Ecological resource remote sensing monitoring device

Abstract

The utility model discloses an ecological resource remote sensing monitoring device, which belongs to the technical field of ecological resource remote sensing monitoring equipment and specifically comprises a stand column, a remote sensing assembly, a monitoring unit, a lantern ring assembly and a plurality of traction anchor rods. Anchoring piles are assembled at the bottoms of the stand columns in a threaded mode, and the stand columns are directly inserted into the ground through the anchoring piles. The remote sensing assembly is installed in a power bin installed at the bottom of the stand column. The monitoring unit is mounted at the top of the column; the lantern ring assembly slidably sleeves the outer side of the stand column. The traction anchor rods are hinged to the outer side of the lantern ring assembly. According to the remote sensing monitoring device, the single stand column is adopted as a main supporting structure, the anchoring piles at the bottom are designed, and the traction anchor rods capable of being adjusted in length and in all directions are matched for auxiliary positioning and supporting, so that when the remote sensing monitoring device is installed, the installation posture can be flexibly adjusted according to the site actual situation of coordinate points; the installation time of the remote sensing monitoring device is effectively shortened, and time and labor are saved.

Description

Technical Field

[0001] This utility model belongs to the technical field of remote sensing monitoring equipment for ecological resources, and specifically relates to a remote sensing monitoring device for ecological resources. Background Technology

[0002] Currently, natural ecological resources not only include tangible resources such as forests, wetlands, grasslands, farmland, water bodies, and wild animals and plants, but also natural landscape resources with ornamental value and tourism development potential. In order to optimize the management and planning of ecological resources, as well as disaster early warning and emergency response, it is particularly important to monitor the status and dynamic changes of ecological resources in real time, and to identify pollution sources and ecological damage behaviors.

[0003] Currently, due to the vast distribution of natural ecological resources and the diverse and complex terrain, ecological resource monitoring typically employs wireless remote sensing technology. This involves establishing multiple data acquisition and monitoring stations within the ecological resource area to cover the entire monitoring zone. To effectively cover the monitoring area, the coordinates of the remote sensing monitoring stations are determined through calculation. As is well known, natural ecological areas have complex and diverse terrains, and not every area is flat. During the installation of monitoring stations, the remote sensing monitoring device is limited by the base structure design. In cases of steep slopes or complex environments with scattered buried rocks, it is often necessary to manually clear a flat area. If necessary, a concrete platform needs to be constructed to meet the installation requirements, which is time-consuming and labor-intensive.

[0004] Therefore, we propose an ecological resource remote sensing monitoring device that is highly adaptable to the installation environment and easy to install. Utility Model Content

[0005] The purpose of this invention is to provide an ecological resource remote sensing monitoring device to solve the aforementioned problems existing in the prior art.

[0006] To achieve the above objectives, the present invention adopts the following technical solution:

[0007] An ecological resource remote sensing monitoring device includes a column, a remote sensing component, a monitoring unit, a collar component, and several traction anchor rods. The column is threaded with anchor piles at its bottom, and the column is directly inserted into the ground via the anchor piles. Each anchor pile includes a carrier plate, with threaded joints and triangular anchor rods welded to its top and bottom. The threaded joints are threaded to the bottom of the column. The triangular anchor rods are made of three steel plates welded to the bottom of the carrier plate at adjacent 120-degree angles, and are coaxial with the threaded joints. The triangular anchor rod design effectively prevents horizontal rotation or deflection of the column, improving the stability of the monitoring unit at the top of the column. Furthermore, the triangular anchor rod structure increases the contact area with the soil, effectively improving the column's stability and wind resistance. It should be further noted that the total length of the triangular anchor rods at the bottom of the anchor pile is no less than 50 centimeters, and the bottom end of the triangular anchor rod is a pointed cone design, effectively enhancing the anchor pile's obstacle-breaking ability.

