Distributed live combustible moisture content monitoring device

Abstract

The utility model relates to the technical field of live combustible moisture content detection, and discloses a distributed live combustible moisture content monitoring device which comprises a first detection device, a second detection device is arranged at the position, close to one side, of the upper end of the first detection device, and a central controller is arranged on one side of the first detection device and one side of the second detection device. The first detection device comprises two frames, the two frames are arranged front and back, one ends of the two frames are rotatably connected, the other ends of the two frames are fixedly connected with mounting plates, and third grooves are formed in the center of the front end face of the front frame and the center of the rear end face of the rear frame; and solar power supply modules are arranged in the two third grooves. According to the utility model, the distributed accurate fixation of the trunk and the branches is realized through the connecting structure, and the synchronous microwave transmitting module and the microwave receiving module can accurately measure the moisture content of the trunk and the branches by means of an advanced microwave inversion technology.

Description

Technical Field

[0001] This utility model relates to the field of moisture content detection technology for live combustibles, and in particular to a distributed moisture content monitoring device for live combustibles. Background Technology

[0002] Moisture content of live combustibles is a key indicator for measuring forest fire risk levels and plays a crucial role in forest fire prevention and forest ecological environment monitoring. Traditional methods for measuring the moisture content of live combustibles mainly include the drying and weighing method, the resistance method, and the capacitance method.

[0003] While the drying and weighing method can provide relatively accurate measurement results, it is a destructive measurement method. This method requires sample collection, and the entire measurement process is cumbersome, complex, and time-consuming, making it impossible to meet the needs of real-time online monitoring. The resistance method and capacitance method measure moisture content by relying on the correlation between the electrical properties of wood and moisture content. These methods are easily affected by many environmental factors such as wood species, temperature, and humidity, resulting in limited measurement accuracy and a relatively small measurement range, making it difficult to meet the comprehensive monitoring requirements of different tree species in large areas of forests. Therefore, those skilled in the art have provided a distributed active combustible material moisture content monitoring device to solve the problems mentioned in the background art. Utility Model Content

[0004] The purpose of this invention is to address the shortcomings of existing technologies by proposing a distributed active combustible material moisture content monitoring device. Through a connection structure, it achieves distributed and precise fixation of tree trunks and branches. The synchronous microwave transmitting module and microwave receiving module, with the help of advanced microwave inversion technology, can accurately measure the moisture content of tree trunks and branches.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a distributed active combustible moisture content monitoring device, comprising a first detection device, a second detection device disposed on one side of the upper end of the first detection device, and a central controller disposed on one side of the first detection device and the second detection device;

[0006] The first detection device includes two frames arranged one in front of the other. The two frames are rotatably connected at one end, and a mounting plate is fixedly connected to the other end of each frame. A third groove is provided at the center of the front end face of the front frame and the center of the rear end face of the rear frame. A solar power supply module is provided inside each of the two third grooves. Multiple placement slots are arranged horizontally at the center of the front inner wall of the front frame and the center of the rear inner wall of the rear frame. Multiple microwave transmitting modules, a first ultrasonic ranging sensor, a second ultrasonic ranging sensor, and multiple microwave receiving modules are provided inside the multiple placement slots.

[0007] The solar power supply module at the front is arranged in the opposite direction to the solar power supply module at the rear.

[0008] Through the above technical solution, the distributed and precise fixation of the trunk and branches is achieved through the connection structure. The synchronous microwave transmitting module and microwave receiving module, with the help of advanced microwave inversion technology, can accurately measure the moisture content of the trunk and branches.

[0009] Furthermore, the solar power supply module at the front includes a battery module. An integrated chip board is fixedly connected to the upper center of the front face of the battery module. A rectifier and voltage regulator are provided on the front face of the battery module above the integrated chip board. A small solar power panel is rotatably connected inside the third groove at the front of the battery module. A protective shell is rotatably connected inside the third groove at the front of the small solar power panel. Hooks are provided on both sides of the upper end face of the protective shell at the rear. Buckles are provided on the upper end face of the rear frame of the two hooks.

[0010] The above technical solution uses two rectifiers and voltage regulators to rectify and regulate the electrical energy generated by the two small solar panels before sending it to the battery module for storage, thus facilitating power supply to the equipment. The two protective shells are secured by four hooks on four latches, thereby protecting the two small solar panels.

