body has a through hole for passage, the through hole connecting the internal space of the box body and the external environment;

[0008] A rotating component is located inside the housing. The rotating component includes a rotating seat and a first rotating drive mechanism. The positioning support end of the rotating seat is inserted into the annular positioning support protrusion. The transmission part of the first rotating drive mechanism drives the rotating seat to rotate around the axis of the annular positioning support protrusion.

[0009] A pneumatic lifting cylinder includes a cylinder body and a telescopic rod. The lifting drive unit of the cylinder body drives the telescopic rod. One end of the cylinder body away from the lifting drive unit is mounted on a rotating seat, and the cylinder body rotates with the rotating seat. The telescopic rod passes through the through hole and is located in the external environment. A monitoring component is connected to the end of the telescopic rod away from the cylinder body. The outer contour of the cross-section of the telescopic rod is elliptical.

[0010] A wind direction and speed detection component, which is used to detect changes in the wind field of the external environment;

[0011] The data processing center is electrically connected to the pneumatic lifting cylinder, the first rotation drive mechanism, the monitoring component, and the wind direction and speed detection component. The data processing center is used to control the first rotation drive mechanism to rotate based on wind field detection data, so as to drive the rotating seat to rotate.

[0012] Furthermore, the network power supply monitoring device also includes a wind pressure stabilizing component, which includes a mounting sleeve, two connecting parts, and two wind pressure plates. The mounting sleeve is fitted onto the outer wall of the telescopic rod, and the outer contour of the cross-section of the mounting sleeve is elliptical. The connecting parts are installed on the outer wall of the mounting sleeve, and the two connecting parts are spaced apart along the minor axis of the mounting sleeve. Each wind pressure plate is connected to one of the connecting parts, and the wind pressure plate extends in a direction away from the mounting sleeve.

[0013] Furthermore, the wind pressure stabilizing component also includes a second rotation drive mechanism, which is installed on the connecting part, and the drive part of the second rotation drive mechanism drives the wind pressure plate to rotate relative to the mounting sleeve; the second rotation drive mechanism is electrically connected to the data processing center.

[0014] Furthermore, the connecting part has rounded corners at both ends along the long axis of the mounting sleeve; the downward-facing end face of the air pressure plate is an arc-shaped guide surface, and the upward-facing end face of the air pressure plate is a plane; the air pressure plate has rounded corners at both ends along its width, and the radius of one end is larger than the radius of the other end.

[0015] Furthermore, a first solar panel is installed on the upward-facing end face of the wind pressure plate; a battery pack is housed inside the housing, the battery pack is used to provide energy for the network power supply monitoring device, and the first solar panel is electrically connected to the battery pack.

[0016] Furthermore, the ratio of the length of the major axis to the minor axis of the telescopic rod is 1.2:1 to 1.8:1.

[0017] Furthermore, the wind direction and speed detection component is installed on the end face of the monitoring component away from the telescopic pole.

[0018] Furthermore, the network power supply monitoring device also includes a solar energy component, which includes a second solar panel and a support rod. The outer wall of the housing is provided with a support block. The pivot end of the support rod is pivotally connected to the downward-facing end face of the second solar panel, and the support end of the support rod abuts against the support block.

[0019] Furthermore, the side wall of the housing is provided with a receiving groove, which extends along the height direction of the housing and passes through the top of the housing to connect with the external environment; the second solar panel is slidably engaged with the receiving groove through a pivot shaft, and the second solar panel can swing relative to the housing around the pivot shaft at the extended end of the receiving groove.

[0020] Furthermore, the network power supply monitoring device also includes a mobile walking mechanism, which is installed on the outer wall of the bottom of the housing.

[0021] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0022] 1. The bottom end face of the housing is provided with an annular positioning support protrusion; the upper end of the housing is provided with a through hole for passage, the through hole connecting the internal space of the housing and the external environment; the rotating component is located inside the housing, the rotating component includes a rotating seat and a first rotating drive mechanism, and the positioning support end of the rotating seat is inserted into the annular positioning support protrusion; the transmission part of the first rotating drive mechanism drives the rotating seat to rotate around the axis of the annular positioning support protrusion; the pneumatic lifting cylinder includes a cylinder body and a telescopic rod, the end of the cylinder body away from the lifting drive part is installed on the rotating seat, and the cylinder body rotates with the rotating seat; the outer contour of the cross section of the telescopic rod is elliptical. The annular positioning support protrusion on the bottom end face of the housing provides precise positioning and stable support for the rotating seat, allowing the rotating seat to rotate smoothly around the axis of the annular positioning support protrusion. Combined with the structural design of the cylinder rotating synchronously with the rotating seat, it can drive the telescopic rod to adjust its posture according to the wind direction. In addition, the telescopic rod with an elliptical cross-section can achieve directional airflow guidance compared to traditional cylindrical rods, greatly reducing wind resistance and wind impact. This not only avoids the blurring of the monitoring component's image and the decrease in acquisition accuracy caused by the large swaying of the telescopic rod, but also reduces fatigue wear at the connection points between the telescopic rod and the cylinder, and between the cylinder and the rotating seat, preventing the telescopic rod from bending, breaking, and the device from tipping over, thus extending the overall service life of the device.