[0008] Furthermore, the remote sensing component is installed in a power supply compartment at the bottom of the column; and the remote sensing component includes a shock-absorbing protective frame installed inside the power supply compartment, and an energy storage component installed in the middle of the shock-absorbing protective frame. A data processing module is installed on the top of the shock-absorbing protective frame via a bracket to process the relevant data collected by the monitoring unit.

[0009] Furthermore, the monitoring unit is installed at the top of the column, which helps to improve the monitoring field of view of the monitoring unit. The monitoring unit includes a flange installed at the top of the column. The flange is detachably assembled and fixed to the top of the column. In order to prevent rainwater and insects from entering the remote sensing component, the central perforation of the flange is sealed with waterproof sealant, so that the internal space of the column is completely sealed.

[0010] Furthermore, to facilitate data collection from the surrounding ecological area, a base is horizontally installed on top of the flange, and an outwardly extending display rack is integrally formed on both sides of the base. A motor is installed at the end of each display rack, and an infrared high-definition camera is installed on the top of each motor via a bracket. The infrared high-definition cameras on both sides of the base are designed to face opposite directions, which helps the device to have a certain image data collection capability at night or in low light. At the same time, a temperature and humidity sensor is installed at the bottom of the base, and a wireless communication module is installed at the center of the base. The wireless communication module adopts a long-range radio communication module.

[0011] Furthermore, the monitoring unit also includes a sunshade installed on top of the base. A solar photovoltaic panel is installed on the top of the sunshade, and a photovoltaic junction box electrically connected to the solar photovoltaic panel is installed at the bottom of the sunshade, enabling self-powered operation using the solar photovoltaic panel. An upright antenna is installed at the center of the top of the sunshade, which is electrically connected to the wireless communication module to transmit and receive signals. The energy storage component consists of an energy storage unit and a charging and discharging circuit. The charging and discharging circuit is electrically connected to the data processing module and the photovoltaic junction box, respectively, providing power to the electronic components of the entire remote sensing component and monitoring unit. The data processing module is electrically connected to the wireless communication module, the motor, the infrared high-definition camera, and the temperature and humidity sensor, so that the data collected by the monitoring unit can be transmitted to the data processing module in real time for processing, and works with the wireless communication module to achieve data transmission and command reception.

[0012] Furthermore, the sunshade cover is generally circular, and to prevent water accumulation or fallen leaves from accumulating on the top of the sunshade cover, its top surface is designed with an inclined surface.

[0013] Furthermore, in order to enable the remote sensing monitoring device to flexibly adjust the angle and position of the traction anchor rods according to the installation terrain during installation and to achieve effective support for the column, the collar assembly is slidably sleeved on the outside of the column; and several of the traction anchor rods are hinged to the outside of the collar assembly.

[0014] Furthermore, the collar assembly includes a sliding sleeve that slides onto the outside of the upright. Several sliding rings are horizontally fitted onto the outside of the sliding sleeve. An adjusting bolt is threaded onto one end of the sliding sleeve. The adjusting bolt is used to adjust the position of the sliding sleeve on the upright, thereby adjusting the support position of the traction anchor rod on the column. To facilitate horizontal angle adjustment of each traction anchor rod, the number of sliding rings is the same as the number of traction anchor rods, which is 3-4 rods. A horizontally designed annular limiting groove is provided on the outside of the sliding sleeve corresponding to the position of each sliding ring. A limiting slider is fixed on the inner side of each sliding ring for sliding cooperation with the limiting groove. Simultaneously, a vertically arranged connecting seat is welded to the outside of each sliding ring for hinged connection of the traction anchor rod.

[0015] Furthermore, in order to ensure that the traction anchor can still provide effective auxiliary traction support for the column in complex terrain, the traction anchor includes a sleeve rod with one end hinged to the connecting seat, a telescopic rod slidably inserted inside the sleeve rod, a strip-shaped slot being opened in the middle of the telescopic rod along its length, and a locking bolt for locking the telescopic rod passing through the end of the sleeve rod away from the collar assembly, using the locking bolt to adjust the telescopic rod's extension length.