[0011] Furthermore, each of the two battery modules has a first connecting seat fixedly connected to the lower sides of its front end face. Each of the two first connecting seats has a first micro-electric telescopic rod rotatably connected to its front end face. Each of the two first micro-electric telescopic rods has a second connecting seat rotatably connected to its output end. Each of the two second connecting seats is fixedly connected to the center of the rear end face of the small solar panel on both sides. Each of the two first micro-electric telescopic rods has a fourth connecting seat fixedly sleeved on its rear side of its outer side wall. Each of the two battery modules located above the two first connecting seats has a third connecting seat on its front end face. Each of the two third connecting seats has a second micro-electric telescopic rod rotatably connected to its front end face. Each of the two second micro-electric telescopic rods has its output end rotatably connected to the center of the rear end face of the two fourth connecting seats.

[0012] Through the above technical solution, the extension of four second micro-electric telescopic rods is controlled, the four second micro-electric telescopic rods push the rotation of four first micro-electric telescopic rods, and the extension of four first micro-electric telescopic rods is controlled, the four first micro-electric telescopic rods push the two small solar panels to rotate, and the four second micro-electric telescopic rods cooperate with the four first micro-electric telescopic rods to push the two small solar panels to an inclined state.

[0013] Furthermore, the upper ends of the two frames are provided with a connecting structure, which includes a steel strip. The steel strip is spirally arranged, and a male hook and loop fastener and a female hook and loop fastener are fixedly connected to the end faces of the two ends of the steel strip that are close to each other. The lower end face of the steel strip is provided with four first grooves, and a first connecting rod is fixedly connected to the lower part of each of the four first grooves. The upper end face of the two frames is provided with two second grooves, and a second connecting rod is fixedly connected to the upper part of each of the four second grooves. The upper end of each of the four second grooves is provided with a traction rope, and hooks are fixedly connected to both ends of each of the four traction ropes. The eight hooks are respectively hung on the outside of the four second connecting rods and the four first connecting rods.

[0014] The above technical solution involves wrapping a steel strip around the tree trunk and securing it to the trunk by attaching the male and female layers of Velcro. Then, by hanging eight hooks onto four first connecting rods and four second connecting rods, the steel strip is connected to the two frames, allowing the frames to be pulled by the steel strip and improving the stability after installation.

[0015] Furthermore, support structures are fixedly connected to both the upper and lower ends of the front inner wall of the frame at the front end and the upper and lower ends of the rear inner wall of the frame at the rear end. The support structure includes an outer tube, one end of which has a storage groove. A spring is fixedly connected inside the storage groove. An inner rod is fixedly connected to the other end of the spring. The other end of the inner rod passes through the storage groove and extends to one side of the outer tube, and a clamp is fixedly connected to its end.

[0016] With the above technical solution, multiple clamps are attached to the tree trunk, and then eight inner rods are squeezed to move into the eight outer tubes. This squeezes eight springs, and the tension of the eight springs themselves pushes the eight inner rods to move outward from the eight outer tubes, thus pressing the eight clamps tightly against the tree trunk and placing them in the center between the two frames for easy installation.

[0017] Furthermore, the first detection device and the second detection device have the same configuration, and the size of the second detection device is smaller than that of the first detection device;

[0018] The above technical solution uses a larger first detection device to detect the tree trunk and a smaller second detection device to detect the branches.

[0019] This utility model has the following beneficial effects:

[0020] 1. In this utility model, the distributed active combustible material moisture content monitoring device achieves distributed and precise fixation of tree trunks and branches through a connection structure. The synchronous microwave transmitting module and microwave receiving module, with the help of advanced microwave inversion technology, can accurately measure the moisture content of tree trunks and branches.

[0021] 2. In this utility model, multiple clamps are attached to the tree trunk, and then eight inner rods are squeezed to move the eight inner rods into the eight outer tubes, squeezing eight springs. The tension of the eight springs themselves pushes the eight inner rods to move outward from the eight outer tubes, so that the eight clamps are attached tightly to the tree trunk and located in the center position between the two frames. The distance between the two frames and the tree is monitored in real time by the first ultrasonic ranging sensor and the second ultrasonic ranging sensor, thereby determining the diameter of the tree.