[0023] 2. The cylinder-based lifting drive unit drives the telescopic rod; the telescopic rod passes through the through hole and is located in the external environment, with the end of the telescopic rod away from the cylinder connected to the monitoring component. The through hole at the top of the housing provides a stable passage and guide for the telescopic rod, ensuring smooth and unbiased lifting and lowering. The pneumatic lifting cylinder drives the telescopic rod to extend and retract through the cylinder's lifting drive unit, allowing for flexible adjustment of the monitoring component's height to meet the blind-spot-free monitoring needs of different scenarios.

[0024] 3. The wind direction and speed detection component is used to detect changes in the wind field of the external environment. The data processing center is electrically connected to the pneumatic lifting cylinder, the first rotation drive mechanism, the monitoring component, and the wind direction and speed detection component. The data processing center controls the first rotation drive mechanism based on the wind field detection data to drive the rotating seat to rotate. The wind direction and speed detection component can capture changes in the wind field of the external environment in real time and obtain core wind field detection data such as wind direction and wind speed, providing a basis for device adjustment. The data processing center is electrically connected to the pneumatic lifting cylinder, the first rotation drive mechanism, the monitoring component, and the wind direction and speed detection component, which can realize data interaction and unified command issuance among the components, ensuring coordinated operation of the device. Based on the wind field detection data, the data processing center controls the first rotation drive mechanism to rotate the rotating seat around the axis of the annular positioning support protrusion, thereby driving the cylinder, telescopic rod, and monitoring component to rotate synchronously. This allows the telescopic rod with an elliptical cross-section to adapt to the wind direction and achieve directional airflow, reducing the impact of wind on the telescopic rod from the source, avoiding large swaying of the telescopic rod, and reducing the risk of bending and breakage of the telescopic rod. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the structure of a network power supply monitoring device according to the present invention;

[0026] Figure 2 for Figure 1 A sectional view;

[0027] Figure 3 for Figure 1 The diagram shows the structure of the wind pressure stabilizing component.

[0028] In the diagram: 1. Box body; 11. Annular positioning support protrusion; 12. Through hole; 13. Receiving groove; 2. Rotating component; 21. Rotating seat; 22. First rotation drive mechanism; 3. Pneumatic lifting cylinder; 31. Cylinder body; 32. Telescopic rod; 4. Monitoring component; 5. Wind direction and speed detection component; 6. Wind pressure stabilizing component; 61. Mounting sleeve; 62. Connecting part; 63. Wind pressure plate; 7. First solar panel; 8. Second rotation drive mechanism; 9. Solar component; 91. Second solar panel; 92. Support rod. Detailed Implementation

[0029] The present invention will now be further described in conjunction with the accompanying drawings and specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0030] It should be noted that when an element is described as being "fixed to" another element, it can be directly attached to the other element or there may be an intervening element. When an element is described as being "connected to" another element, it can be directly connected to the other element or there may be an intervening element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only possible implementations.

[0031] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein in the description of the invention is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0032] See Figures 1-3 The present invention provides a network power supply monitoring device, comprising: a housing 1, a rotating component 2, a pneumatic lifting cylinder 3, a wind direction and speed detection component 5, and a data processing center.

[0033] The bottom end face of the housing 1 is provided with an annular positioning support protrusion 11. The core function of the annular positioning support protrusion 11 is to provide a positioning reference and a stable support carrier. The upper end of the housing 1 is provided with a through hole 12 for insertion, which connects the internal space of the housing 1 with the external environment. The through hole 12 is actually a hole in the cover plate of the housing 1, providing a passage for insertion, and at the same time, the through hole 12 also serves as a guide.