[0016] Furthermore, a sleeve is welded to the end of the telescopic rod, and a positioning nut is fixed to the inner side of the sleeve. A connector is rotatably installed at the end of the sleeve. The connector includes a screw that passes through the end of the sleeve and is inserted into the inner side of the sleeve, and a U-shaped seat located on the outer side of the end of the sleeve and integrally formed at the end of the screw. The screw passes through the positioning nut and is threadedly engaged with the positioning nut, which can effectively prevent the connector from detaching from the sleeve. A positioning sleeve is hinged to the inner side of the U-shaped seat, and an anchoring steel rod slides through the inner side of the positioning sleeve. By utilizing the rotational design between the connector and the sleeve, and the hinged design between the positioning sleeve and the U-shaped seat, the anchoring steel rod can be flexibly anchored to the ground at the optimal angle according to the terrain.

[0017] Furthermore, in order to enable the anchoring steel rod to fix the positioning sleeve, an end cap with an outer diameter larger than the inner diameter of the positioning sleeve is provided at the top of the anchoring steel rod.

[0018] Furthermore, to improve the stability of the anchoring steel rod after it is inserted into the ground, the lower half of the anchoring steel rod adopts a steel groove design with an arc-shaped cross section, and the arc-shaped steel groove of the lower half of the anchoring steel rod is integrally formed with reinforcing ribs. At the same time, the triangular anchor rod at the bottom of the anchoring pile and the outer side of the lower half of the anchoring steel rod are integrally formed with several reverse teeth to improve the pull-out resistance of the anchoring pile and the anchoring steel rod.

[0019] Beneficial effects:

[0020] This utility model adopts a single column as the main support structure. Utilizing the bottom anchor pile design, and in conjunction with the traction anchor rod that can be adjusted in length and omnidirectional angle for auxiliary positioning and support, the remote sensing monitoring device can be flexibly adjusted according to the actual site conditions of the coordinate point during installation. This allows for quick installation even on complex ground, eliminating the need for manually clearing a flat installation platform or specially pouring a concrete platform. This effectively shortens the installation time of the remote sensing monitoring device, saving time and effort. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the structure of an ecological resource remote sensing monitoring device according to the present invention;

[0022] Figure 2 This is a half-section structural diagram of an ecological resource remote sensing monitoring device according to the present invention;

[0023] Figure 3 This is a partial structural schematic diagram of an ecological resource remote sensing monitoring device according to the present invention;

[0024] Figure 4 This is a schematic diagram of the structure of an ecological resource remote sensing monitoring device according to the present invention;

[0025] Figure 5This is a schematic diagram of the cross-sectional structure of the remote sensing component in an ecological resource remote sensing monitoring device of this utility model;

[0026] Figure 6 This is a schematic cross-sectional view of the collar assembly in an ecological resource remote sensing monitoring device of this utility model.

[0027] Figure 7 This is a partially enlarged structural diagram of the traction fixing rod in an ecological resource remote sensing monitoring device of this utility model.

[0028] In the diagram: 1. Column; 2. Anchor pile; 3. Power supply compartment; 4. Remote sensing component; 401. Vibration damping and protective frame; 402. Energy storage component; 403. Bracket; 404. Data processing module; 5. Monitoring unit; 501. Flange; 502. Base; 503. Waterproof sealant; 504. Motor; 505. Temperature and humidity sensor; 506. Bracket; 507. Infrared high-definition camera; 508. Wireless communication module; 509. Solar photovoltaic panel; 510. Photovoltaic junction box; 51 1. Sunshade cover; 6. Ring assembly; 601. Sliding sleeve; 602. Adjusting bolt; 603. Slip ring; 604. Limiting groove; 605. Connecting seat; 7. Traction anchor rod; 701. Sleeve rod; 702. Telescopic rod; 703. Slot; 704. Locking bolt; 705. Sleeve head; 706. Connecting piece; 761. Screw rod; 762. U-shaped seat; 707. Positioning nut; 708. Positioning sleeve; 709. Anchoring steel rod; 710. End cap; 711. Reinforcing rib; 712. Backtooth. Detailed Implementation