[0022] 3. In this utility model, the steel strip is wrapped around the tree trunk. After the male and female layers of the Velcro are glued together, the steel strip is fixed to the tree trunk. Then, by hanging eight hooks on the four first connecting rods and the four second connecting rods respectively, the steel strip is connected to the two frames, so that the two frames are subjected to the traction force of the steel strip, which improves the stability after installation.

[0023] 4. In this utility model, the electrical energy generated by the two small solar panels is rectified and regulated by two rectifiers and then sent to the battery module for storage, so as to provide power to the equipment. When carrying, the two small solar panels are stored in the two third grooves by controlling the retraction of the four second micro electric telescopic rods and the four first micro electric telescopic rods. Then, the two protective shells are flipped upward and the two protective shells are hung on the four hooks by the hanging rods on the four buckles to limit the two protective shells, thereby protecting the two small solar panels. Attached Figure Description

[0024] Figure 1 This is a perspective view of a distributed active combustible material moisture content monitoring device proposed in this utility model;

[0025] Figure 2 This is a perspective view of the first detection device of a distributed active combustible moisture content monitoring device proposed in this utility model;

[0026] Figure 3 This is a top sectional view of the first detection device of a distributed active combustible moisture content monitoring device proposed in this utility model;

[0027] Figure 4 This is a side sectional view of the first detection device of a distributed active combustible moisture content monitoring device proposed in this utility model;

[0028] Figure 5 This is a cross-sectional view of the support structure of a distributed active combustible moisture content monitoring device proposed in this utility model;

[0029] Figure 6 This is a three-dimensional view of the solar power supply module of a distributed active combustible moisture content monitoring device proposed in this utility model.

[0030] Figure 7 for Figure 2 Enlarged view of point A in the middle;

[0031] Figure 8 for Figure 4 Enlarged diagram of point B in the middle.

[0032] Legend:

[0033] 1. First testing equipment; 101. Frame; 102. Solar power supply module; 1021. Battery module; 1022. Integrated chip board; 1023. Rectifier and voltage regulator; 1024. First connecting seat; 1025. First micro-electric telescopic rod; 1026. Second connecting seat; 1027. Small solar power panel; 1028. Third connecting seat; 1029. Second micro-electric telescopic rod; 10210. Fourth connecting seat; 10211. Protective shell; 10212. Fastener; 10213. Hook; 103. Mounting plate; 104. Connecting structure; 1041. Steel strip; 1042. Velcro. 1043. Male layer; 1044. Velcro female layer; 1045. First groove; 1046. First connecting rod; 1047. Second groove; 1048. Second connecting rod; 1049. Traction rope; 1050. Hook; 1051. Support structure; 1052. Outer tube; 1053. Storage slot; 1054. Spring; 1055. Inner rod; 106. Clamping plate; 107. Placement slot; 108. Microwave transmitting module; 109. First ultrasonic ranging sensor; 110. Second ultrasonic ranging sensor; 111. Microwave receiving module; 112. Third groove; 2. Second detection equipment; 3. Central controller. Detailed Implementation

[0034] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0035] Reference Figure 1-8 This utility model provides an embodiment of a distributed active combustible moisture content monitoring device, which includes a first detection device 1, a second detection device 2 located on one side of the upper end of the first detection device 1, and a central controller 3 located on one side of the first detection device 1 and the second detection device 2. The central controller 3 receives processing signals from multiple first detection devices 1 and multiple second detection devices 2. The rich data obtained by the distributed layout greatly improves the comprehensiveness and accuracy of forest fire risk monitoring. Compared with the traditional single-point measurement method, it can more accurately reflect the overall moisture status of trees.

[0036] The first testing device 1 includes two frames 101 arranged one behind the other. One end of each frame 101 is rotatably connected, and the other end of each frame 101 is fixedly connected to a mounting plate 103. A third groove 111 is provided at the center of the front face of the front frame 101 and the center of the rear face of the rear frame 101. A solar power supply module 102 is provided inside each of the two third grooves 111. Multiple placement slots 106 are arranged horizontally at the center of the front inner wall of the front frame 101 and the center of the rear inner wall of the rear frame 101. Multiple microwave transmitting modules 107, a first ultrasonic ranging sensor 108, a second ultrasonic ranging sensor 109, and multiple microwave receiving modules 110 are provided inside the multiple placement slots 106. The distributed and precise fixation of the tree trunk and branches is achieved through the connecting structure 104. The microwave transmitting modules 107 and microwave receiving modules 110 can accurately measure the moisture content of the tree trunk and branches by means of advanced microwave inversion technology.