[0034] The rotating component 2 is located inside the housing 1. The rotating component 2 includes a rotating base 21 and a first rotation drive mechanism 22, with the positioning support end of the rotating base 21 inserted into an annular positioning support protrusion 11. As the core actuator for achieving adaptive wind field adjustment of the device, the rotating component 2 is entirely located within the housing 1, which provides protection against outdoor dust and rain, ensuring operational stability. The positioning support end of the rotating base 21 is inserted into the annular positioning support protrusion 11. Relying on the positioning and support function of the annular positioning support protrusion 11, the rotating base 21 is precisely assembled, ensuring its fixed installation position. Simultaneously, the annular positioning support protrusion 11 ensures even force distribution on the rotating base 21, preventing displacement during rotation. The transmission part of the first rotation drive mechanism 22 drives the rotating base 21, causing it to rotate around the axis of the annular positioning support protrusion 11. The first rotation drive mechanism 22 can be a stepper motor with a gear transmission mechanism, a geared DC motor with a synchronous belt transmission mechanism, etc. Its transmission part drives the rotating seat 21 through gear transmission, belt transmission or direct motor transmission. The first rotation drive mechanism 22 provides the power source for the rotation of the rotating seat 21, laying the foundation for the synchronous rotation of subsequent components, thereby realizing the adaptive adjustment of the device to wind field changes.

[0035] The pneumatic lifting cylinder 3 includes a cylinder body 31 and a telescopic rod 32. The lifting drive unit of the cylinder body 31 drives and connects to the telescopic rod 32. One end of the cylinder body 31 away from the lifting drive unit is mounted on a rotating seat 21, and the cylinder body 31 rotates with the rotating seat 21. The telescopic rod 32 passes through the through hole 12 and is located in the external environment, and the end of the telescopic rod 32 away from the cylinder body 31 is connected to a monitoring component 4. The connection between the monitoring component 4 and the telescopic rod 32 can be a flange fixed connection, a threaded connection, a snap-fit ​​quick-release connection, or a bracket hinge connection. The outer contour of the cross-section of the telescopic rod 32 is elliptical. The cylinder body 31 serves as the fixed base of the pneumatic lifting cylinder 3, and its lifting drive unit drives and connects to the telescopic rod 32. By outputting driving force, the telescopic rod 32 can be controlled to extend and retract axially, thereby realizing the lifting and lowering of the monitoring component 4 to meet the monitoring coverage requirements at different heights. One end of the cylinder body 31, away from the lifting drive unit, is mounted on the rotating seat 21, forming a fixed connection between the cylinder body 31 and the rotating seat 21 (such as a bolted connection, flange connection, etc.). When the rotating seat 21 rotates around the axis of the annular positioning support protrusion 11, the cylinder body 31 can rotate synchronously with the rotating seat 21, thereby driving the telescopic rod 32 and the monitoring component 4 at the end to rotate together. The telescopic rod 32 can drive the monitoring component 4 to rise and fall to a suitable height and adjust its orientation with rotation, ensuring that the monitoring range and posture of the monitoring component 4 meet the requirements. At the same time, the monitoring component 4, which is connected by a bracket hinge, can rotate relative to the telescopic rod 32. When the telescopic rod 32 is facing the wind, the monitoring component 4 can also rotate its direction to perform all-round detection. The outer contour of the cross-section of the telescopic rod 32 is elliptical. Compared with the traditional circular cross-section structure, the elliptical structure can achieve directional airflow in windy outdoor environments, reduce the impact of wind resistance on the telescopic rod 32, reduce the sway amplitude of the telescopic rod 32, ensure the stable operation of the monitoring component 4, and extend the service life of the telescopic rod 32.

[0036] The wind direction and speed detection component 5 is used to detect changes in the wind field in the external environment.

[0037] The data processing center is electrically connected to the pneumatic lifting cylinder 3, the first rotation drive mechanism 22, the monitoring component 4, and the wind direction and speed detection component 5. The data processing center controls the first rotation drive mechanism 22 based on wind field detection data to drive the rotating seat 21 to rotate. The data processing center is housed inside the housing 1, or in a mobile data processing vehicle (in which case a signal receiving module needs to be installed inside the device). The data processing center receives and analyzes the data collected by the wind direction and speed detection component 5, determines the key parameters of the current wind field such as wind direction and speed, and then generates corresponding control commands based on the analyzed wind field detection data, sending them to the first rotation drive mechanism 22. Upon receiving the control commands, the first rotation drive mechanism 22 activates, transmitting driving force through the transmission unit to drive the rotating seat 21 to rotate around the axis of the annular positioning support protrusion 11. Simultaneously, the rotating seat 21 drives the cylinder 31, the telescopic rod 32, and the monitoring component 4 to rotate, ensuring that the long axis of the telescopic rod 32 is adapted to the current wind direction, minimizing the impact of wind resistance on the telescopic rod 32. The cooperation between the various components enables dynamic adaptation to changes in the wind field, thereby reducing the risk of bending and breakage of the telescopic rod 32.