[0029] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the present utility model will be briefly introduced below in conjunction with the accompanying drawings and descriptions of the embodiments or the prior art. Obviously, the following description of the structure of the accompanying drawings is 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. It should be noted that the description of these embodiments is used to help understand this utility model, but does not constitute a limitation on this utility model.

[0030] Example:

[0031] To address the issue that current ecological resource remote sensing monitoring devices, due to limitations in their base structure, require specific geographical conditions for outdoor installation, often necessitating the creation of suitable installation environments and resulting in time-consuming and labor-intensive installations, we propose an ecological resource remote sensing monitoring device that is highly adaptable to different installation environments and easy to install. The specific solution is as follows:

[0032] like Figure 1-7As shown, this embodiment provides an ecological resource remote sensing monitoring device, including a column 1, a remote sensing component 4, a monitoring unit 5, a collar component 6, and several traction anchor rods 7; the bottom of the column 1 is threaded with an anchor pile 2, and the column 1 is directly inserted into the ground through the anchor pile 2; wherein, the anchor pile 2 includes a carrier plate, and the top and bottom of the carrier plate are respectively welded with a threaded assembly joint and a triangular anchor rod, the threaded assembly joint is threadedly assembled with the bottom of the column, and the triangular anchor rod is made of three steel plates welded to the bottom of the carrier plate at adjacent 120-degree angles, and the triangular anchor rod is connected to the bottom of the column 7. The threaded assembly joints are coaxially designed. The triangular anchor rod design of the anchor pile 2 can not only effectively prevent the column 1 from rotating or deflecting horizontally and improve the stability of the monitoring unit 5 at the top of the column 1, but also increase the contact area between the column 1 and the soil by utilizing the triangular anchor rod structure, which can effectively improve the stability of the column 1 and enhance its wind resistance. It should be further noted that the total length of the triangular anchor rod at the bottom of the anchor pile 2 is not less than 50 cm, and the bottom end of the triangular anchor rod is a pointed cone design, which can effectively improve the obstacle-breaking ability of the anchor pile 2.

[0033] like Figure 5 As shown, the remote sensing component 4 is installed in the power supply compartment 3 at the bottom of the column 1; and the remote sensing component 4 includes a shock-absorbing protective frame 401 installed inside the power supply compartment 3, and an energy storage component 402 installed in the middle of the shock-absorbing protective frame 401. A data processing module 404 is installed on the top of the shock-absorbing protective frame 401 through a bracket 403, which is used to process the relevant data collected by the monitoring unit 5.

[0034] like Figure 3-4 As shown, the monitoring unit 5 is installed at the top of the column 1, which helps to improve the monitoring field of view of the monitoring unit 5. The monitoring unit 5 includes a flange 501 installed at the top of the column 1. The flange 501 is detachably assembled and fixed to the top of the column 1. In order to prevent rainwater and insects from entering the remote sensing component 4, the central perforation of the flange 501 is sealed with waterproof sealant 503, so that the internal space of the column 1 is completely sealed.

[0035] To facilitate data collection from the surrounding ecological area, a base 502 is horizontally mounted on top of the flange 501. On each side of the base 502, an outwardly extending horizontally display frame is integrally formed. A motor 504 is mounted at the end of each display frame, and an infrared high-definition camera 507 is mounted on top of each motor 504 via a bracket 506. The infrared high-definition cameras 507 on both sides of the base 502 are designed in opposite directions, which helps the device to have a certain image data collection capability even at night or in low light conditions. Simultaneously, a temperature and humidity sensor 505 is installed at the bottom of the base 502, and a wireless communication module 508 is installed at the center of the base 502. The wireless communication module 508 is a long-range radio communication module.