[0037] The solar power module 102 at the front and the solar power module 102 at the rear are arranged in opposite directions to facilitate the provision of power replenishment from more directions.

[0038] like Figure 4 and 5 As shown, the solar power module 102 at the front includes a battery module 1021. An integrated chip board 1022 is fixedly connected to the upper center of the front surface of the battery module 1021. A rectifier and voltage regulator 1023 is provided on the front surface of the battery module 1021 above the integrated chip board 1022. A small solar panel 1027 is rotatably connected inside the third groove 111 at the front of the battery module 1021. A protective shell 10211 is rotatably connected inside the third groove 111 at the front of the small solar panel 1027. The upper surface of the protective shell 10211... Hooks 10213 are provided on both sides at the rear. Buckles 10212 are provided on the upper surface of the rear frame 101 of the two hooks 10213. The power generated by the two small solar panels 1027 is rectified and regulated by two rectifiers and voltage regulators 1023 and then sent to the battery module 1021 for storage, so as to provide power to the equipment. The two protective shells 10211 are limited by the hanging rods on the four buckles 10212 and hung on the four hooks 10213, thereby protecting the two small solar panels 1027.

[0039] Two battery modules 1021 are each fixedly connected to a first connecting seat 1024 on both lower sides of their front faces. A first micro-electric telescopic rod 1025 is rotatably connected to the front faces of both first connecting seats 1024. A second connecting seat 1026 is rotatably connected to the output ends of both first micro-electric telescopic rods 1025. The two second connecting seats 1026 are fixedly connected to the center of the rear face of the small solar panel 1027 on both sides. A fourth connecting seat 10210 is fixedly sleeved on the rear side of the outer wall of both first micro-electric telescopic rods 1025. A third connecting seat 1028 is provided on the front face of the battery modules 1021 above the two first connecting seats 1024. Two third connecting seats 1028... Each of the two second micro-electric telescopic rods 1029 is rotatably connected to the front end face of the 028. The output ends of the two second micro-electric telescopic rods 1029 are rotatably connected to the center of the rear end face of the two fourth connecting seats 10210 respectively. The four second micro-electric telescopic rods 1029 are controlled to extend, and the four second micro-electric telescopic rods 1029 push the four first micro-electric telescopic rods 1025 to rotate. Then, the four first micro-electric telescopic rods 1025 are controlled to extend, and the four first micro-electric telescopic rods 1025 push the two small solar panels 1027 to rotate. The four second micro-electric telescopic rods 1029 and the four first micro-electric telescopic rods 1025 cooperate to push the two small solar panels 1027 into an inclined state.

[0040] like Figure 2 , 4 As shown in Figure 7, the upper ends of the two frames 101 are provided with a connecting structure 104. The connecting structure 104 includes a steel strip 1041, which is spirally arranged. A hook and loop fastener male layer 1042 and a hook and loop fastener female layer 1043 are fixedly connected to the two end faces of the steel strip 1041 that are close to each other. The lower end face of the steel strip 1041 is provided with four first grooves 1044. A first connecting rod 1045 is fixedly connected to the lower part of each of the four first grooves 1044. The upper end face of each of the two frames 101 is provided with two second grooves 1046. A second connecting rod 1047 is fixedly connected to the upper part of each of the four second grooves 1046. The upper end of each of the four second grooves 1046 is provided with... There are four traction ropes 1048, each with a hook 1049 fixedly connected to both ends. The eight hooks 1049 are respectively hung on the outside of the four second connecting rods 1047 and the four first connecting rods 1045. The steel strip 1041 is wrapped around the tree trunk. After the male layer 1042 and the female layer 1043 of the Velcro are glued together, the steel strip 1041 is fixed to the tree trunk. Then, by hanging the eight hooks 1049 on the four first connecting rods 1045 and the four second connecting rods 1047 respectively, the steel strip 1041 is connected to the two frames 101, so that the two frames 101 are subjected to the traction force of the steel strip 1041, improving the stability after installation.