[0038] Preferably, the monitoring component 4 can be a bullet camera, a PTZ camera, an infrared night vision camera, a panoramic fisheye camera, or a multispectral camera to adapt to different outdoor deployment scenarios. The bullet camera can achieve fixed-angle high-definition monitoring, suitable for fixed-point monitoring scenarios in field patrols, and can clearly collect the dynamics of personnel and vehicles in the patrol area. The PTZ camera has a 360-degree rotating monitoring function, and with the rotation of the telescopic pole 32, it can further expand the monitoring coverage and meet the needs of all-area monitoring for emergency security. The infrared night vision camera can work normally in low-light environments such as at night and in tunnels, suitable for temporary deployment scenarios at night, and ensures accurate image acquisition even in the absence of light. The panoramic fisheye camera can achieve panoramic monitoring without blind spots, without the need for frequent adjustment of the monitoring angle, and is suitable for large-scale temporary deployment scenarios. The multispectral camera can capture infrared and ultraviolet spectral information beyond visible light, suitable for deployment needs in complex outdoor environments, can identify concealed targets, and improve the comprehensiveness and accuracy of monitoring.

[0039] The working principle of the network power supply monitoring device of the present invention is as follows: First, the device is deployed to a designated location, and the control cylinder 31 drives the telescopic rod 32 to extend to a designated height, providing a wide monitoring field of view for the monitoring component 4. When the device is working, the wind direction and speed detection component 5 continuously collects outdoor wind field detection data and transmits the data to the data processing center in real time. The data processing center analyzes the received wind field detection data, determines key information such as the current wind direction and wind speed, and then generates a control command adapted to the wind field based on the wind field detection data and sends it to the first rotation drive mechanism 22. After receiving the command, the first rotation drive mechanism 22 acts and drives the rotating seat 21 to rotate around the axis of the annular positioning support protrusion 11 through the transmission part. The rotating seat 21 synchronously drives the cylinder 31, the telescopic rod 32 and the monitoring component 4 (when the monitoring component 4 can rotate relative to the telescopic rod 32, it can be monitored in real time in a designated direction through the control of the data processing center and does not follow the rotation of the rotating seat 21) to rotate together, so that the long axis direction of the telescopic rod 32, whose cross-sectional outer contour is elliptical, is adapted to the wind direction, realizing directional guidance and reducing wind resistance impact.

[0040] The bottom end face of the housing 1 is provided with an annular positioning support protrusion 11; the upper end of the housing 1 is provided with a through hole 12 for passage, the through hole 12 connects the internal space of the housing 1 and the external environment; the rotating component 2 is located inside the housing 1, the rotating component 2 includes a rotating seat 21 and a first rotating drive mechanism 22, and the positioning support end of the rotating seat 21 is inserted into the annular positioning support protrusion 11; the transmission part of the first rotating drive mechanism 22 drives the rotating seat 21 so that the rotating seat 21 rotates around the axis of the annular positioning support protrusion 11; the pneumatic lifting cylinder 3 includes a cylinder body 31 and a telescopic rod 32, one end of the cylinder body 31 away from the lifting drive part is installed on the rotating seat 21, and the cylinder body 31 rotates with the rotating seat 21; the outer contour of the cross section of the telescopic rod 32 is elliptical. The annular positioning support protrusion 11 on the bottom end face of the housing 1 provides precise positioning and stable support for the rotating seat 21, allowing the rotating seat 21 to rotate smoothly around the axis of the annular positioning support protrusion 11. Combined with the structural design of the cylinder 31 rotating synchronously with the rotating seat 21, it can drive the telescopic rod 32 to adjust its posture according to the wind direction. In addition, the telescopic rod 32 with an elliptical cross-section can achieve directional airflow guidance compared to the traditional cylindrical rod, greatly reducing wind resistance and wind impact. This not only avoids the large swaying of the telescopic rod 32, which would cause the monitoring component 4 to have a blurred image and reduced acquisition accuracy, but also reduces fatigue wear at the connection 62 between the telescopic rod 32 and the cylinder 31, and between the cylinder 31 and the rotating seat 21, preventing the telescopic rod 32 from bending, breaking, and the device from tipping over, thus extending the overall service life of the device.