[0036] The monitoring unit 5 also includes a sunshade 511 installed on top of the base 502. A solar photovoltaic panel 509 is installed on the top of the sunshade 511, and a photovoltaic junction box 510 electrically connected to the solar photovoltaic panel 509 is installed at the bottom of the sunshade 511. The solar photovoltaic panel 509 provides self-powered energy. A vertical antenna is installed at the center of the top of the sunshade 511. The antenna is electrically connected to the wireless communication module 508 to transmit and receive signals. The energy storage component 402 consists of an energy storage unit and a charging and discharging circuit. The charging and discharging circuit is electrically connected to the data processing module 404 and the photovoltaic junction box 510, respectively. The energy storage component 402 provides power to the electronic components of the entire remote sensing component 4 and the monitoring unit 5. The data processing module 404 is electrically connected to the wireless communication module 508, the motor 504, the infrared high-definition camera 507, and the temperature and humidity sensor 505, so that the data collected by the monitoring unit 5 can be transmitted to the data processing module 404 in real time for processing, and cooperate with the wireless communication module 508 to realize data transmission and command reception.

[0037] The sunshade 511 is round in shape. To prevent water or fallen leaves from accumulating on the top of the sunshade 511, the top surface of the sunshade 511 is designed with a slope.

[0038] In order to enable the remote sensing monitoring device to flexibly adjust the angle and position of the traction anchor 7 according to the terrain during installation and to achieve effective support for the column 1, its collar assembly 6 is slidably sleeved on the outside of the column 1; and several traction anchors 7 are all hinged to the outside of the collar assembly 6.

[0039] like Figure 6 As shown, the collar assembly 6 includes a sliding sleeve 601 that slides on the outside of the upright. Several sliding rings 603 are horizontally fitted on the outside of the sliding sleeve 601. An adjusting bolt 602 is threaded onto one end of the sliding sleeve 601. The position of the sliding sleeve 601 on the upright is adjusted by the adjusting bolt 602, thereby adjusting the support position of the traction anchor rod 7 on the column 1. To facilitate the horizontal angle adjustment of each traction anchor rod 7, the number of sliding rings 603 is the same as the number of traction anchor rods 7, which is 3-4. A horizontally designed annular limiting groove 604 is opened on the outside of the sliding sleeve 601 corresponding to the position of each sliding ring 603. A limiting slider is fixed on the inner side of each sliding ring 603 for sliding cooperation with the limiting groove 604. At the same time, a vertically set connecting seat 605 is welded on the outside of each sliding ring 603 for hinged connection of the traction anchor rod 7.

[0040] In order to ensure that the traction anchor 7 can still provide effective auxiliary traction support for the column 1 in complex terrain, such as Figure 7As shown, its traction anchor rod 7 includes a sleeve rod 701 with one end hinged to the connecting seat 605. A telescopic rod 702 is slidably inserted into the sleeve rod 701. A strip-shaped slot 703 is opened in the middle of the telescopic rod 702 along the length direction of the telescopic rod 702. A locking bolt 704 for locking the telescopic rod 702 is transversely inserted through the end of the sleeve rod 701 away from the collar assembly 6. The telescopic length of the telescopic rod 702 is adjusted by using the locking bolt 704.

[0041] The telescopic rod 702 has a sleeve 705 welded to its end. A positioning nut 707 is fixed to the inner side of the sleeve 705. A connector 706 is rotatably mounted on the end of the sleeve 705. The connector 706 includes a screw 761 that passes through the end of the sleeve 705 and is inserted into the inner side of the sleeve 705, and a U-shaped seat 762 that is located on the outer side of the end of the sleeve 705 and integrally formed at the end of the screw 761. The screw 761 passes through the positioning nut 707 and is threadedly engaged with the positioning nut 707, which can effectively prevent the connector 706 from detaching from the sleeve 705. A positioning sleeve 708 is hinged to the inner side of the U-shaped seat 762. An anchoring steel rod 709 slides through the inner side of the positioning sleeve 708. By utilizing the rotational design between the connector 706 and the sleeve 705, and the hinged design between the positioning sleeve 708 and the U-shaped seat 762, the anchoring steel rod 709 can be flexibly anchored to the ground at the optimal angle according to the terrain.