[0041] like Figure 2 ,3 As shown in Figure 5, support structures 105 are fixedly connected to both the upper and lower ends of the front inner wall of the front frame 101 and the upper and lower ends of the rear inner wall of the rear frame 101. The support structure 105 includes an outer tube 1051. A storage groove 1052 is opened at one end of the outer tube 1051. A spring 1053 is fixedly connected inside the storage groove 1052. An inner rod 1054 is fixedly connected to the other end of the spring 1053. The other end of the inner rod 1054 passes through the storage groove 1052 and extends to the outer tube 105. On one side of frame 1, a clamp 1055 is fixedly connected to the end. Multiple clamps 1055 are attached to the trunk. Then, eight inner rods 1054 are squeezed to move into the eight outer tubes 1051, and eight springs 1053 are squeezed. The tension of the eight springs 1053 pushes the eight inner rods 1054 to move outward from the eight outer tubes 1051, so that the eight clamps 1055 are attached to the trunk and located in the center between the two frames 101 for easy installation.

[0042] The first detection device 1 and the second detection device 2 have the same configuration. The second detection device 2 is smaller than the first detection device 1. The larger first detection device 1 is used to detect the tree trunk, and the smaller second detection device 2 is used to detect the branches.

[0043] Working principle: In use, the steel strip 1041 is wrapped around the tree trunk. After the male layer 1042 and the female layer 1043 of the Velcro are glued together, the steel strip 1041 is fixed to the tree trunk. By rotating the two frames 101, the two frames 101 are fitted onto the tree trunk. The two mounting plates 103 are fixed together with bolts, thereby connecting the two frames 101. Multiple clamping plates 1055 are attached to the tree trunk. Then, the eight inner rods 1054 are squeezed, causing the eight inner rods 1054 to move into the eight outer tubes 1051. The eight springs 1053 are squeezed, and the tension of the eight springs 1053 pushes the eight inner rods 1054 to move outward from the eight outer tubes 1051, so that the eight clamping plates 1055 are pressed tightly against the tree trunk and located in the center between the two frames 101 for easy installation.

[0044] Then, by hanging eight hooks 1049 on four first connecting rods 1045 and four second connecting rods 1047 respectively, the steel strip 1041 is connected to the two frames 101, so that the two frames 101 are subjected to the traction force of the steel strip 1041, thereby improving the stability after installation. The second testing device 2 is installed in the same way as the first testing device 1.

[0045] Microwaves are emitted by multiple microwave transmitting modules 107 and received by multiple microwave receiving modules 110. The microwaves received by the multiple microwave receiving modules 110 are transmitted to two integrated chip boards 1022. The two integrated chip boards 1022 process the microwave signals. Wood, as a complex medium composed of multiple components such as cellulose, hemicellulose and lignin, has a close and subtle relationship between its dielectric constant and moisture content. When microwaves propagate in the trunk or branches, their electric field interacts strongly with the water molecules in the wood. This process causes a significant change in the propagation characteristics of microwaves, mainly reflected in the amplitude attenuation and phase change of the microwave signal, thereby determining the moisture content of the tree.

[0046] Since the tree is located between the two frames 101, the distance between the two frames 101 and the tree is monitored in real time by the first ultrasonic ranging sensor 108 and the second ultrasonic ranging sensor 109, thereby determining the diameter of the tree.

[0047] Next, by opening the four latches 10212 and flipping down the two protective shells 10211, two small solar panels 1027 are exposed. The four second micro-electric telescopic rods 1029 are then extended, pushing the four first micro-electric telescopic rods 1025 to rotate. The four first micro-electric telescopic rods 1025 are then extended, pushing the two small solar panels 1027 to rotate. The four second micro-electric telescopic rods 1029 and four first micro-electric telescopic rods 1025 work together to tilt the two small solar panels 1027. Finally, two rectifiers and voltage regulators... The device 1023 rectifies and stabilizes the electrical energy generated by the two small solar panels 1027 and then sends it to the battery module 1021 for storage, so as to provide power for the equipment. When carrying, by controlling the retraction of the four second micro electric telescopic rods 1029 and the four first micro electric telescopic rods 1025, the two small solar panels 1027 are stored in the two third grooves 111. Then, the two protective shells 10211 are flipped upwards, and the two protective shells 10211 are limited by the hanging rods on the four buckles 10212 and the four hooks 10213, thereby protecting the two small solar panels 1027.