[0041] The lifting drive unit based on cylinder 31 drives the telescopic rod 32. The telescopic rod 32 passes through the through hole 12 and is located in the external environment, with the end of the telescopic rod 32 away from cylinder 31 connected to the monitoring component 4. The through hole 12 at the upper end of the housing 1 provides a stable passage and guide for the telescopic rod 32, ensuring smooth and unbiased lifting and lowering of the telescopic rod 32. The pneumatic lifting cylinder 3 drives the telescopic rod 32 to extend and retract through the lifting drive unit of cylinder 31, which can flexibly adjust the height of the monitoring component 4 to meet the blind-spot-free monitoring requirements of different scenarios.

[0042] The wind direction and speed detection component 5 is used to detect changes in the wind field of the external environment; the data processing center is electrically connected to the pneumatic lifting cylinder 3, the first rotation drive mechanism 22, the monitoring component 4 and the wind direction and speed detection component 5 respectively. The data processing center is used to control the first rotation drive mechanism 22 to drive the rotating seat 21 to rotate based on the wind field detection data. The wind direction and speed detection component 5 can capture the changes in the wind field of the external environment in real time and obtain core wind field detection data such as wind direction and wind speed, providing a basis for device adjustment. The data processing center is electrically connected to the pneumatic lifting cylinder 3, the first rotation drive mechanism 22, the monitoring component 4, and the wind direction and speed detection component 5, respectively, which can realize data interaction and unified command issuance of each component, ensuring coordinated operation of the device. Based on the wind field detection data, the data processing center controls the first rotation drive mechanism 22 to rotate, driving the rotating seat 21 to rotate around the axis of the annular positioning support protrusion 11, thereby driving the cylinder 31, the telescopic rod 32, and the monitoring component 4 to rotate synchronously, so that the telescopic rod 32 with an elliptical cross-section can adapt to the wind direction to achieve directional flow, reducing the impact of wind on the telescopic rod 32 from the source, avoiding large swaying of the telescopic rod 32, and reducing the risk of bending and breakage of the telescopic rod 32.

[0043] In addition, a network power supply monitoring device also includes a wind pressure stabilizing component 6. The wind pressure stabilizing component 6 includes a mounting sleeve 61, two connecting parts 62 and two wind pressure plates 63. The mounting sleeve 61 is fitted onto the outer wall of the telescopic rod 32, and the outer contour of the cross-section of the mounting sleeve 61 is elliptical. The connecting parts 62 are installed on the outer wall of the mounting sleeve 61, and the two connecting parts 62 are spaced apart along the short axis of the mounting sleeve 61. Each wind pressure plate 63 is connected to one of the connecting parts 62, and the wind pressure plate 63 extends in a direction away from the mounting sleeve 61. The outer contour of the mounting sleeve 61 is elliptical, matching the outer contour of the telescopic rod 32. This ensures a tight fit and stable connection between the mounting sleeve 61 and the telescopic rod 32, preventing loosening or shifting during wind impact or the raising and lowering of the telescopic rod 32. It also maintains the advantage of directional airflow guidance, further optimizing wind resistance dispersion and reducing direct airflow impact on the telescopic rod 32. The two wind pressure plates 63 are symmetrically distributed, ensuring even force distribution on the wind pressure stabilizing component 6. This prevents unilateral force from causing the mounting sleeve 61 to tilt or exacerbating localized wear on the telescopic rod 32. The symmetrical structure also enhances the structural stability of the wind pressure stabilizing component 6. Furthermore, the wind pressure plates 63, in conjunction with the elliptical mounting sleeve 61 and the telescopic rod 32, further optimize the airflow guidance path, allowing airflow to flow in a preset direction. This avoids unstable impacts from turbulent flow, better ensuring the stable operation of the monitoring component 4, improving the device's adaptability in strong wind environments, and extending the service life of the telescopic rod 32 and the entire device.

[0044] Preferably, the wind pressure stabilizing component 6 further includes a second rotation drive mechanism 8, which is mounted on the connecting part 62. The drive part of the second rotation drive mechanism 8 drives the wind pressure plate 63 to rotate relative to the mounting sleeve 61. The second rotation drive mechanism 8 is electrically connected to the data processing center. The two second rotation drive mechanisms 8 (such as micro servo motors, micro stepper motors, etc.) drive the two wind pressure plates 63 independently, respectively, and can flexibly adjust the angle of one or both wind pressure plates 63 according to the wind field changes to adapt to complex scenarios with different wind directions and speeds. The second rotation drive mechanism 8 is electrically connected to the data processing center and incorporated into the overall automated control system of the device. After receiving the wind field detection data from the wind direction and speed detection component 5, the data processing center can simultaneously send instructions to the second rotation drive mechanism 8 while controlling the first rotation drive mechanism 22 to adjust the overall orientation of the telescopic rod 32. This allows the wind pressure plate 63 to receive appropriate wind force and guide the airflow smoothly. This avoids excessive force on the wind pressure plate 63, which could cause the connection part 62 and the mounting sleeve 61 to loosen. It also maximizes the dispersion of wind force and weakens the impact of airflow on the telescopic rod 32, further reducing the swaying amplitude of the telescopic rod 32.