[0042] In order for the anchoring steel rod 709 to fix the positioning sleeve 708, an end cap 710 with an outer diameter larger than the inner diameter of the positioning sleeve 708 is provided on the top of the anchoring steel rod 709.

[0043] To improve the stability of the anchoring steel rod 709 after it is inserted into the ground, the lower half of the anchoring steel rod 709 adopts a steel groove design with an arc cross section, and a reinforcing rib 711 is integrally formed in the arc-shaped steel groove of the lower half of the anchoring steel rod 709. At the same time, several inverted teeth 712 are integrally formed on the triangular anchor rod at the bottom of the anchoring pile 2 and the outer side of the lower half of the anchoring steel rod 709 to improve the pull-out resistance of the anchoring pile 2 and the anchoring steel rod 709.

[0044] The entire remote sensing monitoring device adopts a single column 1 as the main support structure. Utilizing the bottom anchor pile 2 design, and in conjunction with the traction anchor rod 7, which can be adjusted in length and angle in all directions, the column 1 is provided with auxiliary positioning support. This allows the remote sensing monitoring device to be flexibly adjusted according to the actual site conditions at the coordinate points during installation. This enables the remote sensing monitoring device to be installed quickly even on complex terrain. There is no need to manually clear a flat installation platform or specially pour a concrete platform, which can effectively shorten the installation time of the remote sensing monitoring device and save time and effort.

[0045] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the scope of protection of this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the scope of protection of this utility model.

Claims

1. An ecological resource remote sensing monitoring device, characterized in that, It includes a column (1), a remote sensing component (4), a monitoring unit (5), a collar component (6), and several traction anchors (7). A column (1) is threaded with an anchor pile (2) at its bottom, and the column (1) is inserted directly into the ground through the anchor pile (2); Remote sensing component (4), the remote sensing component (4) is installed in the power compartment (3) installed at the bottom of the column (1); Monitoring unit (5), the monitoring unit (5) is installed at the top of the column (1); A collar assembly (6) is slidably sleeved on the outside of the column (1); The traction anchors (7) are all hinged to the outside of the collar assembly (6).

2. The ecological resource remote sensing monitoring device according to claim 1, characterized in that, The anchor pile (2) includes a carrier plate, with threaded assembly joints and triangular anchor rods welded to the top and bottom of the carrier plate respectively. The threaded assembly joints are threadedly assembled with the bottom of the upright. The triangular anchor rods are made of three steel plates welded to the bottom of the carrier plate at adjacent 120-degree angles, and the triangular anchor rods and threaded assembly joints are coaxially designed.

3. The ecological resource remote sensing monitoring device according to claim 1, characterized in that, The monitoring unit (5) includes a flange (501) installed on the top of the column (1). A base (502) is horizontally installed on the top of the flange (501), and the central perforation of the flange (501) is sealed with waterproof sealant (503). A display rack extending horizontally outward is integrally formed on both sides of the base (502). A motor (504) is installed at the end of each display rack. An infrared high-definition camera (507) is installed on the top of each of the two motors (504) through a bracket (506). A temperature and humidity sensor (505) is also installed at the bottom of the base (502), and a wireless communication module (508) is installed at the center of the base (502).

4. The ecological resource remote sensing monitoring device according to claim 3, characterized in that, The infrared high-definition cameras (507) on both sides of the base (502) are designed in opposite directions, and the wireless communication module (508) is a remote radio communication module.