[0048] Finally, it should be noted that the above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A distributed live combustible moisture content monitoring device comprising a first detection apparatus (1), characterised in that: The first detection equipment (1) is provided with a second detection equipment (2) at the upper end of one side, and the first detection equipment (1) and the second detection equipment (2) are provided with a central controller (3) on one side. The first detection equipment (1) comprises two frames (101), the two frames (101) are arranged in front and back, one end of the two frames (101) is rotationally connected, the other end of the two frames (101) is fixedly connected with a mounting plate (103), a third groove (111) is formed in the center of the front end face of the frame (101) at the front and the center of the rear end face of the frame (101) at the back, a solar power supply module (102) is arranged in the third groove (111), a plurality of placement grooves (106) are arranged in the center of the front inner wall of the frame (101) at the front and the center of the rear inner wall of the frame (101) at the back, a plurality of microwave emission modules (107), a first ultrasonic ranging sensor (108), a second ultrasonic ranging sensor (109) and a plurality of microwave receiving modules (110) are arranged in the placement grooves (106). The solar power supply module (102) at the front and the solar power supply module (102) at the back are arranged in opposite directions.

2. A distributed live combustible moisture content monitoring device according to claim 1, characterised in that: The solar power supply module (102) at the front comprises a battery module (1021), the battery module (1021) is fixedly connected with an integrated chip board (1022) at the center of the front end face, a rectifier voltage stabilizer (1023) is arranged on the front end face of the battery module (1021) at the upper end of the integrated chip board (1022), a small solar panel (1027) is rotationally connected in the third groove (111) of the front end of the battery module (1021), a protective shell (10211) is rotationally connected in the third groove (111) of the front end of the small solar panel (1027), hooks (10213) are arranged on the upper end face of the protective shell (10211) at the back of both sides, and buckles (10212) are arranged on the upper end face of the frame (101) at the back of both sides of the hooks (10213).

3. A distributed live combustible moisture content monitoring device according to claim 2, wherein: The lower part of the front end face of each of the two battery modules (1021) is fixedly connected with a first connecting seat (1024), the front end face of each of the two first connecting seats (1024) is rotatably connected with a first micro electric telescopic rod (1025), the output end of each of the two first micro electric telescopic rods (1025) is rotatably connected with a second connecting seat (1026), the rear end face center of each of the two second connecting seats (1026) is fixedly connected with a small solar panel (1027), the rear end of the outer side wall of each of the two first micro electric telescopic rods (1025) is fixedly sleeved with a fourth connecting seat (10210), the front end face of the upper end battery module (1021) of each of the two first connecting seats (1024) is provided with a third connecting seat (1028), the front end face of each of the two third connecting seats (1028) is rotatably connected with a second micro electric telescopic rod (1029), and the output end of each of the two second micro electric telescopic rods (1029) is rotatably connected with the rear end face center of each of the two fourth connecting seats (10210).

4. A distributed live combustible moisture content monitoring device according to claim 1, wherein: The upper end of each of the two frames (101) is provided with a connecting structure (104), the connecting structure (104) comprises a steel belt (1041), the steel belt (1041) is spirally arranged, the end face of each end of the steel belt (1041) close to each other is fixedly connected with a magic tape male layer (1042) and a magic tape female layer (1043) respectively, the lower end face of the steel belt (1041) is provided with four first grooves (1044), the lower part of the inside of each of the four first grooves (1044) is fixedly connected with a first connecting rod (1045), the upper end face of each of the two frames (101) is provided with two second grooves (1046), the upper part of the inside of each of the four second grooves (1046) is fixedly connected with a second connecting rod (1047), the upper end of each of the four second grooves (1046) is provided with a traction rope (1048), and the two ends of each of the four traction ropes (1048) are fixedly connected with a hook (1049).

5. A distributed live combustible moisture content monitoring device according to claim 1, wherein: The upper and lower ends of the front inner wall of the front part of each of the frames (101) and the upper and lower ends of the rear inner wall of the rear part of each of the frames (101) are fixedly connected with a supporting structure (105), the supporting structure (105) comprises an outer tube (1051), one end of the outer tube (1051) is provided with a storage groove (1052), the inside of the storage groove (1052) is fixedly connected with a spring (1053), the other end of the spring (1053) is fixedly connected with an inner rod (1054), the other end of the inner rod (1054) penetrates through the storage groove (1052) to one side of the outer tube (1051), and the end portion is fixedly connected with a clamping plate (1055).

6. A distributed live combustible moisture content monitoring device according to claim 1, wherein: The first detection device (1) and the second detection device (2) are the same, and the size of the second detection device (2) is smaller than that of the first detection device (1).

Images