[0045] Preferably, both ends of the connecting portion 62 along the long axis of the mounting sleeve 61 are rounded. This rounding avoids sharp edges on the connecting portion 62. When airflow passes between the mounting sleeve 61 and the connecting portion 62, the rounded corners guide the airflow smoothly, reducing turbulence at the connecting portion 62. The downward-facing end face of the pressure plate 63 is an arc-shaped guide surface, while the upward-facing end face is a flat surface. Both ends of the pressure plate 63 along its width are rounded, with the radius of one rounded corner being larger than that of the other. In simple terms, the pressure plate 63 is similar to the structure of an airplane wing, but with the opposite effect. The downward-facing end of the wind pressure plate 63 is an arc-shaped guide surface, while the upward-facing end is a flat surface. When airflow passes over it, the airflow path is longer and the velocity is faster on the arc-shaped guide surface side, while the airflow path is shorter and the velocity is slower on the flat surface side. This creates a pressure difference between the upper and lower surfaces, generating a downward stabilizing force. This force can offset some of the lifting and impact of the wind on the telescopic rod 32, further suppressing the swaying of the telescopic rod 32 and making the posture of the telescopic rod 32 and the monitoring component 4 more stable. The wind pressure plate 63 not only enhances the wind resistance and guide effect but also uses the airflow force to help improve the stability of the telescopic rod 32, while optimizing the airflow path and reducing turbulence interference. At the same time, the wind pressure plate 63 has rounded corners at both ends along its width direction, which can avoid sharp ends obstructing airflow, reduce airflow resistance, and prevent stress concentration at the ends due to airflow impact.

[0046] Preferably, a first solar panel 7 is installed on the upward-facing end face of the wind pressure plate 63; the housing 1 houses a battery pack, which provides energy for a networked power supply monitoring device, and the first solar panel 7 is electrically connected to the battery pack. The housing 1 protects the battery pack from damage caused by outdoor dust, rain, and impacts, ensuring stable power supply. The battery pack provides energy for the entire networked power supply monitoring device and is connected to various electrical components via wires, driving the operation of all components including the first rotary drive mechanism 22, the second rotary drive mechanism 8, the pneumatic lifting cylinder 3, the monitoring component 4, the wind direction and speed detection component 5, and the data processing center, freeing it from the constraints of an external power source. The first solar panel 7, electrically connected to the battery pack, stores the converted electrical energy in the battery pack, forming a closed loop of "solar energy collection - electrical energy storage - continuous power supply," significantly improving the endurance and practicality in outdoor scenarios without an external power source.

[0047] Preferably, the ratio of the major axis to the minor axis of the telescopic rod 32 is 1.2:1 to 1.8:1. This ratio range achieves an optimal balance between wind resistance and structural strength, ensuring the directional guidance effect of the elliptical telescopic rod 32 while avoiding a decrease in structural stability due to an excessive difference between the major and minor axes.

[0048] Preferably, the wind direction and speed detection component 5 is installed on the end face of the monitoring component 4 away from the telescopic pole 32. The wind direction and speed detection component 5 (which can be an ultrasonic wind direction and speed sensor, a three-cup wind speed and direction sensor, a cup wind speed sensor with a wind vane, or a hot-wire wind speed and direction sensor) is positioned at a higher altitude and is not obstructed by the telescopic pole 32 or the wind pressure stabilizing component 6. It can directly contact the undisturbed outdoor airflow, accurately collecting real wind direction and speed data. This avoids detection deviations caused by turbulence due to component obstruction, providing a reliable basis for control commands from the data processing center and ensuring accurate and effective adaptive wind field adjustment of the device. If a PTZ camera is used for the monitoring component 4, an installation platform needs to be added above the end face of the monitoring component 4 away from the telescopic pole 32 to provide an installation foundation for the wind direction and speed detection component 5.