5. The ecological resource remote sensing monitoring device according to claim 3, characterized in that, The monitoring unit (5) also includes a sunshade (511) installed on the top of the base (502), the top of the sunshade (511) is equipped with a solar photovoltaic panel (509), and the bottom of the sunshade (511) is equipped with a photovoltaic junction box (510) electrically connected to the solar photovoltaic panel (509). The sunshade (511) is circular in shape, and the top surface of the sunshade (511) is designed with an inclined surface. A vertical antenna is installed at the center of the top of the sunshade (511), and the antenna is electrically connected to the wireless communication module (508).

6. The ecological resource remote sensing monitoring device according to claim 1, characterized in that, The remote sensing component (4) includes a shock-absorbing protective frame (401) installed inside the power supply compartment (3), an energy storage component (402) installed in the middle of the shock-absorbing protective frame (401), and a data processing module (404) installed on the top of the shock-absorbing protective frame (401) via a bracket (403). The energy storage component (402) consists of two parts: an energy storage unit and a charging and discharging circuit. The charging and discharging circuit is electrically connected to the data processing module (404) and the photovoltaic junction box (510), respectively. The data processing module (404) is electrically connected to the wireless communication module (508), the motor (504), the infrared high-definition camera (507), and the temperature and humidity sensor (505), respectively.

7. The ecological resource remote sensing monitoring device according to claim 1, characterized in that, The collar assembly (6) includes a sliding sleeve (601) that slides on the outside of the upright. Several sliding rings (603) are horizontally fitted on the outside of the sliding sleeve (601). An adjusting bolt (602) is threaded onto one side of the sliding sleeve (601). The number of sliding rings (603) is the same as the number of traction anchor rods (7). A horizontally designed annular limiting groove (604) is opened on the outside of the sliding sleeve (601) corresponding to the position of each sliding ring (603). A limiting slider for sliding cooperation with the limiting groove (604) is fixed on the inner side of each sliding ring (603). A vertically set connecting seat (605) is welded on the outer side of each sliding ring (603) for hinged connection of the traction anchor rod (7).

8. The ecological resource remote sensing monitoring device according to claim 1, characterized in that, The traction anchor rod (7) includes a sleeve rod (701) with one end hinged to the connecting seat (605), a telescopic rod (702) is slidably inserted into the sleeve rod (701), a strip-shaped slot (703) is opened in the middle of the telescopic rod (702) along the length direction of the telescopic rod (702), and a locking bolt (704) for locking the telescopic rod (702) is transversely inserted at the end of the sleeve rod (701) away from the collar assembly (6). The telescopic rod (702) has a sleeve (705) welded to its end. A positioning nut (707) is fixed to the inner side of the sleeve (705). A connector (706) is rotatably installed on the end of the sleeve (705). The connector (706) includes a screw (761) that passes through the end of the sleeve (705) and is inserted into the inner side of the sleeve (705), and a U-shaped seat (762) that is located on the outer side of the end of the sleeve (705) and integrally formed on the end of the screw (761). The screw (761) passes through the positioning nut (707) and is threadedly engaged with the positioning nut (707). A positioning sleeve (708) is hinged to the inner side of the U-shaped seat (762). An anchoring steel rod (709) slides through the inner side of the positioning sleeve (708).

9. The ecological resource remote sensing monitoring device according to claim 8, characterized in that, The top of the anchoring steel rod (709) is provided with an end cap (710) with an outer diameter larger than the inner diameter of the positioning sleeve (708). The lower half of the anchoring steel rod (709) adopts a steel groove design with an arc cross section, and a reinforcing rib (711) is integrally formed in the arc-shaped steel groove of the lower half of the anchoring steel rod (709).

10. The ecological resource remote sensing monitoring device according to claim 2, characterized in that, The bottom of the anchor pile (2) has a triangular anchor rod and the lower half of the outer side of the anchoring steel rod (709) are integrally formed with several inverted teeth (712).

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