[0049] In addition, a network power supply monitoring device also includes a solar component 9, which includes a second solar panel 91 and a support rod 92. The outer wall of the housing 1 is provided with a support block. The pivot end of the support rod 92 is pivotally connected to the downward-facing end face of the second solar panel 91, and the support end of the support rod 92 abuts against the support block. The second solar panel 91 (which is also connected to the battery pack via wires) forms a dual-light energy collection structure with the first solar panel 7, significantly increasing the total amount of light energy collected. This allows for faster replenishment of the battery pack and extends the device's runtime without an external power source. The outer wall of the housing 1 is equipped with a support block, providing a stable support point for the support rod 92. The pivot end of the support rod 92 is pivotally connected to the downward-facing end face of the second solar panel 91, and the support end abuts against the support block, forming a triangular support structure. This structure not only provides stable support for the second solar panel 91, preventing it from tipping over or falling off due to wind impact, but also allows for flexible adjustment of the light-receiving angle of the second solar panel 91 by adjusting the abutment position of the support end of the support rod 92 on the support block or rotating the pivot angle between the support rod 92 and the second solar panel 91, maximizing the light energy conversion efficiency.

[0050] Preferably, the side wall of the housing 1 is provided with a receiving groove 13, which extends along the height direction of the housing 1 and penetrates through the top of the housing 1 to connect with the external environment. The second solar panel 91 is slidably engaged with the receiving groove 13 via a pivot shaft, and the second solar panel 91 can swing relative to the housing 1 around the pivot shaft at the extended end of the receiving groove 13. The receiving groove 13, which extends along the height direction and penetrates through the top of the housing 1, provides a dedicated storage space for the second solar panel 91. When not in use or being moved, the second solar panel 91 can slide down along the receiving groove 13 with the pivot shaft and be stored in the groove. This not only avoids the second solar panel 91 being exposed and damaged by bumps and sand, but also makes the overall structure of the device compact, reduces the transportation and storage volume, and improves portability. The receiving groove 13, which penetrates through the top to connect with the external environment, provides sufficient travel for the unfolding action of the second solar panel 91, ensuring that the unfolding is uninterrupted. Meanwhile, the structure relies on the housing 1's own receiving slot 13 to achieve dual adjustment of sliding and swinging, without the need for additional complex adjustment brackets. The structure is simple and highly stable. The sliding and swinging actions do not interfere with each other, making operation convenient. To unfold and store, simply push the second solar panel 91 to slide and swing. The receiving slot 13 extends along the height of the housing 1 without occupying the internal space of the housing 1. It does not affect the layout and operation of core components such as the battery pack and rotating parts 2, nor does it interfere with the lifting and rotating actions of the telescopic rod 32 and the monitoring parts 4. It takes into account both the core functions of the device and the self-sufficiency expansion function, improving the adaptability to outdoor mobile deployment and emergency security scenarios.

[0051] In addition, a network power supply monitoring device also includes a mobile walking mechanism, which is installed on the outer wall of the bottom of the housing 1. The mobile walking mechanism is fixed to the four corners of the bottom outer wall of the housing 1 by brackets. The brackets are welded or bolted to the housing 1 to ensure that there is no deformation when bearing the overall weight of the device. With the mobile walking mechanism (such as a universal wheel with brake walking mechanism, a tracked walking mechanism, a folding caster walking mechanism, etc.), the device does not need to rely on external transfer equipment and can move to multiple areas autonomously or with assistance. It is suitable for emergency security, field patrol, temporary deployment and other scenarios. For example, it can quickly move to the target area for deployment when there is a sudden security need. In the case of multi-point inspection, it can flexibly switch the monitoring area, get rid of the limitations of fixed deployment, and improve deployment efficiency and response speed. When stationary, the mobile walking mechanism can stably support the entire device and ensure that the core structure such as the annular positioning support protrusion 11 and the rotating part 2 at the bottom of the housing 1 are in a stable working condition, without affecting the normal realization of the core functions such as the lifting, rotation and wind field adaptive adjustment of the telescopic rod 32.

[0052] In the description of this specification, references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of this application. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples. Moreover, without contradiction, those skilled in the art can combine and integrate the different embodiments or examples described in this specification, as well as the features of those different embodiments or examples.

[0053] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, "a plurality of" means two or more, unless otherwise explicitly specified.

[0054] The above description is merely a specific embodiment of this application, but the scope of protection of this application is not limited thereto. Any person skilled in the art can easily conceive of various variations or substitutions within the technical scope disclosed in this application, and these should all be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A network power supply monitoring device, characterized in that, include: The box (1) has an annular positioning support protrusion (11) on the bottom end face inside the box (1); the upper end of the box (1) has a through hole (12) for passing through, and the through hole (12) connects the internal space of the box (1) and the external environment. A rotating component (2) is located inside the housing (1). The rotating component (2) includes a rotating seat (21) and a first rotating drive mechanism (22). The positioning support end of the rotating seat (21) is inserted into the annular positioning support protrusion (11). The transmission part of the first rotating drive mechanism (22) drives the rotating seat (21) to rotate around the axis of the annular positioning support protrusion (11). A pneumatic lifting cylinder (3) includes a cylinder body (31) and a telescopic rod (32). The lifting drive of the cylinder body (31) drives the telescopic rod (32). One end of the cylinder body (31) away from the lifting drive is mounted on the rotating seat (21), and the cylinder body (31) rotates with the rotating seat (21). The telescopic rod (32) passes through the through hole (12) and is located in the external environment. One end of the telescopic rod (32) away from the cylinder body (31) is connected to a monitoring component (4). The outer contour of the cross-section of the telescopic rod (32) is elliptical. Wind direction and speed detection component (5), the wind direction and speed detection component (5) is used to detect changes in the wind field of the external environment; The data processing center is electrically connected to the pneumatic lifting cylinder (3), the first rotation drive mechanism (22), the monitoring component (4), and the wind direction and speed detection component (5); the data processing center is used to control the first rotation drive mechanism (22) to operate based on wind field detection data, so as to drive the rotating seat (21) to rotate.

2. The network power supply monitoring device according to claim 1, characterized in that, The network power supply monitoring device further includes a wind pressure stabilizing component (6), which includes a mounting sleeve (61), two connecting parts (62) and two wind pressure plates (63). The mounting sleeve (61) is fitted onto the outer wall of the telescopic rod (32), and the outer contour of the cross-section of the mounting sleeve (61) is elliptical. The connecting parts (62) are installed on the outer wall of the mounting sleeve (61), and the two connecting parts (62) are spaced apart along the short axis of the mounting sleeve (61). Each wind pressure plate (63) is connected to one of the connecting parts (62), and the wind pressure plate (63) extends away from the mounting sleeve (61).

3. The network power supply monitoring device according to claim 2, characterized in that, The wind pressure stabilizing component (6) further includes a second rotation drive mechanism (8), which is installed on the connecting part (62) and the drive part of the second rotation drive mechanism (8) drives the wind pressure plate (63) to rotate relative to the mounting sleeve (61); the second rotation drive mechanism (8) is electrically connected to the data processing center.

4. The network power supply monitoring device according to claim 2, characterized in that, Both ends of the connecting part (62) along the long axis of the mounting sleeve (61) are rounded; the downward end face of the wind pressure plate (63) is an arc-shaped guide surface, and the upward end face of the wind pressure plate (63) is a plane; both ends of the wind pressure plate (63) along its own width are rounded, and the radius of the rounded corner of one end is greater than the radius of the rounded corner of the other end.

5. A network power supply monitoring device according to claim 4, characterized in that, The wind pressure plate (63) has a first solar panel (7) installed on its upward-facing end face; the housing (1) contains a battery pack, which is used to provide energy for the network power supply monitoring device, and the first solar panel (7) is electrically connected to the battery pack.

6. A network power supply monitoring device according to claim 1, characterized in that, The ratio of the length of the major axis to the length of the minor axis of the telescopic rod (32) is 1.2:1 to 1.8:

1.

7. A network power supply monitoring device according to claim 1, characterized in that, The wind direction and speed detection component (5) is installed on the end face of the monitoring component (4) away from the telescopic rod (32).

8. A network power supply monitoring device according to claim 1, characterized in that, The network power supply monitoring device further includes a solar component (9), which includes a second solar panel (91) and a support rod (92). The outer wall of the housing (1) is provided with a support block. The pivot end of the support rod (92) is pivotally connected to the downward-facing end face of the second solar panel (91), and the support end of the support rod (92) abuts against the support block.

9. A network power supply monitoring device according to claim 8, characterized in that, The side wall of the box (1) is provided with a receiving groove (13), the receiving groove (13) extends along the height direction of the box (1), and the receiving groove (13) passes through the top of the box (1) to connect with the external environment; the second solar panel (91) is slidably engaged with the receiving groove (13) through a pivot shaft, and the second solar panel (91) can swing relative to the box (1) around the pivot shaft at the extended end of the receiving groove (13).

10. A network power supply monitoring device according to claim 1, characterized in that, The network power supply monitoring device also includes a mobile walking mechanism, which is installed on the outer wall of the bottom of the box (1).

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